Removal of the Distal Aspect of a Broken Tibial Nail

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Removal of the Distal Aspect of a Broken Tibial Nail

Take-Home Points

  • Nail breakage is a known complication of intramedullary nail (IMN) fixation of tibial fractures.
  • Several techniques have been described for broken IMN extraction.

Intramedullary nail (IMN) fixation is reliably used to manage tibial fractures and has become very popular for managing fractures of varying complexity.1-4 An occasional complication of intramedullary nailing is nail breakage,5-7 which can result from a fatigue fracture (from excessive fracture site instability caused by inadequate nail diameter, delayed fracture healing, or fracture nonunion) and direct traumatic impact.5-7 Several case reports have described unique methods used to facilitate removal of broken hollow and solid IMNs from tibias and femurs.4,8-16 In this article, we describe an efficient technique for extracting broken tibial IMNs—a technique that can be used before attempting more invasive extraction methods. The patient provided written informed consent for print and electronic publication of this case report.

Case Report and Surgical Technique

A 34-year-old male logger presented to our facility (Department of Orthopaedics, Warren Alpert School of Medicine, Brown University) with a new fracture of the left tibia and fibula with an associated broken IMN after a tree fell on his leg at work (Figures 1A, 1B).

The same leg had been injured under the same circumstances 1 year earlier; another facility placed the nail at that time. The earlier fracture had healed with an internal rotation deformity, but the patient had been able to return to work without pain or functional deficit. Operative management was recommended for the new fracture. The 2 sets of instruments required for the broken tibial nail removal technique described in this article are the standard T2 Tibial Nailing System (Stryker) and the Implant Extraction System (Stryker).

The original IMN had been placed through a paramedian incision, with lateral to medial distal locking screws. The tibial shaft fracture and broken nail were displaced in the coronal plane (Figures 1A, 1B). For restoration of the central canal of the nail, closed reduction was performed in the operating room (Figure 2A). Once the fracture was reduced, the more proximal of the 2 distal interlocking screws was partially backed out so the extraction hook could be passed antegrade into the distal segment of the nail (Figure 2A).

The distal interlocking screw was then partially backed out so the extraction hook could be advanced through the distal segment and engage the distal aspect of the nail (Figure 2B). Several unsuccessful attempts were made to hook the distal aspect of the nail, but neither the locking holes nor the distal end of the nail could be captured (Figure 2B). Bone ingrowth prevented capture of the distal nail segment. The hook was then rotated to point 180° away from the more distal of the 2 distal interlocking screws, and this screw was advanced against the extraction hook (Figure 2C), deflecting the hook enough to engage the distal aspect of the nail (Figure 2D). The broken nail tip became lodged after partial extraction (Figure 2E). The extraction hook was removed, and a conical extraction device was used to remove the proximal segment of the nail. A ball-tipped guide wire was then passed down the intramedullary canal and through the broken distal segment of the nail to allow a reamer to widen the canal above the incarcerated nail fragment (Figure 2F). Reaming was carried out to 12.5 mm (Figure 2F). The extraction hook was then passed down again, and it engaged the distal segment of the nail and extracted it (Figure 2G).

A ball-tipped guide wire was then passed down again, and reaming was carried out distally to 11.5 mm. A new tibial nail (10 mm × 315 mm) was placed down the intramedullary canal over the guide wire. The tibia was derotated to obtain better anatomical alignment using the fracture as an osteotomy, and 2 new distal interlocking screws were placed. The nail was then back-slapped to obtain impaction, and a single proximal dynamic interlocking screw was placed.

After surgery, the patient was allowed a gradual weight-bearing protocol. At the last 3-month follow-up appointment, the patient reported no pain, was fully weight-bearing, and had improved rotational alignment. Radiographs showed evidence of interval healing (Figures 3A, 3B).

Discussion

IMN fixation of tibial fractures is reliable.1-4 An occasional complication of intramedullary nailing is nail breakage. Several case reports have described unique methods used to facilitate removal of broken hollow and solid IMNs from knees and femurs.4,8-16

Our patient’s case involved a cannulated tibial IMN that broke secondary to an acute traumatic event. Several techniques have been used to remove the distal segment of broken cannulated tibial IMNs.8,9,14,17 Abdelgawad and Kanlic8 described a technique in which a small distractor hook was introduced past the distal end of the broken distal piece, and a small (~2 in) piece of flexible nail was introduced into the slot of the distal interlocking screw hole. The hook was pulled back and became incarcerated in the nail by the flexible nail piece, allowing the hook to extract the distal segment of the nail.

Charnley and Farrington9 used Petelin laparoscopic grasping forceps to extract the distal segment of a broken cannulated tibial IMN under fluoroscopic guidance. This tibial canal was initially reamed before inserting the instrument and removing the distal segment of the nail.

Levine and Georgiadis14 used a 4.5-mm bit to drill a hole in the distal aspect of the medial malleolus. A smooth Steinmann pin was used to engage the tip of the IMN. The nail was hammered several centimeters up the medullary canal of the tibia. A 3.0-mm ball-tipped guide wire was inserted in the hole in the medial malleolus and advanced through the distal aspect of the nail under fluoroscopic guidance. The guide wire was advanced through the extent of the nail proximally until it emerged through the knee incision. The distal segment of the broken nail was extracted with the guide wire; the end of the guide wire with the ball engaged the distal aspect of the nail.

Our technique allowed us to use a nail extraction device to extract the distal segment of a broken tibial IMN. This device is usually on hand for routine nail extraction. We used the more distal of the 2 distal interlocking screws to push the extraction hook over the distal lip of the nail, allowing for extraction without additional incisions or additional drill holes in bone. Our technique was efficient in this particular situation and avoided more time-consuming extraction methods. In cases in which the extraction hook does not engage the distal aspect of the nail secondary to bone ingrowth, our technique should be used before attempting other extraction methods.

Am J Orthop. 2017;46(2):E112-E115. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

References

1. Bone LB, Kassman S, Stegemann P, France J. Prospective study of union rate of open tibial fractures treated with locked, unreamed intramedullary nails. J Orthop Trauma. 1994;8(1):45-49.

2. Blachut PA, O’Brien PJ, Meek RN, Broekhuyse HM. Interlocking intramedullary nailing with and without reaming for the treatment of closed fractures of the tibial shaft. A prospective, randomized study. J Bone Joint Surg Am. 1997;79(5):640-646.

3. Bonnevialle P, Savorit L, Combes JM, Rongières M, Bellumore Y, Mansat M. Value of intramedullary locked nailing in distal fractures of the tibia [in French]. Rev Chir Orthop Reparatrice Appar Mot. 1996;82(5):428-436.

4. Polat A, Kose O, Canbora K, Yanık S, Guler F. Intramedullary nailing versus minimally invasive plate osteosynthesis for distal extra-articular tibial fractures: a prospective randomized clinical trial. J Orthop Sci. 2015;20(4):695-701.

5. Bucholz RW, Ross SE, Lawrence KL. Fatigue fracture of the interlocking nail in the treatment of fractures of the distal part of the femoral shaft. J Bone Joint Surg Am. 1987;69(9):1391-1399.

6. Zimmerman KW, Klasen HJ. Mechanical failure of intramedullary nails after fracture union. J Bone Joint Surg Br. 1983;65(3):274-275.

7. Hahn D, Bradbury N, Hartley R, Radford PJ. Intramedullary nail breakage in distal fractures of the tibia. Injury. 1996;27(5):323-327.

8. Abdelgawad AA, Kanlic E. Removal of a broken cannulated intramedullary nail: review of the literature and a case report of a new technique. Case Rep Orthop. 2013;2013:461703.

9. Charnley GJ, Farrington WJ. Laparoscopic forceps removal of a broken tibial intramedullary nail. Injury. 1998;29(6):489-490.

10. Georgilas I, Mouzopoulos G, Neila C, Morakis E, Tzurbakis M. Removal of broken distal intramedullary nail with a simple method: a case report. Arch Orthop Trauma Surg. 2008;129(2):203-205.

11. Giannoudis PV, Matthews SJ, Smith RM. Removal of the retained fragment of broken solid nails by the intra-medullary route. Injury. 2001;32(5):407-410.

12. Gosling T, Allami M, Koenemann B, Hankemeier S, Krettek C. Minimally invasive exchange tibial nailing for a broken solid nail: case report and description of a new technique. J Orthop Trauma. 2005;19(10):744-747.

13. Hellemondt FJ, Haeff MJ. Removal of a broken solid intramedullary interlocking nail. A technical note. Acta Orthop Scand. 1996;67(5):512.

14. Levine JW, Georgiadis GM. Removal of a broken cannulated tibial nail: a simple intramedullary technique. J Orthop Trauma. 2004;18(4):247-249.

15. Schmidgen A, Naumann O, Wentzensen A. A simple and rapid method for removal of broken unreamed tibial nails [in German]. Unfallchirurg. 1999;102(12):975-978.

16. Steinberg EL, Luger E, Menahem A, Helfet DL. Removal of a broken distal closed section intramedullary nail: report of a case using a simple method. J Orthop Trauma. 2004;18(4):233-235.

17. Marwan M, Ibrahim M. Simple method for retrieval of distal segment of the broken interlocking intramedullary nail. Injury. 1999;30(5):333-335.

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Authors’ Disclosure Statement: Dr. Born reports that he receives grants from Stryker (which makes products mentioned in this article), stock options from IlluminOss and BioIntraface, and research funding from the Foundation for Orthopedic Trauma. The other authors report no actual or potential conflict of interest in relation to this article.

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Authors’ Disclosure Statement: Dr. Born reports that he receives grants from Stryker (which makes products mentioned in this article), stock options from IlluminOss and BioIntraface, and research funding from the Foundation for Orthopedic Trauma. The other authors report no actual or potential conflict of interest in relation to this article.

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Authors’ Disclosure Statement: Dr. Born reports that he receives grants from Stryker (which makes products mentioned in this article), stock options from IlluminOss and BioIntraface, and research funding from the Foundation for Orthopedic Trauma. The other authors report no actual or potential conflict of interest in relation to this article.

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Take-Home Points

  • Nail breakage is a known complication of intramedullary nail (IMN) fixation of tibial fractures.
  • Several techniques have been described for broken IMN extraction.

Intramedullary nail (IMN) fixation is reliably used to manage tibial fractures and has become very popular for managing fractures of varying complexity.1-4 An occasional complication of intramedullary nailing is nail breakage,5-7 which can result from a fatigue fracture (from excessive fracture site instability caused by inadequate nail diameter, delayed fracture healing, or fracture nonunion) and direct traumatic impact.5-7 Several case reports have described unique methods used to facilitate removal of broken hollow and solid IMNs from tibias and femurs.4,8-16 In this article, we describe an efficient technique for extracting broken tibial IMNs—a technique that can be used before attempting more invasive extraction methods. The patient provided written informed consent for print and electronic publication of this case report.

Case Report and Surgical Technique

A 34-year-old male logger presented to our facility (Department of Orthopaedics, Warren Alpert School of Medicine, Brown University) with a new fracture of the left tibia and fibula with an associated broken IMN after a tree fell on his leg at work (Figures 1A, 1B).

The same leg had been injured under the same circumstances 1 year earlier; another facility placed the nail at that time. The earlier fracture had healed with an internal rotation deformity, but the patient had been able to return to work without pain or functional deficit. Operative management was recommended for the new fracture. The 2 sets of instruments required for the broken tibial nail removal technique described in this article are the standard T2 Tibial Nailing System (Stryker) and the Implant Extraction System (Stryker).

The original IMN had been placed through a paramedian incision, with lateral to medial distal locking screws. The tibial shaft fracture and broken nail were displaced in the coronal plane (Figures 1A, 1B). For restoration of the central canal of the nail, closed reduction was performed in the operating room (Figure 2A). Once the fracture was reduced, the more proximal of the 2 distal interlocking screws was partially backed out so the extraction hook could be passed antegrade into the distal segment of the nail (Figure 2A).

The distal interlocking screw was then partially backed out so the extraction hook could be advanced through the distal segment and engage the distal aspect of the nail (Figure 2B). Several unsuccessful attempts were made to hook the distal aspect of the nail, but neither the locking holes nor the distal end of the nail could be captured (Figure 2B). Bone ingrowth prevented capture of the distal nail segment. The hook was then rotated to point 180° away from the more distal of the 2 distal interlocking screws, and this screw was advanced against the extraction hook (Figure 2C), deflecting the hook enough to engage the distal aspect of the nail (Figure 2D). The broken nail tip became lodged after partial extraction (Figure 2E). The extraction hook was removed, and a conical extraction device was used to remove the proximal segment of the nail. A ball-tipped guide wire was then passed down the intramedullary canal and through the broken distal segment of the nail to allow a reamer to widen the canal above the incarcerated nail fragment (Figure 2F). Reaming was carried out to 12.5 mm (Figure 2F). The extraction hook was then passed down again, and it engaged the distal segment of the nail and extracted it (Figure 2G).

A ball-tipped guide wire was then passed down again, and reaming was carried out distally to 11.5 mm. A new tibial nail (10 mm × 315 mm) was placed down the intramedullary canal over the guide wire. The tibia was derotated to obtain better anatomical alignment using the fracture as an osteotomy, and 2 new distal interlocking screws were placed. The nail was then back-slapped to obtain impaction, and a single proximal dynamic interlocking screw was placed.

After surgery, the patient was allowed a gradual weight-bearing protocol. At the last 3-month follow-up appointment, the patient reported no pain, was fully weight-bearing, and had improved rotational alignment. Radiographs showed evidence of interval healing (Figures 3A, 3B).

Discussion

IMN fixation of tibial fractures is reliable.1-4 An occasional complication of intramedullary nailing is nail breakage. Several case reports have described unique methods used to facilitate removal of broken hollow and solid IMNs from knees and femurs.4,8-16

Our patient’s case involved a cannulated tibial IMN that broke secondary to an acute traumatic event. Several techniques have been used to remove the distal segment of broken cannulated tibial IMNs.8,9,14,17 Abdelgawad and Kanlic8 described a technique in which a small distractor hook was introduced past the distal end of the broken distal piece, and a small (~2 in) piece of flexible nail was introduced into the slot of the distal interlocking screw hole. The hook was pulled back and became incarcerated in the nail by the flexible nail piece, allowing the hook to extract the distal segment of the nail.

Charnley and Farrington9 used Petelin laparoscopic grasping forceps to extract the distal segment of a broken cannulated tibial IMN under fluoroscopic guidance. This tibial canal was initially reamed before inserting the instrument and removing the distal segment of the nail.

Levine and Georgiadis14 used a 4.5-mm bit to drill a hole in the distal aspect of the medial malleolus. A smooth Steinmann pin was used to engage the tip of the IMN. The nail was hammered several centimeters up the medullary canal of the tibia. A 3.0-mm ball-tipped guide wire was inserted in the hole in the medial malleolus and advanced through the distal aspect of the nail under fluoroscopic guidance. The guide wire was advanced through the extent of the nail proximally until it emerged through the knee incision. The distal segment of the broken nail was extracted with the guide wire; the end of the guide wire with the ball engaged the distal aspect of the nail.

Our technique allowed us to use a nail extraction device to extract the distal segment of a broken tibial IMN. This device is usually on hand for routine nail extraction. We used the more distal of the 2 distal interlocking screws to push the extraction hook over the distal lip of the nail, allowing for extraction without additional incisions or additional drill holes in bone. Our technique was efficient in this particular situation and avoided more time-consuming extraction methods. In cases in which the extraction hook does not engage the distal aspect of the nail secondary to bone ingrowth, our technique should be used before attempting other extraction methods.

Am J Orthop. 2017;46(2):E112-E115. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

Take-Home Points

  • Nail breakage is a known complication of intramedullary nail (IMN) fixation of tibial fractures.
  • Several techniques have been described for broken IMN extraction.

Intramedullary nail (IMN) fixation is reliably used to manage tibial fractures and has become very popular for managing fractures of varying complexity.1-4 An occasional complication of intramedullary nailing is nail breakage,5-7 which can result from a fatigue fracture (from excessive fracture site instability caused by inadequate nail diameter, delayed fracture healing, or fracture nonunion) and direct traumatic impact.5-7 Several case reports have described unique methods used to facilitate removal of broken hollow and solid IMNs from tibias and femurs.4,8-16 In this article, we describe an efficient technique for extracting broken tibial IMNs—a technique that can be used before attempting more invasive extraction methods. The patient provided written informed consent for print and electronic publication of this case report.

Case Report and Surgical Technique

A 34-year-old male logger presented to our facility (Department of Orthopaedics, Warren Alpert School of Medicine, Brown University) with a new fracture of the left tibia and fibula with an associated broken IMN after a tree fell on his leg at work (Figures 1A, 1B).

The same leg had been injured under the same circumstances 1 year earlier; another facility placed the nail at that time. The earlier fracture had healed with an internal rotation deformity, but the patient had been able to return to work without pain or functional deficit. Operative management was recommended for the new fracture. The 2 sets of instruments required for the broken tibial nail removal technique described in this article are the standard T2 Tibial Nailing System (Stryker) and the Implant Extraction System (Stryker).

The original IMN had been placed through a paramedian incision, with lateral to medial distal locking screws. The tibial shaft fracture and broken nail were displaced in the coronal plane (Figures 1A, 1B). For restoration of the central canal of the nail, closed reduction was performed in the operating room (Figure 2A). Once the fracture was reduced, the more proximal of the 2 distal interlocking screws was partially backed out so the extraction hook could be passed antegrade into the distal segment of the nail (Figure 2A).

The distal interlocking screw was then partially backed out so the extraction hook could be advanced through the distal segment and engage the distal aspect of the nail (Figure 2B). Several unsuccessful attempts were made to hook the distal aspect of the nail, but neither the locking holes nor the distal end of the nail could be captured (Figure 2B). Bone ingrowth prevented capture of the distal nail segment. The hook was then rotated to point 180° away from the more distal of the 2 distal interlocking screws, and this screw was advanced against the extraction hook (Figure 2C), deflecting the hook enough to engage the distal aspect of the nail (Figure 2D). The broken nail tip became lodged after partial extraction (Figure 2E). The extraction hook was removed, and a conical extraction device was used to remove the proximal segment of the nail. A ball-tipped guide wire was then passed down the intramedullary canal and through the broken distal segment of the nail to allow a reamer to widen the canal above the incarcerated nail fragment (Figure 2F). Reaming was carried out to 12.5 mm (Figure 2F). The extraction hook was then passed down again, and it engaged the distal segment of the nail and extracted it (Figure 2G).

A ball-tipped guide wire was then passed down again, and reaming was carried out distally to 11.5 mm. A new tibial nail (10 mm × 315 mm) was placed down the intramedullary canal over the guide wire. The tibia was derotated to obtain better anatomical alignment using the fracture as an osteotomy, and 2 new distal interlocking screws were placed. The nail was then back-slapped to obtain impaction, and a single proximal dynamic interlocking screw was placed.

After surgery, the patient was allowed a gradual weight-bearing protocol. At the last 3-month follow-up appointment, the patient reported no pain, was fully weight-bearing, and had improved rotational alignment. Radiographs showed evidence of interval healing (Figures 3A, 3B).

Discussion

IMN fixation of tibial fractures is reliable.1-4 An occasional complication of intramedullary nailing is nail breakage. Several case reports have described unique methods used to facilitate removal of broken hollow and solid IMNs from knees and femurs.4,8-16

Our patient’s case involved a cannulated tibial IMN that broke secondary to an acute traumatic event. Several techniques have been used to remove the distal segment of broken cannulated tibial IMNs.8,9,14,17 Abdelgawad and Kanlic8 described a technique in which a small distractor hook was introduced past the distal end of the broken distal piece, and a small (~2 in) piece of flexible nail was introduced into the slot of the distal interlocking screw hole. The hook was pulled back and became incarcerated in the nail by the flexible nail piece, allowing the hook to extract the distal segment of the nail.

Charnley and Farrington9 used Petelin laparoscopic grasping forceps to extract the distal segment of a broken cannulated tibial IMN under fluoroscopic guidance. This tibial canal was initially reamed before inserting the instrument and removing the distal segment of the nail.

Levine and Georgiadis14 used a 4.5-mm bit to drill a hole in the distal aspect of the medial malleolus. A smooth Steinmann pin was used to engage the tip of the IMN. The nail was hammered several centimeters up the medullary canal of the tibia. A 3.0-mm ball-tipped guide wire was inserted in the hole in the medial malleolus and advanced through the distal aspect of the nail under fluoroscopic guidance. The guide wire was advanced through the extent of the nail proximally until it emerged through the knee incision. The distal segment of the broken nail was extracted with the guide wire; the end of the guide wire with the ball engaged the distal aspect of the nail.

Our technique allowed us to use a nail extraction device to extract the distal segment of a broken tibial IMN. This device is usually on hand for routine nail extraction. We used the more distal of the 2 distal interlocking screws to push the extraction hook over the distal lip of the nail, allowing for extraction without additional incisions or additional drill holes in bone. Our technique was efficient in this particular situation and avoided more time-consuming extraction methods. In cases in which the extraction hook does not engage the distal aspect of the nail secondary to bone ingrowth, our technique should be used before attempting other extraction methods.

Am J Orthop. 2017;46(2):E112-E115. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

References

1. Bone LB, Kassman S, Stegemann P, France J. Prospective study of union rate of open tibial fractures treated with locked, unreamed intramedullary nails. J Orthop Trauma. 1994;8(1):45-49.

2. Blachut PA, O’Brien PJ, Meek RN, Broekhuyse HM. Interlocking intramedullary nailing with and without reaming for the treatment of closed fractures of the tibial shaft. A prospective, randomized study. J Bone Joint Surg Am. 1997;79(5):640-646.

3. Bonnevialle P, Savorit L, Combes JM, Rongières M, Bellumore Y, Mansat M. Value of intramedullary locked nailing in distal fractures of the tibia [in French]. Rev Chir Orthop Reparatrice Appar Mot. 1996;82(5):428-436.

4. Polat A, Kose O, Canbora K, Yanık S, Guler F. Intramedullary nailing versus minimally invasive plate osteosynthesis for distal extra-articular tibial fractures: a prospective randomized clinical trial. J Orthop Sci. 2015;20(4):695-701.

5. Bucholz RW, Ross SE, Lawrence KL. Fatigue fracture of the interlocking nail in the treatment of fractures of the distal part of the femoral shaft. J Bone Joint Surg Am. 1987;69(9):1391-1399.

6. Zimmerman KW, Klasen HJ. Mechanical failure of intramedullary nails after fracture union. J Bone Joint Surg Br. 1983;65(3):274-275.

7. Hahn D, Bradbury N, Hartley R, Radford PJ. Intramedullary nail breakage in distal fractures of the tibia. Injury. 1996;27(5):323-327.

8. Abdelgawad AA, Kanlic E. Removal of a broken cannulated intramedullary nail: review of the literature and a case report of a new technique. Case Rep Orthop. 2013;2013:461703.

9. Charnley GJ, Farrington WJ. Laparoscopic forceps removal of a broken tibial intramedullary nail. Injury. 1998;29(6):489-490.

10. Georgilas I, Mouzopoulos G, Neila C, Morakis E, Tzurbakis M. Removal of broken distal intramedullary nail with a simple method: a case report. Arch Orthop Trauma Surg. 2008;129(2):203-205.

11. Giannoudis PV, Matthews SJ, Smith RM. Removal of the retained fragment of broken solid nails by the intra-medullary route. Injury. 2001;32(5):407-410.

12. Gosling T, Allami M, Koenemann B, Hankemeier S, Krettek C. Minimally invasive exchange tibial nailing for a broken solid nail: case report and description of a new technique. J Orthop Trauma. 2005;19(10):744-747.

13. Hellemondt FJ, Haeff MJ. Removal of a broken solid intramedullary interlocking nail. A technical note. Acta Orthop Scand. 1996;67(5):512.

14. Levine JW, Georgiadis GM. Removal of a broken cannulated tibial nail: a simple intramedullary technique. J Orthop Trauma. 2004;18(4):247-249.

15. Schmidgen A, Naumann O, Wentzensen A. A simple and rapid method for removal of broken unreamed tibial nails [in German]. Unfallchirurg. 1999;102(12):975-978.

16. Steinberg EL, Luger E, Menahem A, Helfet DL. Removal of a broken distal closed section intramedullary nail: report of a case using a simple method. J Orthop Trauma. 2004;18(4):233-235.

17. Marwan M, Ibrahim M. Simple method for retrieval of distal segment of the broken interlocking intramedullary nail. Injury. 1999;30(5):333-335.

References

1. Bone LB, Kassman S, Stegemann P, France J. Prospective study of union rate of open tibial fractures treated with locked, unreamed intramedullary nails. J Orthop Trauma. 1994;8(1):45-49.

2. Blachut PA, O’Brien PJ, Meek RN, Broekhuyse HM. Interlocking intramedullary nailing with and without reaming for the treatment of closed fractures of the tibial shaft. A prospective, randomized study. J Bone Joint Surg Am. 1997;79(5):640-646.

3. Bonnevialle P, Savorit L, Combes JM, Rongières M, Bellumore Y, Mansat M. Value of intramedullary locked nailing in distal fractures of the tibia [in French]. Rev Chir Orthop Reparatrice Appar Mot. 1996;82(5):428-436.

4. Polat A, Kose O, Canbora K, Yanık S, Guler F. Intramedullary nailing versus minimally invasive plate osteosynthesis for distal extra-articular tibial fractures: a prospective randomized clinical trial. J Orthop Sci. 2015;20(4):695-701.

5. Bucholz RW, Ross SE, Lawrence KL. Fatigue fracture of the interlocking nail in the treatment of fractures of the distal part of the femoral shaft. J Bone Joint Surg Am. 1987;69(9):1391-1399.

6. Zimmerman KW, Klasen HJ. Mechanical failure of intramedullary nails after fracture union. J Bone Joint Surg Br. 1983;65(3):274-275.

7. Hahn D, Bradbury N, Hartley R, Radford PJ. Intramedullary nail breakage in distal fractures of the tibia. Injury. 1996;27(5):323-327.

8. Abdelgawad AA, Kanlic E. Removal of a broken cannulated intramedullary nail: review of the literature and a case report of a new technique. Case Rep Orthop. 2013;2013:461703.

9. Charnley GJ, Farrington WJ. Laparoscopic forceps removal of a broken tibial intramedullary nail. Injury. 1998;29(6):489-490.

10. Georgilas I, Mouzopoulos G, Neila C, Morakis E, Tzurbakis M. Removal of broken distal intramedullary nail with a simple method: a case report. Arch Orthop Trauma Surg. 2008;129(2):203-205.

11. Giannoudis PV, Matthews SJ, Smith RM. Removal of the retained fragment of broken solid nails by the intra-medullary route. Injury. 2001;32(5):407-410.

12. Gosling T, Allami M, Koenemann B, Hankemeier S, Krettek C. Minimally invasive exchange tibial nailing for a broken solid nail: case report and description of a new technique. J Orthop Trauma. 2005;19(10):744-747.

13. Hellemondt FJ, Haeff MJ. Removal of a broken solid intramedullary interlocking nail. A technical note. Acta Orthop Scand. 1996;67(5):512.

14. Levine JW, Georgiadis GM. Removal of a broken cannulated tibial nail: a simple intramedullary technique. J Orthop Trauma. 2004;18(4):247-249.

15. Schmidgen A, Naumann O, Wentzensen A. A simple and rapid method for removal of broken unreamed tibial nails [in German]. Unfallchirurg. 1999;102(12):975-978.

16. Steinberg EL, Luger E, Menahem A, Helfet DL. Removal of a broken distal closed section intramedullary nail: report of a case using a simple method. J Orthop Trauma. 2004;18(4):233-235.

17. Marwan M, Ibrahim M. Simple method for retrieval of distal segment of the broken interlocking intramedullary nail. Injury. 1999;30(5):333-335.

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Severe polyarthralgia, high-grade fever, diffuse maculopapular rash on trunk and extremities • Dx?

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Severe polyarthralgia, high-grade fever, diffuse maculopapular rash on trunk and extremities • Dx?
 

THE CASE

A 30-year-old woman presented to our emergency department with severe polyarthralgia, a high-grade fever (102.6º F), and a diffuse maculopapular rash on her trunk and extremities. She had returned from her honeymoon in Jamaica 6 days earlier. During her time there, she ate local cuisine, hiked in the jungle, and was bitten by many mosquitoes. The patient was nauseous, and had been experiencing headaches, generalized weakness, and fatigue. Her physical exam revealed a maculopapular rash on her trunk and upper extremities. She had tenderness and pain, as well as decreased range of motion in her ankles, knees, and wrists. The patient had no erythema, swelling, petechiae, or bruising. She had a past medical history of Graves’ disease and had received all of her childhood immunizations.

THE DIAGNOSIS

Our lab work-up included a complete blood count, liver function tests, blood pathogens for malaria, and serologic tests for dengue fever, measles, mumps, rubella, Lyme disease, human immunodeficiency virus (HIV), and parvovirus. We ruled out dengue fever because the patient had no evidence of hemorrhage, thrombocytopenia, rising hematocrit, or neutropenia. HIV antibody screening tests were performed, although, in retrospect, confirmatory HIV quantitative RNA testing should’ve been obtained because of the acute nature of the patient’s symptoms. Regardless, the work-up was negative, with the exception of a positive parvovirus immunoglobulin G (IgG).

Given our patient’s travel history, unremarkable lab results, and physical exam (notably the rash and joint pain), we suspected that she was infected with the chikungunya virus and tested for it. The results of chikungunya serum titers returned 13 days later and were positive for both immunoglobulin M (IgM) and IgG, confirming our suspicion.

DISCUSSION

Chikungunya is a viral infection that is most commonly transmitted to humans via mosquitoes. The infection was first identified in West Africa in the mid-1900s and predominantly occurs in tropical and subtropical regions due to the numbers of mosquitoes in those areas. Since 2000, outbreaks have been most common in Africa and Asia, with the largest outbreaks occurring from 2005 to 2006.1,2 Chikungunya has since become more widespread in the Indian Ocean islands, and in 2013, it was first identified in the Caribbean islands. As of March 2017, over one million cases have been reported in the Americas, according to the Pan American Health Organization.3 In 2014, 12 locally transmitted cases were reported in Florida.4

The most common mosquito vectors for chikungunya are the Aedes albopictus (Asian tiger mosquito) and Aedes aegypti mosquitoes. These mosquitoes also transmit dengue fever, yellow fever, and Zika virus. Both of these mosquitoes are well-adapted to urban areas and can breed in standing water. A aegypti mosquitoes are found only in the southern United States, while A albopictus mosquitoes can be found in more temperate climates—areas like New York, New Jersey, and Pennsylvania.4 Both species are daytime biters, so their activity peaks during the dawn and dusk periods. Because local mosquito vectors exist as far north as New York, local transmission and outbreaks are possible in many parts of the United States.

When to suspect chikungunya, and what to look for

Suspect chikungunya in patients returning from endemic areas. After a 3- to 7-day incubation period, the clinical presentation of chikungunya typically begins with fever and malaise, followed by polyarthralgia that starts 2 to 5 days after the onset of fever. Headache, nausea, and conjunctivitis may also occur. Polyarthralgia and arthritis usually present in symmetrical distal joints and are accompanied by face and trunk flushing that is followed by a maculopapular rash. The rash predominantly appears on the trunk and limbs, but can also occur on the face, palms, and soles. Tendons and ligaments—especially the Achilles tendon—may become inflamed, as well. Symptoms typically resolve within 2 to 3 weeks, although polyarthralgia may last for months or even years.

The clinical presentation of chikungunya typically begins with fever and malaise, followed by polyarthralgia that starts 2 to 5 days after the onset of fever.

There is no known risk of transmission through breast milk or in utero, although vertical transmission through vaginal or cesarean birth is common in viremic women. Blood-borne transmission can occur in the laboratory, nosocomially, or through the transfusion of blood products if exposure occurs during the early viremic phase.1,2 Dual infections are possible (typically with yellow fever, malaria, Zika virus, or dengue fever) and should be considered based on the patient’s travel history.5 Abnormal laboratory findings are less common, but may include lymphopenia (most common), thrombocytopenia, elevations in blood urea nitrogen and creatinine (indicating an acute kidney injury), and elevated liver transaminases.

Chikungunya is generally considered a self-limiting disease, but severe atypical manifestations can lead to meningoencephalitis, respiratory failure, and even death. Severe disease is more commonly seen in infants, patients over age 65 years, and in those with chronic medical conditions.

The differential diagnosis for chikungunya virus includes dengue fever, Zika virus, malaria, measles, rubella, parvovirus, primary HIV infection, Lyme disease, and other inflammatory joint conditions. The differential depends on where a patient lives, their travel history, and exposures.

Dengue and chikungunya have similar features, which often make them difficult to distinguish. However, patients with dengue fever present more often with neutropenia, thrombocytopenia, and signs or symptoms of shock or hemorrhage.6 The chikungunya rash is typically a maculopapular rash on the trunk, hands, and feet that appears within the first 2 days of illness, as opposed to dengue, which has a similar rash, but appears later in the disease (Days 2-5). Avoid nonsteroidal anti-inflammatory drugs (NSAIDs) if dengue fever is suspected, as they can worsen hemorrhaging.7

Chikungunya is becoming more common among travelers returning to the United States from the Caribbean islands.

Zika virus typically presents with milder symptoms compared to chikungunya. Patients may have a skin rash and occasionally, conjunctivitis, but limited high fevers or joint pain. Zika rash is maculopapular, but typically starts on the face on the first day of the illness. Zika has been associated with neurological complications such as Guillain-Barré syndrome and microcephaly in fetuses of infected pregnant woman.8

 

 

 

Choice of testing modality depends on when symptoms began

Laboratory diagnosis of chikungunya can be accomplished 3 ways: viral culture, reverse transcriptase-polymerase chain reaction (RT-PCR) viral RNA, and serology.1 The choice of which modality to use depends on the time between the onset of symptoms and the date on which a serum sample is drawn.

  • If the patient presents within the first 3 days of illness, viral culture can detect chikungunya. Chikungunya virus testing is available through the Centers for Disease Control and Prevention (CDC), some state laboratories, and one commercial lab.8 Viral cultures are considered the gold standard for diagnosis, but a requirement for an elevated biosafety level, as well as a longer incubation time, make them less useful in the clinical setting.1,9
  • If symptoms started less than 5 to 8 days prior, serum should be sent for RT-PCR for viral RNA.
  • If symptoms occurred more than 8 days prior, serum should be sent for IgM and IgG serologic testing.

If the acute sample was negative (and chikungunya is still suspected), a second serum sample should be drawn 2 to 3 weeks later during the convalescent phase and sent for IgG serologic testing.

There are no specific treatments or vaccines available for chikungunya, but both live and inactivated vaccines are being tested. To prevent chikungunya virus infection, advise patients traveling to endemic areas to reduce mosquito exposure by avoiding outdoor activities during dusk and dawn, wearing long-sleeved shirts and long pants, and using an insect repellent that contains DEET. Recommend that patients who will be sleeping in a high-risk area use bed netting treated with permethrin. The CDC Web site has excellent additional information, available at http://www.cdc.gov/chikungunya.10

Our patient was briefly hospitalized due to intractable pain. She was discharged after 2 days and given prescriptions for motrin 800 mg and percocet 5/325 mg for breakthrough pain. Her wrist and ankle pain persisted after discharge, but slowly resolved after 2 to 3 months.

THE TAKEAWAY

Chikungunya is becoming more common among travelers returning to the United States from the Caribbean islands, and mosquito vectors found in parts of the United States are enhancing the possibility of local outbreaks. Travel to endemic regions—and the classic symptoms of fever, polyarthralgia, and a maculopapular rash—should lead you to put chikungunya high on the differential. Chikungunya is considered a reportable disease and treatment is largely supportive. Co-infections are possible and should be considered based on the patient’s travel history.

References

1. Pan American Health Organization. Preparedness and response for chikungunya virus: Introduction in the Americas. Washington, DC: Pan American Health Organization; 2011:1-149. Available at: http://www1.paho.org/hq/dmdocuments/CHIKV_English.pdf. Accessed March 8, 2017.

2. Enserink M. Infectious diseases. Chikungunya: no longer a third world disease. Science. 2007;318:1860-1861.

3. Pan American Health Organization. Number of reported cases of chikungunya fever in the Americas, by country or territory, 2017. Available at: http://www.paho.org/hq/index.php?option=com_docman&task=doc_download&Itemid=270&gid=38489&lang=en. Accessed March 7, 2017.

4. Centers for Disease Control and Prevention. 2014 final data for the United States. Centers for Disease Control and Prevention Web site. Available at: https://www.cdc.gov/chikungunya/geo/united-states-2014.html. Accessed March 16, 2017.

5. Nayar SK, Noridah O, Paranthaman V, et al. Co-infection of dengue virus and chikungunya virus in two patients with acute febrile illness. Med J Malaysia. 2007;62:335-336.

6. Staples JE, Fischer M. Chikungunya virus in the Americas—what a vectorborne pathogen can do. N Engl J Med. 2014;371:887-889.

7. Dengue: Guidelines for Diagnosis, Treatment, Prevention and Control: New Edition. Geneva: World Health Organization; 2009. Available at: http://www.who.int/tdr/publications/documents/dengue-diagnosis.pdf?ua=1. Accessed March 8, 2017.

8. Centers for Disease Control and Prevention. Chikungunya information for healthcare providers. 2014. Available at: https://www.cdc.gov/chikungunya/pdfs/chikv_clinicians.pdf. Accessed March 8, 2017.

9. Parida MM, Santhosh SR, Dash PK, et al. Rapid and real-time assays for detection and quantification of chikungunya virus. Future Virology. 2008;3:179-192.

10. Centers for Disease Control and Prevention. Chikungunya virus. Centers for Disease Control and Prevention Web site. Available at: http://www.cdc.gov/chikungunya. Accessed February 26, 2015.

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THE CASE

A 30-year-old woman presented to our emergency department with severe polyarthralgia, a high-grade fever (102.6º F), and a diffuse maculopapular rash on her trunk and extremities. She had returned from her honeymoon in Jamaica 6 days earlier. During her time there, she ate local cuisine, hiked in the jungle, and was bitten by many mosquitoes. The patient was nauseous, and had been experiencing headaches, generalized weakness, and fatigue. Her physical exam revealed a maculopapular rash on her trunk and upper extremities. She had tenderness and pain, as well as decreased range of motion in her ankles, knees, and wrists. The patient had no erythema, swelling, petechiae, or bruising. She had a past medical history of Graves’ disease and had received all of her childhood immunizations.

THE DIAGNOSIS

Our lab work-up included a complete blood count, liver function tests, blood pathogens for malaria, and serologic tests for dengue fever, measles, mumps, rubella, Lyme disease, human immunodeficiency virus (HIV), and parvovirus. We ruled out dengue fever because the patient had no evidence of hemorrhage, thrombocytopenia, rising hematocrit, or neutropenia. HIV antibody screening tests were performed, although, in retrospect, confirmatory HIV quantitative RNA testing should’ve been obtained because of the acute nature of the patient’s symptoms. Regardless, the work-up was negative, with the exception of a positive parvovirus immunoglobulin G (IgG).

Given our patient’s travel history, unremarkable lab results, and physical exam (notably the rash and joint pain), we suspected that she was infected with the chikungunya virus and tested for it. The results of chikungunya serum titers returned 13 days later and were positive for both immunoglobulin M (IgM) and IgG, confirming our suspicion.

DISCUSSION

Chikungunya is a viral infection that is most commonly transmitted to humans via mosquitoes. The infection was first identified in West Africa in the mid-1900s and predominantly occurs in tropical and subtropical regions due to the numbers of mosquitoes in those areas. Since 2000, outbreaks have been most common in Africa and Asia, with the largest outbreaks occurring from 2005 to 2006.1,2 Chikungunya has since become more widespread in the Indian Ocean islands, and in 2013, it was first identified in the Caribbean islands. As of March 2017, over one million cases have been reported in the Americas, according to the Pan American Health Organization.3 In 2014, 12 locally transmitted cases were reported in Florida.4

The most common mosquito vectors for chikungunya are the Aedes albopictus (Asian tiger mosquito) and Aedes aegypti mosquitoes. These mosquitoes also transmit dengue fever, yellow fever, and Zika virus. Both of these mosquitoes are well-adapted to urban areas and can breed in standing water. A aegypti mosquitoes are found only in the southern United States, while A albopictus mosquitoes can be found in more temperate climates—areas like New York, New Jersey, and Pennsylvania.4 Both species are daytime biters, so their activity peaks during the dawn and dusk periods. Because local mosquito vectors exist as far north as New York, local transmission and outbreaks are possible in many parts of the United States.

When to suspect chikungunya, and what to look for

Suspect chikungunya in patients returning from endemic areas. After a 3- to 7-day incubation period, the clinical presentation of chikungunya typically begins with fever and malaise, followed by polyarthralgia that starts 2 to 5 days after the onset of fever. Headache, nausea, and conjunctivitis may also occur. Polyarthralgia and arthritis usually present in symmetrical distal joints and are accompanied by face and trunk flushing that is followed by a maculopapular rash. The rash predominantly appears on the trunk and limbs, but can also occur on the face, palms, and soles. Tendons and ligaments—especially the Achilles tendon—may become inflamed, as well. Symptoms typically resolve within 2 to 3 weeks, although polyarthralgia may last for months or even years.

The clinical presentation of chikungunya typically begins with fever and malaise, followed by polyarthralgia that starts 2 to 5 days after the onset of fever.

There is no known risk of transmission through breast milk or in utero, although vertical transmission through vaginal or cesarean birth is common in viremic women. Blood-borne transmission can occur in the laboratory, nosocomially, or through the transfusion of blood products if exposure occurs during the early viremic phase.1,2 Dual infections are possible (typically with yellow fever, malaria, Zika virus, or dengue fever) and should be considered based on the patient’s travel history.5 Abnormal laboratory findings are less common, but may include lymphopenia (most common), thrombocytopenia, elevations in blood urea nitrogen and creatinine (indicating an acute kidney injury), and elevated liver transaminases.

Chikungunya is generally considered a self-limiting disease, but severe atypical manifestations can lead to meningoencephalitis, respiratory failure, and even death. Severe disease is more commonly seen in infants, patients over age 65 years, and in those with chronic medical conditions.

The differential diagnosis for chikungunya virus includes dengue fever, Zika virus, malaria, measles, rubella, parvovirus, primary HIV infection, Lyme disease, and other inflammatory joint conditions. The differential depends on where a patient lives, their travel history, and exposures.

Dengue and chikungunya have similar features, which often make them difficult to distinguish. However, patients with dengue fever present more often with neutropenia, thrombocytopenia, and signs or symptoms of shock or hemorrhage.6 The chikungunya rash is typically a maculopapular rash on the trunk, hands, and feet that appears within the first 2 days of illness, as opposed to dengue, which has a similar rash, but appears later in the disease (Days 2-5). Avoid nonsteroidal anti-inflammatory drugs (NSAIDs) if dengue fever is suspected, as they can worsen hemorrhaging.7

Chikungunya is becoming more common among travelers returning to the United States from the Caribbean islands.

Zika virus typically presents with milder symptoms compared to chikungunya. Patients may have a skin rash and occasionally, conjunctivitis, but limited high fevers or joint pain. Zika rash is maculopapular, but typically starts on the face on the first day of the illness. Zika has been associated with neurological complications such as Guillain-Barré syndrome and microcephaly in fetuses of infected pregnant woman.8

 

 

 

Choice of testing modality depends on when symptoms began

Laboratory diagnosis of chikungunya can be accomplished 3 ways: viral culture, reverse transcriptase-polymerase chain reaction (RT-PCR) viral RNA, and serology.1 The choice of which modality to use depends on the time between the onset of symptoms and the date on which a serum sample is drawn.

  • If the patient presents within the first 3 days of illness, viral culture can detect chikungunya. Chikungunya virus testing is available through the Centers for Disease Control and Prevention (CDC), some state laboratories, and one commercial lab.8 Viral cultures are considered the gold standard for diagnosis, but a requirement for an elevated biosafety level, as well as a longer incubation time, make them less useful in the clinical setting.1,9
  • If symptoms started less than 5 to 8 days prior, serum should be sent for RT-PCR for viral RNA.
  • If symptoms occurred more than 8 days prior, serum should be sent for IgM and IgG serologic testing.

If the acute sample was negative (and chikungunya is still suspected), a second serum sample should be drawn 2 to 3 weeks later during the convalescent phase and sent for IgG serologic testing.

There are no specific treatments or vaccines available for chikungunya, but both live and inactivated vaccines are being tested. To prevent chikungunya virus infection, advise patients traveling to endemic areas to reduce mosquito exposure by avoiding outdoor activities during dusk and dawn, wearing long-sleeved shirts and long pants, and using an insect repellent that contains DEET. Recommend that patients who will be sleeping in a high-risk area use bed netting treated with permethrin. The CDC Web site has excellent additional information, available at http://www.cdc.gov/chikungunya.10

Our patient was briefly hospitalized due to intractable pain. She was discharged after 2 days and given prescriptions for motrin 800 mg and percocet 5/325 mg for breakthrough pain. Her wrist and ankle pain persisted after discharge, but slowly resolved after 2 to 3 months.

THE TAKEAWAY

Chikungunya is becoming more common among travelers returning to the United States from the Caribbean islands, and mosquito vectors found in parts of the United States are enhancing the possibility of local outbreaks. Travel to endemic regions—and the classic symptoms of fever, polyarthralgia, and a maculopapular rash—should lead you to put chikungunya high on the differential. Chikungunya is considered a reportable disease and treatment is largely supportive. Co-infections are possible and should be considered based on the patient’s travel history.

 

THE CASE

A 30-year-old woman presented to our emergency department with severe polyarthralgia, a high-grade fever (102.6º F), and a diffuse maculopapular rash on her trunk and extremities. She had returned from her honeymoon in Jamaica 6 days earlier. During her time there, she ate local cuisine, hiked in the jungle, and was bitten by many mosquitoes. The patient was nauseous, and had been experiencing headaches, generalized weakness, and fatigue. Her physical exam revealed a maculopapular rash on her trunk and upper extremities. She had tenderness and pain, as well as decreased range of motion in her ankles, knees, and wrists. The patient had no erythema, swelling, petechiae, or bruising. She had a past medical history of Graves’ disease and had received all of her childhood immunizations.

THE DIAGNOSIS

Our lab work-up included a complete blood count, liver function tests, blood pathogens for malaria, and serologic tests for dengue fever, measles, mumps, rubella, Lyme disease, human immunodeficiency virus (HIV), and parvovirus. We ruled out dengue fever because the patient had no evidence of hemorrhage, thrombocytopenia, rising hematocrit, or neutropenia. HIV antibody screening tests were performed, although, in retrospect, confirmatory HIV quantitative RNA testing should’ve been obtained because of the acute nature of the patient’s symptoms. Regardless, the work-up was negative, with the exception of a positive parvovirus immunoglobulin G (IgG).

Given our patient’s travel history, unremarkable lab results, and physical exam (notably the rash and joint pain), we suspected that she was infected with the chikungunya virus and tested for it. The results of chikungunya serum titers returned 13 days later and were positive for both immunoglobulin M (IgM) and IgG, confirming our suspicion.

DISCUSSION

Chikungunya is a viral infection that is most commonly transmitted to humans via mosquitoes. The infection was first identified in West Africa in the mid-1900s and predominantly occurs in tropical and subtropical regions due to the numbers of mosquitoes in those areas. Since 2000, outbreaks have been most common in Africa and Asia, with the largest outbreaks occurring from 2005 to 2006.1,2 Chikungunya has since become more widespread in the Indian Ocean islands, and in 2013, it was first identified in the Caribbean islands. As of March 2017, over one million cases have been reported in the Americas, according to the Pan American Health Organization.3 In 2014, 12 locally transmitted cases were reported in Florida.4

The most common mosquito vectors for chikungunya are the Aedes albopictus (Asian tiger mosquito) and Aedes aegypti mosquitoes. These mosquitoes also transmit dengue fever, yellow fever, and Zika virus. Both of these mosquitoes are well-adapted to urban areas and can breed in standing water. A aegypti mosquitoes are found only in the southern United States, while A albopictus mosquitoes can be found in more temperate climates—areas like New York, New Jersey, and Pennsylvania.4 Both species are daytime biters, so their activity peaks during the dawn and dusk periods. Because local mosquito vectors exist as far north as New York, local transmission and outbreaks are possible in many parts of the United States.

When to suspect chikungunya, and what to look for

Suspect chikungunya in patients returning from endemic areas. After a 3- to 7-day incubation period, the clinical presentation of chikungunya typically begins with fever and malaise, followed by polyarthralgia that starts 2 to 5 days after the onset of fever. Headache, nausea, and conjunctivitis may also occur. Polyarthralgia and arthritis usually present in symmetrical distal joints and are accompanied by face and trunk flushing that is followed by a maculopapular rash. The rash predominantly appears on the trunk and limbs, but can also occur on the face, palms, and soles. Tendons and ligaments—especially the Achilles tendon—may become inflamed, as well. Symptoms typically resolve within 2 to 3 weeks, although polyarthralgia may last for months or even years.

The clinical presentation of chikungunya typically begins with fever and malaise, followed by polyarthralgia that starts 2 to 5 days after the onset of fever.

There is no known risk of transmission through breast milk or in utero, although vertical transmission through vaginal or cesarean birth is common in viremic women. Blood-borne transmission can occur in the laboratory, nosocomially, or through the transfusion of blood products if exposure occurs during the early viremic phase.1,2 Dual infections are possible (typically with yellow fever, malaria, Zika virus, or dengue fever) and should be considered based on the patient’s travel history.5 Abnormal laboratory findings are less common, but may include lymphopenia (most common), thrombocytopenia, elevations in blood urea nitrogen and creatinine (indicating an acute kidney injury), and elevated liver transaminases.

Chikungunya is generally considered a self-limiting disease, but severe atypical manifestations can lead to meningoencephalitis, respiratory failure, and even death. Severe disease is more commonly seen in infants, patients over age 65 years, and in those with chronic medical conditions.

The differential diagnosis for chikungunya virus includes dengue fever, Zika virus, malaria, measles, rubella, parvovirus, primary HIV infection, Lyme disease, and other inflammatory joint conditions. The differential depends on where a patient lives, their travel history, and exposures.

Dengue and chikungunya have similar features, which often make them difficult to distinguish. However, patients with dengue fever present more often with neutropenia, thrombocytopenia, and signs or symptoms of shock or hemorrhage.6 The chikungunya rash is typically a maculopapular rash on the trunk, hands, and feet that appears within the first 2 days of illness, as opposed to dengue, which has a similar rash, but appears later in the disease (Days 2-5). Avoid nonsteroidal anti-inflammatory drugs (NSAIDs) if dengue fever is suspected, as they can worsen hemorrhaging.7

Chikungunya is becoming more common among travelers returning to the United States from the Caribbean islands.

Zika virus typically presents with milder symptoms compared to chikungunya. Patients may have a skin rash and occasionally, conjunctivitis, but limited high fevers or joint pain. Zika rash is maculopapular, but typically starts on the face on the first day of the illness. Zika has been associated with neurological complications such as Guillain-Barré syndrome and microcephaly in fetuses of infected pregnant woman.8

 

 

 

Choice of testing modality depends on when symptoms began

Laboratory diagnosis of chikungunya can be accomplished 3 ways: viral culture, reverse transcriptase-polymerase chain reaction (RT-PCR) viral RNA, and serology.1 The choice of which modality to use depends on the time between the onset of symptoms and the date on which a serum sample is drawn.

  • If the patient presents within the first 3 days of illness, viral culture can detect chikungunya. Chikungunya virus testing is available through the Centers for Disease Control and Prevention (CDC), some state laboratories, and one commercial lab.8 Viral cultures are considered the gold standard for diagnosis, but a requirement for an elevated biosafety level, as well as a longer incubation time, make them less useful in the clinical setting.1,9
  • If symptoms started less than 5 to 8 days prior, serum should be sent for RT-PCR for viral RNA.
  • If symptoms occurred more than 8 days prior, serum should be sent for IgM and IgG serologic testing.

If the acute sample was negative (and chikungunya is still suspected), a second serum sample should be drawn 2 to 3 weeks later during the convalescent phase and sent for IgG serologic testing.

There are no specific treatments or vaccines available for chikungunya, but both live and inactivated vaccines are being tested. To prevent chikungunya virus infection, advise patients traveling to endemic areas to reduce mosquito exposure by avoiding outdoor activities during dusk and dawn, wearing long-sleeved shirts and long pants, and using an insect repellent that contains DEET. Recommend that patients who will be sleeping in a high-risk area use bed netting treated with permethrin. The CDC Web site has excellent additional information, available at http://www.cdc.gov/chikungunya.10

Our patient was briefly hospitalized due to intractable pain. She was discharged after 2 days and given prescriptions for motrin 800 mg and percocet 5/325 mg for breakthrough pain. Her wrist and ankle pain persisted after discharge, but slowly resolved after 2 to 3 months.

THE TAKEAWAY

Chikungunya is becoming more common among travelers returning to the United States from the Caribbean islands, and mosquito vectors found in parts of the United States are enhancing the possibility of local outbreaks. Travel to endemic regions—and the classic symptoms of fever, polyarthralgia, and a maculopapular rash—should lead you to put chikungunya high on the differential. Chikungunya is considered a reportable disease and treatment is largely supportive. Co-infections are possible and should be considered based on the patient’s travel history.

References

1. Pan American Health Organization. Preparedness and response for chikungunya virus: Introduction in the Americas. Washington, DC: Pan American Health Organization; 2011:1-149. Available at: http://www1.paho.org/hq/dmdocuments/CHIKV_English.pdf. Accessed March 8, 2017.

2. Enserink M. Infectious diseases. Chikungunya: no longer a third world disease. Science. 2007;318:1860-1861.

3. Pan American Health Organization. Number of reported cases of chikungunya fever in the Americas, by country or territory, 2017. Available at: http://www.paho.org/hq/index.php?option=com_docman&task=doc_download&Itemid=270&gid=38489&lang=en. Accessed March 7, 2017.

4. Centers for Disease Control and Prevention. 2014 final data for the United States. Centers for Disease Control and Prevention Web site. Available at: https://www.cdc.gov/chikungunya/geo/united-states-2014.html. Accessed March 16, 2017.

5. Nayar SK, Noridah O, Paranthaman V, et al. Co-infection of dengue virus and chikungunya virus in two patients with acute febrile illness. Med J Malaysia. 2007;62:335-336.

6. Staples JE, Fischer M. Chikungunya virus in the Americas—what a vectorborne pathogen can do. N Engl J Med. 2014;371:887-889.

7. Dengue: Guidelines for Diagnosis, Treatment, Prevention and Control: New Edition. Geneva: World Health Organization; 2009. Available at: http://www.who.int/tdr/publications/documents/dengue-diagnosis.pdf?ua=1. Accessed March 8, 2017.

8. Centers for Disease Control and Prevention. Chikungunya information for healthcare providers. 2014. Available at: https://www.cdc.gov/chikungunya/pdfs/chikv_clinicians.pdf. Accessed March 8, 2017.

9. Parida MM, Santhosh SR, Dash PK, et al. Rapid and real-time assays for detection and quantification of chikungunya virus. Future Virology. 2008;3:179-192.

10. Centers for Disease Control and Prevention. Chikungunya virus. Centers for Disease Control and Prevention Web site. Available at: http://www.cdc.gov/chikungunya. Accessed February 26, 2015.

References

1. Pan American Health Organization. Preparedness and response for chikungunya virus: Introduction in the Americas. Washington, DC: Pan American Health Organization; 2011:1-149. Available at: http://www1.paho.org/hq/dmdocuments/CHIKV_English.pdf. Accessed March 8, 2017.

2. Enserink M. Infectious diseases. Chikungunya: no longer a third world disease. Science. 2007;318:1860-1861.

3. Pan American Health Organization. Number of reported cases of chikungunya fever in the Americas, by country or territory, 2017. Available at: http://www.paho.org/hq/index.php?option=com_docman&task=doc_download&Itemid=270&gid=38489&lang=en. Accessed March 7, 2017.

4. Centers for Disease Control and Prevention. 2014 final data for the United States. Centers for Disease Control and Prevention Web site. Available at: https://www.cdc.gov/chikungunya/geo/united-states-2014.html. Accessed March 16, 2017.

5. Nayar SK, Noridah O, Paranthaman V, et al. Co-infection of dengue virus and chikungunya virus in two patients with acute febrile illness. Med J Malaysia. 2007;62:335-336.

6. Staples JE, Fischer M. Chikungunya virus in the Americas—what a vectorborne pathogen can do. N Engl J Med. 2014;371:887-889.

7. Dengue: Guidelines for Diagnosis, Treatment, Prevention and Control: New Edition. Geneva: World Health Organization; 2009. Available at: http://www.who.int/tdr/publications/documents/dengue-diagnosis.pdf?ua=1. Accessed March 8, 2017.

8. Centers for Disease Control and Prevention. Chikungunya information for healthcare providers. 2014. Available at: https://www.cdc.gov/chikungunya/pdfs/chikv_clinicians.pdf. Accessed March 8, 2017.

9. Parida MM, Santhosh SR, Dash PK, et al. Rapid and real-time assays for detection and quantification of chikungunya virus. Future Virology. 2008;3:179-192.

10. Centers for Disease Control and Prevention. Chikungunya virus. Centers for Disease Control and Prevention Web site. Available at: http://www.cdc.gov/chikungunya. Accessed February 26, 2015.

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A Rare Case of Spontaneous Fusion of the Knee

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Take-Home Points

 

  • Post-infectious or post-inflammatory pathological knee arthrodesis is one of the most challenging complications in orthopedics.
  • It can result in significant patient distress with some struggling to maintain any range of motion for functionality.
  • TKA for the correction of knee ankylosis is an option, but not without significant morbidity and failure rates.

Spontaneous knee fusion is an unusual and rarely reported phenomenon. Progressive stiffness is commonly experienced by patients with arthritis. However, most patients maintain some range of knee motion, which may be enhanced with medical treatment, rehabilitation with physiotherapy, and ambulation devices. To our knowledge, this article is the first report of a case of spontaneous and progressive bony fusion of a knee joint without a prior diagnosis of inflammatory or septic arthritis or surgical arthrodesis. The patient provided written informed consent for print and electronic publication of this case report.

Case Report

In 2015, a 51-year-old woman presented to the orthopedics department with a 13-year history of complete loss of left knee flexion. She denied a history of trauma to or surgical intervention for the knee and denied a medical history of inflammatory or septic arthritis.

On initial referral to the department, in 2002, the patient, age 38 years at the time, had a 1-year history of progressive left knee stiffness and reduced range of motion (ROM). At the time, she recalled injuring the knee during an aerobics class 2 months prior. A physiotherapy trial (ROM actively and passively assessed 10°-90°) failed. All movement was painful, and 2 crutches were needed for ambulation. The patient was treated nonoperatively with analgesia and was advised to return to physiotherapy. Plain radiographs showed a small effusion but no bony abnormalities or fractures (Figures 1A, 1B).

Bone scan showed increased uptake in the joint, and immediate blood pool scans showed increased blood flow (Figures 2A, 2B). All inflammatory markers were within normal ranges: white blood cell count, 7.71 × 109/L, erythrocyte sedimentation rate, 16 mm/hr; and C-reactive protein level, <1 nmol/L.

Four months after the initial referral, the patient returned to the outpatient department with persistent knee pain and ROM of 5° to 20°. A repeat radiograph showed extensive left knee joint destruction, cortical irregularity, and narrowing of the joint space (Figures 3A, 3B). Magnetic resonance imaging showed soft-tissue swelling with knee joint chondrolysis (Figure 4). At the time, the working diagnosis was an inflammatory phenomenon, and the plan was to perform an arthroscopy and biopsies, but the patient did not follow-up.

At the latest presentation (2015), the patient had a painless fixed extension deformity of the left knee joint and poor quality of life and wanted surgical intervention. Plain radiographs showed extensive left knee joint destruction and fusion (Figures 5A, 5B).

Discussion

We have reported a rare case of spontaneous knee fusion in a middle-aged patient with no significant predisposing factors and no clear diagnosis. Serologic results were normal and not significant, but imaging was highly suggestive of an inflammatory process and provided a probable diagnosis of an underlying inflammatory condition and/or infection.

In the literature, there are no other reports of similar cases of spontaneous knee joint fusion, though there are some rare cases of the phenomenon in other joints. In 2005, Budoff and Lichtman1 reported a case of spontaneous wrist fusion in an 18-year-old patient with a background of Kienböck disease, which may have predisposed the patient to an underlying synovitis progressing to autofusion of the joint. In 2014, Lui2 described the case of a 64-year-old woman with spontaneous subtalar fusion complicating a subtalar arthroereisis. Although an extensive literature review on the topic is difficult owing to the rarity of the condition, these few cases, unlike our case, appear to describe a predisposing factor or inciting event.

The reversibility of knee arthrodesis remains an issue in our patient’s case and in other cases, and total knee arthroplasty (TKA) may be the most obvious operative intervention. Cameron and Hu3 reported 17 cases of knee fusion take-down with conversion to TKA, and Kim and colleagues4 reported 16 TKAs performed after spontaneous osseous ankylosis and 14 performed after formal knee fusion take-down. Although functional improvements were found in both studies, complication rates were relatively high, at least 53%. Other authors have used TKAs in cases of knee ankylosis after infectious or inflammatory arthritis, but results were suboptimal and unpredictable, and complication rates were 27% and 53.3%.5,6In this difficult scenario, our middle-aged patient’s fixed extension deformity of the knee, likely the result of an idiopathic process, led to severe debilitation and poor quality of life. To perform a TKA in a 51-year-old patient is far from ideal. The reversibility of formally fused and spontaneously fused knees is still in question, and, though there are reports of relatively satisfactory results, most operative options are fraught with complications.

Am J Orthop. 2017;46(2):E83-E85. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

References

1. Budoff JE, Lichtman DM. Spontaneous wrist fusion: an unusual complication of Kienböck’s disease. J Hand Surg Am. 2005;30(1):59-64.

2. Lui TH. Spontaneous subtalar fusion: an irreversible complication of subtalar arthroereisis. J Foot Ankle Surg. 2014;53(5):652-656.

3. Cameron HU, Hu C. Results of total knee arthroplasty following takedown of formal knee fusion. J Arthroplasty. 1996;11(6):732-737.

4. Kim YH, Kim JS, Cho SH. Total knee arthroplasty after spontaneous osseous ankylosis and takedown of formal knee fusion. J Arthroplasty. 2000;15(4):453-460.

5. Rajgopal A, Ahuja N, Dolai B. Total knee arthroplasty in stiff and ankylosed knees. J Arthroplasty. 2005;20(5):585-590.

6. Kim YH, Cho SH, Kim JS. Total knee arthroplasty in bony ankylosis in gross flexion. J Bone Joint Surg Br. 1999;81(2):296-300.

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Take-Home Points

 

  • Post-infectious or post-inflammatory pathological knee arthrodesis is one of the most challenging complications in orthopedics.
  • It can result in significant patient distress with some struggling to maintain any range of motion for functionality.
  • TKA for the correction of knee ankylosis is an option, but not without significant morbidity and failure rates.

Spontaneous knee fusion is an unusual and rarely reported phenomenon. Progressive stiffness is commonly experienced by patients with arthritis. However, most patients maintain some range of knee motion, which may be enhanced with medical treatment, rehabilitation with physiotherapy, and ambulation devices. To our knowledge, this article is the first report of a case of spontaneous and progressive bony fusion of a knee joint without a prior diagnosis of inflammatory or septic arthritis or surgical arthrodesis. The patient provided written informed consent for print and electronic publication of this case report.

Case Report

In 2015, a 51-year-old woman presented to the orthopedics department with a 13-year history of complete loss of left knee flexion. She denied a history of trauma to or surgical intervention for the knee and denied a medical history of inflammatory or septic arthritis.

On initial referral to the department, in 2002, the patient, age 38 years at the time, had a 1-year history of progressive left knee stiffness and reduced range of motion (ROM). At the time, she recalled injuring the knee during an aerobics class 2 months prior. A physiotherapy trial (ROM actively and passively assessed 10°-90°) failed. All movement was painful, and 2 crutches were needed for ambulation. The patient was treated nonoperatively with analgesia and was advised to return to physiotherapy. Plain radiographs showed a small effusion but no bony abnormalities or fractures (Figures 1A, 1B).

Bone scan showed increased uptake in the joint, and immediate blood pool scans showed increased blood flow (Figures 2A, 2B). All inflammatory markers were within normal ranges: white blood cell count, 7.71 × 109/L, erythrocyte sedimentation rate, 16 mm/hr; and C-reactive protein level, <1 nmol/L.

Four months after the initial referral, the patient returned to the outpatient department with persistent knee pain and ROM of 5° to 20°. A repeat radiograph showed extensive left knee joint destruction, cortical irregularity, and narrowing of the joint space (Figures 3A, 3B). Magnetic resonance imaging showed soft-tissue swelling with knee joint chondrolysis (Figure 4). At the time, the working diagnosis was an inflammatory phenomenon, and the plan was to perform an arthroscopy and biopsies, but the patient did not follow-up.

At the latest presentation (2015), the patient had a painless fixed extension deformity of the left knee joint and poor quality of life and wanted surgical intervention. Plain radiographs showed extensive left knee joint destruction and fusion (Figures 5A, 5B).

Discussion

We have reported a rare case of spontaneous knee fusion in a middle-aged patient with no significant predisposing factors and no clear diagnosis. Serologic results were normal and not significant, but imaging was highly suggestive of an inflammatory process and provided a probable diagnosis of an underlying inflammatory condition and/or infection.

In the literature, there are no other reports of similar cases of spontaneous knee joint fusion, though there are some rare cases of the phenomenon in other joints. In 2005, Budoff and Lichtman1 reported a case of spontaneous wrist fusion in an 18-year-old patient with a background of Kienböck disease, which may have predisposed the patient to an underlying synovitis progressing to autofusion of the joint. In 2014, Lui2 described the case of a 64-year-old woman with spontaneous subtalar fusion complicating a subtalar arthroereisis. Although an extensive literature review on the topic is difficult owing to the rarity of the condition, these few cases, unlike our case, appear to describe a predisposing factor or inciting event.

The reversibility of knee arthrodesis remains an issue in our patient’s case and in other cases, and total knee arthroplasty (TKA) may be the most obvious operative intervention. Cameron and Hu3 reported 17 cases of knee fusion take-down with conversion to TKA, and Kim and colleagues4 reported 16 TKAs performed after spontaneous osseous ankylosis and 14 performed after formal knee fusion take-down. Although functional improvements were found in both studies, complication rates were relatively high, at least 53%. Other authors have used TKAs in cases of knee ankylosis after infectious or inflammatory arthritis, but results were suboptimal and unpredictable, and complication rates were 27% and 53.3%.5,6In this difficult scenario, our middle-aged patient’s fixed extension deformity of the knee, likely the result of an idiopathic process, led to severe debilitation and poor quality of life. To perform a TKA in a 51-year-old patient is far from ideal. The reversibility of formally fused and spontaneously fused knees is still in question, and, though there are reports of relatively satisfactory results, most operative options are fraught with complications.

Am J Orthop. 2017;46(2):E83-E85. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

Take-Home Points

 

  • Post-infectious or post-inflammatory pathological knee arthrodesis is one of the most challenging complications in orthopedics.
  • It can result in significant patient distress with some struggling to maintain any range of motion for functionality.
  • TKA for the correction of knee ankylosis is an option, but not without significant morbidity and failure rates.

Spontaneous knee fusion is an unusual and rarely reported phenomenon. Progressive stiffness is commonly experienced by patients with arthritis. However, most patients maintain some range of knee motion, which may be enhanced with medical treatment, rehabilitation with physiotherapy, and ambulation devices. To our knowledge, this article is the first report of a case of spontaneous and progressive bony fusion of a knee joint without a prior diagnosis of inflammatory or septic arthritis or surgical arthrodesis. The patient provided written informed consent for print and electronic publication of this case report.

Case Report

In 2015, a 51-year-old woman presented to the orthopedics department with a 13-year history of complete loss of left knee flexion. She denied a history of trauma to or surgical intervention for the knee and denied a medical history of inflammatory or septic arthritis.

On initial referral to the department, in 2002, the patient, age 38 years at the time, had a 1-year history of progressive left knee stiffness and reduced range of motion (ROM). At the time, she recalled injuring the knee during an aerobics class 2 months prior. A physiotherapy trial (ROM actively and passively assessed 10°-90°) failed. All movement was painful, and 2 crutches were needed for ambulation. The patient was treated nonoperatively with analgesia and was advised to return to physiotherapy. Plain radiographs showed a small effusion but no bony abnormalities or fractures (Figures 1A, 1B).

Bone scan showed increased uptake in the joint, and immediate blood pool scans showed increased blood flow (Figures 2A, 2B). All inflammatory markers were within normal ranges: white blood cell count, 7.71 × 109/L, erythrocyte sedimentation rate, 16 mm/hr; and C-reactive protein level, <1 nmol/L.

Four months after the initial referral, the patient returned to the outpatient department with persistent knee pain and ROM of 5° to 20°. A repeat radiograph showed extensive left knee joint destruction, cortical irregularity, and narrowing of the joint space (Figures 3A, 3B). Magnetic resonance imaging showed soft-tissue swelling with knee joint chondrolysis (Figure 4). At the time, the working diagnosis was an inflammatory phenomenon, and the plan was to perform an arthroscopy and biopsies, but the patient did not follow-up.

At the latest presentation (2015), the patient had a painless fixed extension deformity of the left knee joint and poor quality of life and wanted surgical intervention. Plain radiographs showed extensive left knee joint destruction and fusion (Figures 5A, 5B).

Discussion

We have reported a rare case of spontaneous knee fusion in a middle-aged patient with no significant predisposing factors and no clear diagnosis. Serologic results were normal and not significant, but imaging was highly suggestive of an inflammatory process and provided a probable diagnosis of an underlying inflammatory condition and/or infection.

In the literature, there are no other reports of similar cases of spontaneous knee joint fusion, though there are some rare cases of the phenomenon in other joints. In 2005, Budoff and Lichtman1 reported a case of spontaneous wrist fusion in an 18-year-old patient with a background of Kienböck disease, which may have predisposed the patient to an underlying synovitis progressing to autofusion of the joint. In 2014, Lui2 described the case of a 64-year-old woman with spontaneous subtalar fusion complicating a subtalar arthroereisis. Although an extensive literature review on the topic is difficult owing to the rarity of the condition, these few cases, unlike our case, appear to describe a predisposing factor or inciting event.

The reversibility of knee arthrodesis remains an issue in our patient’s case and in other cases, and total knee arthroplasty (TKA) may be the most obvious operative intervention. Cameron and Hu3 reported 17 cases of knee fusion take-down with conversion to TKA, and Kim and colleagues4 reported 16 TKAs performed after spontaneous osseous ankylosis and 14 performed after formal knee fusion take-down. Although functional improvements were found in both studies, complication rates were relatively high, at least 53%. Other authors have used TKAs in cases of knee ankylosis after infectious or inflammatory arthritis, but results were suboptimal and unpredictable, and complication rates were 27% and 53.3%.5,6In this difficult scenario, our middle-aged patient’s fixed extension deformity of the knee, likely the result of an idiopathic process, led to severe debilitation and poor quality of life. To perform a TKA in a 51-year-old patient is far from ideal. The reversibility of formally fused and spontaneously fused knees is still in question, and, though there are reports of relatively satisfactory results, most operative options are fraught with complications.

Am J Orthop. 2017;46(2):E83-E85. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

References

1. Budoff JE, Lichtman DM. Spontaneous wrist fusion: an unusual complication of Kienböck’s disease. J Hand Surg Am. 2005;30(1):59-64.

2. Lui TH. Spontaneous subtalar fusion: an irreversible complication of subtalar arthroereisis. J Foot Ankle Surg. 2014;53(5):652-656.

3. Cameron HU, Hu C. Results of total knee arthroplasty following takedown of formal knee fusion. J Arthroplasty. 1996;11(6):732-737.

4. Kim YH, Kim JS, Cho SH. Total knee arthroplasty after spontaneous osseous ankylosis and takedown of formal knee fusion. J Arthroplasty. 2000;15(4):453-460.

5. Rajgopal A, Ahuja N, Dolai B. Total knee arthroplasty in stiff and ankylosed knees. J Arthroplasty. 2005;20(5):585-590.

6. Kim YH, Cho SH, Kim JS. Total knee arthroplasty in bony ankylosis in gross flexion. J Bone Joint Surg Br. 1999;81(2):296-300.

References

1. Budoff JE, Lichtman DM. Spontaneous wrist fusion: an unusual complication of Kienböck’s disease. J Hand Surg Am. 2005;30(1):59-64.

2. Lui TH. Spontaneous subtalar fusion: an irreversible complication of subtalar arthroereisis. J Foot Ankle Surg. 2014;53(5):652-656.

3. Cameron HU, Hu C. Results of total knee arthroplasty following takedown of formal knee fusion. J Arthroplasty. 1996;11(6):732-737.

4. Kim YH, Kim JS, Cho SH. Total knee arthroplasty after spontaneous osseous ankylosis and takedown of formal knee fusion. J Arthroplasty. 2000;15(4):453-460.

5. Rajgopal A, Ahuja N, Dolai B. Total knee arthroplasty in stiff and ankylosed knees. J Arthroplasty. 2005;20(5):585-590.

6. Kim YH, Cho SH, Kim JS. Total knee arthroplasty in bony ankylosis in gross flexion. J Bone Joint Surg Br. 1999;81(2):296-300.

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Antiphospholipid Syndrome in a Patient With Rheumatoid Arthritis

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Case Report

A 39-year-old woman with a 20-year history of rheumatoid arthritis (RA) presented to a university-affiliated tertiary care hospital with painful ulcerations on the bilateral dorsal feet that started as bullae 16 weeks prior to presentation. Initial skin biopsy performed by an outside dermatologist 8 weeks prior to presentation showed vasculitis and culture was positive for methicillin-sensitive Staphylococcus aureus. She was started on a prednisone taper and cephalexin, which did not improve the lower extremity ulcerations and the pain became progressively worse. At the time of presentation to our dermatology department, the patient was taking prednisone, hydroxychloroquine, hydrocodone-acetaminophen, and gabapentin. Prior therapy with sulfasalazine failed; etanercept and methotrexate were discontinued years prior due to side effects. The patient had no history of deep vein thrombosis, pulmonary embolism, or miscarriage.

At presentation, the patient was afebrile and her vital signs were stable. Physical examination showed multiple ulcers and erosions on the bilateral dorsal feet with a few scattered retiform red-purple patches (Figure). One bulla was present on the right dorsal foot. All lesions were tender to the touch and edema was present on the bilateral feet. No oral ulcerations were present and no focal neuropathies or palpable cords were appreciated in the lower extremities. There were no other cutaneous abnormalities.

Multiple ulcers and erosions on the bilateral dorsal feet (A) and a bulla on the right dorsal foot (B).

Laboratory studies showed a white blood cell count of 9.54×103/µL (reference range, 4.16-9.95×103/µL), hemoglobin count of 12.4 g/dL (reference range, 11.6-15.2 g/dL), and a platelet count of 175×103/µL (reference range, 143-398×103/µL). A basic metabolic panel was normal except for an elevated glucose level of 185 mg/dL (reference range, 65-100 mg/dL). Urinalysis was normal. Erythrocyte sedimentation rate and C-reactive protein level were not elevated. Antinuclear antibodies and double-stranded DNA antibodies were normal. Prothrombin time was 10.4 seconds (reference range, 9.2-11.5 seconds) and dilute viper's venom time was negative. Rheumatoid factor level was elevated at 76 IU/mL (reference range, <25 IU/mL) and anti-citrullinated peptide antibody was moderately elevated at 42 U/mL (negative, <20 U/mL; weak positive, 20-39 U/mL; moderate positive, 40-59 U/mL; strong positive, >59 U/mL). The cardiolipin antibodies IgG, IgM, and IgA were within reference range. Results of β2-glycoprotein I IgG and IgM antibody tests were normal, but IgA was elevated at 34 µg/mL (reference range, <20 µg/mL). Wound cultures grew moderate Enterobacter cloacae and Staphylococcus lugdunensis.

Slides from 2 prior punch biopsies obtained by an outside hospital approximately 8 weeks prior from the right and left dorsal foot lesions were reviewed. Both biopsies were histologically similar. Postcapillary venules showed extensive vasculitis with numerous fibrin thrombi in the lumens in both biopsy specimens. The biopsy from the right foot showed prominent ulceration of the epidermis, with a few of the affected vessels showing minimal accompanying nuclear dust; however, the predominant pattern was not that of leukocytoclastic vasculitis. Biopsy from the left foot showed prominent epidermal necrosis with focal reepithelialization and scattered eosinophils. The pathologist felt that a vasculitis secondary to coagulopathy was most likely but that a drug reaction and rheumatoid vasculitis would be other entities to consider in the differential. A review of the laboratory findings from the outside hospital from approximately 12 weeks prior to presentation showed IgM was normal but IgG was elevated at 28 U/mL (reference range, 0-15 U/mL) and IgA was elevated at 8 U/mL (reference range, 0-7 U/mL); β2-glycoprotein I IgG antibodies were elevated at 37 mg/dL (reference range, 0-25.0 mg/dL) and β2-glycoprotein I IgA antibodies were elevated at 5 mg/dL (reference range, 0-4.0 mg/dL).

 

 

The clinical suspicion of a thrombotic event on the dorsal feet, which was confirmed histologically, and the persistently positive antiphospholipid (aPL) antibody titers helped to establish the diagnosis of antiphospholipid syndrome (APS) in the setting of RA. The dose of prednisone was increased from 10 mg daily on admission to 40 mg daily. The patient was started on enoxaparin 60 mg subcutaneously twice daily at initial presentation and was bridged to oral warfarin 2 mg daily after the diagnosis of APS was established. Oral doxycycline 100 mg twice daily was started for wound infection. The ulcerations gradually improved over the course of her 7-day hospitalization. She was continued on prednisone, hydroxychloroquine, and warfarin as an outpatient and has had no recurrence of lesions after 3 years of follow-up on this regimen.

Comment

Antiphospholipid syndrome is an autoimmune condition defined by a venous and/or arterial thrombotic event and/or pregnancy morbidity in the presence of persistently elevated aPL antibody titers. The most frequently detected subgroups of aPL are anticardiolipin (aCL) antibodies, anti-β2-glycoprotein I antibodies, and lupus anticoagulants.1 Primary APS occurs as an isolated entity, whereas secondary APS occurs in the setting of a preexisting autoimmune disease, infection, malignancy, or medication.2 The diagnostic criteria for APS requires positive aPL titers at least 12 weeks apart and a clinically confirmed thrombotic event or pregnancy morbidity.3

About one-third to half of patients with APS exhibit cutaneous manifestations.4,5 Livedo reticularis is most commonly observed and represents the first clinical sign of APS in 17.5% of cases.6 Cutaneous findings of APS also include anetoderma, cutaneous ulceration and necrosis, necrotizing vasculitis, livedoid vasculitis, thrombophlebitis, purpura, ecchymoses, painful skin nodules, and subungual hemorrhages.7 The various cutaneous manifestations of APS are associated with a range of histopathologic findings, but noninflammatory thrombosis in small arteries and/or veins in the dermis and subcutaneous fat tissue is the most common histologic feature.4 Our patient exhibited cutaneous ulceration and necrosis, and biopsy clearly showed the presence of vasculitis and fibrin thrombi within postcapillary venules. These findings along with the persistently elevated β2-glycoprotein I IgA solidified the diagnosis of APS.

The most common cutaneous manifestations of RA are nodules (32%), Raynaud phenomenon (10%), and vasculitis (3%).8 The mean prevalence of aPL antibodies in patients with RA is 28%, though reports range from 5% to 75%.1 The presence of aPL or aCL does not predict the development of thrombosis and/or thrombocytopenia in RA patients9,10; however, aCL antibodies in RA patients are associated with a higher risk for developing rheumatoid nodules. It is hypothesized that the majority of aCL antibodies identified in RA patients have different specificities than those identified in other diseases that are associated with thrombotic events.1

Anticoagulation has been proven to decrease the risk for recurrent thrombotic events in patients with APS.11 Patients should discontinue the use of estrogen-containing oral contraceptives; avoid smoking cigarettes; and treat hypertension, hyperlipidemia, and diabetes mellitus, if present. The type and duration of anticoagulation therapy, especially for the treatment of the cutaneous manifestations of APS, is less well defined. Antiplatelet therapies such as low-dose aspirin or dipyridamole often are used for less severe cutaneous manifestations such as livedoid vasculopathy. Warfarin with a target international normalized ratio of 2.0 to 3.0 is most commonly used following major thrombotic events, including cutaneous necrosis and digital gangrene. The role of corticosteroids and immunosuppressants is unclear; one study showed that these therapies did not prevent further thrombotic events in patients with systemic lupus erythematosus.4

Conclusion

Although aPL antibodies are most prevalent in patients with systemic lupus erythematosus, an estimated 28% of patients with RA have elevated aPL titers. The aPL antibodies recognized in RA patients are thought to have a different specificity than those recognized in other APS-associated diseases because elevated aPL antibody titers are not associated with an increased incidence of thrombotic events in RA patients; however, larger studies are needed to clarify this phenomenon. It remains to be determined if this case of APS and RA represents a coincidence or a true disease association, but the recognition of the cutaneous and histological features of APS is crucial for establishing a diagnosis and initiating anticoagulation therapy to prevent further morbidity and mortality.

References
  1. Olech E, Merrill JT. The prevalence and clinical significance of antiphospholipid antibodies in rheumatoid arthritis. Curr Rheumatol Rep. 2006;8:100-108.
  2. Thornsberry LA, LoSicco KI, English JC. The skin and hypercoagulable states. J Am Acad Dermatol. 2013;69:450-462.
  3. Miyakis S, Lockshin MD, Atsumi T, et al. International consensus statement on an update of the classification criteria for definite antiphospholipid syndrome (APS). J Thromb Haemost. 2006;4:295-306.
  4. Asherson A, Francès C, Iaccarino FL, et al. Theantiphospholipid antibody syndrome: diagnosis, skin manifestations and current therapy. Clin Exp Rheumatol. 2006;24(1 suppl 40):S46-S51.
  5. Cervera R, Piette JC, Font J, et al; Euro-Phospholipid Project Group. Antiphospholipid syndrome: clinical and immunologic manifestations and patterns of disease expression in a cohort of 1,000 patients. Arthritis Rheum. 2002;46:1019-1027.
  6. Francès C, Niang S, Laffitte E, et al. Dermatologic manifestations of antiphospholipid syndrome. two hundred consecutive cases. Arthritis Rheum. 2005;52:1785-1793.
  7. Gibson GE, Su WP, Pittelkow MR. Antiphospholipid syndrome and the skin. J Am Acad Dermatol. 1997;36(6, pt 1):970-982.
  8. Young A. Extra-articular manifestations and complications of rheumatoid arthritis. Best Pract Res Clin Rheumatol. 2007;21:907-927.
  9. Palomo I, Pinochet C, Alarcón M, et al. Prevalence of antiphospholipid antibodies in Chilean patients with rheumatoid arthritis. J Clin Lab Anal. 2006;20:190-194.
  10. Wolf P, Gretler J, Aglas F, et al. Anticardiolipin antibodies in rheumatoid arthritis: their relation to rheumatoid nodules and cutaneous vascular manifestations. Br J Dermatol. 1994;131:48-51.
  11. Lim W, Crowther MA, Eikelboom JW. Management of antiphospholipid antibody syndrome: a systematic review. JAMA. 2006;295:1050-1057.
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Correspondence: Scott D. Worswick, MD, Division of Dermatology, David Geffen School of Medicine at UCLA, 200 Medical Plaza, Ste 450, Los Angeles, CA 90095 (sworswick@mednet.ucla.edu).

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Case Report

A 39-year-old woman with a 20-year history of rheumatoid arthritis (RA) presented to a university-affiliated tertiary care hospital with painful ulcerations on the bilateral dorsal feet that started as bullae 16 weeks prior to presentation. Initial skin biopsy performed by an outside dermatologist 8 weeks prior to presentation showed vasculitis and culture was positive for methicillin-sensitive Staphylococcus aureus. She was started on a prednisone taper and cephalexin, which did not improve the lower extremity ulcerations and the pain became progressively worse. At the time of presentation to our dermatology department, the patient was taking prednisone, hydroxychloroquine, hydrocodone-acetaminophen, and gabapentin. Prior therapy with sulfasalazine failed; etanercept and methotrexate were discontinued years prior due to side effects. The patient had no history of deep vein thrombosis, pulmonary embolism, or miscarriage.

At presentation, the patient was afebrile and her vital signs were stable. Physical examination showed multiple ulcers and erosions on the bilateral dorsal feet with a few scattered retiform red-purple patches (Figure). One bulla was present on the right dorsal foot. All lesions were tender to the touch and edema was present on the bilateral feet. No oral ulcerations were present and no focal neuropathies or palpable cords were appreciated in the lower extremities. There were no other cutaneous abnormalities.

Multiple ulcers and erosions on the bilateral dorsal feet (A) and a bulla on the right dorsal foot (B).

Laboratory studies showed a white blood cell count of 9.54×103/µL (reference range, 4.16-9.95×103/µL), hemoglobin count of 12.4 g/dL (reference range, 11.6-15.2 g/dL), and a platelet count of 175×103/µL (reference range, 143-398×103/µL). A basic metabolic panel was normal except for an elevated glucose level of 185 mg/dL (reference range, 65-100 mg/dL). Urinalysis was normal. Erythrocyte sedimentation rate and C-reactive protein level were not elevated. Antinuclear antibodies and double-stranded DNA antibodies were normal. Prothrombin time was 10.4 seconds (reference range, 9.2-11.5 seconds) and dilute viper's venom time was negative. Rheumatoid factor level was elevated at 76 IU/mL (reference range, <25 IU/mL) and anti-citrullinated peptide antibody was moderately elevated at 42 U/mL (negative, <20 U/mL; weak positive, 20-39 U/mL; moderate positive, 40-59 U/mL; strong positive, >59 U/mL). The cardiolipin antibodies IgG, IgM, and IgA were within reference range. Results of β2-glycoprotein I IgG and IgM antibody tests were normal, but IgA was elevated at 34 µg/mL (reference range, <20 µg/mL). Wound cultures grew moderate Enterobacter cloacae and Staphylococcus lugdunensis.

Slides from 2 prior punch biopsies obtained by an outside hospital approximately 8 weeks prior from the right and left dorsal foot lesions were reviewed. Both biopsies were histologically similar. Postcapillary venules showed extensive vasculitis with numerous fibrin thrombi in the lumens in both biopsy specimens. The biopsy from the right foot showed prominent ulceration of the epidermis, with a few of the affected vessels showing minimal accompanying nuclear dust; however, the predominant pattern was not that of leukocytoclastic vasculitis. Biopsy from the left foot showed prominent epidermal necrosis with focal reepithelialization and scattered eosinophils. The pathologist felt that a vasculitis secondary to coagulopathy was most likely but that a drug reaction and rheumatoid vasculitis would be other entities to consider in the differential. A review of the laboratory findings from the outside hospital from approximately 12 weeks prior to presentation showed IgM was normal but IgG was elevated at 28 U/mL (reference range, 0-15 U/mL) and IgA was elevated at 8 U/mL (reference range, 0-7 U/mL); β2-glycoprotein I IgG antibodies were elevated at 37 mg/dL (reference range, 0-25.0 mg/dL) and β2-glycoprotein I IgA antibodies were elevated at 5 mg/dL (reference range, 0-4.0 mg/dL).

 

 

The clinical suspicion of a thrombotic event on the dorsal feet, which was confirmed histologically, and the persistently positive antiphospholipid (aPL) antibody titers helped to establish the diagnosis of antiphospholipid syndrome (APS) in the setting of RA. The dose of prednisone was increased from 10 mg daily on admission to 40 mg daily. The patient was started on enoxaparin 60 mg subcutaneously twice daily at initial presentation and was bridged to oral warfarin 2 mg daily after the diagnosis of APS was established. Oral doxycycline 100 mg twice daily was started for wound infection. The ulcerations gradually improved over the course of her 7-day hospitalization. She was continued on prednisone, hydroxychloroquine, and warfarin as an outpatient and has had no recurrence of lesions after 3 years of follow-up on this regimen.

Comment

Antiphospholipid syndrome is an autoimmune condition defined by a venous and/or arterial thrombotic event and/or pregnancy morbidity in the presence of persistently elevated aPL antibody titers. The most frequently detected subgroups of aPL are anticardiolipin (aCL) antibodies, anti-β2-glycoprotein I antibodies, and lupus anticoagulants.1 Primary APS occurs as an isolated entity, whereas secondary APS occurs in the setting of a preexisting autoimmune disease, infection, malignancy, or medication.2 The diagnostic criteria for APS requires positive aPL titers at least 12 weeks apart and a clinically confirmed thrombotic event or pregnancy morbidity.3

About one-third to half of patients with APS exhibit cutaneous manifestations.4,5 Livedo reticularis is most commonly observed and represents the first clinical sign of APS in 17.5% of cases.6 Cutaneous findings of APS also include anetoderma, cutaneous ulceration and necrosis, necrotizing vasculitis, livedoid vasculitis, thrombophlebitis, purpura, ecchymoses, painful skin nodules, and subungual hemorrhages.7 The various cutaneous manifestations of APS are associated with a range of histopathologic findings, but noninflammatory thrombosis in small arteries and/or veins in the dermis and subcutaneous fat tissue is the most common histologic feature.4 Our patient exhibited cutaneous ulceration and necrosis, and biopsy clearly showed the presence of vasculitis and fibrin thrombi within postcapillary venules. These findings along with the persistently elevated β2-glycoprotein I IgA solidified the diagnosis of APS.

The most common cutaneous manifestations of RA are nodules (32%), Raynaud phenomenon (10%), and vasculitis (3%).8 The mean prevalence of aPL antibodies in patients with RA is 28%, though reports range from 5% to 75%.1 The presence of aPL or aCL does not predict the development of thrombosis and/or thrombocytopenia in RA patients9,10; however, aCL antibodies in RA patients are associated with a higher risk for developing rheumatoid nodules. It is hypothesized that the majority of aCL antibodies identified in RA patients have different specificities than those identified in other diseases that are associated with thrombotic events.1

Anticoagulation has been proven to decrease the risk for recurrent thrombotic events in patients with APS.11 Patients should discontinue the use of estrogen-containing oral contraceptives; avoid smoking cigarettes; and treat hypertension, hyperlipidemia, and diabetes mellitus, if present. The type and duration of anticoagulation therapy, especially for the treatment of the cutaneous manifestations of APS, is less well defined. Antiplatelet therapies such as low-dose aspirin or dipyridamole often are used for less severe cutaneous manifestations such as livedoid vasculopathy. Warfarin with a target international normalized ratio of 2.0 to 3.0 is most commonly used following major thrombotic events, including cutaneous necrosis and digital gangrene. The role of corticosteroids and immunosuppressants is unclear; one study showed that these therapies did not prevent further thrombotic events in patients with systemic lupus erythematosus.4

Conclusion

Although aPL antibodies are most prevalent in patients with systemic lupus erythematosus, an estimated 28% of patients with RA have elevated aPL titers. The aPL antibodies recognized in RA patients are thought to have a different specificity than those recognized in other APS-associated diseases because elevated aPL antibody titers are not associated with an increased incidence of thrombotic events in RA patients; however, larger studies are needed to clarify this phenomenon. It remains to be determined if this case of APS and RA represents a coincidence or a true disease association, but the recognition of the cutaneous and histological features of APS is crucial for establishing a diagnosis and initiating anticoagulation therapy to prevent further morbidity and mortality.

Case Report

A 39-year-old woman with a 20-year history of rheumatoid arthritis (RA) presented to a university-affiliated tertiary care hospital with painful ulcerations on the bilateral dorsal feet that started as bullae 16 weeks prior to presentation. Initial skin biopsy performed by an outside dermatologist 8 weeks prior to presentation showed vasculitis and culture was positive for methicillin-sensitive Staphylococcus aureus. She was started on a prednisone taper and cephalexin, which did not improve the lower extremity ulcerations and the pain became progressively worse. At the time of presentation to our dermatology department, the patient was taking prednisone, hydroxychloroquine, hydrocodone-acetaminophen, and gabapentin. Prior therapy with sulfasalazine failed; etanercept and methotrexate were discontinued years prior due to side effects. The patient had no history of deep vein thrombosis, pulmonary embolism, or miscarriage.

At presentation, the patient was afebrile and her vital signs were stable. Physical examination showed multiple ulcers and erosions on the bilateral dorsal feet with a few scattered retiform red-purple patches (Figure). One bulla was present on the right dorsal foot. All lesions were tender to the touch and edema was present on the bilateral feet. No oral ulcerations were present and no focal neuropathies or palpable cords were appreciated in the lower extremities. There were no other cutaneous abnormalities.

Multiple ulcers and erosions on the bilateral dorsal feet (A) and a bulla on the right dorsal foot (B).

Laboratory studies showed a white blood cell count of 9.54×103/µL (reference range, 4.16-9.95×103/µL), hemoglobin count of 12.4 g/dL (reference range, 11.6-15.2 g/dL), and a platelet count of 175×103/µL (reference range, 143-398×103/µL). A basic metabolic panel was normal except for an elevated glucose level of 185 mg/dL (reference range, 65-100 mg/dL). Urinalysis was normal. Erythrocyte sedimentation rate and C-reactive protein level were not elevated. Antinuclear antibodies and double-stranded DNA antibodies were normal. Prothrombin time was 10.4 seconds (reference range, 9.2-11.5 seconds) and dilute viper's venom time was negative. Rheumatoid factor level was elevated at 76 IU/mL (reference range, <25 IU/mL) and anti-citrullinated peptide antibody was moderately elevated at 42 U/mL (negative, <20 U/mL; weak positive, 20-39 U/mL; moderate positive, 40-59 U/mL; strong positive, >59 U/mL). The cardiolipin antibodies IgG, IgM, and IgA were within reference range. Results of β2-glycoprotein I IgG and IgM antibody tests were normal, but IgA was elevated at 34 µg/mL (reference range, <20 µg/mL). Wound cultures grew moderate Enterobacter cloacae and Staphylococcus lugdunensis.

Slides from 2 prior punch biopsies obtained by an outside hospital approximately 8 weeks prior from the right and left dorsal foot lesions were reviewed. Both biopsies were histologically similar. Postcapillary venules showed extensive vasculitis with numerous fibrin thrombi in the lumens in both biopsy specimens. The biopsy from the right foot showed prominent ulceration of the epidermis, with a few of the affected vessels showing minimal accompanying nuclear dust; however, the predominant pattern was not that of leukocytoclastic vasculitis. Biopsy from the left foot showed prominent epidermal necrosis with focal reepithelialization and scattered eosinophils. The pathologist felt that a vasculitis secondary to coagulopathy was most likely but that a drug reaction and rheumatoid vasculitis would be other entities to consider in the differential. A review of the laboratory findings from the outside hospital from approximately 12 weeks prior to presentation showed IgM was normal but IgG was elevated at 28 U/mL (reference range, 0-15 U/mL) and IgA was elevated at 8 U/mL (reference range, 0-7 U/mL); β2-glycoprotein I IgG antibodies were elevated at 37 mg/dL (reference range, 0-25.0 mg/dL) and β2-glycoprotein I IgA antibodies were elevated at 5 mg/dL (reference range, 0-4.0 mg/dL).

 

 

The clinical suspicion of a thrombotic event on the dorsal feet, which was confirmed histologically, and the persistently positive antiphospholipid (aPL) antibody titers helped to establish the diagnosis of antiphospholipid syndrome (APS) in the setting of RA. The dose of prednisone was increased from 10 mg daily on admission to 40 mg daily. The patient was started on enoxaparin 60 mg subcutaneously twice daily at initial presentation and was bridged to oral warfarin 2 mg daily after the diagnosis of APS was established. Oral doxycycline 100 mg twice daily was started for wound infection. The ulcerations gradually improved over the course of her 7-day hospitalization. She was continued on prednisone, hydroxychloroquine, and warfarin as an outpatient and has had no recurrence of lesions after 3 years of follow-up on this regimen.

Comment

Antiphospholipid syndrome is an autoimmune condition defined by a venous and/or arterial thrombotic event and/or pregnancy morbidity in the presence of persistently elevated aPL antibody titers. The most frequently detected subgroups of aPL are anticardiolipin (aCL) antibodies, anti-β2-glycoprotein I antibodies, and lupus anticoagulants.1 Primary APS occurs as an isolated entity, whereas secondary APS occurs in the setting of a preexisting autoimmune disease, infection, malignancy, or medication.2 The diagnostic criteria for APS requires positive aPL titers at least 12 weeks apart and a clinically confirmed thrombotic event or pregnancy morbidity.3

About one-third to half of patients with APS exhibit cutaneous manifestations.4,5 Livedo reticularis is most commonly observed and represents the first clinical sign of APS in 17.5% of cases.6 Cutaneous findings of APS also include anetoderma, cutaneous ulceration and necrosis, necrotizing vasculitis, livedoid vasculitis, thrombophlebitis, purpura, ecchymoses, painful skin nodules, and subungual hemorrhages.7 The various cutaneous manifestations of APS are associated with a range of histopathologic findings, but noninflammatory thrombosis in small arteries and/or veins in the dermis and subcutaneous fat tissue is the most common histologic feature.4 Our patient exhibited cutaneous ulceration and necrosis, and biopsy clearly showed the presence of vasculitis and fibrin thrombi within postcapillary venules. These findings along with the persistently elevated β2-glycoprotein I IgA solidified the diagnosis of APS.

The most common cutaneous manifestations of RA are nodules (32%), Raynaud phenomenon (10%), and vasculitis (3%).8 The mean prevalence of aPL antibodies in patients with RA is 28%, though reports range from 5% to 75%.1 The presence of aPL or aCL does not predict the development of thrombosis and/or thrombocytopenia in RA patients9,10; however, aCL antibodies in RA patients are associated with a higher risk for developing rheumatoid nodules. It is hypothesized that the majority of aCL antibodies identified in RA patients have different specificities than those identified in other diseases that are associated with thrombotic events.1

Anticoagulation has been proven to decrease the risk for recurrent thrombotic events in patients with APS.11 Patients should discontinue the use of estrogen-containing oral contraceptives; avoid smoking cigarettes; and treat hypertension, hyperlipidemia, and diabetes mellitus, if present. The type and duration of anticoagulation therapy, especially for the treatment of the cutaneous manifestations of APS, is less well defined. Antiplatelet therapies such as low-dose aspirin or dipyridamole often are used for less severe cutaneous manifestations such as livedoid vasculopathy. Warfarin with a target international normalized ratio of 2.0 to 3.0 is most commonly used following major thrombotic events, including cutaneous necrosis and digital gangrene. The role of corticosteroids and immunosuppressants is unclear; one study showed that these therapies did not prevent further thrombotic events in patients with systemic lupus erythematosus.4

Conclusion

Although aPL antibodies are most prevalent in patients with systemic lupus erythematosus, an estimated 28% of patients with RA have elevated aPL titers. The aPL antibodies recognized in RA patients are thought to have a different specificity than those recognized in other APS-associated diseases because elevated aPL antibody titers are not associated with an increased incidence of thrombotic events in RA patients; however, larger studies are needed to clarify this phenomenon. It remains to be determined if this case of APS and RA represents a coincidence or a true disease association, but the recognition of the cutaneous and histological features of APS is crucial for establishing a diagnosis and initiating anticoagulation therapy to prevent further morbidity and mortality.

References
  1. Olech E, Merrill JT. The prevalence and clinical significance of antiphospholipid antibodies in rheumatoid arthritis. Curr Rheumatol Rep. 2006;8:100-108.
  2. Thornsberry LA, LoSicco KI, English JC. The skin and hypercoagulable states. J Am Acad Dermatol. 2013;69:450-462.
  3. Miyakis S, Lockshin MD, Atsumi T, et al. International consensus statement on an update of the classification criteria for definite antiphospholipid syndrome (APS). J Thromb Haemost. 2006;4:295-306.
  4. Asherson A, Francès C, Iaccarino FL, et al. Theantiphospholipid antibody syndrome: diagnosis, skin manifestations and current therapy. Clin Exp Rheumatol. 2006;24(1 suppl 40):S46-S51.
  5. Cervera R, Piette JC, Font J, et al; Euro-Phospholipid Project Group. Antiphospholipid syndrome: clinical and immunologic manifestations and patterns of disease expression in a cohort of 1,000 patients. Arthritis Rheum. 2002;46:1019-1027.
  6. Francès C, Niang S, Laffitte E, et al. Dermatologic manifestations of antiphospholipid syndrome. two hundred consecutive cases. Arthritis Rheum. 2005;52:1785-1793.
  7. Gibson GE, Su WP, Pittelkow MR. Antiphospholipid syndrome and the skin. J Am Acad Dermatol. 1997;36(6, pt 1):970-982.
  8. Young A. Extra-articular manifestations and complications of rheumatoid arthritis. Best Pract Res Clin Rheumatol. 2007;21:907-927.
  9. Palomo I, Pinochet C, Alarcón M, et al. Prevalence of antiphospholipid antibodies in Chilean patients with rheumatoid arthritis. J Clin Lab Anal. 2006;20:190-194.
  10. Wolf P, Gretler J, Aglas F, et al. Anticardiolipin antibodies in rheumatoid arthritis: their relation to rheumatoid nodules and cutaneous vascular manifestations. Br J Dermatol. 1994;131:48-51.
  11. Lim W, Crowther MA, Eikelboom JW. Management of antiphospholipid antibody syndrome: a systematic review. JAMA. 2006;295:1050-1057.
References
  1. Olech E, Merrill JT. The prevalence and clinical significance of antiphospholipid antibodies in rheumatoid arthritis. Curr Rheumatol Rep. 2006;8:100-108.
  2. Thornsberry LA, LoSicco KI, English JC. The skin and hypercoagulable states. J Am Acad Dermatol. 2013;69:450-462.
  3. Miyakis S, Lockshin MD, Atsumi T, et al. International consensus statement on an update of the classification criteria for definite antiphospholipid syndrome (APS). J Thromb Haemost. 2006;4:295-306.
  4. Asherson A, Francès C, Iaccarino FL, et al. Theantiphospholipid antibody syndrome: diagnosis, skin manifestations and current therapy. Clin Exp Rheumatol. 2006;24(1 suppl 40):S46-S51.
  5. Cervera R, Piette JC, Font J, et al; Euro-Phospholipid Project Group. Antiphospholipid syndrome: clinical and immunologic manifestations and patterns of disease expression in a cohort of 1,000 patients. Arthritis Rheum. 2002;46:1019-1027.
  6. Francès C, Niang S, Laffitte E, et al. Dermatologic manifestations of antiphospholipid syndrome. two hundred consecutive cases. Arthritis Rheum. 2005;52:1785-1793.
  7. Gibson GE, Su WP, Pittelkow MR. Antiphospholipid syndrome and the skin. J Am Acad Dermatol. 1997;36(6, pt 1):970-982.
  8. Young A. Extra-articular manifestations and complications of rheumatoid arthritis. Best Pract Res Clin Rheumatol. 2007;21:907-927.
  9. Palomo I, Pinochet C, Alarcón M, et al. Prevalence of antiphospholipid antibodies in Chilean patients with rheumatoid arthritis. J Clin Lab Anal. 2006;20:190-194.
  10. Wolf P, Gretler J, Aglas F, et al. Anticardiolipin antibodies in rheumatoid arthritis: their relation to rheumatoid nodules and cutaneous vascular manifestations. Br J Dermatol. 1994;131:48-51.
  11. Lim W, Crowther MA, Eikelboom JW. Management of antiphospholipid antibody syndrome: a systematic review. JAMA. 2006;295:1050-1057.
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Practice Points

  • Antiphospholipid syndrome (APS) is an autoimmune condition defined by a venous and/or arterial thrombotic event and/or pregnancy morbidity in the presence of persistently elevated antiphospholipid antibody titers.
  • Cutaneous findings of APS include livedo reticularis most commonly but also anetoderma, cutaneous ulceration and necrosis, necrotizing vasculitis, livedoid vasculitis, thrombophlebitis, purpura, ecchymoses, painful skin nodules, and subungual hemorrhages.
  • The various cutaneous manifestations of APS are associated with a range of histopathologic findings, but noninflammatory thrombosis in small arteries and/or veins in the dermis and subcutaneous fat tissue is the most common histologic feature.
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Take-Home Points

  • Pronator teres muscle injuries are rare.
  • Injury can be mistaken for MUCL injury in athletes.
  • Tenderness and weak/painful forearm pronation are common findings.
  • MRI confirms the diagnosis and helps grade the muscle strain injury.
  • Conservative treatment is recommended and prognosis is excellent even for high-grade strains.

Pronator teres muscle strain is a rare sporting injury reported only in cricket players, and now in a golfer whose forearm experienced an eccentric force during resisted elbow flexion and pronation.1,2 The injury occurs when the sporting club or racket strikes the ground during a swing, impeding forward progress and subjecting the pronator teres muscle to eccentric forces in excess of what it can withstand. The pronator teres, one of several muscles that comprise the flexor wad of the forearm, consists of 2 heads, originating proximally from the medical epicondyle and attaching distally to the shaft of the radius on its lateral surface and just distal to the supinator. The oblique orientation of the muscle belly allows it to serve in its primary rotatory role as the main pronator of the forearm. Injuries to the soft tissue of the medial forearm are common in both elite and recreational athletes, especially in racket and club sports.3 Often, these injuries are related to overuse and chronic fatigue of the surrounding soft tissue—caused by repetitive flexing, gripping, or swinging. Even when identified early, these injuries can result in a significant loss of training time.4 In this article, we report a case of pronator teres muscle tear at the myotendinous junction. The patient provided written informed consent for print and electronic publication of this case report.

Case Report

A right-hand–dominant 36-year-old man presented to the clinic with pain on the medial side of his right elbow after sustaining an injury to the elbow while playing golf several days earlier. The patient, an advertising executive, was playing recreational golf several times a month and had no significant medical history or previous symptoms related to the elbow. Initial pain symptoms began during a second round of play, immediately after the patient miss-hit an iron shot, making contact mostly with the ground and causing the club to forcefully stop. The pain was on the medial side of the elbow and forearm. The patient noted progressive swelling and bruising at the pain site and development of forearm weakness. Physical examination during the clinic presentation revealed ecchymosis on the anterior medial forearm, medial elbow, and medial triceps (Figure 1).

Mild tenderness to palpation was elicited over the medial elbow, specifically over the course of the flexor pronator mass. When the elbow was assessed for tender areas, the medial epicondyle was not tender. Range of motion (ROM) testing revealed 120° of flexion and 10° short of full extension, attributed to swelling from acute injury. The patient had full supination and pronation, but the pain was reproduced with either movement. The pain produced weakness with flexion and pronation. Valgus stress test results were normal; there was no re-creation of symptoms. The median nerve was negative for the Tinel sign, and the rest of the neurovascular examination was unremarkable. The ipsilateral shoulder was normal on examination.

Noncontrast magnetic resonance imaging (MRI) showed a high-grade partial tear of the pronator teres myotendinous junction (Figures 2A-2C).

In the surrounding tissue there was an associated increased signal representing edema. Also found was a small intramuscular hematoma. The median nerve, medial collateral ligament, distal biceps, and triceps were uninjured.

The patient was instructed to rest the elbow from strenuous activity, golf in particular, for 4 weeks. Physical therapy for ROM and forearm strengthening of the surrounding flexor wad was initiated at 2 weeks and continued for 4 weeks. The patient was advised to take over-the-counter nonsteroidal anti-inflammatory drugs as needed for comfort. On repeat examination at 4 weeks, with tenderness or weakness with pronation absent and full ROM regained, the patient was released back to full activity. He was able to return to golf and reported being symptom-free and having no sense of weakness or loss of control.

Discussion

A tear of the pronator teres is an exceedingly rare injury. Our results with conservative treatment and a full return to previous activity level are consistent with the only other case reported in the literature.5 In contrast to our patient, the previous patient sustained a tear of the pronator teres after a prolonged period of batting during a recreational cricket match.

 

 

Our patient’s pronator teres injury occurred at the myotendinous junction, a muscle-tendon transition zone often susceptible to injury. What is unusual for this athletic medial elbow injury is that the patient reported no previous symptoms, and it appears that, though the surrounding muscle may have been fatigued by overuse from the round of golf earlier that day, the pathology was caused by an acute eccentric force. During a golf swing, tremendous forces are put on the entire body, from the lower extremities to the forearm and the fingers. Successful completion of the transfer of energy from the golf club to the ball requires both proper technique and proper functioning of key muscles. Specifically, parameters such as ball positioning, club angle, and wrist control play a major role.6 Altered forearm positioning or swing arc can significantly affect club head velocity and energy transfer without putting more stress on the golfer.7 Therefore, it is easy to understand how prolonged or extended play may fatigue the surrounding elbow muscles, leading to altered technique and increased susceptibility to acute injury. Biomechanical analysis of shoulder motion can provide a helpful baseline for assessing injury-related changes in golf swing and developing specific exercise and rehabilitation programs.8,9Although injury to the pronator teres is rare, sport physicians should be aware that, after a valgus stress or force, bruising and swelling along the medial elbow do not always indicate a medial ulnar collateral ligament (MUCL) tear or medial epicondylitis. The key examination findings that differentiate this injury from a MUCL injury are the exact location of pain, the milking maneuver for MUCL incompetence, and the extensive bruising over the muscle course of the pronator teres. MRI plays a pivotal role in proper diagnosis.4 In addition, MRI allows for evaluation of any concomitant injuries that may be obscuring the clinical presentation.

Successful treatment of such injuries is important for both elite and recreational athletes. With rest and physical therapy, our patient recovered from this rare isolated injury to the pronator teres with complete resolution of symptoms and full ROM. In the literature, we found no other reports of isolated full-thickness myotendinous rupture of the pronator teres or avulsion from the medial epicondyle. Therefore, it is unclear whether the same outcome can be expected with conservative therapy. However, because of the good outcomes for partial-thickness injuries treated conservatively and the lack of robust tendinous tissue to repair at the myotendinous junction, we recommend an initial course of conservative treatment. Sports physicians should be aware of this exceedingly rare injury to the elbow and understand the large forces experienced by the soft tissues of the forearm during the golf swing.9,10

Conclusion

Pronator teres muscle strain is a rare sporting injury reported in cricket and golf players. The elbow experiences a large eccentric force during resisted elbow flexion and pronation. The injury appears to occur when the sporting club or racket strikes the ground during a forceful swing impeding forward progress of the arm. The injury can be confused with a MUCL injury, or exacerbation of medial epicondylitis. Physical examination reveals bruising and tenderness over the course of the pronator teres, often distal to the elbow. Advanced imaging confirms the diagnosis and helps grade the severity of muscle strain. Treatment is often conservative, with return to function and sport after 4 to 6 weeks of rest and restricted activities. The patient in this case report had complete return to sporting function, with no residual weakness or pain.

Am J Orthop. 2017;46(2):E105-E107. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

References

1. Field LD, Savoie FH. Common elbow injuries in sport. Sports Med. 1998;26(3):193-205.

2. Loomer RL. Elbow injuries in athletes. Can J Appl Sport Sci. 1982;7(3):164-166.

3. Dines JS, Bedi A, Williams PN, et al. Tennis injuries: epidemiology, pathophysiology, and treatment. J Am Acad Orthop Surg. 2015;23(3):181-189.

4. Banks KPLy JQBeall DPGrayson DEBancroft LWTall MA. Overuse injuries of the upper extremity in the competitive athlete: magnetic resonance imaging findings associated with repetitive trauma. Curr Probl Diagn Radiol2005;34(4):127-142.

5. Niebulski HZ, Richardson ML. High-grade pronator teres tear in a cricket batsman. Radiol Case Rep. 2015;6(3):540.

6. Zhang X, Shan G. Where do golf drive swings go wrong? Factors influencing driver swing consistency.
Scand J Med Sci Sports. 2014;24(5):749-757.

7. Nesbit SM, McGinnis RS. Kinetic constrained optimization of the golf swing hub path. J Sports Sci Med. 2014;13(4):859-873.

8. Helton MS. Conservative treatment of a proximal full-thickness biceps brachii muscle tear in a special operations soldier.
Phys Ther. 2014;94(4):571-577.

9. Mitchell K, Banks S, Morgan D, Sugaya H. Shoulder motions during the golf swing in male amateur golfers.
J Orthop Sports Phys Ther. 2003;33(4):196-203.

10. Grimshaw P, Giles A, Tong R, Grimmer K. Lower back and elbow injuries in golf. Sports Med. 2002;32(10):655-666.

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Take-Home Points

  • Pronator teres muscle injuries are rare.
  • Injury can be mistaken for MUCL injury in athletes.
  • Tenderness and weak/painful forearm pronation are common findings.
  • MRI confirms the diagnosis and helps grade the muscle strain injury.
  • Conservative treatment is recommended and prognosis is excellent even for high-grade strains.

Pronator teres muscle strain is a rare sporting injury reported only in cricket players, and now in a golfer whose forearm experienced an eccentric force during resisted elbow flexion and pronation.1,2 The injury occurs when the sporting club or racket strikes the ground during a swing, impeding forward progress and subjecting the pronator teres muscle to eccentric forces in excess of what it can withstand. The pronator teres, one of several muscles that comprise the flexor wad of the forearm, consists of 2 heads, originating proximally from the medical epicondyle and attaching distally to the shaft of the radius on its lateral surface and just distal to the supinator. The oblique orientation of the muscle belly allows it to serve in its primary rotatory role as the main pronator of the forearm. Injuries to the soft tissue of the medial forearm are common in both elite and recreational athletes, especially in racket and club sports.3 Often, these injuries are related to overuse and chronic fatigue of the surrounding soft tissue—caused by repetitive flexing, gripping, or swinging. Even when identified early, these injuries can result in a significant loss of training time.4 In this article, we report a case of pronator teres muscle tear at the myotendinous junction. The patient provided written informed consent for print and electronic publication of this case report.

Case Report

A right-hand–dominant 36-year-old man presented to the clinic with pain on the medial side of his right elbow after sustaining an injury to the elbow while playing golf several days earlier. The patient, an advertising executive, was playing recreational golf several times a month and had no significant medical history or previous symptoms related to the elbow. Initial pain symptoms began during a second round of play, immediately after the patient miss-hit an iron shot, making contact mostly with the ground and causing the club to forcefully stop. The pain was on the medial side of the elbow and forearm. The patient noted progressive swelling and bruising at the pain site and development of forearm weakness. Physical examination during the clinic presentation revealed ecchymosis on the anterior medial forearm, medial elbow, and medial triceps (Figure 1).

Mild tenderness to palpation was elicited over the medial elbow, specifically over the course of the flexor pronator mass. When the elbow was assessed for tender areas, the medial epicondyle was not tender. Range of motion (ROM) testing revealed 120° of flexion and 10° short of full extension, attributed to swelling from acute injury. The patient had full supination and pronation, but the pain was reproduced with either movement. The pain produced weakness with flexion and pronation. Valgus stress test results were normal; there was no re-creation of symptoms. The median nerve was negative for the Tinel sign, and the rest of the neurovascular examination was unremarkable. The ipsilateral shoulder was normal on examination.

Noncontrast magnetic resonance imaging (MRI) showed a high-grade partial tear of the pronator teres myotendinous junction (Figures 2A-2C).

In the surrounding tissue there was an associated increased signal representing edema. Also found was a small intramuscular hematoma. The median nerve, medial collateral ligament, distal biceps, and triceps were uninjured.

The patient was instructed to rest the elbow from strenuous activity, golf in particular, for 4 weeks. Physical therapy for ROM and forearm strengthening of the surrounding flexor wad was initiated at 2 weeks and continued for 4 weeks. The patient was advised to take over-the-counter nonsteroidal anti-inflammatory drugs as needed for comfort. On repeat examination at 4 weeks, with tenderness or weakness with pronation absent and full ROM regained, the patient was released back to full activity. He was able to return to golf and reported being symptom-free and having no sense of weakness or loss of control.

Discussion

A tear of the pronator teres is an exceedingly rare injury. Our results with conservative treatment and a full return to previous activity level are consistent with the only other case reported in the literature.5 In contrast to our patient, the previous patient sustained a tear of the pronator teres after a prolonged period of batting during a recreational cricket match.

 

 

Our patient’s pronator teres injury occurred at the myotendinous junction, a muscle-tendon transition zone often susceptible to injury. What is unusual for this athletic medial elbow injury is that the patient reported no previous symptoms, and it appears that, though the surrounding muscle may have been fatigued by overuse from the round of golf earlier that day, the pathology was caused by an acute eccentric force. During a golf swing, tremendous forces are put on the entire body, from the lower extremities to the forearm and the fingers. Successful completion of the transfer of energy from the golf club to the ball requires both proper technique and proper functioning of key muscles. Specifically, parameters such as ball positioning, club angle, and wrist control play a major role.6 Altered forearm positioning or swing arc can significantly affect club head velocity and energy transfer without putting more stress on the golfer.7 Therefore, it is easy to understand how prolonged or extended play may fatigue the surrounding elbow muscles, leading to altered technique and increased susceptibility to acute injury. Biomechanical analysis of shoulder motion can provide a helpful baseline for assessing injury-related changes in golf swing and developing specific exercise and rehabilitation programs.8,9Although injury to the pronator teres is rare, sport physicians should be aware that, after a valgus stress or force, bruising and swelling along the medial elbow do not always indicate a medial ulnar collateral ligament (MUCL) tear or medial epicondylitis. The key examination findings that differentiate this injury from a MUCL injury are the exact location of pain, the milking maneuver for MUCL incompetence, and the extensive bruising over the muscle course of the pronator teres. MRI plays a pivotal role in proper diagnosis.4 In addition, MRI allows for evaluation of any concomitant injuries that may be obscuring the clinical presentation.

Successful treatment of such injuries is important for both elite and recreational athletes. With rest and physical therapy, our patient recovered from this rare isolated injury to the pronator teres with complete resolution of symptoms and full ROM. In the literature, we found no other reports of isolated full-thickness myotendinous rupture of the pronator teres or avulsion from the medial epicondyle. Therefore, it is unclear whether the same outcome can be expected with conservative therapy. However, because of the good outcomes for partial-thickness injuries treated conservatively and the lack of robust tendinous tissue to repair at the myotendinous junction, we recommend an initial course of conservative treatment. Sports physicians should be aware of this exceedingly rare injury to the elbow and understand the large forces experienced by the soft tissues of the forearm during the golf swing.9,10

Conclusion

Pronator teres muscle strain is a rare sporting injury reported in cricket and golf players. The elbow experiences a large eccentric force during resisted elbow flexion and pronation. The injury appears to occur when the sporting club or racket strikes the ground during a forceful swing impeding forward progress of the arm. The injury can be confused with a MUCL injury, or exacerbation of medial epicondylitis. Physical examination reveals bruising and tenderness over the course of the pronator teres, often distal to the elbow. Advanced imaging confirms the diagnosis and helps grade the severity of muscle strain. Treatment is often conservative, with return to function and sport after 4 to 6 weeks of rest and restricted activities. The patient in this case report had complete return to sporting function, with no residual weakness or pain.

Am J Orthop. 2017;46(2):E105-E107. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

Take-Home Points

  • Pronator teres muscle injuries are rare.
  • Injury can be mistaken for MUCL injury in athletes.
  • Tenderness and weak/painful forearm pronation are common findings.
  • MRI confirms the diagnosis and helps grade the muscle strain injury.
  • Conservative treatment is recommended and prognosis is excellent even for high-grade strains.

Pronator teres muscle strain is a rare sporting injury reported only in cricket players, and now in a golfer whose forearm experienced an eccentric force during resisted elbow flexion and pronation.1,2 The injury occurs when the sporting club or racket strikes the ground during a swing, impeding forward progress and subjecting the pronator teres muscle to eccentric forces in excess of what it can withstand. The pronator teres, one of several muscles that comprise the flexor wad of the forearm, consists of 2 heads, originating proximally from the medical epicondyle and attaching distally to the shaft of the radius on its lateral surface and just distal to the supinator. The oblique orientation of the muscle belly allows it to serve in its primary rotatory role as the main pronator of the forearm. Injuries to the soft tissue of the medial forearm are common in both elite and recreational athletes, especially in racket and club sports.3 Often, these injuries are related to overuse and chronic fatigue of the surrounding soft tissue—caused by repetitive flexing, gripping, or swinging. Even when identified early, these injuries can result in a significant loss of training time.4 In this article, we report a case of pronator teres muscle tear at the myotendinous junction. The patient provided written informed consent for print and electronic publication of this case report.

Case Report

A right-hand–dominant 36-year-old man presented to the clinic with pain on the medial side of his right elbow after sustaining an injury to the elbow while playing golf several days earlier. The patient, an advertising executive, was playing recreational golf several times a month and had no significant medical history or previous symptoms related to the elbow. Initial pain symptoms began during a second round of play, immediately after the patient miss-hit an iron shot, making contact mostly with the ground and causing the club to forcefully stop. The pain was on the medial side of the elbow and forearm. The patient noted progressive swelling and bruising at the pain site and development of forearm weakness. Physical examination during the clinic presentation revealed ecchymosis on the anterior medial forearm, medial elbow, and medial triceps (Figure 1).

Mild tenderness to palpation was elicited over the medial elbow, specifically over the course of the flexor pronator mass. When the elbow was assessed for tender areas, the medial epicondyle was not tender. Range of motion (ROM) testing revealed 120° of flexion and 10° short of full extension, attributed to swelling from acute injury. The patient had full supination and pronation, but the pain was reproduced with either movement. The pain produced weakness with flexion and pronation. Valgus stress test results were normal; there was no re-creation of symptoms. The median nerve was negative for the Tinel sign, and the rest of the neurovascular examination was unremarkable. The ipsilateral shoulder was normal on examination.

Noncontrast magnetic resonance imaging (MRI) showed a high-grade partial tear of the pronator teres myotendinous junction (Figures 2A-2C).

In the surrounding tissue there was an associated increased signal representing edema. Also found was a small intramuscular hematoma. The median nerve, medial collateral ligament, distal biceps, and triceps were uninjured.

The patient was instructed to rest the elbow from strenuous activity, golf in particular, for 4 weeks. Physical therapy for ROM and forearm strengthening of the surrounding flexor wad was initiated at 2 weeks and continued for 4 weeks. The patient was advised to take over-the-counter nonsteroidal anti-inflammatory drugs as needed for comfort. On repeat examination at 4 weeks, with tenderness or weakness with pronation absent and full ROM regained, the patient was released back to full activity. He was able to return to golf and reported being symptom-free and having no sense of weakness or loss of control.

Discussion

A tear of the pronator teres is an exceedingly rare injury. Our results with conservative treatment and a full return to previous activity level are consistent with the only other case reported in the literature.5 In contrast to our patient, the previous patient sustained a tear of the pronator teres after a prolonged period of batting during a recreational cricket match.

 

 

Our patient’s pronator teres injury occurred at the myotendinous junction, a muscle-tendon transition zone often susceptible to injury. What is unusual for this athletic medial elbow injury is that the patient reported no previous symptoms, and it appears that, though the surrounding muscle may have been fatigued by overuse from the round of golf earlier that day, the pathology was caused by an acute eccentric force. During a golf swing, tremendous forces are put on the entire body, from the lower extremities to the forearm and the fingers. Successful completion of the transfer of energy from the golf club to the ball requires both proper technique and proper functioning of key muscles. Specifically, parameters such as ball positioning, club angle, and wrist control play a major role.6 Altered forearm positioning or swing arc can significantly affect club head velocity and energy transfer without putting more stress on the golfer.7 Therefore, it is easy to understand how prolonged or extended play may fatigue the surrounding elbow muscles, leading to altered technique and increased susceptibility to acute injury. Biomechanical analysis of shoulder motion can provide a helpful baseline for assessing injury-related changes in golf swing and developing specific exercise and rehabilitation programs.8,9Although injury to the pronator teres is rare, sport physicians should be aware that, after a valgus stress or force, bruising and swelling along the medial elbow do not always indicate a medial ulnar collateral ligament (MUCL) tear or medial epicondylitis. The key examination findings that differentiate this injury from a MUCL injury are the exact location of pain, the milking maneuver for MUCL incompetence, and the extensive bruising over the muscle course of the pronator teres. MRI plays a pivotal role in proper diagnosis.4 In addition, MRI allows for evaluation of any concomitant injuries that may be obscuring the clinical presentation.

Successful treatment of such injuries is important for both elite and recreational athletes. With rest and physical therapy, our patient recovered from this rare isolated injury to the pronator teres with complete resolution of symptoms and full ROM. In the literature, we found no other reports of isolated full-thickness myotendinous rupture of the pronator teres or avulsion from the medial epicondyle. Therefore, it is unclear whether the same outcome can be expected with conservative therapy. However, because of the good outcomes for partial-thickness injuries treated conservatively and the lack of robust tendinous tissue to repair at the myotendinous junction, we recommend an initial course of conservative treatment. Sports physicians should be aware of this exceedingly rare injury to the elbow and understand the large forces experienced by the soft tissues of the forearm during the golf swing.9,10

Conclusion

Pronator teres muscle strain is a rare sporting injury reported in cricket and golf players. The elbow experiences a large eccentric force during resisted elbow flexion and pronation. The injury appears to occur when the sporting club or racket strikes the ground during a forceful swing impeding forward progress of the arm. The injury can be confused with a MUCL injury, or exacerbation of medial epicondylitis. Physical examination reveals bruising and tenderness over the course of the pronator teres, often distal to the elbow. Advanced imaging confirms the diagnosis and helps grade the severity of muscle strain. Treatment is often conservative, with return to function and sport after 4 to 6 weeks of rest and restricted activities. The patient in this case report had complete return to sporting function, with no residual weakness or pain.

Am J Orthop. 2017;46(2):E105-E107. Copyright Frontline Medical Communications Inc. 2017. All rights reserved.

References

1. Field LD, Savoie FH. Common elbow injuries in sport. Sports Med. 1998;26(3):193-205.

2. Loomer RL. Elbow injuries in athletes. Can J Appl Sport Sci. 1982;7(3):164-166.

3. Dines JS, Bedi A, Williams PN, et al. Tennis injuries: epidemiology, pathophysiology, and treatment. J Am Acad Orthop Surg. 2015;23(3):181-189.

4. Banks KPLy JQBeall DPGrayson DEBancroft LWTall MA. Overuse injuries of the upper extremity in the competitive athlete: magnetic resonance imaging findings associated with repetitive trauma. Curr Probl Diagn Radiol2005;34(4):127-142.

5. Niebulski HZ, Richardson ML. High-grade pronator teres tear in a cricket batsman. Radiol Case Rep. 2015;6(3):540.

6. Zhang X, Shan G. Where do golf drive swings go wrong? Factors influencing driver swing consistency.
Scand J Med Sci Sports. 2014;24(5):749-757.

7. Nesbit SM, McGinnis RS. Kinetic constrained optimization of the golf swing hub path. J Sports Sci Med. 2014;13(4):859-873.

8. Helton MS. Conservative treatment of a proximal full-thickness biceps brachii muscle tear in a special operations soldier.
Phys Ther. 2014;94(4):571-577.

9. Mitchell K, Banks S, Morgan D, Sugaya H. Shoulder motions during the golf swing in male amateur golfers.
J Orthop Sports Phys Ther. 2003;33(4):196-203.

10. Grimshaw P, Giles A, Tong R, Grimmer K. Lower back and elbow injuries in golf. Sports Med. 2002;32(10):655-666.

References

1. Field LD, Savoie FH. Common elbow injuries in sport. Sports Med. 1998;26(3):193-205.

2. Loomer RL. Elbow injuries in athletes. Can J Appl Sport Sci. 1982;7(3):164-166.

3. Dines JS, Bedi A, Williams PN, et al. Tennis injuries: epidemiology, pathophysiology, and treatment. J Am Acad Orthop Surg. 2015;23(3):181-189.

4. Banks KPLy JQBeall DPGrayson DEBancroft LWTall MA. Overuse injuries of the upper extremity in the competitive athlete: magnetic resonance imaging findings associated with repetitive trauma. Curr Probl Diagn Radiol2005;34(4):127-142.

5. Niebulski HZ, Richardson ML. High-grade pronator teres tear in a cricket batsman. Radiol Case Rep. 2015;6(3):540.

6. Zhang X, Shan G. Where do golf drive swings go wrong? Factors influencing driver swing consistency.
Scand J Med Sci Sports. 2014;24(5):749-757.

7. Nesbit SM, McGinnis RS. Kinetic constrained optimization of the golf swing hub path. J Sports Sci Med. 2014;13(4):859-873.

8. Helton MS. Conservative treatment of a proximal full-thickness biceps brachii muscle tear in a special operations soldier.
Phys Ther. 2014;94(4):571-577.

9. Mitchell K, Banks S, Morgan D, Sugaya H. Shoulder motions during the golf swing in male amateur golfers.
J Orthop Sports Phys Ther. 2003;33(4):196-203.

10. Grimshaw P, Giles A, Tong R, Grimmer K. Lower back and elbow injuries in golf. Sports Med. 2002;32(10):655-666.

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Colonic Diaphragm Disease: An Important NSAID Complication to Know

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Given the widespread use of nonsteroidal anti-inflammatory drugs, physicians should recognize the symptoms of colonic diaphragm disease, a rare but serious complication that can affect the large and small intestines.

Colonic diaphragm disease (CDD) is a rare but serious complication of nonsteroidal anti‐inflammatory drug (NSAID) use in which diaphragm‐like strictures develop in the large and/or small intestines. There have been about 100 reported cases of CDD since this finding was first reported in the medical literature in 1989.1,2 However, given the frequency of NSAID use, providers should consider this diagnosis.

Case Report

An 85-year‐old woman presented to the emergency department (ED) with generalized weakness, occult positive stool, and severe anemia requiring blood transfusions. Eight months prior, she had presented to her primary care physician (PCP) for a routine visit and was found to have anemia. She was referred to gastroenterology by her PCP for an upper endoscopy but refused the referral despite clear warnings of the potential for serious complications. She was started on ferrous sulfate 325 mg po tid at that time. The patient’s hemoglobin (Hbg) levels ranged from 10.8 to 11.2 g/dL prior to her ED presentation, and random fecal occult blood testing had been negative.

In the ED, the patient reported no abdominal pain, nausea emesis or constipation. Her past medical history was significant for compensated diastolic heart failure, paroxysmal atrial fibrillation controlled by medication, and chronic lumbago. The patient had been prescribed NSAIDs for 10 years for the chronic lumbago diagnosis; however, she was inconsistent in taking this medication until more recent years. Surgical history included a hysterectomy and back surgeries in the distant past. She had no symptoms or history of inflammatory bowel disease. The patient’s medications included both the oral and topical forms of diclofenac, conjugated estrogen, nitroglycerin, amlodipine, hydrocodone bitartrate and acetaminophen 5 mg once daily, amiodarone, diazepam, valsartan, furosemide, oxycodone 5 mg nightly prn for severe pain, and ferrous sulfate 325 mg.

Significant laboratory results in the ED included a Hbg level of 8.3 g/dL; a ferritin level of 11.9 ng/mL, and a serum iron level of 12 mg/dL. A computerized tomography scan of the abdomen and pelvis was normal. The patient was admitted, received a blood transfusion, and a gastroenterology consult was obtained for an upper and lower endoscopy. Although copy was normal, the colonoscopy revealed evidence of CDD of the ascending colon.

Colonic Diaphragm Disease

The gross findings seen on this patient’s colonoscopy showed evidence of the development of an internal colonic stricture from the fibrous overgrowth of the diaphragm (Figures A, B, & C). The narrow lumen is exhibited particularly well in Figure A in the upper left image. The external surface of the intestine appears normal.

Presentation and Evaluation

The presenting symptoms of CDD can vary and include abdominal pain, vomiting, lower gastrointestinal bleeding, anemia, and intestinal obstruction/perforation. Evidence seems to suggest a greater association with use of the oxicams (meloxicam, piroxicam) or diclofenac.1,2 Some researchers have suggested an association with long‐acting NSAID formulations.1 The use of misoprostol or proton pump inhibitors does not seem to lessen the chance of stricture formulation.2 Cox‐2 inhibitors are less likely players in the development of CDD.2 Most diaphragms in the large colon have been noted in the cecum, ascending and transverse colon, though descending colonic lesions have been documented as well.1

The incidence of CDD is higher among women and occurs most often in the seventh decade of life. Correlation with the duration of NSAID use prior to disease onset varies widely, with studies documenting disease onset from 3 months to 5 years after initiating consistent NSAID use.1 The patient in this case study was prescribed NSAIDs for almost 10 years, although she had poor adherence. One study also notes a possible association of CYP2C9*3 genetic polymorphism with the propensity to develop CDD. This finding is particularly interesting since NSAIDs are principally metabolized by CYP2C9 in the liver. CYP2C9 polymorphisms are thought to induce higher plasma concentrations of NSAIDs over time, which may lead to the formation of colonic diaphragms.2

Endoscopy with biopsy is the diagnostic modality of choice. Use of capsule endoscopy is limited because the capsule may not be able to pass through narrow stricture walls.

Pathology and Histology

The mechanism by which NSAIDs induce the formation of colonic diaphragms may be related to these medications’ effects on mucosal integrity, vasoconstriction, and vascular spasm. These effects may lead to “erosions, ulceration, and diaphragm-like strictures.”3

The primary histologic feature of these strictures is submucosal fibrosis with an intact muscularis propria. Prominent features also include areas of ulceration and granulation.1 The widened submucosa results in annular constriction of the intestinal lumen with disorganized bundles of smooth muscle, unmyelinated nerve bundles, scattered ganglion cells, and blood vessels. This morphology can resemble a node or mass.4 The mucosa is typically normal.5 Conditions such as vascular and neuromuscular hamartoma can resemble CDD. Interestingly, the fibrous changes in CDD have been noted apart from NSAID use, leading to speculation that diaphragm formation may be a result of injury and not exclusively a reaction to NSAID use.5

 

 

Treatment

Recommendations include NSAID withdrawal, endoscopic/fluoroscopic dilatation, and surgical resection. Outcomes with these treatment approaches have been highly variable. For some patients, NSAID withdrawal alone or following resection has resulted in success. However, even with withdrawal of NSAIDs, symptoms may improve, although the histologic findings of CDD may not be reversed.3,6 In one case report, a colonic stricture persisted endoscopically after NSAID withdrawal but resolved after a 20-week course of prednisone.7

Conclusion

Despite NSAID cessation, the patient in this case study presented a month later with an acute bowel obstruction. The bowel obstruction responded to conservative treatment, and the patient declined surgical intervention. The patient was readmitted again 4 months later with an acute bowel obstruction, and underwent an emergent colonic resection. The pathology report was consistent with CDD. In the 3 years since the resection, the patient has had no recurrences and continues to avoid all NSAIDs. She has refused a follow-up postresection colonoscopy.

References

1. Munipalle PC, Garud T, Light D. Diaphragmatic disease of the colon: systematic review. Colorectal Dis. 2013;15(9):1063-1069.

2. Ishihara M, Ohmiya N, Nakamura M, et al. Risk factors of symptomatic NSAID-induced small intestinal injury and diaphragm disease. Aliment Pharmacol Ther. 2014;40(5):538-547.

3. Keeling AN, Davis JL, Williams A, Sabharwal T, Adam A. Fluoroscopically guided balloon dilation of NSAID-induced colonic diaphragm. J Vasc Interv Radiol. 2007;18(8):1060-1062.

4. Yousfi MM, De Petris G, Leighton JA, et al. Diaphragm disease after use of nonsteroidal anti-inflammatory agents: first report of diagnosis with capsule endoscopy. J Clin Gastroenterol. 2004;38(8):686-691.

5. Pilgrim S, Velchuru V, Waters G, Tsiamis A, Lal R. Diaphragm disease and small bowel enteropathy due to nonsteroidal anti-inflammatory drugs: a surgical perspective. Colorectal Dis. 2011;13(4):463-466.

6. Munipalle PC, Little M, Garud T, Henderson D. NSAID-induced diaphragmatic disease of the colon. BMJ Case Rep. 2013;2013:pii:bcr2012008448.

7. Penner RM, Williams CN. Resolution of multiple severe nonsteroidal anti-inflammatory drug-induced colonic strictures with prednisone therapy: a case report and review of the literature. Can J Gastroenterol. 2003;17(8):497-500.

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Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of
Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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Dr. Farricielli is a hospitalist, and CAPT Sanderson is chief, internal medicine, both at the Phoenix Indian Medical Center in Arizona.

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Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of
Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

Author and Disclosure Information

Dr. Farricielli is a hospitalist, and CAPT Sanderson is chief, internal medicine, both at the Phoenix Indian Medical Center in Arizona.

Author disclosures
The authors report no actual or potential conflicts of interest with regard to this article.

Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of
Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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Related Articles
Given the widespread use of nonsteroidal anti-inflammatory drugs, physicians should recognize the symptoms of colonic diaphragm disease, a rare but serious complication that can affect the large and small intestines.
Given the widespread use of nonsteroidal anti-inflammatory drugs, physicians should recognize the symptoms of colonic diaphragm disease, a rare but serious complication that can affect the large and small intestines.

Colonic diaphragm disease (CDD) is a rare but serious complication of nonsteroidal anti‐inflammatory drug (NSAID) use in which diaphragm‐like strictures develop in the large and/or small intestines. There have been about 100 reported cases of CDD since this finding was first reported in the medical literature in 1989.1,2 However, given the frequency of NSAID use, providers should consider this diagnosis.

Case Report

An 85-year‐old woman presented to the emergency department (ED) with generalized weakness, occult positive stool, and severe anemia requiring blood transfusions. Eight months prior, she had presented to her primary care physician (PCP) for a routine visit and was found to have anemia. She was referred to gastroenterology by her PCP for an upper endoscopy but refused the referral despite clear warnings of the potential for serious complications. She was started on ferrous sulfate 325 mg po tid at that time. The patient’s hemoglobin (Hbg) levels ranged from 10.8 to 11.2 g/dL prior to her ED presentation, and random fecal occult blood testing had been negative.

In the ED, the patient reported no abdominal pain, nausea emesis or constipation. Her past medical history was significant for compensated diastolic heart failure, paroxysmal atrial fibrillation controlled by medication, and chronic lumbago. The patient had been prescribed NSAIDs for 10 years for the chronic lumbago diagnosis; however, she was inconsistent in taking this medication until more recent years. Surgical history included a hysterectomy and back surgeries in the distant past. She had no symptoms or history of inflammatory bowel disease. The patient’s medications included both the oral and topical forms of diclofenac, conjugated estrogen, nitroglycerin, amlodipine, hydrocodone bitartrate and acetaminophen 5 mg once daily, amiodarone, diazepam, valsartan, furosemide, oxycodone 5 mg nightly prn for severe pain, and ferrous sulfate 325 mg.

Significant laboratory results in the ED included a Hbg level of 8.3 g/dL; a ferritin level of 11.9 ng/mL, and a serum iron level of 12 mg/dL. A computerized tomography scan of the abdomen and pelvis was normal. The patient was admitted, received a blood transfusion, and a gastroenterology consult was obtained for an upper and lower endoscopy. Although copy was normal, the colonoscopy revealed evidence of CDD of the ascending colon.

Colonic Diaphragm Disease

The gross findings seen on this patient’s colonoscopy showed evidence of the development of an internal colonic stricture from the fibrous overgrowth of the diaphragm (Figures A, B, & C). The narrow lumen is exhibited particularly well in Figure A in the upper left image. The external surface of the intestine appears normal.

Presentation and Evaluation

The presenting symptoms of CDD can vary and include abdominal pain, vomiting, lower gastrointestinal bleeding, anemia, and intestinal obstruction/perforation. Evidence seems to suggest a greater association with use of the oxicams (meloxicam, piroxicam) or diclofenac.1,2 Some researchers have suggested an association with long‐acting NSAID formulations.1 The use of misoprostol or proton pump inhibitors does not seem to lessen the chance of stricture formulation.2 Cox‐2 inhibitors are less likely players in the development of CDD.2 Most diaphragms in the large colon have been noted in the cecum, ascending and transverse colon, though descending colonic lesions have been documented as well.1

The incidence of CDD is higher among women and occurs most often in the seventh decade of life. Correlation with the duration of NSAID use prior to disease onset varies widely, with studies documenting disease onset from 3 months to 5 years after initiating consistent NSAID use.1 The patient in this case study was prescribed NSAIDs for almost 10 years, although she had poor adherence. One study also notes a possible association of CYP2C9*3 genetic polymorphism with the propensity to develop CDD. This finding is particularly interesting since NSAIDs are principally metabolized by CYP2C9 in the liver. CYP2C9 polymorphisms are thought to induce higher plasma concentrations of NSAIDs over time, which may lead to the formation of colonic diaphragms.2

Endoscopy with biopsy is the diagnostic modality of choice. Use of capsule endoscopy is limited because the capsule may not be able to pass through narrow stricture walls.

Pathology and Histology

The mechanism by which NSAIDs induce the formation of colonic diaphragms may be related to these medications’ effects on mucosal integrity, vasoconstriction, and vascular spasm. These effects may lead to “erosions, ulceration, and diaphragm-like strictures.”3

The primary histologic feature of these strictures is submucosal fibrosis with an intact muscularis propria. Prominent features also include areas of ulceration and granulation.1 The widened submucosa results in annular constriction of the intestinal lumen with disorganized bundles of smooth muscle, unmyelinated nerve bundles, scattered ganglion cells, and blood vessels. This morphology can resemble a node or mass.4 The mucosa is typically normal.5 Conditions such as vascular and neuromuscular hamartoma can resemble CDD. Interestingly, the fibrous changes in CDD have been noted apart from NSAID use, leading to speculation that diaphragm formation may be a result of injury and not exclusively a reaction to NSAID use.5

 

 

Treatment

Recommendations include NSAID withdrawal, endoscopic/fluoroscopic dilatation, and surgical resection. Outcomes with these treatment approaches have been highly variable. For some patients, NSAID withdrawal alone or following resection has resulted in success. However, even with withdrawal of NSAIDs, symptoms may improve, although the histologic findings of CDD may not be reversed.3,6 In one case report, a colonic stricture persisted endoscopically after NSAID withdrawal but resolved after a 20-week course of prednisone.7

Conclusion

Despite NSAID cessation, the patient in this case study presented a month later with an acute bowel obstruction. The bowel obstruction responded to conservative treatment, and the patient declined surgical intervention. The patient was readmitted again 4 months later with an acute bowel obstruction, and underwent an emergent colonic resection. The pathology report was consistent with CDD. In the 3 years since the resection, the patient has had no recurrences and continues to avoid all NSAIDs. She has refused a follow-up postresection colonoscopy.

Colonic diaphragm disease (CDD) is a rare but serious complication of nonsteroidal anti‐inflammatory drug (NSAID) use in which diaphragm‐like strictures develop in the large and/or small intestines. There have been about 100 reported cases of CDD since this finding was first reported in the medical literature in 1989.1,2 However, given the frequency of NSAID use, providers should consider this diagnosis.

Case Report

An 85-year‐old woman presented to the emergency department (ED) with generalized weakness, occult positive stool, and severe anemia requiring blood transfusions. Eight months prior, she had presented to her primary care physician (PCP) for a routine visit and was found to have anemia. She was referred to gastroenterology by her PCP for an upper endoscopy but refused the referral despite clear warnings of the potential for serious complications. She was started on ferrous sulfate 325 mg po tid at that time. The patient’s hemoglobin (Hbg) levels ranged from 10.8 to 11.2 g/dL prior to her ED presentation, and random fecal occult blood testing had been negative.

In the ED, the patient reported no abdominal pain, nausea emesis or constipation. Her past medical history was significant for compensated diastolic heart failure, paroxysmal atrial fibrillation controlled by medication, and chronic lumbago. The patient had been prescribed NSAIDs for 10 years for the chronic lumbago diagnosis; however, she was inconsistent in taking this medication until more recent years. Surgical history included a hysterectomy and back surgeries in the distant past. She had no symptoms or history of inflammatory bowel disease. The patient’s medications included both the oral and topical forms of diclofenac, conjugated estrogen, nitroglycerin, amlodipine, hydrocodone bitartrate and acetaminophen 5 mg once daily, amiodarone, diazepam, valsartan, furosemide, oxycodone 5 mg nightly prn for severe pain, and ferrous sulfate 325 mg.

Significant laboratory results in the ED included a Hbg level of 8.3 g/dL; a ferritin level of 11.9 ng/mL, and a serum iron level of 12 mg/dL. A computerized tomography scan of the abdomen and pelvis was normal. The patient was admitted, received a blood transfusion, and a gastroenterology consult was obtained for an upper and lower endoscopy. Although copy was normal, the colonoscopy revealed evidence of CDD of the ascending colon.

Colonic Diaphragm Disease

The gross findings seen on this patient’s colonoscopy showed evidence of the development of an internal colonic stricture from the fibrous overgrowth of the diaphragm (Figures A, B, & C). The narrow lumen is exhibited particularly well in Figure A in the upper left image. The external surface of the intestine appears normal.

Presentation and Evaluation

The presenting symptoms of CDD can vary and include abdominal pain, vomiting, lower gastrointestinal bleeding, anemia, and intestinal obstruction/perforation. Evidence seems to suggest a greater association with use of the oxicams (meloxicam, piroxicam) or diclofenac.1,2 Some researchers have suggested an association with long‐acting NSAID formulations.1 The use of misoprostol or proton pump inhibitors does not seem to lessen the chance of stricture formulation.2 Cox‐2 inhibitors are less likely players in the development of CDD.2 Most diaphragms in the large colon have been noted in the cecum, ascending and transverse colon, though descending colonic lesions have been documented as well.1

The incidence of CDD is higher among women and occurs most often in the seventh decade of life. Correlation with the duration of NSAID use prior to disease onset varies widely, with studies documenting disease onset from 3 months to 5 years after initiating consistent NSAID use.1 The patient in this case study was prescribed NSAIDs for almost 10 years, although she had poor adherence. One study also notes a possible association of CYP2C9*3 genetic polymorphism with the propensity to develop CDD. This finding is particularly interesting since NSAIDs are principally metabolized by CYP2C9 in the liver. CYP2C9 polymorphisms are thought to induce higher plasma concentrations of NSAIDs over time, which may lead to the formation of colonic diaphragms.2

Endoscopy with biopsy is the diagnostic modality of choice. Use of capsule endoscopy is limited because the capsule may not be able to pass through narrow stricture walls.

Pathology and Histology

The mechanism by which NSAIDs induce the formation of colonic diaphragms may be related to these medications’ effects on mucosal integrity, vasoconstriction, and vascular spasm. These effects may lead to “erosions, ulceration, and diaphragm-like strictures.”3

The primary histologic feature of these strictures is submucosal fibrosis with an intact muscularis propria. Prominent features also include areas of ulceration and granulation.1 The widened submucosa results in annular constriction of the intestinal lumen with disorganized bundles of smooth muscle, unmyelinated nerve bundles, scattered ganglion cells, and blood vessels. This morphology can resemble a node or mass.4 The mucosa is typically normal.5 Conditions such as vascular and neuromuscular hamartoma can resemble CDD. Interestingly, the fibrous changes in CDD have been noted apart from NSAID use, leading to speculation that diaphragm formation may be a result of injury and not exclusively a reaction to NSAID use.5

 

 

Treatment

Recommendations include NSAID withdrawal, endoscopic/fluoroscopic dilatation, and surgical resection. Outcomes with these treatment approaches have been highly variable. For some patients, NSAID withdrawal alone or following resection has resulted in success. However, even with withdrawal of NSAIDs, symptoms may improve, although the histologic findings of CDD may not be reversed.3,6 In one case report, a colonic stricture persisted endoscopically after NSAID withdrawal but resolved after a 20-week course of prednisone.7

Conclusion

Despite NSAID cessation, the patient in this case study presented a month later with an acute bowel obstruction. The bowel obstruction responded to conservative treatment, and the patient declined surgical intervention. The patient was readmitted again 4 months later with an acute bowel obstruction, and underwent an emergent colonic resection. The pathology report was consistent with CDD. In the 3 years since the resection, the patient has had no recurrences and continues to avoid all NSAIDs. She has refused a follow-up postresection colonoscopy.

References

1. Munipalle PC, Garud T, Light D. Diaphragmatic disease of the colon: systematic review. Colorectal Dis. 2013;15(9):1063-1069.

2. Ishihara M, Ohmiya N, Nakamura M, et al. Risk factors of symptomatic NSAID-induced small intestinal injury and diaphragm disease. Aliment Pharmacol Ther. 2014;40(5):538-547.

3. Keeling AN, Davis JL, Williams A, Sabharwal T, Adam A. Fluoroscopically guided balloon dilation of NSAID-induced colonic diaphragm. J Vasc Interv Radiol. 2007;18(8):1060-1062.

4. Yousfi MM, De Petris G, Leighton JA, et al. Diaphragm disease after use of nonsteroidal anti-inflammatory agents: first report of diagnosis with capsule endoscopy. J Clin Gastroenterol. 2004;38(8):686-691.

5. Pilgrim S, Velchuru V, Waters G, Tsiamis A, Lal R. Diaphragm disease and small bowel enteropathy due to nonsteroidal anti-inflammatory drugs: a surgical perspective. Colorectal Dis. 2011;13(4):463-466.

6. Munipalle PC, Little M, Garud T, Henderson D. NSAID-induced diaphragmatic disease of the colon. BMJ Case Rep. 2013;2013:pii:bcr2012008448.

7. Penner RM, Williams CN. Resolution of multiple severe nonsteroidal anti-inflammatory drug-induced colonic strictures with prednisone therapy: a case report and review of the literature. Can J Gastroenterol. 2003;17(8):497-500.

References

1. Munipalle PC, Garud T, Light D. Diaphragmatic disease of the colon: systematic review. Colorectal Dis. 2013;15(9):1063-1069.

2. Ishihara M, Ohmiya N, Nakamura M, et al. Risk factors of symptomatic NSAID-induced small intestinal injury and diaphragm disease. Aliment Pharmacol Ther. 2014;40(5):538-547.

3. Keeling AN, Davis JL, Williams A, Sabharwal T, Adam A. Fluoroscopically guided balloon dilation of NSAID-induced colonic diaphragm. J Vasc Interv Radiol. 2007;18(8):1060-1062.

4. Yousfi MM, De Petris G, Leighton JA, et al. Diaphragm disease after use of nonsteroidal anti-inflammatory agents: first report of diagnosis with capsule endoscopy. J Clin Gastroenterol. 2004;38(8):686-691.

5. Pilgrim S, Velchuru V, Waters G, Tsiamis A, Lal R. Diaphragm disease and small bowel enteropathy due to nonsteroidal anti-inflammatory drugs: a surgical perspective. Colorectal Dis. 2011;13(4):463-466.

6. Munipalle PC, Little M, Garud T, Henderson D. NSAID-induced diaphragmatic disease of the colon. BMJ Case Rep. 2013;2013:pii:bcr2012008448.

7. Penner RM, Williams CN. Resolution of multiple severe nonsteroidal anti-inflammatory drug-induced colonic strictures with prednisone therapy: a case report and review of the literature. Can J Gastroenterol. 2003;17(8):497-500.

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Generalized Vaccinia After Smallpox Vaccination With Concomitant Primary Epstein Barr Virus Infection

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A patient presents with a spreading rash 9 days following inoculation with the smallpox vaccine.

Generalized vaccinia (GV) is a rare, self-limiting complication of the smallpox vaccination that is caused by the systemic spread of the virus from the inoculation site. The incidence of GV became rare after routine vaccination was discontinued in the U.S. in 1971 and globally in the 1980s after the disease was eradicated.1,2 However in 2002, heightened concerns for the deliberate release of the smallpox virus as a bioweapon led the U.S. military to restart its smallpox vaccination program for soldiers and public health workers.3,4 Here, the authors describe a patient with concomitant GV and mononucleosis.

Case Report

A 19-year-old active-duty marine presented to his battalion aid station with concern for a spreading vesicular rash 9 days after a primary inoculation with the smallpox vaccine. The rash was limited to the inoculation site on his left shoulder (Figure 1). He had no medical history of eczema, atopic dermatitis, or other rashes and reported no systemic symptoms. His vitals also were within normal limits. A clinical diagnosis of inadvertent inoculation (also termed accidental infection) with satellite lesions was made, and he was discharged with counseling on wound care and close follow-up. Two days later, on postvaccination day 11, he presented with new symptoms of a headache, fever, chills, diffuse myalgia, sore throat, and spreading erythematous macules, papules, and vesicles on his arms, chest, abdomen, back, legs, and face (Figures 2A-2D). His vital signs were remarkable for tachycardia with heart rate of 100 bpm and a fever of 103º F (39.4º C). He was sent to the emergency department with a presumed GV diagnosis.

A complete blood count, liver function tests, and basic metabolic panel were unremarkable. Given his symptom of pharyngitis, a rapid strep test was performed. The test was negative, and a throat culture showed no growth. A mononucleosis screen also was performed and was positive. The patient was diagnosed with mononucleosis and GV. His condition improved, and his vital signs stabilized with conservative treatment without the need for vaccine immune globulin (VIG). He convalesced for 72 hours and was referred to dermatology on the following day. Quarantining him in a single occupancy barracks room until all lesions crusted over addressed the concern for spread of the virus to nonimmunized marines or family members.

On postvaccination day 12, the patient continued to be clinically well, and he remained afebrile. The dermatologist obtained a skin biopsy from a lesion on the patient’s right shin. The biopsy demonstrated marked epidermal necrosis with peripheral keratinocytes showing ballooning degeneration and viral cytopathic changes consistent with GV. Antibody titers showing high levels of Epstein-Barr virus (EBV) capsid IgM and IgG present confirmed mononucleosis infection within the past 6 months. The patient remained clinically well and was released from quarantine on postvaccination day 22 when all lesions crusted over (Figures 3A-3D).

Discussion

The CDC current definition for GV is “the spread of lesions to other parts of the body that are benign in appearance and occur as a result of viremia.”5 Although the exact mechanisms of viral spread are unknown, it may be due to a subtle immunologic defect, specifically in the B-cell line.6,7 Epstein-Barr virus affects the B-cell line, and concurrent infection may depress humoral immunity and allow for systemic spread of the virus.8,9

This case illustrates the potential for a severe reaction after smallpox vaccination in a patient with a concomitant EBV infection. Service members primarily receive the smallpox vaccination early in their career when the risk of mononucleosis is at its highest incidence among young adults, 11 to 48 per 1,000.10-13 Although the potential for disseminated vaccinia following vaccination is rare, clinicians need to remain cognizant of the risk, which may be enhanced by recent or subsequent infection with EBV. However, regular screening for EBV would be of questionable value given the large number of tests needed to prevent a single case of GV.

Generalized vaccinia is a rare complication after smallpox vaccination. Despite its dire appearance, GV typically resolves spontaneously with limited adverse effects (AEs).14 The pre-eradication reported incidence was 17.7 per 1,000,000 recipients in a national survey.15 Posteradication the incidence of GV was 3 times as high with 2 reported cases in 2003 after administration of 38,440 vaccinations.16 Inflammatory reactions can be common; however, these reactions are not due to systemic viral spread.5 When dealing with a vaccinia-specific AE, it is important to distinguish the benign inadvertent inoculations and GV from the more serious reactions of eczema vaccinatum (EV) or progressive vaccinia (PV). 5

Inadvertent inoculations and GV are usually benign and self-limited—requiring only prevention of secondary transmission and nosocomial infection. Eczema vaccinatum occurs among persons with atopic dermatitis or eczema.5 The rash that is indicative of EV has similar characteristics to GV, it can occur anywhere but favors areas of previous atopic dermatitis lesions. Unlike patients experiencing GV, patients with EV often are systemically ill and usually require VIG treatment.5,17 A progressive enlarging necrosis at the primary vaccination site characterizes PV, also known as vaccinia necrosum and vaccinia gangrenosa; unlike GV there are no viral metastases to distant sites.5,18 Progressive vaccinia is confined to immune-compromised individuals with defective cellular immunity.18,19 Due to high mortality rates associated with PV, the CDC advocates aggressive therapy with VIG, intensive monitoring, and tertiary-level supportive care.5

 

 

Conclusion

The smallpox vaccination is unique among vaccinations. It is the only vaccine that is administered via inoculation with a bifurcated needle, requires regular follow-up care, and can be spread to casual contacts.5

It is important for any practitioner administering the smallpox vaccine to be aware of associated AEs. A greater knowledge of the unique challenges with the smallpox vaccine allows for better patient selection that eliminates those with conditions that impair their immune system and improves patient education.

References

1. Centers for Disease Control and prevention. Public Health Service recommendation on smallpox vaccination. MMWR Recomm Rep. 1971;20:339

2. The global eradication of smallpox. World Health Organization Web site. http://apps.who.int/iris/bitstream/10665/39253/1/a41438.pdf. Accessed February 8, 2017.

3. Belongia EA, Naleway A. Smallpox vaccine: the good, the bad and the ugly. Clin Med Res. 2003;1(2):87-92.

4. Wharton M, Strikas RA, Harpaz R, et al. Recommendations for using smallpox vaccine in a pre-event vaccination program. Supplemental recommendations of the Advisory Committee on Immunization Practices (ACIP) and the Healthcare Infection Control Practices Advisory Committee (HICPAC). MMWR Recomm Rep. 2003;52(RR-7):1-16.

5. Cono J, Casey CG, Bell DM. Smallpox vaccination and adverse reactions. https://www.cdc.gov/mmwr/preview/mmwrhtml/rr5204a1.htm. Updated February 10, 2003. Accessed February 2, 2017.

6. Chahroudi A, Chavan R, Kozyr N, Waller EK, Silvestri G, Feinberg MB. Vaccinia virus tropism for primary hematolymphoid cells is determined by restricted expression of a unique virus receptor. J Virol. 2005;79(16):10397-10407.

7. Sánchez-Puig J, Sánchez L, Roy G, Blasco R. Susceptibility of different leukocyte cell types to Vaccinia virus infection. Virol J. 2004;1(1):10.

8. Küppers R. B cells under influence: transformation of B cells by Epstein-Barr virus. Nat Rev Immunol. 2003;3(10):801-812.

9. Nemerow G, Cooper N. Infection of B lymphocytes by a human herpesvirus, Epstein-Barr virus, is blocked by calmodulin antagonists. Proc Natl Acad Sci U S A. 1984;81(15):4955-4959.

10. Hallee TJ, Evans AS, Niederman JC, Brooks CM, Voegtly JH. Infectious Mononucleosis at the United States Military Academy. A prospective study of a single class over four years. Yale J Biol Med. 1974;47(3):182-195.

11. Evans AS, Robinton ED. An epidemiological study of infectious mononucleosis. N Engl J Med. 1950;242:492-496.

12. Niederman JC, Evans AS, Subrahmanyan L, McCollum RW. Prevalence, incidence and persistence of EB virus antibody in young adults. N Engl J Med. 1970;282(7):361-365.

13. Sawyer RN, Evans AS, Niederman JC, McCollum RW. Prospective studies of a group of Yale University freshmen. I. Occurrence of infectious mononucleosis. J Infect Dis. 1971;123(3):263-270.

14. Henderson DA, Borio LL, Lane MJ. Smallpox and vaccinia. In: Plotkin SA, Orenstein WA, Offit PA, eds. Vaccines. 4th ed. Philadelphia, PA: Elsevier; 2004:123-153.

15. Lane JM, Ruben FL, Neff JM, Millar JD. Complications of smallpox vaccination, 1968—national surveillance in the United States. N Engl J Med. 1969;281(22):1201-1208.

16. Vellozzi C, Lane JM, Averhoff F, et al. Generalized vaccinia, progressive vaccinia and eczema vaccinatum are rare following smallpox (vaccinia) vaccination: United States surveillance, 2003. Clin Infect Dis. 2005;41(5):689-697.

17. Reed J, Scott D. Bray M. Eczema Vaccinatum. Clin Infect Dis. 2012;54(6):832-840.

18. Bray M, Wright ME. Progressive vaccinia. Clin Infect Dis. 2003;36(6):766-774.

19. Fulginiti V, Kempe C, Hathaway W, et al. Progressive vaccinia in immunologically deficient individuals. Birth Defects Orig Artic Ser. 1968;4:129-145.

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The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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Dr. Mandia is the general medical officer at Combat Logistics Battalion 3 in Kaneohe Bay, Hawaii. Dr. Buikema is the general medical officer at Fort Belvoir Community Hospital Dermatology Clinic in Virginia.

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The authors report no actual or potential conflicts of interest with regard to this article.

Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

Author and Disclosure Information

Dr. Mandia is the general medical officer at Combat Logistics Battalion 3 in Kaneohe Bay, Hawaii. Dr. Buikema is the general medical officer at Fort Belvoir Community Hospital Dermatology Clinic in Virginia.

Author disclosures
The authors report no actual or potential conflicts of interest with regard to this article.

Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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Related Articles
A patient presents with a spreading rash 9 days following inoculation with the smallpox vaccine.
A patient presents with a spreading rash 9 days following inoculation with the smallpox vaccine.

Generalized vaccinia (GV) is a rare, self-limiting complication of the smallpox vaccination that is caused by the systemic spread of the virus from the inoculation site. The incidence of GV became rare after routine vaccination was discontinued in the U.S. in 1971 and globally in the 1980s after the disease was eradicated.1,2 However in 2002, heightened concerns for the deliberate release of the smallpox virus as a bioweapon led the U.S. military to restart its smallpox vaccination program for soldiers and public health workers.3,4 Here, the authors describe a patient with concomitant GV and mononucleosis.

Case Report

A 19-year-old active-duty marine presented to his battalion aid station with concern for a spreading vesicular rash 9 days after a primary inoculation with the smallpox vaccine. The rash was limited to the inoculation site on his left shoulder (Figure 1). He had no medical history of eczema, atopic dermatitis, or other rashes and reported no systemic symptoms. His vitals also were within normal limits. A clinical diagnosis of inadvertent inoculation (also termed accidental infection) with satellite lesions was made, and he was discharged with counseling on wound care and close follow-up. Two days later, on postvaccination day 11, he presented with new symptoms of a headache, fever, chills, diffuse myalgia, sore throat, and spreading erythematous macules, papules, and vesicles on his arms, chest, abdomen, back, legs, and face (Figures 2A-2D). His vital signs were remarkable for tachycardia with heart rate of 100 bpm and a fever of 103º F (39.4º C). He was sent to the emergency department with a presumed GV diagnosis.

A complete blood count, liver function tests, and basic metabolic panel were unremarkable. Given his symptom of pharyngitis, a rapid strep test was performed. The test was negative, and a throat culture showed no growth. A mononucleosis screen also was performed and was positive. The patient was diagnosed with mononucleosis and GV. His condition improved, and his vital signs stabilized with conservative treatment without the need for vaccine immune globulin (VIG). He convalesced for 72 hours and was referred to dermatology on the following day. Quarantining him in a single occupancy barracks room until all lesions crusted over addressed the concern for spread of the virus to nonimmunized marines or family members.

On postvaccination day 12, the patient continued to be clinically well, and he remained afebrile. The dermatologist obtained a skin biopsy from a lesion on the patient’s right shin. The biopsy demonstrated marked epidermal necrosis with peripheral keratinocytes showing ballooning degeneration and viral cytopathic changes consistent with GV. Antibody titers showing high levels of Epstein-Barr virus (EBV) capsid IgM and IgG present confirmed mononucleosis infection within the past 6 months. The patient remained clinically well and was released from quarantine on postvaccination day 22 when all lesions crusted over (Figures 3A-3D).

Discussion

The CDC current definition for GV is “the spread of lesions to other parts of the body that are benign in appearance and occur as a result of viremia.”5 Although the exact mechanisms of viral spread are unknown, it may be due to a subtle immunologic defect, specifically in the B-cell line.6,7 Epstein-Barr virus affects the B-cell line, and concurrent infection may depress humoral immunity and allow for systemic spread of the virus.8,9

This case illustrates the potential for a severe reaction after smallpox vaccination in a patient with a concomitant EBV infection. Service members primarily receive the smallpox vaccination early in their career when the risk of mononucleosis is at its highest incidence among young adults, 11 to 48 per 1,000.10-13 Although the potential for disseminated vaccinia following vaccination is rare, clinicians need to remain cognizant of the risk, which may be enhanced by recent or subsequent infection with EBV. However, regular screening for EBV would be of questionable value given the large number of tests needed to prevent a single case of GV.

Generalized vaccinia is a rare complication after smallpox vaccination. Despite its dire appearance, GV typically resolves spontaneously with limited adverse effects (AEs).14 The pre-eradication reported incidence was 17.7 per 1,000,000 recipients in a national survey.15 Posteradication the incidence of GV was 3 times as high with 2 reported cases in 2003 after administration of 38,440 vaccinations.16 Inflammatory reactions can be common; however, these reactions are not due to systemic viral spread.5 When dealing with a vaccinia-specific AE, it is important to distinguish the benign inadvertent inoculations and GV from the more serious reactions of eczema vaccinatum (EV) or progressive vaccinia (PV). 5

Inadvertent inoculations and GV are usually benign and self-limited—requiring only prevention of secondary transmission and nosocomial infection. Eczema vaccinatum occurs among persons with atopic dermatitis or eczema.5 The rash that is indicative of EV has similar characteristics to GV, it can occur anywhere but favors areas of previous atopic dermatitis lesions. Unlike patients experiencing GV, patients with EV often are systemically ill and usually require VIG treatment.5,17 A progressive enlarging necrosis at the primary vaccination site characterizes PV, also known as vaccinia necrosum and vaccinia gangrenosa; unlike GV there are no viral metastases to distant sites.5,18 Progressive vaccinia is confined to immune-compromised individuals with defective cellular immunity.18,19 Due to high mortality rates associated with PV, the CDC advocates aggressive therapy with VIG, intensive monitoring, and tertiary-level supportive care.5

 

 

Conclusion

The smallpox vaccination is unique among vaccinations. It is the only vaccine that is administered via inoculation with a bifurcated needle, requires regular follow-up care, and can be spread to casual contacts.5

It is important for any practitioner administering the smallpox vaccine to be aware of associated AEs. A greater knowledge of the unique challenges with the smallpox vaccine allows for better patient selection that eliminates those with conditions that impair their immune system and improves patient education.

Generalized vaccinia (GV) is a rare, self-limiting complication of the smallpox vaccination that is caused by the systemic spread of the virus from the inoculation site. The incidence of GV became rare after routine vaccination was discontinued in the U.S. in 1971 and globally in the 1980s after the disease was eradicated.1,2 However in 2002, heightened concerns for the deliberate release of the smallpox virus as a bioweapon led the U.S. military to restart its smallpox vaccination program for soldiers and public health workers.3,4 Here, the authors describe a patient with concomitant GV and mononucleosis.

Case Report

A 19-year-old active-duty marine presented to his battalion aid station with concern for a spreading vesicular rash 9 days after a primary inoculation with the smallpox vaccine. The rash was limited to the inoculation site on his left shoulder (Figure 1). He had no medical history of eczema, atopic dermatitis, or other rashes and reported no systemic symptoms. His vitals also were within normal limits. A clinical diagnosis of inadvertent inoculation (also termed accidental infection) with satellite lesions was made, and he was discharged with counseling on wound care and close follow-up. Two days later, on postvaccination day 11, he presented with new symptoms of a headache, fever, chills, diffuse myalgia, sore throat, and spreading erythematous macules, papules, and vesicles on his arms, chest, abdomen, back, legs, and face (Figures 2A-2D). His vital signs were remarkable for tachycardia with heart rate of 100 bpm and a fever of 103º F (39.4º C). He was sent to the emergency department with a presumed GV diagnosis.

A complete blood count, liver function tests, and basic metabolic panel were unremarkable. Given his symptom of pharyngitis, a rapid strep test was performed. The test was negative, and a throat culture showed no growth. A mononucleosis screen also was performed and was positive. The patient was diagnosed with mononucleosis and GV. His condition improved, and his vital signs stabilized with conservative treatment without the need for vaccine immune globulin (VIG). He convalesced for 72 hours and was referred to dermatology on the following day. Quarantining him in a single occupancy barracks room until all lesions crusted over addressed the concern for spread of the virus to nonimmunized marines or family members.

On postvaccination day 12, the patient continued to be clinically well, and he remained afebrile. The dermatologist obtained a skin biopsy from a lesion on the patient’s right shin. The biopsy demonstrated marked epidermal necrosis with peripheral keratinocytes showing ballooning degeneration and viral cytopathic changes consistent with GV. Antibody titers showing high levels of Epstein-Barr virus (EBV) capsid IgM and IgG present confirmed mononucleosis infection within the past 6 months. The patient remained clinically well and was released from quarantine on postvaccination day 22 when all lesions crusted over (Figures 3A-3D).

Discussion

The CDC current definition for GV is “the spread of lesions to other parts of the body that are benign in appearance and occur as a result of viremia.”5 Although the exact mechanisms of viral spread are unknown, it may be due to a subtle immunologic defect, specifically in the B-cell line.6,7 Epstein-Barr virus affects the B-cell line, and concurrent infection may depress humoral immunity and allow for systemic spread of the virus.8,9

This case illustrates the potential for a severe reaction after smallpox vaccination in a patient with a concomitant EBV infection. Service members primarily receive the smallpox vaccination early in their career when the risk of mononucleosis is at its highest incidence among young adults, 11 to 48 per 1,000.10-13 Although the potential for disseminated vaccinia following vaccination is rare, clinicians need to remain cognizant of the risk, which may be enhanced by recent or subsequent infection with EBV. However, regular screening for EBV would be of questionable value given the large number of tests needed to prevent a single case of GV.

Generalized vaccinia is a rare complication after smallpox vaccination. Despite its dire appearance, GV typically resolves spontaneously with limited adverse effects (AEs).14 The pre-eradication reported incidence was 17.7 per 1,000,000 recipients in a national survey.15 Posteradication the incidence of GV was 3 times as high with 2 reported cases in 2003 after administration of 38,440 vaccinations.16 Inflammatory reactions can be common; however, these reactions are not due to systemic viral spread.5 When dealing with a vaccinia-specific AE, it is important to distinguish the benign inadvertent inoculations and GV from the more serious reactions of eczema vaccinatum (EV) or progressive vaccinia (PV). 5

Inadvertent inoculations and GV are usually benign and self-limited—requiring only prevention of secondary transmission and nosocomial infection. Eczema vaccinatum occurs among persons with atopic dermatitis or eczema.5 The rash that is indicative of EV has similar characteristics to GV, it can occur anywhere but favors areas of previous atopic dermatitis lesions. Unlike patients experiencing GV, patients with EV often are systemically ill and usually require VIG treatment.5,17 A progressive enlarging necrosis at the primary vaccination site characterizes PV, also known as vaccinia necrosum and vaccinia gangrenosa; unlike GV there are no viral metastases to distant sites.5,18 Progressive vaccinia is confined to immune-compromised individuals with defective cellular immunity.18,19 Due to high mortality rates associated with PV, the CDC advocates aggressive therapy with VIG, intensive monitoring, and tertiary-level supportive care.5

 

 

Conclusion

The smallpox vaccination is unique among vaccinations. It is the only vaccine that is administered via inoculation with a bifurcated needle, requires regular follow-up care, and can be spread to casual contacts.5

It is important for any practitioner administering the smallpox vaccine to be aware of associated AEs. A greater knowledge of the unique challenges with the smallpox vaccine allows for better patient selection that eliminates those with conditions that impair their immune system and improves patient education.

References

1. Centers for Disease Control and prevention. Public Health Service recommendation on smallpox vaccination. MMWR Recomm Rep. 1971;20:339

2. The global eradication of smallpox. World Health Organization Web site. http://apps.who.int/iris/bitstream/10665/39253/1/a41438.pdf. Accessed February 8, 2017.

3. Belongia EA, Naleway A. Smallpox vaccine: the good, the bad and the ugly. Clin Med Res. 2003;1(2):87-92.

4. Wharton M, Strikas RA, Harpaz R, et al. Recommendations for using smallpox vaccine in a pre-event vaccination program. Supplemental recommendations of the Advisory Committee on Immunization Practices (ACIP) and the Healthcare Infection Control Practices Advisory Committee (HICPAC). MMWR Recomm Rep. 2003;52(RR-7):1-16.

5. Cono J, Casey CG, Bell DM. Smallpox vaccination and adverse reactions. https://www.cdc.gov/mmwr/preview/mmwrhtml/rr5204a1.htm. Updated February 10, 2003. Accessed February 2, 2017.

6. Chahroudi A, Chavan R, Kozyr N, Waller EK, Silvestri G, Feinberg MB. Vaccinia virus tropism for primary hematolymphoid cells is determined by restricted expression of a unique virus receptor. J Virol. 2005;79(16):10397-10407.

7. Sánchez-Puig J, Sánchez L, Roy G, Blasco R. Susceptibility of different leukocyte cell types to Vaccinia virus infection. Virol J. 2004;1(1):10.

8. Küppers R. B cells under influence: transformation of B cells by Epstein-Barr virus. Nat Rev Immunol. 2003;3(10):801-812.

9. Nemerow G, Cooper N. Infection of B lymphocytes by a human herpesvirus, Epstein-Barr virus, is blocked by calmodulin antagonists. Proc Natl Acad Sci U S A. 1984;81(15):4955-4959.

10. Hallee TJ, Evans AS, Niederman JC, Brooks CM, Voegtly JH. Infectious Mononucleosis at the United States Military Academy. A prospective study of a single class over four years. Yale J Biol Med. 1974;47(3):182-195.

11. Evans AS, Robinton ED. An epidemiological study of infectious mononucleosis. N Engl J Med. 1950;242:492-496.

12. Niederman JC, Evans AS, Subrahmanyan L, McCollum RW. Prevalence, incidence and persistence of EB virus antibody in young adults. N Engl J Med. 1970;282(7):361-365.

13. Sawyer RN, Evans AS, Niederman JC, McCollum RW. Prospective studies of a group of Yale University freshmen. I. Occurrence of infectious mononucleosis. J Infect Dis. 1971;123(3):263-270.

14. Henderson DA, Borio LL, Lane MJ. Smallpox and vaccinia. In: Plotkin SA, Orenstein WA, Offit PA, eds. Vaccines. 4th ed. Philadelphia, PA: Elsevier; 2004:123-153.

15. Lane JM, Ruben FL, Neff JM, Millar JD. Complications of smallpox vaccination, 1968—national surveillance in the United States. N Engl J Med. 1969;281(22):1201-1208.

16. Vellozzi C, Lane JM, Averhoff F, et al. Generalized vaccinia, progressive vaccinia and eczema vaccinatum are rare following smallpox (vaccinia) vaccination: United States surveillance, 2003. Clin Infect Dis. 2005;41(5):689-697.

17. Reed J, Scott D. Bray M. Eczema Vaccinatum. Clin Infect Dis. 2012;54(6):832-840.

18. Bray M, Wright ME. Progressive vaccinia. Clin Infect Dis. 2003;36(6):766-774.

19. Fulginiti V, Kempe C, Hathaway W, et al. Progressive vaccinia in immunologically deficient individuals. Birth Defects Orig Artic Ser. 1968;4:129-145.

References

1. Centers for Disease Control and prevention. Public Health Service recommendation on smallpox vaccination. MMWR Recomm Rep. 1971;20:339

2. The global eradication of smallpox. World Health Organization Web site. http://apps.who.int/iris/bitstream/10665/39253/1/a41438.pdf. Accessed February 8, 2017.

3. Belongia EA, Naleway A. Smallpox vaccine: the good, the bad and the ugly. Clin Med Res. 2003;1(2):87-92.

4. Wharton M, Strikas RA, Harpaz R, et al. Recommendations for using smallpox vaccine in a pre-event vaccination program. Supplemental recommendations of the Advisory Committee on Immunization Practices (ACIP) and the Healthcare Infection Control Practices Advisory Committee (HICPAC). MMWR Recomm Rep. 2003;52(RR-7):1-16.

5. Cono J, Casey CG, Bell DM. Smallpox vaccination and adverse reactions. https://www.cdc.gov/mmwr/preview/mmwrhtml/rr5204a1.htm. Updated February 10, 2003. Accessed February 2, 2017.

6. Chahroudi A, Chavan R, Kozyr N, Waller EK, Silvestri G, Feinberg MB. Vaccinia virus tropism for primary hematolymphoid cells is determined by restricted expression of a unique virus receptor. J Virol. 2005;79(16):10397-10407.

7. Sánchez-Puig J, Sánchez L, Roy G, Blasco R. Susceptibility of different leukocyte cell types to Vaccinia virus infection. Virol J. 2004;1(1):10.

8. Küppers R. B cells under influence: transformation of B cells by Epstein-Barr virus. Nat Rev Immunol. 2003;3(10):801-812.

9. Nemerow G, Cooper N. Infection of B lymphocytes by a human herpesvirus, Epstein-Barr virus, is blocked by calmodulin antagonists. Proc Natl Acad Sci U S A. 1984;81(15):4955-4959.

10. Hallee TJ, Evans AS, Niederman JC, Brooks CM, Voegtly JH. Infectious Mononucleosis at the United States Military Academy. A prospective study of a single class over four years. Yale J Biol Med. 1974;47(3):182-195.

11. Evans AS, Robinton ED. An epidemiological study of infectious mononucleosis. N Engl J Med. 1950;242:492-496.

12. Niederman JC, Evans AS, Subrahmanyan L, McCollum RW. Prevalence, incidence and persistence of EB virus antibody in young adults. N Engl J Med. 1970;282(7):361-365.

13. Sawyer RN, Evans AS, Niederman JC, McCollum RW. Prospective studies of a group of Yale University freshmen. I. Occurrence of infectious mononucleosis. J Infect Dis. 1971;123(3):263-270.

14. Henderson DA, Borio LL, Lane MJ. Smallpox and vaccinia. In: Plotkin SA, Orenstein WA, Offit PA, eds. Vaccines. 4th ed. Philadelphia, PA: Elsevier; 2004:123-153.

15. Lane JM, Ruben FL, Neff JM, Millar JD. Complications of smallpox vaccination, 1968—national surveillance in the United States. N Engl J Med. 1969;281(22):1201-1208.

16. Vellozzi C, Lane JM, Averhoff F, et al. Generalized vaccinia, progressive vaccinia and eczema vaccinatum are rare following smallpox (vaccinia) vaccination: United States surveillance, 2003. Clin Infect Dis. 2005;41(5):689-697.

17. Reed J, Scott D. Bray M. Eczema Vaccinatum. Clin Infect Dis. 2012;54(6):832-840.

18. Bray M, Wright ME. Progressive vaccinia. Clin Infect Dis. 2003;36(6):766-774.

19. Fulginiti V, Kempe C, Hathaway W, et al. Progressive vaccinia in immunologically deficient individuals. Birth Defects Orig Artic Ser. 1968;4:129-145.

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One Hundred Case Series of Vocal Cord Dysfunction in a Military Treatment Facility

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The authors’ evaluation of vocal cord dysfunction cases reveals that prevalence may be higher than previously reported in the literature.

Vocal cord dysfunction (VCD), also known as paradoxical vocal cord movement, is described as paroxysms of glottis obstruction due to true vocal cord adduction.1 Since VCD presents as a constellation of symptoms associated with dyspnea, it often is misdiagnosed as asthma.2 Vocal cord dysfunction often manifests as episodic dyspnea and wheezing, may occur with exercise, and may be minimally responsive to initial therapies. Flattened inspiratory curves may be noted on pulmonary function tests (PFTs), but direct laryngoscopy is the gold standard for diagnosis.3 A cohort of proven patients with VCD with a plateau in the inspiratory curve of PFTs also had a plateau on expiratory phase in 81% of cases.4

The differential diagnosis of patients presenting with upper airway symptoms is broad. It must include VCD, asthma, angioedema, laryngomalacia, vocal cord polyps, vocal cord tumors, and neurologic conditions such as brain stem compression or movement disorders. Essentially, all movement disorders of vocal cords must be considered, and organic causes of this movement disorder can be evaluated by visualization of the vocal cords. Triggers for VCD include exercise, airborne irritants, gastroesophageal reflux disease (GERD), allergic rhinitis, medications, and psychological conditions.5 Additionally, VCD can coexist with asthma, further complicating accurate diagnoses.6

Therapies are reported in case studies, but no large randomized controlled trials exist to evaluate current therapy options. Primary treatments of asthma therapy were largely ineffective, and ideal therapy includes a multidisciplinary approach, including speech therapy to optimize laryngeal control and treatment of all identified laryngeal irritants.6

The prevalence of VCD is unknown, with no prospective cohort studies completed to date and conflicting diagnostic criteria used in many case studies.7 A prevalence of 2.8% was noted in one particular cohort of 1,028 patients admitted to a rehabilitation center in a calendar year with the primary pulmonary diagnosis on admission.6 Females seemed to be affected at a higher ratio than were males, 2 to 3 females per 1 male diagnosis.7

In the military population, certain risk factors were noted in returning deployed members, including anxiety/high stress, exercise, and acute respiratory illnesses.8 In that particular cohort, 72% positive predictive value was noted for VCD if flattened inspiratory flow loops with negative methacholine challenge were present.

Diagnostic criteria are challenging, as symptoms such as dyspnea may be present acutely, last < 2 minutes, be self-limiting, and completely resolve outside of acute events. Stridor may be noted, primarily above the vocal cords, and less audible on chest auscultation.6 A goal of therapy, in addition to dedicated speech pathologist input, is optimizing comedical conditions, including GERD, allergic rhinitis, concomitant asthma, and any psychological diagnoses.9

Athletes are a particular subset of patients with VCD who are crucial to appropriately diagnose, including a detailed history and physical, PFTs, and proceeding to direct laryngoscopy to confirm diagnoses.10 Behavioral management includes rescue breathing techniques, and speech therapy programs focus on relaxation of the larynx and diaphragmatic breathing techniques, with the goal of establishing sense of control during acute events.10 Military service members are expected to operate at a high-intensity level similar to that of athletes, and treatments considered for athletes are applicable to military service members as well. Military strength and cardiovascular standards are measured by a combination of push-ups, sit-ups, and a run test, in addition to waist measurements. Some of the cohort were identified during physical fitness standard failures, usually in the run test, and ultimately received a pulmonology referral for wheezing or dyspnea with exertion. The objective of this retrospective cohort study was to evaluate 100 consecutively diagnosed cases of VCD in a military treatment facility.

Methods

The authors conducted a retrospective chart review of DoD military medical records of outpatient diagnoses in 100 consecutive diagnoses of VCD from January 2011 to February 2014. Institutional review board approval was obtained under Project RSM20130001E by the Exempt Determination Official at Eglin Air Force Base (AFB), Florida.

All cases were identified at time of VCD visualization and were diagnosed with video stroboscopy by speech therapy or by visual laryngoscopy by the otolaryngology or pulmonology departments via direct visualization.

Cases were collected chronologically, and all diagnosed cases at Eglin AFB hospital were included. Follow-up was scheduled with all patients diagnosed in Speech Therapy, and most patients were concurrently treated by Pulmonology or Allergy/Immunology. Pulmonary function tests were obtained in 98 of the 100 diagnosed cases. Patients eligible for care at Eglin AFB included active-duty and Reserve military members plus dependents and retirees.

The majority of patients diagnosed in this cohort were seen and diagnosed by Speech Therapy. Video stroboscopy is based on the principle that a movement of an object higher than a certain flicker rate appears to stand still to direct visualization, but with a rate of light exposure and imaging above the flicker rate by video, the true movement of the object can be identified.¹¹ Video stroboscopy is considered highly sensitive for organic disorders of vocal cords, but it is not specific for either organic or dysfunctional disorders.¹¹ It is still the gold standard above direct visualization, as it can detect abnormal movement of vocal cords above the critical rate that the human eye would perceive as not moving due to the frequency of movement (Figures 1 & 2).¹¹

In an older study, laryngoscopy was able to diagnose 100% of patients with symptomatic paradoxical vocal cord movement and additional 60% asymptomatic patients with a constellation of symptoms consistent with paradoxical vocal cord movement.¹²

Speech Therapy; Ear, Nose, and Throat (ENT); and Pulmonology may not perform direct visualization in these patients at initial presentation due to other suspected diagnoses. A more common test is the PFT, especially if asthma or other airway tract diseases are suspected (Figure 3).

 

 

Patient Descriptions

Study patients were referred for a variety of reasons, often from primary care clinics for concerns for asthma, episodic dyspnea, wheezing, or decreased exercise tolerance thought to be related to pulmonary or allergy causes. Pulmonology worked closely with Speech Therapy and referred VCD cases for speech evaluation, including video stroboscopy. Notably, of the patients in this cohort, although some were suspected to have asthma, those patients were ruled out during part of the pulmonology evaluation, both with PFT testing and methacholine challenges. An asthma diagnosis is important in a military treatment facility, as asthma is often grounds for discharge.

Patients ranged in age from 13 to 68 years, with a median age at 31 years diagnosis. Thirty-nine females and 61 males comprised the total case series. Speech Therapy diagnosed 97 patients, 96 were diagnosed at Eglin AFB hospital via stroboscopy. One patient was diagnosed off-base by Speech Therapy via direct visualization, 1 patient was diagnosed by Pulmonology on-base via direct visualization, and 2 patients were diagnosed by ENT on-base via direct visualization. These patients had direct laryngoscopy completed, often to rule out other organic causes for upper airway disease processes, and were found to have visual paradoxical vocal cord movement. Ninety-eight patients completed PFTs. Several patients were lost to follow-up, as can be common in a military population with frequent moves or members leaving service.

On record review, patient symptoms were present in the range of 2 months to 20 years, with a median duration of symptomatic reports lasting 2 years prior to diagnosis. Common diagnoses prior to visual VCD diagnosis included asthma, exercise-induced asthma, anxiety, and episodic wheezing. Risk factors that were evaluated in this case series included age, sex, body mass index (BMI), GERD, allergic rhinitis, postnasal drip, active smoker, previous smoker, and mental health diagnoses (Figure 4).

Pulmonary function test results were analyzed on 98 patients, including forced expiratory volume in 1 second (FEV1); forced vital capacity (FVC), FEV1/FVC ratio; peak inspiratory flow (PIF) and peak expiratory flow (PEF)—available in 97 studies; forced expiratory flow (FEF) at 25% to 75% of FVC (FEF 25%-75%)—available in 96 studies; and maximum voluntary ventilation (MVV) and MVV/FEV1 ratio—available in 60 of 98 PFTs.

 

Interventions

All patients diagnosed by Speech Therapy on-base were provided with laryngeal relaxation techniques, diaphragmatic breathing techniques, and controlled inhale/exhale techniques at time of diagnosis, with frequent follow-up scheduled with Speech Therapy and Pulmonology. All diagnoses potentially contributing to laryngeal irritation were treated, including GERD, allergic rhinitis, smoking cessation, weight loss, and exercise recommendations as needed.

Patients reported improvement on follow-up appointments with Speech Therapy in overall control of symptoms, subjectively categorized as poor improvement, partial improvement, and complete improvement. This was a subjective measurement of improvement and fully dependent on follow-up care and patient reporting for improvement. No predefined number of follow-ups was determined; patients were followed monthly until they declined further care, fully improved, moved out of the military treatment system, or were lost to follow-up.

Treatment included structured Speech Therapy sessions. Response to treatment was subjectively qualified by patient report. Fifteen patients reported complete resolution of symptoms, 57 reported partial improvement, 24 reported poor improvement, and 4 patients were lost to follow-up.

Results

Risk factors for the diagnosis of VCD included possible associations with GERD, allergic rhinitis, smoking, prior smoking, BMI, and mental health diagnoses. Body mass index ranged from 17 to 36 in the case series, with median BMI of 27. Mental health diagnoses were present in 35 patients and included diagnoses of anxiety, depression, and adjustment disorders. Gastroesophageal reflux disease diagnosis was present in 59 of the case series patients, 80 had the diagnosis of allergic rhinitis, 63 were diagnosed with postnasal drip. Sixteen case series patients were current smokers. An additional 26 were previous smokers (at least 100 cigarettes in lifetime) for a total of 42 patients that were current or prior smokers.

The chart review was completed to evaluate for the presence of these diagnoses, which included previous treatments; for example, proton pump inhibitors for GERD, antidepressants for depression, or intranasal steroids for allergic rhinitis. The diagnosis was counted as present if the patient was currently being treated for the particular diagnosis in question.

PFT Data

Data from PFTs were available for 98 of 100 cases diagnosed. Review of data across all 98 patients is noted for median FEV1 of 3.6, a median FVC of 4.5, with ratio of 0.80.

The median PIF was 5.1, and median PEF was 8.2, with a PIF/PEF ratio of 0.62. Mid-flow volumes also were analyzed, and FEF 25% to 75% median was 3.3. For the 60 patients that had minute ventilator volumes calculated, the median MVV was 118.5 L/min and median MVV/FEV1 was 32.0 (Table).

 

 

Since PFT values vary according to age, sex, and ethnicity, PFTs were analyzed for percent predicted values based on age, gender, and race. Notably, median values for FEV1, FVC, and PEF were all close to 100% of the predicted value. The MVV percent predicted was available in 60 cases and was 93% of predicted values. The most significant difference from expected values was FEF 25% to 75%, at 84% of expected results.

Flow-volume loop evaluations on the 97 PFTs available were completed, and 58 of the 97 were noted for variable extrathoracic airway obstruction consistent with inspiratory inhibition in the patient population. This is 60% of the available PFTs in this cohort study.

Discussion

This retrospective chart review of 100 consecutive VCD diagnoses in a military treatment facility reinforces many of the findings currently available in the literature. As illustrated in a Chest review article, the diagnosis of VCD on history, physical examination, or PFTs remains ellusive.1 The PFT evaluation contains some subjectivity regarding the flattening of inspiratory flow-volume loops and is not routinely reported in PFT results. In patients diagnosed with VCD, a clear consensus of treatment modalities remains lacking. Modification of risk factors (allergic rhinitis, GERD, smoking cessation, weight loss) assisted in self-reported patient improvement, as did focused speech therapy.

The median age of 31 years, likely reflected the younger military population served at Eglin AFB. Seventy-five of these patients were currently on active duty, 6 were retired from active duty (veterans), and 19 were dependents. The median time of symptoms to diagnosis was 2 years. Prior misdiagnosis with other diseases such as asthma was common. Also, referral to Pulmonology and Speech Therapy was usually completed after failed outpatient primary care management for the alternative diagnoses.

Improvement with therapy was mixed, and during the time of documented follow-up, 72 patients reported complete or partial improvement. Most active-duty patients in the partial improvement category based this subjective reporting on their ability to meet military physical fitness standards.

Previous data suggested a female predominance, but this study population was 61% male. Military populations are about 80% to 85% male, so an increase in male diagnosis is expected.

Many patients in the patient cohort arrived as a result of Pulmonology referrals with a presumptive diagnoses of asthma but were determined not to have asthma through PFT results inconsistent with asthma, no improvement with β-agonist therapies, and negative methacholine challenges (if performed). These results prompted evaluations for other conditions and eventually a VCD diagnosis. As noted, exclusion of asthma is of particular importance in a military population, as medical discharges often are pursued in service members with asthma whether controlled or uncontrolled. Lag time to referral also is possible in failures of military physical, which prompted medical evaluation once several failures had occurred over a 1- to 2-year time frame.

The PFT data evaluation was inconclusive for statistically significant changes when compared with age-matched normal PFT values. This also was noted in previous studies of VCD cases. Most notable was percent predicted values of FEF 25% to 75%, with 84% of expected values. The FEV1, FVC, and PEF all fell within predicted values of normal, despite wide ranges in age, sex, and ethnicity among the subjects. Inspiratory flattening consistent with extrathoracic obstruction was present in 58 of the 97 PFTs available for review at Eglin AFB.

Limitations

Limitations to this retrospective case series are illustrated here. Cases were found only when VCD was diagnosed and coded; and it is the authors’ suspicion that many have been misdiagnosed or improperly treated for asthma or other pulmonary/oropharynx conditions. If providers are not familiar with VCD or if PFT readings do not comment on inspiratory findings, diagnosis is less likely. Some of the authors’ colleagues already have determined that postdeployment prevalence of VCD seems to be elevated.8

This cohort was completed on all patients in a military treatment facility, with 75 active-duty personnel, 6 veterans, and 19 dependents of varying ages. This case series is retrospective and tabulates suspected risk factors; stronger and more informative studies could certainly be completed in prospective studies (although likely difficult with low prevalence) or in treatment comparison studies at the time of diagnosis.

Since the cohort had varied and lengthy time to diagnosis from onset of related symptoms, the treatment patients received prior to diagnosis differed extensively. Diagnosis was completed by numerous primary care managers or other subspecialties prior to arrival to Pulmonology and Speech Therapy at Eglin AFB. Once diagnosed in Speech Therapy, consistent treatment options were provided to patients in accordance with standard of care.

It is the authors’ suspicion that VCD may have a higher prevalence than previously reported in the literature. Military service members are tested annually or biannually on physical fitness standards and are evaluated for medical reasons for recurrent fitness standard failures. This selection of patients is more likely to have a VCD evaluation as part of a comprehensive evaluation than is a healthy adult in a civilian population. A prospective study in military service members would be more fruitful and possibly yield a higher prevalence postdeployment.

 

 

Conclusion

Vocal cord dysfunction remains a difficult diagnosis to treat, because multiple comorbidities likely contribute to the diagnosis. This retrospective case series attempted to compile common themes and noted that most of the patients had 2 or more risk factors of smoking, allergic rhinitis, GERD, or mental health diagnoses. A prospective trial would be ideal to evaluate VCD further. A focused trial in the particular communities of athletes or of military service members may be of increased benefit to better define VCD. It is notable that 100 cases were found in a relatively short period for a community hospital, and prevalence may be higher than previously reported.

References

1. Morris MJ, Christopher KL. Diagnostic criteria for the classification of vocal cord dysfunction. Chest. 2010;138(5):1213-1223.

2. National Heart, Lung, and Blood Institute. Expert panel report 3: guidelines for the diagnoses and management of asthma. Full report 2007. https://www.nhlbi.nih.gov/files/docs/guidelines/asthgdln .pdf. Published 2007.Accessed February 1, 2017.

3. Newman KB, Mason UG III, Schmaling KB. Clinical features of vocal cord dysfunction. Am J Respir Crit Care Med. 1995;152(4, pt 1):1382-1386.

4. Sanz Santiago V, López Neyra A, Almería Gil E, Villa Asensi JR. Spirometry patterns in vocal cord dysfunction [in Spanish]. An Pediatr (Barc). 2013;78(3):173-177.

5. Deckert J, Deckert L. Vocal cord dysfunction. Am Fam Physician. 2010;81(2):156-159.

6. Benninger C, Parsons JP, Mastronarde JG. Vocal cord dysfunction and asthma. Curr Opin Pulm Med. 2011;17(1):45-49.

7. Campainha S, Ribeiro C, Guimar M, Lima R. Vocal cord dysfunction: a frequently forgotten entity. Case Rep Pulmonol. 2012;2012:525493.

8. Morris MJ, Oleszewski RT, Sterner JB, Allan PF. Vocal cord dysfunction related to combat deployment. Mil Med. 2013;178(11):1208-1212.

9. Al-Alwan A, Kaminsky D. Vocal cord dysfunction in athletes: clinical presentation and review of the literature. Phys Sportsmed. 2012;40(2):22-27.

10. Kenn K, Schmitz M. Prevalence of vocal cord dysfunction in patients with dyspnea. First prospective clinical study. Am J Respir Crit Care Med. 1997;155:A965.

11. Wendler, J, Nawka, T, Verges, D. Instructional course: videolaryngo-stroboscopy and phonetography—basic tools for diagnostics and documentation in the voice clinic. Poster presented at: 15th European Congress of Oto-Rhino-Laryngology, Head and Neck Surgery; September 11-16, 2004; Rodos-Kos, Greece.

12. Ibrahim WH, Gheriani HA, Almohamed AA, Raza T. Paradoxical vocal cord motion disorder: past, present and future. Postgrad Med J. 2007;83(977):164-172.

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Dr. Nolt is a family physician at Joint Base Langley-Eustis in Virginia. Ms. Ennis is a speech language pathologist, and Dr. Ott and Dr. Roman are pulmonologists, all at Eglin Air Force Base in Florida. Dr. Ott is an assistant professor of medicine at F. Edward Herbert School of Medicine at the Uniformed Services University of the Health Sciences.

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The authors report no actual or potential conflicts of interest with regard to this article.

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The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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The authors report no actual or potential conflicts of interest with regard to this article.

Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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Dr. Nolt is a family physician at Joint Base Langley-Eustis in Virginia. Ms. Ennis is a speech language pathologist, and Dr. Ott and Dr. Roman are pulmonologists, all at Eglin Air Force Base in Florida. Dr. Ott is an assistant professor of medicine at F. Edward Herbert School of Medicine at the Uniformed Services University of the Health Sciences.

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The authors report no actual or potential conflicts of interest with regard to this article.

Disclaimer
The opinions expressed herein are those of the authors and do not necessarily reflect those of Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies. This article may discuss unlabeled or investigational use of certain drugs. Please review the complete prescribing information for specific drugs or drug combinations—including indications, contraindications, warnings, and adverse effects—before administering pharmacologic therapy to patients.

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The authors’ evaluation of vocal cord dysfunction cases reveals that prevalence may be higher than previously reported in the literature.
The authors’ evaluation of vocal cord dysfunction cases reveals that prevalence may be higher than previously reported in the literature.

Vocal cord dysfunction (VCD), also known as paradoxical vocal cord movement, is described as paroxysms of glottis obstruction due to true vocal cord adduction.1 Since VCD presents as a constellation of symptoms associated with dyspnea, it often is misdiagnosed as asthma.2 Vocal cord dysfunction often manifests as episodic dyspnea and wheezing, may occur with exercise, and may be minimally responsive to initial therapies. Flattened inspiratory curves may be noted on pulmonary function tests (PFTs), but direct laryngoscopy is the gold standard for diagnosis.3 A cohort of proven patients with VCD with a plateau in the inspiratory curve of PFTs also had a plateau on expiratory phase in 81% of cases.4

The differential diagnosis of patients presenting with upper airway symptoms is broad. It must include VCD, asthma, angioedema, laryngomalacia, vocal cord polyps, vocal cord tumors, and neurologic conditions such as brain stem compression or movement disorders. Essentially, all movement disorders of vocal cords must be considered, and organic causes of this movement disorder can be evaluated by visualization of the vocal cords. Triggers for VCD include exercise, airborne irritants, gastroesophageal reflux disease (GERD), allergic rhinitis, medications, and psychological conditions.5 Additionally, VCD can coexist with asthma, further complicating accurate diagnoses.6

Therapies are reported in case studies, but no large randomized controlled trials exist to evaluate current therapy options. Primary treatments of asthma therapy were largely ineffective, and ideal therapy includes a multidisciplinary approach, including speech therapy to optimize laryngeal control and treatment of all identified laryngeal irritants.6

The prevalence of VCD is unknown, with no prospective cohort studies completed to date and conflicting diagnostic criteria used in many case studies.7 A prevalence of 2.8% was noted in one particular cohort of 1,028 patients admitted to a rehabilitation center in a calendar year with the primary pulmonary diagnosis on admission.6 Females seemed to be affected at a higher ratio than were males, 2 to 3 females per 1 male diagnosis.7

In the military population, certain risk factors were noted in returning deployed members, including anxiety/high stress, exercise, and acute respiratory illnesses.8 In that particular cohort, 72% positive predictive value was noted for VCD if flattened inspiratory flow loops with negative methacholine challenge were present.

Diagnostic criteria are challenging, as symptoms such as dyspnea may be present acutely, last < 2 minutes, be self-limiting, and completely resolve outside of acute events. Stridor may be noted, primarily above the vocal cords, and less audible on chest auscultation.6 A goal of therapy, in addition to dedicated speech pathologist input, is optimizing comedical conditions, including GERD, allergic rhinitis, concomitant asthma, and any psychological diagnoses.9

Athletes are a particular subset of patients with VCD who are crucial to appropriately diagnose, including a detailed history and physical, PFTs, and proceeding to direct laryngoscopy to confirm diagnoses.10 Behavioral management includes rescue breathing techniques, and speech therapy programs focus on relaxation of the larynx and diaphragmatic breathing techniques, with the goal of establishing sense of control during acute events.10 Military service members are expected to operate at a high-intensity level similar to that of athletes, and treatments considered for athletes are applicable to military service members as well. Military strength and cardiovascular standards are measured by a combination of push-ups, sit-ups, and a run test, in addition to waist measurements. Some of the cohort were identified during physical fitness standard failures, usually in the run test, and ultimately received a pulmonology referral for wheezing or dyspnea with exertion. The objective of this retrospective cohort study was to evaluate 100 consecutively diagnosed cases of VCD in a military treatment facility.

Methods

The authors conducted a retrospective chart review of DoD military medical records of outpatient diagnoses in 100 consecutive diagnoses of VCD from January 2011 to February 2014. Institutional review board approval was obtained under Project RSM20130001E by the Exempt Determination Official at Eglin Air Force Base (AFB), Florida.

All cases were identified at time of VCD visualization and were diagnosed with video stroboscopy by speech therapy or by visual laryngoscopy by the otolaryngology or pulmonology departments via direct visualization.

Cases were collected chronologically, and all diagnosed cases at Eglin AFB hospital were included. Follow-up was scheduled with all patients diagnosed in Speech Therapy, and most patients were concurrently treated by Pulmonology or Allergy/Immunology. Pulmonary function tests were obtained in 98 of the 100 diagnosed cases. Patients eligible for care at Eglin AFB included active-duty and Reserve military members plus dependents and retirees.

The majority of patients diagnosed in this cohort were seen and diagnosed by Speech Therapy. Video stroboscopy is based on the principle that a movement of an object higher than a certain flicker rate appears to stand still to direct visualization, but with a rate of light exposure and imaging above the flicker rate by video, the true movement of the object can be identified.¹¹ Video stroboscopy is considered highly sensitive for organic disorders of vocal cords, but it is not specific for either organic or dysfunctional disorders.¹¹ It is still the gold standard above direct visualization, as it can detect abnormal movement of vocal cords above the critical rate that the human eye would perceive as not moving due to the frequency of movement (Figures 1 & 2).¹¹

In an older study, laryngoscopy was able to diagnose 100% of patients with symptomatic paradoxical vocal cord movement and additional 60% asymptomatic patients with a constellation of symptoms consistent with paradoxical vocal cord movement.¹²

Speech Therapy; Ear, Nose, and Throat (ENT); and Pulmonology may not perform direct visualization in these patients at initial presentation due to other suspected diagnoses. A more common test is the PFT, especially if asthma or other airway tract diseases are suspected (Figure 3).

 

 

Patient Descriptions

Study patients were referred for a variety of reasons, often from primary care clinics for concerns for asthma, episodic dyspnea, wheezing, or decreased exercise tolerance thought to be related to pulmonary or allergy causes. Pulmonology worked closely with Speech Therapy and referred VCD cases for speech evaluation, including video stroboscopy. Notably, of the patients in this cohort, although some were suspected to have asthma, those patients were ruled out during part of the pulmonology evaluation, both with PFT testing and methacholine challenges. An asthma diagnosis is important in a military treatment facility, as asthma is often grounds for discharge.

Patients ranged in age from 13 to 68 years, with a median age at 31 years diagnosis. Thirty-nine females and 61 males comprised the total case series. Speech Therapy diagnosed 97 patients, 96 were diagnosed at Eglin AFB hospital via stroboscopy. One patient was diagnosed off-base by Speech Therapy via direct visualization, 1 patient was diagnosed by Pulmonology on-base via direct visualization, and 2 patients were diagnosed by ENT on-base via direct visualization. These patients had direct laryngoscopy completed, often to rule out other organic causes for upper airway disease processes, and were found to have visual paradoxical vocal cord movement. Ninety-eight patients completed PFTs. Several patients were lost to follow-up, as can be common in a military population with frequent moves or members leaving service.

On record review, patient symptoms were present in the range of 2 months to 20 years, with a median duration of symptomatic reports lasting 2 years prior to diagnosis. Common diagnoses prior to visual VCD diagnosis included asthma, exercise-induced asthma, anxiety, and episodic wheezing. Risk factors that were evaluated in this case series included age, sex, body mass index (BMI), GERD, allergic rhinitis, postnasal drip, active smoker, previous smoker, and mental health diagnoses (Figure 4).

Pulmonary function test results were analyzed on 98 patients, including forced expiratory volume in 1 second (FEV1); forced vital capacity (FVC), FEV1/FVC ratio; peak inspiratory flow (PIF) and peak expiratory flow (PEF)—available in 97 studies; forced expiratory flow (FEF) at 25% to 75% of FVC (FEF 25%-75%)—available in 96 studies; and maximum voluntary ventilation (MVV) and MVV/FEV1 ratio—available in 60 of 98 PFTs.

 

Interventions

All patients diagnosed by Speech Therapy on-base were provided with laryngeal relaxation techniques, diaphragmatic breathing techniques, and controlled inhale/exhale techniques at time of diagnosis, with frequent follow-up scheduled with Speech Therapy and Pulmonology. All diagnoses potentially contributing to laryngeal irritation were treated, including GERD, allergic rhinitis, smoking cessation, weight loss, and exercise recommendations as needed.

Patients reported improvement on follow-up appointments with Speech Therapy in overall control of symptoms, subjectively categorized as poor improvement, partial improvement, and complete improvement. This was a subjective measurement of improvement and fully dependent on follow-up care and patient reporting for improvement. No predefined number of follow-ups was determined; patients were followed monthly until they declined further care, fully improved, moved out of the military treatment system, or were lost to follow-up.

Treatment included structured Speech Therapy sessions. Response to treatment was subjectively qualified by patient report. Fifteen patients reported complete resolution of symptoms, 57 reported partial improvement, 24 reported poor improvement, and 4 patients were lost to follow-up.

Results

Risk factors for the diagnosis of VCD included possible associations with GERD, allergic rhinitis, smoking, prior smoking, BMI, and mental health diagnoses. Body mass index ranged from 17 to 36 in the case series, with median BMI of 27. Mental health diagnoses were present in 35 patients and included diagnoses of anxiety, depression, and adjustment disorders. Gastroesophageal reflux disease diagnosis was present in 59 of the case series patients, 80 had the diagnosis of allergic rhinitis, 63 were diagnosed with postnasal drip. Sixteen case series patients were current smokers. An additional 26 were previous smokers (at least 100 cigarettes in lifetime) for a total of 42 patients that were current or prior smokers.

The chart review was completed to evaluate for the presence of these diagnoses, which included previous treatments; for example, proton pump inhibitors for GERD, antidepressants for depression, or intranasal steroids for allergic rhinitis. The diagnosis was counted as present if the patient was currently being treated for the particular diagnosis in question.

PFT Data

Data from PFTs were available for 98 of 100 cases diagnosed. Review of data across all 98 patients is noted for median FEV1 of 3.6, a median FVC of 4.5, with ratio of 0.80.

The median PIF was 5.1, and median PEF was 8.2, with a PIF/PEF ratio of 0.62. Mid-flow volumes also were analyzed, and FEF 25% to 75% median was 3.3. For the 60 patients that had minute ventilator volumes calculated, the median MVV was 118.5 L/min and median MVV/FEV1 was 32.0 (Table).

 

 

Since PFT values vary according to age, sex, and ethnicity, PFTs were analyzed for percent predicted values based on age, gender, and race. Notably, median values for FEV1, FVC, and PEF were all close to 100% of the predicted value. The MVV percent predicted was available in 60 cases and was 93% of predicted values. The most significant difference from expected values was FEF 25% to 75%, at 84% of expected results.

Flow-volume loop evaluations on the 97 PFTs available were completed, and 58 of the 97 were noted for variable extrathoracic airway obstruction consistent with inspiratory inhibition in the patient population. This is 60% of the available PFTs in this cohort study.

Discussion

This retrospective chart review of 100 consecutive VCD diagnoses in a military treatment facility reinforces many of the findings currently available in the literature. As illustrated in a Chest review article, the diagnosis of VCD on history, physical examination, or PFTs remains ellusive.1 The PFT evaluation contains some subjectivity regarding the flattening of inspiratory flow-volume loops and is not routinely reported in PFT results. In patients diagnosed with VCD, a clear consensus of treatment modalities remains lacking. Modification of risk factors (allergic rhinitis, GERD, smoking cessation, weight loss) assisted in self-reported patient improvement, as did focused speech therapy.

The median age of 31 years, likely reflected the younger military population served at Eglin AFB. Seventy-five of these patients were currently on active duty, 6 were retired from active duty (veterans), and 19 were dependents. The median time of symptoms to diagnosis was 2 years. Prior misdiagnosis with other diseases such as asthma was common. Also, referral to Pulmonology and Speech Therapy was usually completed after failed outpatient primary care management for the alternative diagnoses.

Improvement with therapy was mixed, and during the time of documented follow-up, 72 patients reported complete or partial improvement. Most active-duty patients in the partial improvement category based this subjective reporting on their ability to meet military physical fitness standards.

Previous data suggested a female predominance, but this study population was 61% male. Military populations are about 80% to 85% male, so an increase in male diagnosis is expected.

Many patients in the patient cohort arrived as a result of Pulmonology referrals with a presumptive diagnoses of asthma but were determined not to have asthma through PFT results inconsistent with asthma, no improvement with β-agonist therapies, and negative methacholine challenges (if performed). These results prompted evaluations for other conditions and eventually a VCD diagnosis. As noted, exclusion of asthma is of particular importance in a military population, as medical discharges often are pursued in service members with asthma whether controlled or uncontrolled. Lag time to referral also is possible in failures of military physical, which prompted medical evaluation once several failures had occurred over a 1- to 2-year time frame.

The PFT data evaluation was inconclusive for statistically significant changes when compared with age-matched normal PFT values. This also was noted in previous studies of VCD cases. Most notable was percent predicted values of FEF 25% to 75%, with 84% of expected values. The FEV1, FVC, and PEF all fell within predicted values of normal, despite wide ranges in age, sex, and ethnicity among the subjects. Inspiratory flattening consistent with extrathoracic obstruction was present in 58 of the 97 PFTs available for review at Eglin AFB.

Limitations

Limitations to this retrospective case series are illustrated here. Cases were found only when VCD was diagnosed and coded; and it is the authors’ suspicion that many have been misdiagnosed or improperly treated for asthma or other pulmonary/oropharynx conditions. If providers are not familiar with VCD or if PFT readings do not comment on inspiratory findings, diagnosis is less likely. Some of the authors’ colleagues already have determined that postdeployment prevalence of VCD seems to be elevated.8

This cohort was completed on all patients in a military treatment facility, with 75 active-duty personnel, 6 veterans, and 19 dependents of varying ages. This case series is retrospective and tabulates suspected risk factors; stronger and more informative studies could certainly be completed in prospective studies (although likely difficult with low prevalence) or in treatment comparison studies at the time of diagnosis.

Since the cohort had varied and lengthy time to diagnosis from onset of related symptoms, the treatment patients received prior to diagnosis differed extensively. Diagnosis was completed by numerous primary care managers or other subspecialties prior to arrival to Pulmonology and Speech Therapy at Eglin AFB. Once diagnosed in Speech Therapy, consistent treatment options were provided to patients in accordance with standard of care.

It is the authors’ suspicion that VCD may have a higher prevalence than previously reported in the literature. Military service members are tested annually or biannually on physical fitness standards and are evaluated for medical reasons for recurrent fitness standard failures. This selection of patients is more likely to have a VCD evaluation as part of a comprehensive evaluation than is a healthy adult in a civilian population. A prospective study in military service members would be more fruitful and possibly yield a higher prevalence postdeployment.

 

 

Conclusion

Vocal cord dysfunction remains a difficult diagnosis to treat, because multiple comorbidities likely contribute to the diagnosis. This retrospective case series attempted to compile common themes and noted that most of the patients had 2 or more risk factors of smoking, allergic rhinitis, GERD, or mental health diagnoses. A prospective trial would be ideal to evaluate VCD further. A focused trial in the particular communities of athletes or of military service members may be of increased benefit to better define VCD. It is notable that 100 cases were found in a relatively short period for a community hospital, and prevalence may be higher than previously reported.

Vocal cord dysfunction (VCD), also known as paradoxical vocal cord movement, is described as paroxysms of glottis obstruction due to true vocal cord adduction.1 Since VCD presents as a constellation of symptoms associated with dyspnea, it often is misdiagnosed as asthma.2 Vocal cord dysfunction often manifests as episodic dyspnea and wheezing, may occur with exercise, and may be minimally responsive to initial therapies. Flattened inspiratory curves may be noted on pulmonary function tests (PFTs), but direct laryngoscopy is the gold standard for diagnosis.3 A cohort of proven patients with VCD with a plateau in the inspiratory curve of PFTs also had a plateau on expiratory phase in 81% of cases.4

The differential diagnosis of patients presenting with upper airway symptoms is broad. It must include VCD, asthma, angioedema, laryngomalacia, vocal cord polyps, vocal cord tumors, and neurologic conditions such as brain stem compression or movement disorders. Essentially, all movement disorders of vocal cords must be considered, and organic causes of this movement disorder can be evaluated by visualization of the vocal cords. Triggers for VCD include exercise, airborne irritants, gastroesophageal reflux disease (GERD), allergic rhinitis, medications, and psychological conditions.5 Additionally, VCD can coexist with asthma, further complicating accurate diagnoses.6

Therapies are reported in case studies, but no large randomized controlled trials exist to evaluate current therapy options. Primary treatments of asthma therapy were largely ineffective, and ideal therapy includes a multidisciplinary approach, including speech therapy to optimize laryngeal control and treatment of all identified laryngeal irritants.6

The prevalence of VCD is unknown, with no prospective cohort studies completed to date and conflicting diagnostic criteria used in many case studies.7 A prevalence of 2.8% was noted in one particular cohort of 1,028 patients admitted to a rehabilitation center in a calendar year with the primary pulmonary diagnosis on admission.6 Females seemed to be affected at a higher ratio than were males, 2 to 3 females per 1 male diagnosis.7

In the military population, certain risk factors were noted in returning deployed members, including anxiety/high stress, exercise, and acute respiratory illnesses.8 In that particular cohort, 72% positive predictive value was noted for VCD if flattened inspiratory flow loops with negative methacholine challenge were present.

Diagnostic criteria are challenging, as symptoms such as dyspnea may be present acutely, last < 2 minutes, be self-limiting, and completely resolve outside of acute events. Stridor may be noted, primarily above the vocal cords, and less audible on chest auscultation.6 A goal of therapy, in addition to dedicated speech pathologist input, is optimizing comedical conditions, including GERD, allergic rhinitis, concomitant asthma, and any psychological diagnoses.9

Athletes are a particular subset of patients with VCD who are crucial to appropriately diagnose, including a detailed history and physical, PFTs, and proceeding to direct laryngoscopy to confirm diagnoses.10 Behavioral management includes rescue breathing techniques, and speech therapy programs focus on relaxation of the larynx and diaphragmatic breathing techniques, with the goal of establishing sense of control during acute events.10 Military service members are expected to operate at a high-intensity level similar to that of athletes, and treatments considered for athletes are applicable to military service members as well. Military strength and cardiovascular standards are measured by a combination of push-ups, sit-ups, and a run test, in addition to waist measurements. Some of the cohort were identified during physical fitness standard failures, usually in the run test, and ultimately received a pulmonology referral for wheezing or dyspnea with exertion. The objective of this retrospective cohort study was to evaluate 100 consecutively diagnosed cases of VCD in a military treatment facility.

Methods

The authors conducted a retrospective chart review of DoD military medical records of outpatient diagnoses in 100 consecutive diagnoses of VCD from January 2011 to February 2014. Institutional review board approval was obtained under Project RSM20130001E by the Exempt Determination Official at Eglin Air Force Base (AFB), Florida.

All cases were identified at time of VCD visualization and were diagnosed with video stroboscopy by speech therapy or by visual laryngoscopy by the otolaryngology or pulmonology departments via direct visualization.

Cases were collected chronologically, and all diagnosed cases at Eglin AFB hospital were included. Follow-up was scheduled with all patients diagnosed in Speech Therapy, and most patients were concurrently treated by Pulmonology or Allergy/Immunology. Pulmonary function tests were obtained in 98 of the 100 diagnosed cases. Patients eligible for care at Eglin AFB included active-duty and Reserve military members plus dependents and retirees.

The majority of patients diagnosed in this cohort were seen and diagnosed by Speech Therapy. Video stroboscopy is based on the principle that a movement of an object higher than a certain flicker rate appears to stand still to direct visualization, but with a rate of light exposure and imaging above the flicker rate by video, the true movement of the object can be identified.¹¹ Video stroboscopy is considered highly sensitive for organic disorders of vocal cords, but it is not specific for either organic or dysfunctional disorders.¹¹ It is still the gold standard above direct visualization, as it can detect abnormal movement of vocal cords above the critical rate that the human eye would perceive as not moving due to the frequency of movement (Figures 1 & 2).¹¹

In an older study, laryngoscopy was able to diagnose 100% of patients with symptomatic paradoxical vocal cord movement and additional 60% asymptomatic patients with a constellation of symptoms consistent with paradoxical vocal cord movement.¹²

Speech Therapy; Ear, Nose, and Throat (ENT); and Pulmonology may not perform direct visualization in these patients at initial presentation due to other suspected diagnoses. A more common test is the PFT, especially if asthma or other airway tract diseases are suspected (Figure 3).

 

 

Patient Descriptions

Study patients were referred for a variety of reasons, often from primary care clinics for concerns for asthma, episodic dyspnea, wheezing, or decreased exercise tolerance thought to be related to pulmonary or allergy causes. Pulmonology worked closely with Speech Therapy and referred VCD cases for speech evaluation, including video stroboscopy. Notably, of the patients in this cohort, although some were suspected to have asthma, those patients were ruled out during part of the pulmonology evaluation, both with PFT testing and methacholine challenges. An asthma diagnosis is important in a military treatment facility, as asthma is often grounds for discharge.

Patients ranged in age from 13 to 68 years, with a median age at 31 years diagnosis. Thirty-nine females and 61 males comprised the total case series. Speech Therapy diagnosed 97 patients, 96 were diagnosed at Eglin AFB hospital via stroboscopy. One patient was diagnosed off-base by Speech Therapy via direct visualization, 1 patient was diagnosed by Pulmonology on-base via direct visualization, and 2 patients were diagnosed by ENT on-base via direct visualization. These patients had direct laryngoscopy completed, often to rule out other organic causes for upper airway disease processes, and were found to have visual paradoxical vocal cord movement. Ninety-eight patients completed PFTs. Several patients were lost to follow-up, as can be common in a military population with frequent moves or members leaving service.

On record review, patient symptoms were present in the range of 2 months to 20 years, with a median duration of symptomatic reports lasting 2 years prior to diagnosis. Common diagnoses prior to visual VCD diagnosis included asthma, exercise-induced asthma, anxiety, and episodic wheezing. Risk factors that were evaluated in this case series included age, sex, body mass index (BMI), GERD, allergic rhinitis, postnasal drip, active smoker, previous smoker, and mental health diagnoses (Figure 4).

Pulmonary function test results were analyzed on 98 patients, including forced expiratory volume in 1 second (FEV1); forced vital capacity (FVC), FEV1/FVC ratio; peak inspiratory flow (PIF) and peak expiratory flow (PEF)—available in 97 studies; forced expiratory flow (FEF) at 25% to 75% of FVC (FEF 25%-75%)—available in 96 studies; and maximum voluntary ventilation (MVV) and MVV/FEV1 ratio—available in 60 of 98 PFTs.

 

Interventions

All patients diagnosed by Speech Therapy on-base were provided with laryngeal relaxation techniques, diaphragmatic breathing techniques, and controlled inhale/exhale techniques at time of diagnosis, with frequent follow-up scheduled with Speech Therapy and Pulmonology. All diagnoses potentially contributing to laryngeal irritation were treated, including GERD, allergic rhinitis, smoking cessation, weight loss, and exercise recommendations as needed.

Patients reported improvement on follow-up appointments with Speech Therapy in overall control of symptoms, subjectively categorized as poor improvement, partial improvement, and complete improvement. This was a subjective measurement of improvement and fully dependent on follow-up care and patient reporting for improvement. No predefined number of follow-ups was determined; patients were followed monthly until they declined further care, fully improved, moved out of the military treatment system, or were lost to follow-up.

Treatment included structured Speech Therapy sessions. Response to treatment was subjectively qualified by patient report. Fifteen patients reported complete resolution of symptoms, 57 reported partial improvement, 24 reported poor improvement, and 4 patients were lost to follow-up.

Results

Risk factors for the diagnosis of VCD included possible associations with GERD, allergic rhinitis, smoking, prior smoking, BMI, and mental health diagnoses. Body mass index ranged from 17 to 36 in the case series, with median BMI of 27. Mental health diagnoses were present in 35 patients and included diagnoses of anxiety, depression, and adjustment disorders. Gastroesophageal reflux disease diagnosis was present in 59 of the case series patients, 80 had the diagnosis of allergic rhinitis, 63 were diagnosed with postnasal drip. Sixteen case series patients were current smokers. An additional 26 were previous smokers (at least 100 cigarettes in lifetime) for a total of 42 patients that were current or prior smokers.

The chart review was completed to evaluate for the presence of these diagnoses, which included previous treatments; for example, proton pump inhibitors for GERD, antidepressants for depression, or intranasal steroids for allergic rhinitis. The diagnosis was counted as present if the patient was currently being treated for the particular diagnosis in question.

PFT Data

Data from PFTs were available for 98 of 100 cases diagnosed. Review of data across all 98 patients is noted for median FEV1 of 3.6, a median FVC of 4.5, with ratio of 0.80.

The median PIF was 5.1, and median PEF was 8.2, with a PIF/PEF ratio of 0.62. Mid-flow volumes also were analyzed, and FEF 25% to 75% median was 3.3. For the 60 patients that had minute ventilator volumes calculated, the median MVV was 118.5 L/min and median MVV/FEV1 was 32.0 (Table).

 

 

Since PFT values vary according to age, sex, and ethnicity, PFTs were analyzed for percent predicted values based on age, gender, and race. Notably, median values for FEV1, FVC, and PEF were all close to 100% of the predicted value. The MVV percent predicted was available in 60 cases and was 93% of predicted values. The most significant difference from expected values was FEF 25% to 75%, at 84% of expected results.

Flow-volume loop evaluations on the 97 PFTs available were completed, and 58 of the 97 were noted for variable extrathoracic airway obstruction consistent with inspiratory inhibition in the patient population. This is 60% of the available PFTs in this cohort study.

Discussion

This retrospective chart review of 100 consecutive VCD diagnoses in a military treatment facility reinforces many of the findings currently available in the literature. As illustrated in a Chest review article, the diagnosis of VCD on history, physical examination, or PFTs remains ellusive.1 The PFT evaluation contains some subjectivity regarding the flattening of inspiratory flow-volume loops and is not routinely reported in PFT results. In patients diagnosed with VCD, a clear consensus of treatment modalities remains lacking. Modification of risk factors (allergic rhinitis, GERD, smoking cessation, weight loss) assisted in self-reported patient improvement, as did focused speech therapy.

The median age of 31 years, likely reflected the younger military population served at Eglin AFB. Seventy-five of these patients were currently on active duty, 6 were retired from active duty (veterans), and 19 were dependents. The median time of symptoms to diagnosis was 2 years. Prior misdiagnosis with other diseases such as asthma was common. Also, referral to Pulmonology and Speech Therapy was usually completed after failed outpatient primary care management for the alternative diagnoses.

Improvement with therapy was mixed, and during the time of documented follow-up, 72 patients reported complete or partial improvement. Most active-duty patients in the partial improvement category based this subjective reporting on their ability to meet military physical fitness standards.

Previous data suggested a female predominance, but this study population was 61% male. Military populations are about 80% to 85% male, so an increase in male diagnosis is expected.

Many patients in the patient cohort arrived as a result of Pulmonology referrals with a presumptive diagnoses of asthma but were determined not to have asthma through PFT results inconsistent with asthma, no improvement with β-agonist therapies, and negative methacholine challenges (if performed). These results prompted evaluations for other conditions and eventually a VCD diagnosis. As noted, exclusion of asthma is of particular importance in a military population, as medical discharges often are pursued in service members with asthma whether controlled or uncontrolled. Lag time to referral also is possible in failures of military physical, which prompted medical evaluation once several failures had occurred over a 1- to 2-year time frame.

The PFT data evaluation was inconclusive for statistically significant changes when compared with age-matched normal PFT values. This also was noted in previous studies of VCD cases. Most notable was percent predicted values of FEF 25% to 75%, with 84% of expected values. The FEV1, FVC, and PEF all fell within predicted values of normal, despite wide ranges in age, sex, and ethnicity among the subjects. Inspiratory flattening consistent with extrathoracic obstruction was present in 58 of the 97 PFTs available for review at Eglin AFB.

Limitations

Limitations to this retrospective case series are illustrated here. Cases were found only when VCD was diagnosed and coded; and it is the authors’ suspicion that many have been misdiagnosed or improperly treated for asthma or other pulmonary/oropharynx conditions. If providers are not familiar with VCD or if PFT readings do not comment on inspiratory findings, diagnosis is less likely. Some of the authors’ colleagues already have determined that postdeployment prevalence of VCD seems to be elevated.8

This cohort was completed on all patients in a military treatment facility, with 75 active-duty personnel, 6 veterans, and 19 dependents of varying ages. This case series is retrospective and tabulates suspected risk factors; stronger and more informative studies could certainly be completed in prospective studies (although likely difficult with low prevalence) or in treatment comparison studies at the time of diagnosis.

Since the cohort had varied and lengthy time to diagnosis from onset of related symptoms, the treatment patients received prior to diagnosis differed extensively. Diagnosis was completed by numerous primary care managers or other subspecialties prior to arrival to Pulmonology and Speech Therapy at Eglin AFB. Once diagnosed in Speech Therapy, consistent treatment options were provided to patients in accordance with standard of care.

It is the authors’ suspicion that VCD may have a higher prevalence than previously reported in the literature. Military service members are tested annually or biannually on physical fitness standards and are evaluated for medical reasons for recurrent fitness standard failures. This selection of patients is more likely to have a VCD evaluation as part of a comprehensive evaluation than is a healthy adult in a civilian population. A prospective study in military service members would be more fruitful and possibly yield a higher prevalence postdeployment.

 

 

Conclusion

Vocal cord dysfunction remains a difficult diagnosis to treat, because multiple comorbidities likely contribute to the diagnosis. This retrospective case series attempted to compile common themes and noted that most of the patients had 2 or more risk factors of smoking, allergic rhinitis, GERD, or mental health diagnoses. A prospective trial would be ideal to evaluate VCD further. A focused trial in the particular communities of athletes or of military service members may be of increased benefit to better define VCD. It is notable that 100 cases were found in a relatively short period for a community hospital, and prevalence may be higher than previously reported.

References

1. Morris MJ, Christopher KL. Diagnostic criteria for the classification of vocal cord dysfunction. Chest. 2010;138(5):1213-1223.

2. National Heart, Lung, and Blood Institute. Expert panel report 3: guidelines for the diagnoses and management of asthma. Full report 2007. https://www.nhlbi.nih.gov/files/docs/guidelines/asthgdln .pdf. Published 2007.Accessed February 1, 2017.

3. Newman KB, Mason UG III, Schmaling KB. Clinical features of vocal cord dysfunction. Am J Respir Crit Care Med. 1995;152(4, pt 1):1382-1386.

4. Sanz Santiago V, López Neyra A, Almería Gil E, Villa Asensi JR. Spirometry patterns in vocal cord dysfunction [in Spanish]. An Pediatr (Barc). 2013;78(3):173-177.

5. Deckert J, Deckert L. Vocal cord dysfunction. Am Fam Physician. 2010;81(2):156-159.

6. Benninger C, Parsons JP, Mastronarde JG. Vocal cord dysfunction and asthma. Curr Opin Pulm Med. 2011;17(1):45-49.

7. Campainha S, Ribeiro C, Guimar M, Lima R. Vocal cord dysfunction: a frequently forgotten entity. Case Rep Pulmonol. 2012;2012:525493.

8. Morris MJ, Oleszewski RT, Sterner JB, Allan PF. Vocal cord dysfunction related to combat deployment. Mil Med. 2013;178(11):1208-1212.

9. Al-Alwan A, Kaminsky D. Vocal cord dysfunction in athletes: clinical presentation and review of the literature. Phys Sportsmed. 2012;40(2):22-27.

10. Kenn K, Schmitz M. Prevalence of vocal cord dysfunction in patients with dyspnea. First prospective clinical study. Am J Respir Crit Care Med. 1997;155:A965.

11. Wendler, J, Nawka, T, Verges, D. Instructional course: videolaryngo-stroboscopy and phonetography—basic tools for diagnostics and documentation in the voice clinic. Poster presented at: 15th European Congress of Oto-Rhino-Laryngology, Head and Neck Surgery; September 11-16, 2004; Rodos-Kos, Greece.

12. Ibrahim WH, Gheriani HA, Almohamed AA, Raza T. Paradoxical vocal cord motion disorder: past, present and future. Postgrad Med J. 2007;83(977):164-172.

References

1. Morris MJ, Christopher KL. Diagnostic criteria for the classification of vocal cord dysfunction. Chest. 2010;138(5):1213-1223.

2. National Heart, Lung, and Blood Institute. Expert panel report 3: guidelines for the diagnoses and management of asthma. Full report 2007. https://www.nhlbi.nih.gov/files/docs/guidelines/asthgdln .pdf. Published 2007.Accessed February 1, 2017.

3. Newman KB, Mason UG III, Schmaling KB. Clinical features of vocal cord dysfunction. Am J Respir Crit Care Med. 1995;152(4, pt 1):1382-1386.

4. Sanz Santiago V, López Neyra A, Almería Gil E, Villa Asensi JR. Spirometry patterns in vocal cord dysfunction [in Spanish]. An Pediatr (Barc). 2013;78(3):173-177.

5. Deckert J, Deckert L. Vocal cord dysfunction. Am Fam Physician. 2010;81(2):156-159.

6. Benninger C, Parsons JP, Mastronarde JG. Vocal cord dysfunction and asthma. Curr Opin Pulm Med. 2011;17(1):45-49.

7. Campainha S, Ribeiro C, Guimar M, Lima R. Vocal cord dysfunction: a frequently forgotten entity. Case Rep Pulmonol. 2012;2012:525493.

8. Morris MJ, Oleszewski RT, Sterner JB, Allan PF. Vocal cord dysfunction related to combat deployment. Mil Med. 2013;178(11):1208-1212.

9. Al-Alwan A, Kaminsky D. Vocal cord dysfunction in athletes: clinical presentation and review of the literature. Phys Sportsmed. 2012;40(2):22-27.

10. Kenn K, Schmitz M. Prevalence of vocal cord dysfunction in patients with dyspnea. First prospective clinical study. Am J Respir Crit Care Med. 1997;155:A965.

11. Wendler, J, Nawka, T, Verges, D. Instructional course: videolaryngo-stroboscopy and phonetography—basic tools for diagnostics and documentation in the voice clinic. Poster presented at: 15th European Congress of Oto-Rhino-Laryngology, Head and Neck Surgery; September 11-16, 2004; Rodos-Kos, Greece.

12. Ibrahim WH, Gheriani HA, Almohamed AA, Raza T. Paradoxical vocal cord motion disorder: past, present and future. Postgrad Med J. 2007;83(977):164-172.

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Odontogenic Sinusitis

Article Type
Changed
A dental infection was the cause of a patient’s persistent sinus infection.

A 55-year-old man who had experienced discolored nasal drainage and mucus plugs in the right side of his nose for 5 years was referred to the ear, nose, and throat clinic. A computerized tomography (CT) scan showed opacification of the right ethmoid and maxillary sinuses and periapical radiolucency in the first and second right maxillary molars (Figure 1).

On physical examination, extensive decay was noted in the teeth corresponding to the periapical lesions. Endoscopic evaluation of the nose revealed mucosal swelling in the right middle meatus and pus draining from the right maxillary sinus ostium.

The patient was treated with antibiotics (amoxicillin and clavulanate; moxifloxacin) and nasal rinses but failed to improve.

As a result, the patient underwent endoscopic sinus surgery. Postoperatively, the patient’s symptoms recurred, and the maxillary sinus was filled with pus. A repeat CT scan showed swelling of the maxillary sinus mucosa (Figure 2, arrow B).

The maxillary molars were considered the source of the persistent sinus infection, and the patient was referred to oral surgery for extraction. Three months after oral surgery, the extraction sites were completely healed, and the right maxillary sinus appeared free of disease endoscopically (Figure 3).

Dental infections should be considered a source of maxillary sinus disease especially in cases of rhinosinusitis that do not resolve with standard medical and surgical management.1,2

References

1 . Wang KL, Nichols BG, Poetker DM, Loehrl TA. Odontogenic sinusitis: a case series studying diagnosis and management. Int Forum Allergy Rhinol. 2015;5(7):597-601.

2. Patel NA, Ferguson BJ. Odontogenic sinusitis: an ancient but under-appreciated cause of maxillary sinusitis. Curr Opin Otolaryngol Head Neck Surg. 2012;20(1):24-28.

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The opinions expressed herein are those of the author and do not necessarily reflect those of
Federal Practitioner, Frontline Medical Communications Inc., the U.S. Government, or any of its agencies.

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Related Articles
A dental infection was the cause of a patient’s persistent sinus infection.
A dental infection was the cause of a patient’s persistent sinus infection.

A 55-year-old man who had experienced discolored nasal drainage and mucus plugs in the right side of his nose for 5 years was referred to the ear, nose, and throat clinic. A computerized tomography (CT) scan showed opacification of the right ethmoid and maxillary sinuses and periapical radiolucency in the first and second right maxillary molars (Figure 1).

On physical examination, extensive decay was noted in the teeth corresponding to the periapical lesions. Endoscopic evaluation of the nose revealed mucosal swelling in the right middle meatus and pus draining from the right maxillary sinus ostium.

The patient was treated with antibiotics (amoxicillin and clavulanate; moxifloxacin) and nasal rinses but failed to improve.

As a result, the patient underwent endoscopic sinus surgery. Postoperatively, the patient’s symptoms recurred, and the maxillary sinus was filled with pus. A repeat CT scan showed swelling of the maxillary sinus mucosa (Figure 2, arrow B).

The maxillary molars were considered the source of the persistent sinus infection, and the patient was referred to oral surgery for extraction. Three months after oral surgery, the extraction sites were completely healed, and the right maxillary sinus appeared free of disease endoscopically (Figure 3).

Dental infections should be considered a source of maxillary sinus disease especially in cases of rhinosinusitis that do not resolve with standard medical and surgical management.1,2

A 55-year-old man who had experienced discolored nasal drainage and mucus plugs in the right side of his nose for 5 years was referred to the ear, nose, and throat clinic. A computerized tomography (CT) scan showed opacification of the right ethmoid and maxillary sinuses and periapical radiolucency in the first and second right maxillary molars (Figure 1).

On physical examination, extensive decay was noted in the teeth corresponding to the periapical lesions. Endoscopic evaluation of the nose revealed mucosal swelling in the right middle meatus and pus draining from the right maxillary sinus ostium.

The patient was treated with antibiotics (amoxicillin and clavulanate; moxifloxacin) and nasal rinses but failed to improve.

As a result, the patient underwent endoscopic sinus surgery. Postoperatively, the patient’s symptoms recurred, and the maxillary sinus was filled with pus. A repeat CT scan showed swelling of the maxillary sinus mucosa (Figure 2, arrow B).

The maxillary molars were considered the source of the persistent sinus infection, and the patient was referred to oral surgery for extraction. Three months after oral surgery, the extraction sites were completely healed, and the right maxillary sinus appeared free of disease endoscopically (Figure 3).

Dental infections should be considered a source of maxillary sinus disease especially in cases of rhinosinusitis that do not resolve with standard medical and surgical management.1,2

References

1 . Wang KL, Nichols BG, Poetker DM, Loehrl TA. Odontogenic sinusitis: a case series studying diagnosis and management. Int Forum Allergy Rhinol. 2015;5(7):597-601.

2. Patel NA, Ferguson BJ. Odontogenic sinusitis: an ancient but under-appreciated cause of maxillary sinusitis. Curr Opin Otolaryngol Head Neck Surg. 2012;20(1):24-28.

References

1 . Wang KL, Nichols BG, Poetker DM, Loehrl TA. Odontogenic sinusitis: a case series studying diagnosis and management. Int Forum Allergy Rhinol. 2015;5(7):597-601.

2. Patel NA, Ferguson BJ. Odontogenic sinusitis: an ancient but under-appreciated cause of maxillary sinusitis. Curr Opin Otolaryngol Head Neck Surg. 2012;20(1):24-28.

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