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Supporting Suicidal Patients After Discharge from the Emergency Department
From the Department of Psychiatry, Brigham and Women’s Hospital, and Harvard Medical School, Boston, MA.
Abstract
- Objective: To provide a review of emergency department (ED)-based psychosocial interventions that support adult patients with an identified suicide risk towards a goal of reducing subsequent suicidal behavior through the period after discharge, which is known to be a time of high risk for suicidal behavior.
- Methods: Non-systematic review of the literature.
- Results: Multiple methods of engaging patients after discharge from the ED have been shown to reduce subsequent suicidal behaviors. These methods include sending caring letters in the mail, facilitating supportive phone conversations, case management, and protocols that combine different services. Overall, the existing literature is insufficient to recommend widespread adoption of any individual strategy or protocol. However, providing psychosocial and emotional support to patients with an identified suicide risk after they are discharged from the ED is feasible and may reduce subsequent suicidal behaviors. Templates for providing supportive outreach using different modalities now exist, and these may help guide the ongoing development and widespread adoption of more effective and cost-effective solutions.
- Conclusion: Many ED–based interventions that provide enhanced support to patients with suicide risk after they are discharged have demonstrated a potential to reduce the risk of future suicidal behavior.
Key words: suicide; emergency department.
Despite the fact that emergency department (ED) providers often feel unprepared to manage suicide risk, patients with significant suicide risk frequently receive care in EDs, whether or not they have sustained physical injuries resulting from suicidal behavior [1,2]. Patients make greater than 400,000 visits to EDs in the United States each year for suicidal and self-injurious behaviors (suicide attempts and self-injurious behaviors are typically coded in ways that make them indistinguishable from each other in retrospective analyses) [3], and it is estimated that 6% to 10% of all patients in EDs endorse suicidal ideation when asked, regardless of their original chief complaints [4]. Meanwhile, suicide has become the 10th leading cause of death in the United States [5], and the Joint Commission has charged all accredited health care organizations with providing comprehensive treatment to suicidal patients, which may range from immediately containing an acute risk to ensuring continuity of care in follow-up [5].
When an acute suicide risk is identified in the ED, the provider’s immediate next steps should be to place the patient in a safe area under constant observation and to provide an emergency assessment [5,6]. Although psychiatric consultation and/or psychiatric admission may follow this assessment, suicide risk does not require admission in all cases; and some patients with suicide risk may be discharged to an outpatient setting even without receiving a psychiatric consultation [1]. Regardless of whether an outpatient disposition from the ED is appropriate, however, the period that immediately follows discharge is a time of high risk for repeated suicidal behavior and suicide death [7–9], and only 30% to 50% of patients who are discharged from EDs after a self-harm incident actually keep a follow-up mental health appointment [9,10]. Therefore, any support given to patients through this transition out of the emergency care setting could be especially high-yield.
The Joint Commission recommends that all patients with suicidal ideation receive, at minimum, a referral to treatment, telephone numbers for local and national crisis support resources (including the National Suicide Prevention Lifeline 1-800-273-TALK), collaborative safety planning, and counseling to restrict access to lethal means upon discharge [5]. However, some programs have demonstrated the capacity to provide enhanced support to patients beyond discharge from the ED, with some success in reducing the rates of subsequent suicidal behaviors. This non-systematic review describes interventions that can be initiated in the context of an ED encounter with the purpose of reducing future suicidal behavior among adult patients. They are primarily psychosocial rather than clinical. Clinical interventions that apply psychotherapy [11–13] psychopharmacology [14], and specialized inpatient treatments [15] have been studied as well but are beyond the scope of this review.
[polldaddy:10107269]
Interventions to Support Patients At Risk of Suicide After Discharge from the ED
Brief Contact Interventions
The idea that maintaining written correspondence with patients who have a known suicide risk after discharge can reduce subsequent suicide rates originated with a study of psychiatric inpatients conducted by Motto and Bostrom, in which patients who had been admitted for depression but had declined outpatient treatment were randomly assigned to periodically receive letters containing supportive messages from staff members over a period of 5 years [16]. This study remarkably found that these so-called brief contact interventions (BCIs), which were personalized to each recipient but did not contain psychotherapy per se, were associated with a reduced rate of suicide throughout the duration of the program compared with no written contacts [16].
BCIs have since been adapted to other communication formats and have been studied in patients who were discharged directly from the ED after an evaluation of suicide risk or suicidal behavior. Typically, BCIs consist of short, supportive messages that are delivered at regular intervals (often once every 1–2 months) over a period of 1 to 5 years [17,18]. They notably do not contain psychotherapy content, although they may reinforce coping strategies or remind recipients of how to access help if needed [17,19]. They may arrive as postcards [20,21], letters [22], telephone outreach [23–25], or a combination of modalities [26].
Protocols that rely on BCIs alone vary in their structure and have yielded mixed results [18]. A meta-analysis of 12 BCI protocols conducted by Milner et al found that, overall, BCIs administered after a presentation to the ED for self-harm have been associated with a significant reduction in repeat suicide attempts per recipient but not in total suicide deaths [27]. Milner’s group did not recommend large-scale promotion of BCIs based on the inadequacy of data so far, but suggested that this strategy may yet show promise upon further study [27]. A key advantage of BCIs is that they are inexpensive to implement, particularly if they do not include a telephone outreach component [28]. Thus, even if the potential benefit to patients is small, administering BCIs can be cost-effective [28].
It should not come as a surprise, therefore, that the potential for incorporation of BCIs into mobile smartphone technology is currently under investigation. Individuals who own mobile phones typically keep them on their persons and turned on continuously, and thus this is a reliable platform for maintaining contact with a wide range of patients in real-time [17,29]. Developers of at least 2 BCI smartphone programs that rely on mobile text messaging have published their protocols [17,30]. However, whether these programs will succeed in meaningfully reducing suicide rates remains to be determined by future research.
Green Cards
Morgan et al conducted a study in the United Kingdom in which individuals who presented to EDs after a self-harm event received a “green card,” which contained encouraging messages about seeking help and provided contact information for emergency services with 24-hour availability [31]. The green card also facilitated access to a crisis admission if necessary. The green card was distributed first in the ED and a second time by mail 3 weeks later. No suicides occurred in either the intervention or control group, which received usual care, and no statistically significant differences in suicide reattempt rate were found between groups after 1 year [31].
Evans et al studied an updated version of the green card intervention in which the green card facilitated access to an on-call psychiatrist with 24-hour availability by telephone [32]. The updated card included encouraging messages about seeking help similar to the original green card described by Morgan; however, the psychiatry consultation via telephone replaced the offer of hospital admission [32]. This second trial of green cards also failed to show a reduction in the rate of suicide reattempts among green card recipients at 6 months and 1 year [32,33].
Brief Intervention and Contact
The World Health Organization’s Brief Intervention and Contact (BIC) protocol is a standardized, multi-step suicide prevention program that has been studied primarily in patients who present to EDs after a suicide attempt in middle-income countries [34]. BIC includes a 1-hour information session that is administered shortly prior to discharge, and subsequently provides 9 follow-up contact interventions at specified intervals over an 18-month period. Unlike in a typical BCI, the contacts in BIC are conducted by a clinician either face-to-face or over the phone and include standardized assessments of the patient’s condition, although they still do not include psychotherapy. BIC has been shown to reduce suicide attempts, suicide deaths, or both in India [34–36], Iran [34,36,37], China [34,36], Brazil [34,36], and Sri Lanka [34,36] but was not found to directly improve clinical outcomes in a study conducted in French Polynesia [38]. A meta-analysis conducted by Riblet et al concluded that BIC is effective in reducing suicide risk overall [39].
ED-SAFE
The Emergency Department Safety Assessment and Follow-up Evaluation (ED-SAFE) protocol was validated in 8 EDs in 7 states in the US that did not already provide psychiatric services internally [40]. Under this model, all patients in the ED receive a screening for suicide risk, and those with an initial positive screen receive a secondary screen administered by the ED physician, a self-administered safety plan, and a series of up to 11 phone contacts over the following year that are administered by trained mental health clinicians in a central location. The ED-SAFE phone contacts follow the Coping Long Term with Active Suicide Program (CLASP) protocol [41] and provide support around safety planning and treatment engagement. They have the capacity to engage the patients’ significant others directly if a significant other is available and the patient chooses to involve that person.
In a single multicenter study, ED-SAFE reduced the absolute risk of suicide attempt by 5%, and the relative risk by 20% compared to usual treatment [40]. An intermediate phase of the study compared the universal suicide screening alone (ie, without the safety plan or follow-up contacts) with usual care and did not find this to improve outcomes [40].
Case Management
Kawanishi et al conducted a randomized controlled trial of assertive case management, the ACTION-J study, for patients with psychiatric diagnoses who presented with self-harm to 17 participating EDs in Japan [42]. In the ACTION-J study, case managers were mental health clinicians who provided clinical evaluations, treatment planning, encouragement, and care coordination over the course of 7 scheduled face-to-face or phone contacts in the first 18 months, and additional contacts at 6-month intervals until the completion of the trial (up to a total of 5 years) [43]. The comparison intervention, enhanced usual care, consisted of psychoeducation provided at the time of the encounter in the ED without case management services. The assertive case management intervention was associated with a decrease in suicidal behavior in the first 6 months but not for the duration of the study, except in women, for whom the benefit lasted the full 18 months [42]. A subsequent analysis also found a decrease in the total number of self-harm episodes per person-year compared to enhanced usual care, although there was not a difference in the number of participants who experienced a repeat self-harm episode [43]. The benefit was most strongly pronounced among patients who had presented with an index suicide attempt [43].
Morthorst et al applied an alternative case management model for the assertive intervention for deliberate self harm (AID) trial, which took place in Denmark [44]. Participants were aged 12 and older and could have been recruited from medical or pediatric inpatient units as well as the ED after a self-harm event. AID employed psychiatric nurses to provide crisis intervention, crisis planning, problem solving, motivational support, family mediation, and assistance with keeping appointments over a period of 6 months following discharge. Outreach took place over the phone, by text message, in participants’ homes, in cafes, and at health and social services appointments. The intervention required at least 4 contacts, although additional contacts could be made if appropriate. In comparison with a control group, in which participants received only usual care (which included ready access to short-term psychotherapy), the AID intervention was not associated with statistically significant differences in recurrent suicidal behaviors [44]. Subgroup analyses examining adult participants aged 20–39 and 40 and older also did not find differences in recurrent suicidal behavior between groups [44].
The Baerum Model and OPAC
A municipal suicide prevention team that provides comprehensive social services to suicide attempters has operated in Baerum, Norway, since 1983 [45]. Under the Baerum model, patients who attempt suicide, can be discharged from the general hospital without psychiatric admission, and are determined to have a high level of need for support are connected by a hospital-based suicide prevention team to a community-based team consisting of nurses and a consulting psychologist, who subsequently engage patients in own their homes and through follow-up phone calls. The services they provide include care coordination, encouragement, activation of social networks, psychological first-aid, and counseling focused on problem-solving. The ostensible goal of the suicide prevention team is to provide a bridge between inpatient medical care and outpatient mental health treatment; however, the intervention lasts approximately 1 year regardless of whether the patient connects with a treatment program [45].
A retrospective comparison of outcomes between recipients of the original Baerum program and non-recipients failed to find a difference in suicide attempts or suicide deaths between groups [45]. However, this was not a controlled study, and suicide attempters were preferentially referred to the program based on whether they had a higher level of need at baseline. Hvid and Wang adapted this model to patients who presented to EDs and general hospitals in Amager, Denmark [46] and have since conducted a series of randomized controlled trials comparing their adaptation to usual care. The Danish version of the Baerum model, renamed OPAC (for “outreach, problem solving, adherence, continuity”), provides similar case management and counseling services but for a maximum of 6 months. In their studies, OPAC significantly reduced the number of patients with a repeat suicide attempt and the total number of repeat suicide attempts at a 1-year interval, and this effect on total number of suicide attempts was sustained at 5 years [47,48]. Although the OPAC protocol begins with a patient’s presentation to the ED, the intervention is initiated after admission to the general hospital. Therefore, while this may inspire a model that provides similar services directly from the ED to patients who do not require general hospital admission, the existing model is not entirely based in the ED.
Discussion
The needs of suicidal patients are often multidimensional, and in some cases their risks are driven by psychosocial problems in addition to, or instead of, medically modifiable psychiatric conditions [49]. However, developing an ED-based program to support patients who are at risk of suicide after they are discharged from the ED is possible. Many such programs that provide or facilitate caring contacts, family support, case management, and/or treatment engagement with discharged patients have demonstrated that similar strategies may have the potential to impact future suicidal behavior. Nonetheless, it would be a stretch to say that all hospital systems should immediately begin doing so.
A new post-discharge support program is an investment of financial resources, personnel, and sometimes technology. Successful delivery of support or messages in any format requires that the intended recipient be able to receive it via reliable access to a working address, telephone number, or electronic device. Nonetheless, programs that rely on BCIs alone (excluding those conducted via telephone) cost relatively little to implement and thus would require a smaller investment than programs that require synchronous telephone or face-to-face contacts with staff in addition to or instead of BCIs. Costs for synchronous programs will also vary depending on the frequency and duration of contacts and the licensure and training required of the staff who provide them.
A trend toward better outcomes associating with more resource-intensive programs is easy to imagine but has not been definitively demonstrated. The wide variation between protocols in all types of programs makes comparisons between those that do and do not include synchronous contacts, and between types of synchronous contacts, difficult. Meanwhile, the low cost of BCIs alone could increase their attractiveness as an investment regardless of the magnitude of outcome improvement.
Denchev et al constructed a cost/benefit comparison model that included the postcard BCI study conducted by Carter et al [20], the telephone outreach study conducted by Vaiva et al [23], and a study of cognitive behavioral therapy (CBT) [11], all of which showed a clinical benefit. This model relied upon some numeric estimations and did not account for variation in outcomes between individual studies of each intervention strategy. However, it concluded that both telephone outreach and CBT were likely to be cost-prohibitive compared to asynchronous BCIs, which were associated with a reduction in costs overall [28].
Conclusion
There remains much to learn regarding how best to reduce suicide risk among adult patients in the period after discharge from the ED, during which patients with an identified suicide risk are known to be vulnerable. However, providing psychosocial and emotional support to patients with an identified suicide risk after they are discharged from the ED is feasible and may reduce subsequent suicidal behaviors. Templates for providing supportive outreach using different modalities now exist, and these may help guide the ongoing development and widespread adoption of more effective and cost-effective solutions.
Corresponding author: David S. Kroll, MD, dskroll@bwh.harvard.edu.
Financial disclosure: Dr. Kroll has received research funding from Brigham and Women’s Hospital to study and develop technological solutions for supporting suicidal patients after discharge from the emergency department. He has additionally received research funding and a speaking honorarium from Avasure.
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17. Berrouiguet S, Larsen ME, Mesmeur C, Gravey M, Billot R, Walter M, et al. Toward mHealth brief contact interventions in suicide prevention: case series from the suicide intervention assisted by messages (SIAM) randomized controlled trial. JMIR MHealth UHealth 2018;6:e8.
18. Falcone G, Nardella A, Lamis DA, et al. Taking care of suicidal patients with new technologies and reaching-out means in the post-discharge period. World J Psychiatry 2017;7:163–76.
19. Milner A, Spittal MJ, Kapur N, et al. Mechanisms of brief contact interventions in clinical populations: a systematic review. BMC Psychiatry 2016;16:194.
20. Carter GL, Clover K, Whyte IM, et al. Postcards from the EDge: 5-year outcomes of a randomised controlled trial for hospital-treated self-poisoning. Br J Psychiatry 2013;202:372–80.
21. Hassanian-Moghaddam H, Sarjami S, Kolahi AA, Carter GL. Postcards in Persia: randomised controlled trial to reduce suicidal behaviours 12 months after hospital-treated self-poisoning. Br J Psychiatry 2011;198:309–16.
22. Luxton DD, Thomas EK, Chipps J, et al. Caring letters for suicide prevention: implementation of a multi-site randomized clinical trial in the U.S. military and Veteran Affairs healthcare systems. Contemp Clin Trials 2014;37(2):252–60.
23. Vaiva G, Vaiva G, Ducrocq F, et al. Effect of telephone contact on further suicide attempts in patients discharged from an emergency department: randomised controlled study. BMJ 2006;332:1241–5.
24. Cebrià AI, Parra I, Pàmias M, et al. Effectiveness of a telephone management programme for patients discharged from an emergency department after a suicide attempt: controlled study in a Spanish population. J Affect Disord 2013;147:269–76.
25. Cedereke M, Monti K, Ojehagen A. Telephone contact with patients in the year after a suicide attempt: does it affect treatment attendance and outcome? A randomised controlled study. Eur Psychiatry. 2002;17:82–91.
26. Vaiva G, Walter M, Al Arab AS, et al. ALGOS: the development of a randomized controlled trial testing a case management algorithm designed to reduce suicide risk among suicide attempters. BMC Psychiatry 2011;11:1.
27. Milner AJ, Carter G, Pirkis J, et al. Letters, green cards, telephone calls and postcards: systematic and meta-analytic review of brief contact interventions for reducing self-harm, suicide attempts and suicide. Br J Psychiatry. 2015;206:184–90.
28. Denchev P, Pearson JL, Allen MH, Claassen CA, Currier GW, Zatzick DF, et al. Modeling the cost-effectiveness of interventions to reduce suicide risk among hospital emergency department patients. Psychiatr Serv 2018;69:23–31.
29. Berrouiguet S, Courtet P, Larsen ME, et al. Suicide prevention: towards integrative, innovative and individualized brief contact interventions. Eur Psychiatry 2018;47:25–6.
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38. Amadéo S, Rereao M, Malogne A, et al. Testing brief intervention and phone contact among subjects with suicidal behavior: a randomized controlled trial in French Polynesia in the frames of the World Health Organization/suicide trends in at-risk territories study. Ment Illn 2015;7:5818.
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40. Miller IW, Camargo CA Jr, Arias SA, et al. Suicide prevention in an emergency department population: the ED-SAFE study. JAMA Psychiatry 2017;74:563–70.
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42. Kawanishi C, Aruga T, Ishizuka N, et al. Assertive case management versus enhanced usual care for people with mental health problems who had attempted suicide and were admitted to hospital emergency departments in Japan (ACTION-J): a multicentre, randomised controlled trial. Lancet Psychiatry 2014;1:193–201.
43. Furuno T, Nakagawa M, Hino K, et al. Effectiveness of assertive case management on repeat self-harm in patients admitted for suicide attempt: findings from ACTION-J study. J Affect Disord 2018;225:460–5.
44. Morthorst B, Krogh J, Erlangsen A, et al. Effect of assertive outreach after suicide attempt in the AID (assertive intervention for deliberate self harm) trial: randomised controlled trial. BMJ 2012;345:e4972.
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47. Hvid M, Vangborg K, Sørensen HJ, et al. Preventing repetition of attempted suicide-II. The Amager project, a randomized controlled trial. Nord J Psychiatry 2011;65:292–8.
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From the Department of Psychiatry, Brigham and Women’s Hospital, and Harvard Medical School, Boston, MA.
Abstract
- Objective: To provide a review of emergency department (ED)-based psychosocial interventions that support adult patients with an identified suicide risk towards a goal of reducing subsequent suicidal behavior through the period after discharge, which is known to be a time of high risk for suicidal behavior.
- Methods: Non-systematic review of the literature.
- Results: Multiple methods of engaging patients after discharge from the ED have been shown to reduce subsequent suicidal behaviors. These methods include sending caring letters in the mail, facilitating supportive phone conversations, case management, and protocols that combine different services. Overall, the existing literature is insufficient to recommend widespread adoption of any individual strategy or protocol. However, providing psychosocial and emotional support to patients with an identified suicide risk after they are discharged from the ED is feasible and may reduce subsequent suicidal behaviors. Templates for providing supportive outreach using different modalities now exist, and these may help guide the ongoing development and widespread adoption of more effective and cost-effective solutions.
- Conclusion: Many ED–based interventions that provide enhanced support to patients with suicide risk after they are discharged have demonstrated a potential to reduce the risk of future suicidal behavior.
Key words: suicide; emergency department.
Despite the fact that emergency department (ED) providers often feel unprepared to manage suicide risk, patients with significant suicide risk frequently receive care in EDs, whether or not they have sustained physical injuries resulting from suicidal behavior [1,2]. Patients make greater than 400,000 visits to EDs in the United States each year for suicidal and self-injurious behaviors (suicide attempts and self-injurious behaviors are typically coded in ways that make them indistinguishable from each other in retrospective analyses) [3], and it is estimated that 6% to 10% of all patients in EDs endorse suicidal ideation when asked, regardless of their original chief complaints [4]. Meanwhile, suicide has become the 10th leading cause of death in the United States [5], and the Joint Commission has charged all accredited health care organizations with providing comprehensive treatment to suicidal patients, which may range from immediately containing an acute risk to ensuring continuity of care in follow-up [5].
When an acute suicide risk is identified in the ED, the provider’s immediate next steps should be to place the patient in a safe area under constant observation and to provide an emergency assessment [5,6]. Although psychiatric consultation and/or psychiatric admission may follow this assessment, suicide risk does not require admission in all cases; and some patients with suicide risk may be discharged to an outpatient setting even without receiving a psychiatric consultation [1]. Regardless of whether an outpatient disposition from the ED is appropriate, however, the period that immediately follows discharge is a time of high risk for repeated suicidal behavior and suicide death [7–9], and only 30% to 50% of patients who are discharged from EDs after a self-harm incident actually keep a follow-up mental health appointment [9,10]. Therefore, any support given to patients through this transition out of the emergency care setting could be especially high-yield.
The Joint Commission recommends that all patients with suicidal ideation receive, at minimum, a referral to treatment, telephone numbers for local and national crisis support resources (including the National Suicide Prevention Lifeline 1-800-273-TALK), collaborative safety planning, and counseling to restrict access to lethal means upon discharge [5]. However, some programs have demonstrated the capacity to provide enhanced support to patients beyond discharge from the ED, with some success in reducing the rates of subsequent suicidal behaviors. This non-systematic review describes interventions that can be initiated in the context of an ED encounter with the purpose of reducing future suicidal behavior among adult patients. They are primarily psychosocial rather than clinical. Clinical interventions that apply psychotherapy [11–13] psychopharmacology [14], and specialized inpatient treatments [15] have been studied as well but are beyond the scope of this review.
[polldaddy:10107269]
Interventions to Support Patients At Risk of Suicide After Discharge from the ED
Brief Contact Interventions
The idea that maintaining written correspondence with patients who have a known suicide risk after discharge can reduce subsequent suicide rates originated with a study of psychiatric inpatients conducted by Motto and Bostrom, in which patients who had been admitted for depression but had declined outpatient treatment were randomly assigned to periodically receive letters containing supportive messages from staff members over a period of 5 years [16]. This study remarkably found that these so-called brief contact interventions (BCIs), which were personalized to each recipient but did not contain psychotherapy per se, were associated with a reduced rate of suicide throughout the duration of the program compared with no written contacts [16].
BCIs have since been adapted to other communication formats and have been studied in patients who were discharged directly from the ED after an evaluation of suicide risk or suicidal behavior. Typically, BCIs consist of short, supportive messages that are delivered at regular intervals (often once every 1–2 months) over a period of 1 to 5 years [17,18]. They notably do not contain psychotherapy content, although they may reinforce coping strategies or remind recipients of how to access help if needed [17,19]. They may arrive as postcards [20,21], letters [22], telephone outreach [23–25], or a combination of modalities [26].
Protocols that rely on BCIs alone vary in their structure and have yielded mixed results [18]. A meta-analysis of 12 BCI protocols conducted by Milner et al found that, overall, BCIs administered after a presentation to the ED for self-harm have been associated with a significant reduction in repeat suicide attempts per recipient but not in total suicide deaths [27]. Milner’s group did not recommend large-scale promotion of BCIs based on the inadequacy of data so far, but suggested that this strategy may yet show promise upon further study [27]. A key advantage of BCIs is that they are inexpensive to implement, particularly if they do not include a telephone outreach component [28]. Thus, even if the potential benefit to patients is small, administering BCIs can be cost-effective [28].
It should not come as a surprise, therefore, that the potential for incorporation of BCIs into mobile smartphone technology is currently under investigation. Individuals who own mobile phones typically keep them on their persons and turned on continuously, and thus this is a reliable platform for maintaining contact with a wide range of patients in real-time [17,29]. Developers of at least 2 BCI smartphone programs that rely on mobile text messaging have published their protocols [17,30]. However, whether these programs will succeed in meaningfully reducing suicide rates remains to be determined by future research.
Green Cards
Morgan et al conducted a study in the United Kingdom in which individuals who presented to EDs after a self-harm event received a “green card,” which contained encouraging messages about seeking help and provided contact information for emergency services with 24-hour availability [31]. The green card also facilitated access to a crisis admission if necessary. The green card was distributed first in the ED and a second time by mail 3 weeks later. No suicides occurred in either the intervention or control group, which received usual care, and no statistically significant differences in suicide reattempt rate were found between groups after 1 year [31].
Evans et al studied an updated version of the green card intervention in which the green card facilitated access to an on-call psychiatrist with 24-hour availability by telephone [32]. The updated card included encouraging messages about seeking help similar to the original green card described by Morgan; however, the psychiatry consultation via telephone replaced the offer of hospital admission [32]. This second trial of green cards also failed to show a reduction in the rate of suicide reattempts among green card recipients at 6 months and 1 year [32,33].
Brief Intervention and Contact
The World Health Organization’s Brief Intervention and Contact (BIC) protocol is a standardized, multi-step suicide prevention program that has been studied primarily in patients who present to EDs after a suicide attempt in middle-income countries [34]. BIC includes a 1-hour information session that is administered shortly prior to discharge, and subsequently provides 9 follow-up contact interventions at specified intervals over an 18-month period. Unlike in a typical BCI, the contacts in BIC are conducted by a clinician either face-to-face or over the phone and include standardized assessments of the patient’s condition, although they still do not include psychotherapy. BIC has been shown to reduce suicide attempts, suicide deaths, or both in India [34–36], Iran [34,36,37], China [34,36], Brazil [34,36], and Sri Lanka [34,36] but was not found to directly improve clinical outcomes in a study conducted in French Polynesia [38]. A meta-analysis conducted by Riblet et al concluded that BIC is effective in reducing suicide risk overall [39].
ED-SAFE
The Emergency Department Safety Assessment and Follow-up Evaluation (ED-SAFE) protocol was validated in 8 EDs in 7 states in the US that did not already provide psychiatric services internally [40]. Under this model, all patients in the ED receive a screening for suicide risk, and those with an initial positive screen receive a secondary screen administered by the ED physician, a self-administered safety plan, and a series of up to 11 phone contacts over the following year that are administered by trained mental health clinicians in a central location. The ED-SAFE phone contacts follow the Coping Long Term with Active Suicide Program (CLASP) protocol [41] and provide support around safety planning and treatment engagement. They have the capacity to engage the patients’ significant others directly if a significant other is available and the patient chooses to involve that person.
In a single multicenter study, ED-SAFE reduced the absolute risk of suicide attempt by 5%, and the relative risk by 20% compared to usual treatment [40]. An intermediate phase of the study compared the universal suicide screening alone (ie, without the safety plan or follow-up contacts) with usual care and did not find this to improve outcomes [40].
Case Management
Kawanishi et al conducted a randomized controlled trial of assertive case management, the ACTION-J study, for patients with psychiatric diagnoses who presented with self-harm to 17 participating EDs in Japan [42]. In the ACTION-J study, case managers were mental health clinicians who provided clinical evaluations, treatment planning, encouragement, and care coordination over the course of 7 scheduled face-to-face or phone contacts in the first 18 months, and additional contacts at 6-month intervals until the completion of the trial (up to a total of 5 years) [43]. The comparison intervention, enhanced usual care, consisted of psychoeducation provided at the time of the encounter in the ED without case management services. The assertive case management intervention was associated with a decrease in suicidal behavior in the first 6 months but not for the duration of the study, except in women, for whom the benefit lasted the full 18 months [42]. A subsequent analysis also found a decrease in the total number of self-harm episodes per person-year compared to enhanced usual care, although there was not a difference in the number of participants who experienced a repeat self-harm episode [43]. The benefit was most strongly pronounced among patients who had presented with an index suicide attempt [43].
Morthorst et al applied an alternative case management model for the assertive intervention for deliberate self harm (AID) trial, which took place in Denmark [44]. Participants were aged 12 and older and could have been recruited from medical or pediatric inpatient units as well as the ED after a self-harm event. AID employed psychiatric nurses to provide crisis intervention, crisis planning, problem solving, motivational support, family mediation, and assistance with keeping appointments over a period of 6 months following discharge. Outreach took place over the phone, by text message, in participants’ homes, in cafes, and at health and social services appointments. The intervention required at least 4 contacts, although additional contacts could be made if appropriate. In comparison with a control group, in which participants received only usual care (which included ready access to short-term psychotherapy), the AID intervention was not associated with statistically significant differences in recurrent suicidal behaviors [44]. Subgroup analyses examining adult participants aged 20–39 and 40 and older also did not find differences in recurrent suicidal behavior between groups [44].
The Baerum Model and OPAC
A municipal suicide prevention team that provides comprehensive social services to suicide attempters has operated in Baerum, Norway, since 1983 [45]. Under the Baerum model, patients who attempt suicide, can be discharged from the general hospital without psychiatric admission, and are determined to have a high level of need for support are connected by a hospital-based suicide prevention team to a community-based team consisting of nurses and a consulting psychologist, who subsequently engage patients in own their homes and through follow-up phone calls. The services they provide include care coordination, encouragement, activation of social networks, psychological first-aid, and counseling focused on problem-solving. The ostensible goal of the suicide prevention team is to provide a bridge between inpatient medical care and outpatient mental health treatment; however, the intervention lasts approximately 1 year regardless of whether the patient connects with a treatment program [45].
A retrospective comparison of outcomes between recipients of the original Baerum program and non-recipients failed to find a difference in suicide attempts or suicide deaths between groups [45]. However, this was not a controlled study, and suicide attempters were preferentially referred to the program based on whether they had a higher level of need at baseline. Hvid and Wang adapted this model to patients who presented to EDs and general hospitals in Amager, Denmark [46] and have since conducted a series of randomized controlled trials comparing their adaptation to usual care. The Danish version of the Baerum model, renamed OPAC (for “outreach, problem solving, adherence, continuity”), provides similar case management and counseling services but for a maximum of 6 months. In their studies, OPAC significantly reduced the number of patients with a repeat suicide attempt and the total number of repeat suicide attempts at a 1-year interval, and this effect on total number of suicide attempts was sustained at 5 years [47,48]. Although the OPAC protocol begins with a patient’s presentation to the ED, the intervention is initiated after admission to the general hospital. Therefore, while this may inspire a model that provides similar services directly from the ED to patients who do not require general hospital admission, the existing model is not entirely based in the ED.
Discussion
The needs of suicidal patients are often multidimensional, and in some cases their risks are driven by psychosocial problems in addition to, or instead of, medically modifiable psychiatric conditions [49]. However, developing an ED-based program to support patients who are at risk of suicide after they are discharged from the ED is possible. Many such programs that provide or facilitate caring contacts, family support, case management, and/or treatment engagement with discharged patients have demonstrated that similar strategies may have the potential to impact future suicidal behavior. Nonetheless, it would be a stretch to say that all hospital systems should immediately begin doing so.
A new post-discharge support program is an investment of financial resources, personnel, and sometimes technology. Successful delivery of support or messages in any format requires that the intended recipient be able to receive it via reliable access to a working address, telephone number, or electronic device. Nonetheless, programs that rely on BCIs alone (excluding those conducted via telephone) cost relatively little to implement and thus would require a smaller investment than programs that require synchronous telephone or face-to-face contacts with staff in addition to or instead of BCIs. Costs for synchronous programs will also vary depending on the frequency and duration of contacts and the licensure and training required of the staff who provide them.
A trend toward better outcomes associating with more resource-intensive programs is easy to imagine but has not been definitively demonstrated. The wide variation between protocols in all types of programs makes comparisons between those that do and do not include synchronous contacts, and between types of synchronous contacts, difficult. Meanwhile, the low cost of BCIs alone could increase their attractiveness as an investment regardless of the magnitude of outcome improvement.
Denchev et al constructed a cost/benefit comparison model that included the postcard BCI study conducted by Carter et al [20], the telephone outreach study conducted by Vaiva et al [23], and a study of cognitive behavioral therapy (CBT) [11], all of which showed a clinical benefit. This model relied upon some numeric estimations and did not account for variation in outcomes between individual studies of each intervention strategy. However, it concluded that both telephone outreach and CBT were likely to be cost-prohibitive compared to asynchronous BCIs, which were associated with a reduction in costs overall [28].
Conclusion
There remains much to learn regarding how best to reduce suicide risk among adult patients in the period after discharge from the ED, during which patients with an identified suicide risk are known to be vulnerable. However, providing psychosocial and emotional support to patients with an identified suicide risk after they are discharged from the ED is feasible and may reduce subsequent suicidal behaviors. Templates for providing supportive outreach using different modalities now exist, and these may help guide the ongoing development and widespread adoption of more effective and cost-effective solutions.
Corresponding author: David S. Kroll, MD, dskroll@bwh.harvard.edu.
Financial disclosure: Dr. Kroll has received research funding from Brigham and Women’s Hospital to study and develop technological solutions for supporting suicidal patients after discharge from the emergency department. He has additionally received research funding and a speaking honorarium from Avasure.
From the Department of Psychiatry, Brigham and Women’s Hospital, and Harvard Medical School, Boston, MA.
Abstract
- Objective: To provide a review of emergency department (ED)-based psychosocial interventions that support adult patients with an identified suicide risk towards a goal of reducing subsequent suicidal behavior through the period after discharge, which is known to be a time of high risk for suicidal behavior.
- Methods: Non-systematic review of the literature.
- Results: Multiple methods of engaging patients after discharge from the ED have been shown to reduce subsequent suicidal behaviors. These methods include sending caring letters in the mail, facilitating supportive phone conversations, case management, and protocols that combine different services. Overall, the existing literature is insufficient to recommend widespread adoption of any individual strategy or protocol. However, providing psychosocial and emotional support to patients with an identified suicide risk after they are discharged from the ED is feasible and may reduce subsequent suicidal behaviors. Templates for providing supportive outreach using different modalities now exist, and these may help guide the ongoing development and widespread adoption of more effective and cost-effective solutions.
- Conclusion: Many ED–based interventions that provide enhanced support to patients with suicide risk after they are discharged have demonstrated a potential to reduce the risk of future suicidal behavior.
Key words: suicide; emergency department.
Despite the fact that emergency department (ED) providers often feel unprepared to manage suicide risk, patients with significant suicide risk frequently receive care in EDs, whether or not they have sustained physical injuries resulting from suicidal behavior [1,2]. Patients make greater than 400,000 visits to EDs in the United States each year for suicidal and self-injurious behaviors (suicide attempts and self-injurious behaviors are typically coded in ways that make them indistinguishable from each other in retrospective analyses) [3], and it is estimated that 6% to 10% of all patients in EDs endorse suicidal ideation when asked, regardless of their original chief complaints [4]. Meanwhile, suicide has become the 10th leading cause of death in the United States [5], and the Joint Commission has charged all accredited health care organizations with providing comprehensive treatment to suicidal patients, which may range from immediately containing an acute risk to ensuring continuity of care in follow-up [5].
When an acute suicide risk is identified in the ED, the provider’s immediate next steps should be to place the patient in a safe area under constant observation and to provide an emergency assessment [5,6]. Although psychiatric consultation and/or psychiatric admission may follow this assessment, suicide risk does not require admission in all cases; and some patients with suicide risk may be discharged to an outpatient setting even without receiving a psychiatric consultation [1]. Regardless of whether an outpatient disposition from the ED is appropriate, however, the period that immediately follows discharge is a time of high risk for repeated suicidal behavior and suicide death [7–9], and only 30% to 50% of patients who are discharged from EDs after a self-harm incident actually keep a follow-up mental health appointment [9,10]. Therefore, any support given to patients through this transition out of the emergency care setting could be especially high-yield.
The Joint Commission recommends that all patients with suicidal ideation receive, at minimum, a referral to treatment, telephone numbers for local and national crisis support resources (including the National Suicide Prevention Lifeline 1-800-273-TALK), collaborative safety planning, and counseling to restrict access to lethal means upon discharge [5]. However, some programs have demonstrated the capacity to provide enhanced support to patients beyond discharge from the ED, with some success in reducing the rates of subsequent suicidal behaviors. This non-systematic review describes interventions that can be initiated in the context of an ED encounter with the purpose of reducing future suicidal behavior among adult patients. They are primarily psychosocial rather than clinical. Clinical interventions that apply psychotherapy [11–13] psychopharmacology [14], and specialized inpatient treatments [15] have been studied as well but are beyond the scope of this review.
[polldaddy:10107269]
Interventions to Support Patients At Risk of Suicide After Discharge from the ED
Brief Contact Interventions
The idea that maintaining written correspondence with patients who have a known suicide risk after discharge can reduce subsequent suicide rates originated with a study of psychiatric inpatients conducted by Motto and Bostrom, in which patients who had been admitted for depression but had declined outpatient treatment were randomly assigned to periodically receive letters containing supportive messages from staff members over a period of 5 years [16]. This study remarkably found that these so-called brief contact interventions (BCIs), which were personalized to each recipient but did not contain psychotherapy per se, were associated with a reduced rate of suicide throughout the duration of the program compared with no written contacts [16].
BCIs have since been adapted to other communication formats and have been studied in patients who were discharged directly from the ED after an evaluation of suicide risk or suicidal behavior. Typically, BCIs consist of short, supportive messages that are delivered at regular intervals (often once every 1–2 months) over a period of 1 to 5 years [17,18]. They notably do not contain psychotherapy content, although they may reinforce coping strategies or remind recipients of how to access help if needed [17,19]. They may arrive as postcards [20,21], letters [22], telephone outreach [23–25], or a combination of modalities [26].
Protocols that rely on BCIs alone vary in their structure and have yielded mixed results [18]. A meta-analysis of 12 BCI protocols conducted by Milner et al found that, overall, BCIs administered after a presentation to the ED for self-harm have been associated with a significant reduction in repeat suicide attempts per recipient but not in total suicide deaths [27]. Milner’s group did not recommend large-scale promotion of BCIs based on the inadequacy of data so far, but suggested that this strategy may yet show promise upon further study [27]. A key advantage of BCIs is that they are inexpensive to implement, particularly if they do not include a telephone outreach component [28]. Thus, even if the potential benefit to patients is small, administering BCIs can be cost-effective [28].
It should not come as a surprise, therefore, that the potential for incorporation of BCIs into mobile smartphone technology is currently under investigation. Individuals who own mobile phones typically keep them on their persons and turned on continuously, and thus this is a reliable platform for maintaining contact with a wide range of patients in real-time [17,29]. Developers of at least 2 BCI smartphone programs that rely on mobile text messaging have published their protocols [17,30]. However, whether these programs will succeed in meaningfully reducing suicide rates remains to be determined by future research.
Green Cards
Morgan et al conducted a study in the United Kingdom in which individuals who presented to EDs after a self-harm event received a “green card,” which contained encouraging messages about seeking help and provided contact information for emergency services with 24-hour availability [31]. The green card also facilitated access to a crisis admission if necessary. The green card was distributed first in the ED and a second time by mail 3 weeks later. No suicides occurred in either the intervention or control group, which received usual care, and no statistically significant differences in suicide reattempt rate were found between groups after 1 year [31].
Evans et al studied an updated version of the green card intervention in which the green card facilitated access to an on-call psychiatrist with 24-hour availability by telephone [32]. The updated card included encouraging messages about seeking help similar to the original green card described by Morgan; however, the psychiatry consultation via telephone replaced the offer of hospital admission [32]. This second trial of green cards also failed to show a reduction in the rate of suicide reattempts among green card recipients at 6 months and 1 year [32,33].
Brief Intervention and Contact
The World Health Organization’s Brief Intervention and Contact (BIC) protocol is a standardized, multi-step suicide prevention program that has been studied primarily in patients who present to EDs after a suicide attempt in middle-income countries [34]. BIC includes a 1-hour information session that is administered shortly prior to discharge, and subsequently provides 9 follow-up contact interventions at specified intervals over an 18-month period. Unlike in a typical BCI, the contacts in BIC are conducted by a clinician either face-to-face or over the phone and include standardized assessments of the patient’s condition, although they still do not include psychotherapy. BIC has been shown to reduce suicide attempts, suicide deaths, or both in India [34–36], Iran [34,36,37], China [34,36], Brazil [34,36], and Sri Lanka [34,36] but was not found to directly improve clinical outcomes in a study conducted in French Polynesia [38]. A meta-analysis conducted by Riblet et al concluded that BIC is effective in reducing suicide risk overall [39].
ED-SAFE
The Emergency Department Safety Assessment and Follow-up Evaluation (ED-SAFE) protocol was validated in 8 EDs in 7 states in the US that did not already provide psychiatric services internally [40]. Under this model, all patients in the ED receive a screening for suicide risk, and those with an initial positive screen receive a secondary screen administered by the ED physician, a self-administered safety plan, and a series of up to 11 phone contacts over the following year that are administered by trained mental health clinicians in a central location. The ED-SAFE phone contacts follow the Coping Long Term with Active Suicide Program (CLASP) protocol [41] and provide support around safety planning and treatment engagement. They have the capacity to engage the patients’ significant others directly if a significant other is available and the patient chooses to involve that person.
In a single multicenter study, ED-SAFE reduced the absolute risk of suicide attempt by 5%, and the relative risk by 20% compared to usual treatment [40]. An intermediate phase of the study compared the universal suicide screening alone (ie, without the safety plan or follow-up contacts) with usual care and did not find this to improve outcomes [40].
Case Management
Kawanishi et al conducted a randomized controlled trial of assertive case management, the ACTION-J study, for patients with psychiatric diagnoses who presented with self-harm to 17 participating EDs in Japan [42]. In the ACTION-J study, case managers were mental health clinicians who provided clinical evaluations, treatment planning, encouragement, and care coordination over the course of 7 scheduled face-to-face or phone contacts in the first 18 months, and additional contacts at 6-month intervals until the completion of the trial (up to a total of 5 years) [43]. The comparison intervention, enhanced usual care, consisted of psychoeducation provided at the time of the encounter in the ED without case management services. The assertive case management intervention was associated with a decrease in suicidal behavior in the first 6 months but not for the duration of the study, except in women, for whom the benefit lasted the full 18 months [42]. A subsequent analysis also found a decrease in the total number of self-harm episodes per person-year compared to enhanced usual care, although there was not a difference in the number of participants who experienced a repeat self-harm episode [43]. The benefit was most strongly pronounced among patients who had presented with an index suicide attempt [43].
Morthorst et al applied an alternative case management model for the assertive intervention for deliberate self harm (AID) trial, which took place in Denmark [44]. Participants were aged 12 and older and could have been recruited from medical or pediatric inpatient units as well as the ED after a self-harm event. AID employed psychiatric nurses to provide crisis intervention, crisis planning, problem solving, motivational support, family mediation, and assistance with keeping appointments over a period of 6 months following discharge. Outreach took place over the phone, by text message, in participants’ homes, in cafes, and at health and social services appointments. The intervention required at least 4 contacts, although additional contacts could be made if appropriate. In comparison with a control group, in which participants received only usual care (which included ready access to short-term psychotherapy), the AID intervention was not associated with statistically significant differences in recurrent suicidal behaviors [44]. Subgroup analyses examining adult participants aged 20–39 and 40 and older also did not find differences in recurrent suicidal behavior between groups [44].
The Baerum Model and OPAC
A municipal suicide prevention team that provides comprehensive social services to suicide attempters has operated in Baerum, Norway, since 1983 [45]. Under the Baerum model, patients who attempt suicide, can be discharged from the general hospital without psychiatric admission, and are determined to have a high level of need for support are connected by a hospital-based suicide prevention team to a community-based team consisting of nurses and a consulting psychologist, who subsequently engage patients in own their homes and through follow-up phone calls. The services they provide include care coordination, encouragement, activation of social networks, psychological first-aid, and counseling focused on problem-solving. The ostensible goal of the suicide prevention team is to provide a bridge between inpatient medical care and outpatient mental health treatment; however, the intervention lasts approximately 1 year regardless of whether the patient connects with a treatment program [45].
A retrospective comparison of outcomes between recipients of the original Baerum program and non-recipients failed to find a difference in suicide attempts or suicide deaths between groups [45]. However, this was not a controlled study, and suicide attempters were preferentially referred to the program based on whether they had a higher level of need at baseline. Hvid and Wang adapted this model to patients who presented to EDs and general hospitals in Amager, Denmark [46] and have since conducted a series of randomized controlled trials comparing their adaptation to usual care. The Danish version of the Baerum model, renamed OPAC (for “outreach, problem solving, adherence, continuity”), provides similar case management and counseling services but for a maximum of 6 months. In their studies, OPAC significantly reduced the number of patients with a repeat suicide attempt and the total number of repeat suicide attempts at a 1-year interval, and this effect on total number of suicide attempts was sustained at 5 years [47,48]. Although the OPAC protocol begins with a patient’s presentation to the ED, the intervention is initiated after admission to the general hospital. Therefore, while this may inspire a model that provides similar services directly from the ED to patients who do not require general hospital admission, the existing model is not entirely based in the ED.
Discussion
The needs of suicidal patients are often multidimensional, and in some cases their risks are driven by psychosocial problems in addition to, or instead of, medically modifiable psychiatric conditions [49]. However, developing an ED-based program to support patients who are at risk of suicide after they are discharged from the ED is possible. Many such programs that provide or facilitate caring contacts, family support, case management, and/or treatment engagement with discharged patients have demonstrated that similar strategies may have the potential to impact future suicidal behavior. Nonetheless, it would be a stretch to say that all hospital systems should immediately begin doing so.
A new post-discharge support program is an investment of financial resources, personnel, and sometimes technology. Successful delivery of support or messages in any format requires that the intended recipient be able to receive it via reliable access to a working address, telephone number, or electronic device. Nonetheless, programs that rely on BCIs alone (excluding those conducted via telephone) cost relatively little to implement and thus would require a smaller investment than programs that require synchronous telephone or face-to-face contacts with staff in addition to or instead of BCIs. Costs for synchronous programs will also vary depending on the frequency and duration of contacts and the licensure and training required of the staff who provide them.
A trend toward better outcomes associating with more resource-intensive programs is easy to imagine but has not been definitively demonstrated. The wide variation between protocols in all types of programs makes comparisons between those that do and do not include synchronous contacts, and between types of synchronous contacts, difficult. Meanwhile, the low cost of BCIs alone could increase their attractiveness as an investment regardless of the magnitude of outcome improvement.
Denchev et al constructed a cost/benefit comparison model that included the postcard BCI study conducted by Carter et al [20], the telephone outreach study conducted by Vaiva et al [23], and a study of cognitive behavioral therapy (CBT) [11], all of which showed a clinical benefit. This model relied upon some numeric estimations and did not account for variation in outcomes between individual studies of each intervention strategy. However, it concluded that both telephone outreach and CBT were likely to be cost-prohibitive compared to asynchronous BCIs, which were associated with a reduction in costs overall [28].
Conclusion
There remains much to learn regarding how best to reduce suicide risk among adult patients in the period after discharge from the ED, during which patients with an identified suicide risk are known to be vulnerable. However, providing psychosocial and emotional support to patients with an identified suicide risk after they are discharged from the ED is feasible and may reduce subsequent suicidal behaviors. Templates for providing supportive outreach using different modalities now exist, and these may help guide the ongoing development and widespread adoption of more effective and cost-effective solutions.
Corresponding author: David S. Kroll, MD, dskroll@bwh.harvard.edu.
Financial disclosure: Dr. Kroll has received research funding from Brigham and Women’s Hospital to study and develop technological solutions for supporting suicidal patients after discharge from the emergency department. He has additionally received research funding and a speaking honorarium from Avasure.
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39. Riblet NBV, Shiner B, Young-Xu Y, Watts BV. Strategies to prevent death by suicide: meta-analysis of randomised controlled trials. Br J Psychiatry 2017;210:396–402.
40. Miller IW, Camargo CA Jr, Arias SA, et al. Suicide prevention in an emergency department population: the ED-SAFE study. JAMA Psychiatry 2017;74:563–70.
41. Miller IW, Gaudiano BA, Weinstock LM. The coping long term with active suicide program: description and pilot data. Suicide Life Threat Behav 2016;46:752–61.
42. Kawanishi C, Aruga T, Ishizuka N, et al. Assertive case management versus enhanced usual care for people with mental health problems who had attempted suicide and were admitted to hospital emergency departments in Japan (ACTION-J): a multicentre, randomised controlled trial. Lancet Psychiatry 2014;1:193–201.
43. Furuno T, Nakagawa M, Hino K, et al. Effectiveness of assertive case management on repeat self-harm in patients admitted for suicide attempt: findings from ACTION-J study. J Affect Disord 2018;225:460–5.
44. Morthorst B, Krogh J, Erlangsen A, et al. Effect of assertive outreach after suicide attempt in the AID (assertive intervention for deliberate self harm) trial: randomised controlled trial. BMJ 2012;345:e4972.
45. Johannessen HA, Dieserud G, De Leo D, Claussen B, et al. Chain of care for patients who have attempted suicide: a follow-up study from Bærum, Norway. BMC Public Health 2011;11:81.
46. Hvid M, Wang AG. Preventing repetition of attempted suicide—I. Feasibility (acceptability, adherence, and effectiveness) of a Baerum-model like aftercare. Nord J Psychiatry 2009;63:148–53.
47. Hvid M, Vangborg K, Sørensen HJ, et al. Preventing repetition of attempted suicide-II. The Amager project, a randomized controlled trial. Nord J Psychiatry 2011;65:292–8.
48. Lahoz T, Hvid M, Wang AG. Preventing repetition of attempted suicide-III. The Amager project, 5-year follow-up of a randomized controlled trial. Nord J Psychiatry 2016;70:547–53.
49. Kroll DS, Karno J, Mullen B, et al. Clinical severity alone does not determine disposition decisions for patients in the emergency department with suicide risk. Psychosomatics 2017; pii: S0033-3182(17)30247–5.
1. Betz ME, Boudreaux ED. Managing suicidal patients in the emergency department. Ann Emerg Med 2016;67:276–82.
2. McManus MC, Cramer RJ, Boshier M, et al. Mental health and drivers of need in emergent and non-emergent emergency department (ED) use: do living location and non-emergent care sources matter? Int J Environ Res Public Health 2018;15:129.
3. Ting SA, Sullivan AF, Boudreaux ED, et al. Trends in US emergency department visits for attempted suicide and self-inflicted injury, 1993-2008. Gen Hosp Psychiatry 2012;34:557–65.
4. Betz ME, Wintersteen M, Boudreaux ED, Brown G, Capoccia L, Currier G, et al. reducing suicide risk: challenges and opportunities in the emergency department. Ann Emerg Med 2016;68:758–65.
5. The Joint Commission. Sentinel event alert 56: detecting and treating suicide ideation in all settings. www.jointcommission.org/sea_issue_56/. Published February 24, 2016. Accessed June 4, 2018.
6. Mills PD, Watts BV, Hemphill RR. Suicide attempts and completions on medical-surgical and intensive care units. J Hosp Med 2014;9:182–5.
7. Crane EH. Patients with drug-related emergency department visits involving suicide attempts who left against medical advice. The CBHSQ Report. http://www.ncbi.nlm.nih.gov/books/NBK396153/ . Published September 13, 2016. Accessed June 4, 2018.
8. Fedyszyn IE, Erlangsen A, Hjorthøj C, et al. Repeated suicide attempts and suicide among individuals with a first emergency department contact for attempted suicide: a prospective, nationwide, Danish register-based study. J Clin Psychiatry 2016;77:832–40.
9. Hunter J, Maunder R, Kurdyak P, et al. Mental health follow-up after deliberate self-harm and risk for repeat self-harm and death. Psychiatry Res 2018;259:333–9.
10. Costemale-Lacoste JF, Balaguer E, Boniface B, et al. Outpatient treatment engagement after suicidal attempt: a multisite prospective study. Psychiatry Res 2017;258:21–3.
11. Brown GK, Ten Have T, Henriques GR, et al. Cognitive therapy for the prevention of suicide attempts: a randomized controlled trial. JAMA 2005;294:563–70.
12. Gysin-Maillart A, Schwab S, Soravia L, Megert M, Michel K. A novel brief therapy for patients who attempt suicide: a 24-months follow-up randomized controlled study of the attempted suicide short intervention program (ASSIP). PLoS Med 2016;13:e1001968.
13. Hawton K, Witt KG, Salisbury TLT, et al. Psychosocial interventions following self-harm in adults: a systematic review and meta-analysis. Lancet Psychiatry. 2016;3:740–50.
14. Battaglia J, Wolff TK, Wagner-Johnson DS, et al. Structured diagnostic assessment and depot fluphenazine treatment of multiple suicide attempters in the emergency department. Int Clin Psychopharmacol 1999;14:361–72.
15. van der Sande R, van Rooijen L, Buskens E, et al. Intensive in-patient and community intervention versus routine care after attempted suicide. A randomised controlled intervention study. Br J Psychiatry 1997;171:35–41.
16. Motto JA, Bostrom AG. A randomized controlled trial of postcrisis suicide prevention. Psychiatr Serv 2001;52:828–33.
17. Berrouiguet S, Larsen ME, Mesmeur C, Gravey M, Billot R, Walter M, et al. Toward mHealth brief contact interventions in suicide prevention: case series from the suicide intervention assisted by messages (SIAM) randomized controlled trial. JMIR MHealth UHealth 2018;6:e8.
18. Falcone G, Nardella A, Lamis DA, et al. Taking care of suicidal patients with new technologies and reaching-out means in the post-discharge period. World J Psychiatry 2017;7:163–76.
19. Milner A, Spittal MJ, Kapur N, et al. Mechanisms of brief contact interventions in clinical populations: a systematic review. BMC Psychiatry 2016;16:194.
20. Carter GL, Clover K, Whyte IM, et al. Postcards from the EDge: 5-year outcomes of a randomised controlled trial for hospital-treated self-poisoning. Br J Psychiatry 2013;202:372–80.
21. Hassanian-Moghaddam H, Sarjami S, Kolahi AA, Carter GL. Postcards in Persia: randomised controlled trial to reduce suicidal behaviours 12 months after hospital-treated self-poisoning. Br J Psychiatry 2011;198:309–16.
22. Luxton DD, Thomas EK, Chipps J, et al. Caring letters for suicide prevention: implementation of a multi-site randomized clinical trial in the U.S. military and Veteran Affairs healthcare systems. Contemp Clin Trials 2014;37(2):252–60.
23. Vaiva G, Vaiva G, Ducrocq F, et al. Effect of telephone contact on further suicide attempts in patients discharged from an emergency department: randomised controlled study. BMJ 2006;332:1241–5.
24. Cebrià AI, Parra I, Pàmias M, et al. Effectiveness of a telephone management programme for patients discharged from an emergency department after a suicide attempt: controlled study in a Spanish population. J Affect Disord 2013;147:269–76.
25. Cedereke M, Monti K, Ojehagen A. Telephone contact with patients in the year after a suicide attempt: does it affect treatment attendance and outcome? A randomised controlled study. Eur Psychiatry. 2002;17:82–91.
26. Vaiva G, Walter M, Al Arab AS, et al. ALGOS: the development of a randomized controlled trial testing a case management algorithm designed to reduce suicide risk among suicide attempters. BMC Psychiatry 2011;11:1.
27. Milner AJ, Carter G, Pirkis J, et al. Letters, green cards, telephone calls and postcards: systematic and meta-analytic review of brief contact interventions for reducing self-harm, suicide attempts and suicide. Br J Psychiatry. 2015;206:184–90.
28. Denchev P, Pearson JL, Allen MH, Claassen CA, Currier GW, Zatzick DF, et al. Modeling the cost-effectiveness of interventions to reduce suicide risk among hospital emergency department patients. Psychiatr Serv 2018;69:23–31.
29. Berrouiguet S, Courtet P, Larsen ME, et al. Suicide prevention: towards integrative, innovative and individualized brief contact interventions. Eur Psychiatry 2018;47:25–6.
30. Larsen ME, Shand F, Morley K, Batterham PJ, Petrie K, Reda B, et al. A mobile text message intervention to reduce repeat suicidal episodes: design and development of reconnecting after a suicide attempt (RAFT). JMIR Ment Health 2017;4:e56.
31. Morgan HG, Jones EM, Owen JH. Secondary prevention of non-fatal deliberate self-harm. The green card study. Br J Psychiatry 1993;163:111–2.
32. Evans MO, Morgan HG, Hayward A, Gunnell DJ. Crisis telephone consultation for deliberate self-harm patients: effects on repetition. Br J Psychiatry 1999;175:23–7.
33. Evans J, Evans M, Morgan HG, et al. Crisis card following self-harm: 12-month follow-up of a randomised controlled trial. Br J Psychiatry J 2005;187:186–7.
34. Fleischmann A, Bertolote JM, Wasserman D, et al. Effectiveness of brief intervention and contact for suicide attempters: a randomized controlled trial in five countries. Bull World Health Organ 2008;86:703–9.
35. Vijayakumar L, Umamaheswari C, Shujaath Ali ZS, et al. Intervention for suicide attempters: a randomized controlled study. Indian J Psychiatry 2011;53:244–8.
36. Bertolote JM, Fleischmann A, De Leo D, et al. Repetition of suicide attempts: data from emergency care settings in five culturally different low- and middle-income countries participating in the WHO SUPRE-MISS Study. Crisis 2010;31:194–201.
37. Mousavi SG, Zohreh R, Maracy MR, et al. The efficacy of telephonic follow up in prevention of suicidal reattempt in patients with suicide attempt history. Adv Biomed Res 2014;3:198.
38. Amadéo S, Rereao M, Malogne A, et al. Testing brief intervention and phone contact among subjects with suicidal behavior: a randomized controlled trial in French Polynesia in the frames of the World Health Organization/suicide trends in at-risk territories study. Ment Illn 2015;7:5818.
39. Riblet NBV, Shiner B, Young-Xu Y, Watts BV. Strategies to prevent death by suicide: meta-analysis of randomised controlled trials. Br J Psychiatry 2017;210:396–402.
40. Miller IW, Camargo CA Jr, Arias SA, et al. Suicide prevention in an emergency department population: the ED-SAFE study. JAMA Psychiatry 2017;74:563–70.
41. Miller IW, Gaudiano BA, Weinstock LM. The coping long term with active suicide program: description and pilot data. Suicide Life Threat Behav 2016;46:752–61.
42. Kawanishi C, Aruga T, Ishizuka N, et al. Assertive case management versus enhanced usual care for people with mental health problems who had attempted suicide and were admitted to hospital emergency departments in Japan (ACTION-J): a multicentre, randomised controlled trial. Lancet Psychiatry 2014;1:193–201.
43. Furuno T, Nakagawa M, Hino K, et al. Effectiveness of assertive case management on repeat self-harm in patients admitted for suicide attempt: findings from ACTION-J study. J Affect Disord 2018;225:460–5.
44. Morthorst B, Krogh J, Erlangsen A, et al. Effect of assertive outreach after suicide attempt in the AID (assertive intervention for deliberate self harm) trial: randomised controlled trial. BMJ 2012;345:e4972.
45. Johannessen HA, Dieserud G, De Leo D, Claussen B, et al. Chain of care for patients who have attempted suicide: a follow-up study from Bærum, Norway. BMC Public Health 2011;11:81.
46. Hvid M, Wang AG. Preventing repetition of attempted suicide—I. Feasibility (acceptability, adherence, and effectiveness) of a Baerum-model like aftercare. Nord J Psychiatry 2009;63:148–53.
47. Hvid M, Vangborg K, Sørensen HJ, et al. Preventing repetition of attempted suicide-II. The Amager project, a randomized controlled trial. Nord J Psychiatry 2011;65:292–8.
48. Lahoz T, Hvid M, Wang AG. Preventing repetition of attempted suicide-III. The Amager project, 5-year follow-up of a randomized controlled trial. Nord J Psychiatry 2016;70:547–53.
49. Kroll DS, Karno J, Mullen B, et al. Clinical severity alone does not determine disposition decisions for patients in the emergency department with suicide risk. Psychosomatics 2017; pii: S0033-3182(17)30247–5.
Survey-Based Priming Intervention Linked to Improved Communication with the Seriously Ill
Study Overview
Objective. To evaluate the efficacy of an intervention targeting both patients and clinicians intended to increase goals-of-care conversations.
Design. Multicenter cluster-randomized controlled trial.
Setting and participants. Clinicians (physicians or nurse practitioners) were recruited between February 2014 and November 2015 from 2 large health centers in the Pacific Northwest and were eligible if they provided primary or specialty care and had at least 5 eligible patients in their panels. Using the electronic health record (EHR) and clinic schedules, study staff identified and contacted (via mail or telephone) consecutive patients cared for by participating clinicians between March 2014 and May 2016 with the following eligibility criteria: age 18 years or older, 2 or more visits with the clinician in the last 18 months, and 1 or more qualifying conditions. Qualifying conditions included (1) metastatic cancer or inoperable lung cancer; (2) COPD with FEV1 values below 35% of that predicted or oxygen dependence, restrictive lung disease with a total lung capacity below 50% of that predicted, or cystic fibrosis with FEV1 below 30% of that predicted; (3) New York Heart Association class III or IV heart failure, pulmonary arterial hypertension, or left ventricular assist device or implantable cardioverter defibrillator implant; 4) cirrhosis or end-stage liver disease; (5) dialysis-dependent renal failure and diabetes; (6) age 75 or older with one or more life-limiting chronic illness; (7) age 90 or older; (8) hospitalization in the last 18 months with a life-limiting illness; (9) Charlson comorbidity index of 6 or higher. The qualifying criteria were selected to identify a median survival of approximately 2 years, suggesting relevance of goals-of-care discussions.
Intervention. The intervention was the patient-specific Jumpstart-Tips intervention, intended to prime clinicians and patients for a brief discussion of goals of care during a routine clinic visit. Patients in the intervention group received a survey to assess their preferences, barriers and facilitators for communication about end-of-life care. Survey responses were used to (1) generate an abstracted version of the patient’s preferences, (2) identify the most important communication barrier or facilitator, and (3) provide communication tips based on curricular materials from VitalTalk (http://vitaltalk.org) tailored to patient responses. The 1-page communication guide, called Jumpstart-Tips, was sent to clinicians 1 or 2 days prior to the target clinic visit date. Patients also received 1-page patient-specific Jumpstart-Tips forms, which summarized their survey responses and provided suggestions for having a goals-of-care conversation with the clinician. Patients in the control group completed the same surveys, but no information was provided to the patients or clinicians. Clinicians were randomly assigned in a 1:1 ratio to intervention or enhanced usual care.
Main outcome measures. The primary outcome was patient-reported occurrence of goals-of-care communication, which was evaluated using a validated dichotomous survey item. Other outcomes included clinician documentation of a goals-of-care conversation in the medical record, patient-reported quality of communication (measured using Quality of Communication questionnaire) at 2 weeks, patient reports of goal-concordant care at 3 months, and patient-reported symptoms of depression and anxiety at 3 and 6 months. All analyses included covariate adjustment for the baseline measure of the outcome and adjustment for other variables found to confound the association between randomization group and outcome.
Main results. Of 485 potentially eligible clinicians, 65 clinicians were randomized to the intervention group and 69 were randomized to the control group. Of these 132 clinicians, 124 had patients participating in the study: 537 out of 917 eligible patients enrolled, with 249 allocated to intervention and 288 to usual care.
Patients in the intervention group were more likely to report a goals-of-care conversation with their provider among all patients (74%, n = 137 vs 31%, n = 66; P n = 112 vs 28%, n = 44; P n = 140 vs 17%, n = 45; P n = 114 vs 17%, n = 34; P
Patients in the intervention group also reported higher quality ratings of goals-of-care conversations at the target visit (mean values, 4.6 v 2.1, P = 0.01, on the 4-indicator construct). Additionally, intervention members reported statistically significant higher ratings on 3 of the 7 individual quality-of-communication survey items.
Patient-assessed goal concordant care did not increase significantly overall (70% vs 57%; P = 0.08) but did increase for patients with stable goals between 3-month follow-up and last prior assessment (73% vs 57%; P = 0.03). Symptoms of depression or anxiety were not different between groups at 3 or 6 months.
Conclusion. The Jumpstart-Tips intervention was associated with an increase in patient reports and clinician documentation of goals-of-care communication. Increased patient-reported goal-concordant care among patients with stable goals was also associated with the intervention. Statistical significance was not detected for changes in depression or anxiety as a result of the intervention. The impact on goals-of-care discussion between patients and caregivers is suggestive of enhanced patient-centered care; however, further studies are needed to evaluate whether this communication is associated with changes in health care delivery.
Commentary
Previous research has shown that patients with serious illness who discuss their goals-of-care fare better in terms of quality of life and reducing intensity of care at the end-of-life [1]. However, providers often fail to or inadequately discuss goals of care with seriously ill patients [2,3]. This contributes to the lack of concordance between patient wishes, particularly related to end-of-life care, and clinical plans of care [4,5]. Addressing this gap between care provided and care desired, as well as providing high-quality, patient-centered care is needed.
Access to palliative care providers (who are trained to address these priorities) in the outpatient setting lags, despite an increase in specialists [6,7]. Thus, primary and specialty care providers in the outpatient setting are best positioned to align their care strategy with the goals of their patients. However, there have been limited results in showing that goals-of-care communication can be improved within the practice setting [8,9]. A randomized clinical trial among hospitalized seniors at the end-of-life showed an association where those who received advanced care planning with had improved quality of life, reduced care at dying, and reduced psychological distress among family [10]. However, in another randomized trial, simulation-based communication training compared with usual education among internal medicine and nurse practitioner trainees did not improve quality of communication about end-of-life care or quality of end-of-life care but was associated with a small increase in patients’ depressive symptoms [11]. A recent 2018 literature review of strategies used to facilitate the discussion of advance care planning with older adults in primary care settings identified effective interventions, including delivering education using various delivery methods, computer-generated triggers for primary care physicians (PCPs), inclusion of multidisciplinary professionals for content delivery, and patient preparation for PCP visit [12].
This article adds to the literature by demonstrating the feasibility and impact of implementing an intervention to increase communication about goals of care and end-of-life care. Further, this study highlights how communication that is bilateral, predetermined, and structured can be integrated into primary care. Strengths of the study include the use of randomization; deployment of validated survey tools; and confirmatory factor analysis to assess whether the survey variables are consistent with the hypothesized constructs. In addition, study staff were blinded when extracting data from the EHR record around discussions and documentation of goals-of-care conversations during patient visits. However, several limitations are present. There may be limited generalizability as the study was performed at low-scale, across one region as well as selection bias among clinicians participating in the study. Clinicians were not blinded of their assignment, which may have influenced their behaviors to discuss and document goals-of-care conversations.
Applications for Clinical Practice
Increasing quality communication around the end of life and understanding of a patient’s goals is important. Good communication can facilitate the development of a comprehensive treatment plan that is medically sound and concordant with the patient’s wishes and values. Clinicians and practices should consider adopting approaches to communication priming and accurate documentation, including: (1) incorporating/automating Jumpstart-Tips forms into practice (and tailoring as needed); (2) identifying similar education material that can serve as a primer for patients; (3) creating a pre-visit form for patients/caregivers to document and inform the clinician of their goals prior to the visit; (4) incorporating a standard EHR note to document and update goals-of-care discussion at each visit; and (5) more broadly encouraging (or providing training for) clinicians to practice bilateral communications with patients during visits.
—Ronald Sanchez, MPH, and Katrina F. Mateo, MPH
1. Wright AA, Zhang B, Ray A, et al. Associations between end-of-life discussions, patient mental health, medical care near death, and caregiver bereavement adjustment. JAMA 2008;300:1665–73.
2. Anderson WG, Chase R, Pantilat SZ, et al. Code status discussions between attending hospitalist physicians and medical patients at hospital admission. J Gen Intern Med 2011;26:359–66.
3. Osborn TR, Curtis JR, Nielsen EL, et al. Identifying elements of ICU care that families report as important but unsatisfactory: decision-making, control, and ICU atmosphere. Chest 2012;142:1185–92.
4. Covinsky KE, Fuller JD, Yaffe K, et al. Communication and decision-making in seriously ill patients: findings of the SUPPORT project. The Study to Understand Prognoses and Preferences for Outcomes and Risks of Treatments. J Am Geriatr Soc 2000;48:S187–93.
5. Heyland DK, Dodek P, Rocker G, et al. What matters most in end-of-life care: perceptions of seriously ill patients and their family members. CMAJ 2006;174:627–33
6. Dumanovsky T, Augustin R, Rogers M, Lettang K, Meier DE, Morrison RS. The growth of palliative care in U.S. hospitals: a status report. J Palliat Med 2016;19:8–15.
7. Dumanovsky T, Rogers M, Spragens LH, Morrison RS, Meier DE. Impact of staffing on access to palliative care in U.S. hospitals. J Palliat Med 2015;18:998–9.
8. Roze des Ordons, AL, Sharma N, Heyland DK, et al. Strategies for effective goals of care discussions and decision-making: perspectives from a multi-centre survey of Canadian hospital-based healthcare providers. BMC Palliative Care, 2015;14:38.
9. You JJ, Dodek P, Lamontagne F, et al. What really matters in end-of-life discussions? Perspectives of patients in hospital with serious illness and their families. CMAJ 2014;18:E679–E687.
10. Detering KM, Hancock AD, Reade MC, Silvester W. The impact of advance care planning on end of life care in elderly patients: randomised controlled trial. BMJ. 2010;340:c1345.
11. Curtis JR, Back AL, Ford DW, et al. Effect of communication skills training for residents and nurse practitioners on quality of communication with patients with serious illness: a randomized trial. JAMA 2013;310:2271–81.
12. Solis GR, Mancera BM, Shen MJ. Strategies used to facilitate the discussion of advance care planning with older adults in primary care settings: A literature review. J Am Assoc Nurse Pract 2018;30:270–9.
Study Overview
Objective. To evaluate the efficacy of an intervention targeting both patients and clinicians intended to increase goals-of-care conversations.
Design. Multicenter cluster-randomized controlled trial.
Setting and participants. Clinicians (physicians or nurse practitioners) were recruited between February 2014 and November 2015 from 2 large health centers in the Pacific Northwest and were eligible if they provided primary or specialty care and had at least 5 eligible patients in their panels. Using the electronic health record (EHR) and clinic schedules, study staff identified and contacted (via mail or telephone) consecutive patients cared for by participating clinicians between March 2014 and May 2016 with the following eligibility criteria: age 18 years or older, 2 or more visits with the clinician in the last 18 months, and 1 or more qualifying conditions. Qualifying conditions included (1) metastatic cancer or inoperable lung cancer; (2) COPD with FEV1 values below 35% of that predicted or oxygen dependence, restrictive lung disease with a total lung capacity below 50% of that predicted, or cystic fibrosis with FEV1 below 30% of that predicted; (3) New York Heart Association class III or IV heart failure, pulmonary arterial hypertension, or left ventricular assist device or implantable cardioverter defibrillator implant; 4) cirrhosis or end-stage liver disease; (5) dialysis-dependent renal failure and diabetes; (6) age 75 or older with one or more life-limiting chronic illness; (7) age 90 or older; (8) hospitalization in the last 18 months with a life-limiting illness; (9) Charlson comorbidity index of 6 or higher. The qualifying criteria were selected to identify a median survival of approximately 2 years, suggesting relevance of goals-of-care discussions.
Intervention. The intervention was the patient-specific Jumpstart-Tips intervention, intended to prime clinicians and patients for a brief discussion of goals of care during a routine clinic visit. Patients in the intervention group received a survey to assess their preferences, barriers and facilitators for communication about end-of-life care. Survey responses were used to (1) generate an abstracted version of the patient’s preferences, (2) identify the most important communication barrier or facilitator, and (3) provide communication tips based on curricular materials from VitalTalk (http://vitaltalk.org) tailored to patient responses. The 1-page communication guide, called Jumpstart-Tips, was sent to clinicians 1 or 2 days prior to the target clinic visit date. Patients also received 1-page patient-specific Jumpstart-Tips forms, which summarized their survey responses and provided suggestions for having a goals-of-care conversation with the clinician. Patients in the control group completed the same surveys, but no information was provided to the patients or clinicians. Clinicians were randomly assigned in a 1:1 ratio to intervention or enhanced usual care.
Main outcome measures. The primary outcome was patient-reported occurrence of goals-of-care communication, which was evaluated using a validated dichotomous survey item. Other outcomes included clinician documentation of a goals-of-care conversation in the medical record, patient-reported quality of communication (measured using Quality of Communication questionnaire) at 2 weeks, patient reports of goal-concordant care at 3 months, and patient-reported symptoms of depression and anxiety at 3 and 6 months. All analyses included covariate adjustment for the baseline measure of the outcome and adjustment for other variables found to confound the association between randomization group and outcome.
Main results. Of 485 potentially eligible clinicians, 65 clinicians were randomized to the intervention group and 69 were randomized to the control group. Of these 132 clinicians, 124 had patients participating in the study: 537 out of 917 eligible patients enrolled, with 249 allocated to intervention and 288 to usual care.
Patients in the intervention group were more likely to report a goals-of-care conversation with their provider among all patients (74%, n = 137 vs 31%, n = 66; P n = 112 vs 28%, n = 44; P n = 140 vs 17%, n = 45; P n = 114 vs 17%, n = 34; P
Patients in the intervention group also reported higher quality ratings of goals-of-care conversations at the target visit (mean values, 4.6 v 2.1, P = 0.01, on the 4-indicator construct). Additionally, intervention members reported statistically significant higher ratings on 3 of the 7 individual quality-of-communication survey items.
Patient-assessed goal concordant care did not increase significantly overall (70% vs 57%; P = 0.08) but did increase for patients with stable goals between 3-month follow-up and last prior assessment (73% vs 57%; P = 0.03). Symptoms of depression or anxiety were not different between groups at 3 or 6 months.
Conclusion. The Jumpstart-Tips intervention was associated with an increase in patient reports and clinician documentation of goals-of-care communication. Increased patient-reported goal-concordant care among patients with stable goals was also associated with the intervention. Statistical significance was not detected for changes in depression or anxiety as a result of the intervention. The impact on goals-of-care discussion between patients and caregivers is suggestive of enhanced patient-centered care; however, further studies are needed to evaluate whether this communication is associated with changes in health care delivery.
Commentary
Previous research has shown that patients with serious illness who discuss their goals-of-care fare better in terms of quality of life and reducing intensity of care at the end-of-life [1]. However, providers often fail to or inadequately discuss goals of care with seriously ill patients [2,3]. This contributes to the lack of concordance between patient wishes, particularly related to end-of-life care, and clinical plans of care [4,5]. Addressing this gap between care provided and care desired, as well as providing high-quality, patient-centered care is needed.
Access to palliative care providers (who are trained to address these priorities) in the outpatient setting lags, despite an increase in specialists [6,7]. Thus, primary and specialty care providers in the outpatient setting are best positioned to align their care strategy with the goals of their patients. However, there have been limited results in showing that goals-of-care communication can be improved within the practice setting [8,9]. A randomized clinical trial among hospitalized seniors at the end-of-life showed an association where those who received advanced care planning with had improved quality of life, reduced care at dying, and reduced psychological distress among family [10]. However, in another randomized trial, simulation-based communication training compared with usual education among internal medicine and nurse practitioner trainees did not improve quality of communication about end-of-life care or quality of end-of-life care but was associated with a small increase in patients’ depressive symptoms [11]. A recent 2018 literature review of strategies used to facilitate the discussion of advance care planning with older adults in primary care settings identified effective interventions, including delivering education using various delivery methods, computer-generated triggers for primary care physicians (PCPs), inclusion of multidisciplinary professionals for content delivery, and patient preparation for PCP visit [12].
This article adds to the literature by demonstrating the feasibility and impact of implementing an intervention to increase communication about goals of care and end-of-life care. Further, this study highlights how communication that is bilateral, predetermined, and structured can be integrated into primary care. Strengths of the study include the use of randomization; deployment of validated survey tools; and confirmatory factor analysis to assess whether the survey variables are consistent with the hypothesized constructs. In addition, study staff were blinded when extracting data from the EHR record around discussions and documentation of goals-of-care conversations during patient visits. However, several limitations are present. There may be limited generalizability as the study was performed at low-scale, across one region as well as selection bias among clinicians participating in the study. Clinicians were not blinded of their assignment, which may have influenced their behaviors to discuss and document goals-of-care conversations.
Applications for Clinical Practice
Increasing quality communication around the end of life and understanding of a patient’s goals is important. Good communication can facilitate the development of a comprehensive treatment plan that is medically sound and concordant with the patient’s wishes and values. Clinicians and practices should consider adopting approaches to communication priming and accurate documentation, including: (1) incorporating/automating Jumpstart-Tips forms into practice (and tailoring as needed); (2) identifying similar education material that can serve as a primer for patients; (3) creating a pre-visit form for patients/caregivers to document and inform the clinician of their goals prior to the visit; (4) incorporating a standard EHR note to document and update goals-of-care discussion at each visit; and (5) more broadly encouraging (or providing training for) clinicians to practice bilateral communications with patients during visits.
—Ronald Sanchez, MPH, and Katrina F. Mateo, MPH
Study Overview
Objective. To evaluate the efficacy of an intervention targeting both patients and clinicians intended to increase goals-of-care conversations.
Design. Multicenter cluster-randomized controlled trial.
Setting and participants. Clinicians (physicians or nurse practitioners) were recruited between February 2014 and November 2015 from 2 large health centers in the Pacific Northwest and were eligible if they provided primary or specialty care and had at least 5 eligible patients in their panels. Using the electronic health record (EHR) and clinic schedules, study staff identified and contacted (via mail or telephone) consecutive patients cared for by participating clinicians between March 2014 and May 2016 with the following eligibility criteria: age 18 years or older, 2 or more visits with the clinician in the last 18 months, and 1 or more qualifying conditions. Qualifying conditions included (1) metastatic cancer or inoperable lung cancer; (2) COPD with FEV1 values below 35% of that predicted or oxygen dependence, restrictive lung disease with a total lung capacity below 50% of that predicted, or cystic fibrosis with FEV1 below 30% of that predicted; (3) New York Heart Association class III or IV heart failure, pulmonary arterial hypertension, or left ventricular assist device or implantable cardioverter defibrillator implant; 4) cirrhosis or end-stage liver disease; (5) dialysis-dependent renal failure and diabetes; (6) age 75 or older with one or more life-limiting chronic illness; (7) age 90 or older; (8) hospitalization in the last 18 months with a life-limiting illness; (9) Charlson comorbidity index of 6 or higher. The qualifying criteria were selected to identify a median survival of approximately 2 years, suggesting relevance of goals-of-care discussions.
Intervention. The intervention was the patient-specific Jumpstart-Tips intervention, intended to prime clinicians and patients for a brief discussion of goals of care during a routine clinic visit. Patients in the intervention group received a survey to assess their preferences, barriers and facilitators for communication about end-of-life care. Survey responses were used to (1) generate an abstracted version of the patient’s preferences, (2) identify the most important communication barrier or facilitator, and (3) provide communication tips based on curricular materials from VitalTalk (http://vitaltalk.org) tailored to patient responses. The 1-page communication guide, called Jumpstart-Tips, was sent to clinicians 1 or 2 days prior to the target clinic visit date. Patients also received 1-page patient-specific Jumpstart-Tips forms, which summarized their survey responses and provided suggestions for having a goals-of-care conversation with the clinician. Patients in the control group completed the same surveys, but no information was provided to the patients or clinicians. Clinicians were randomly assigned in a 1:1 ratio to intervention or enhanced usual care.
Main outcome measures. The primary outcome was patient-reported occurrence of goals-of-care communication, which was evaluated using a validated dichotomous survey item. Other outcomes included clinician documentation of a goals-of-care conversation in the medical record, patient-reported quality of communication (measured using Quality of Communication questionnaire) at 2 weeks, patient reports of goal-concordant care at 3 months, and patient-reported symptoms of depression and anxiety at 3 and 6 months. All analyses included covariate adjustment for the baseline measure of the outcome and adjustment for other variables found to confound the association between randomization group and outcome.
Main results. Of 485 potentially eligible clinicians, 65 clinicians were randomized to the intervention group and 69 were randomized to the control group. Of these 132 clinicians, 124 had patients participating in the study: 537 out of 917 eligible patients enrolled, with 249 allocated to intervention and 288 to usual care.
Patients in the intervention group were more likely to report a goals-of-care conversation with their provider among all patients (74%, n = 137 vs 31%, n = 66; P n = 112 vs 28%, n = 44; P n = 140 vs 17%, n = 45; P n = 114 vs 17%, n = 34; P
Patients in the intervention group also reported higher quality ratings of goals-of-care conversations at the target visit (mean values, 4.6 v 2.1, P = 0.01, on the 4-indicator construct). Additionally, intervention members reported statistically significant higher ratings on 3 of the 7 individual quality-of-communication survey items.
Patient-assessed goal concordant care did not increase significantly overall (70% vs 57%; P = 0.08) but did increase for patients with stable goals between 3-month follow-up and last prior assessment (73% vs 57%; P = 0.03). Symptoms of depression or anxiety were not different between groups at 3 or 6 months.
Conclusion. The Jumpstart-Tips intervention was associated with an increase in patient reports and clinician documentation of goals-of-care communication. Increased patient-reported goal-concordant care among patients with stable goals was also associated with the intervention. Statistical significance was not detected for changes in depression or anxiety as a result of the intervention. The impact on goals-of-care discussion between patients and caregivers is suggestive of enhanced patient-centered care; however, further studies are needed to evaluate whether this communication is associated with changes in health care delivery.
Commentary
Previous research has shown that patients with serious illness who discuss their goals-of-care fare better in terms of quality of life and reducing intensity of care at the end-of-life [1]. However, providers often fail to or inadequately discuss goals of care with seriously ill patients [2,3]. This contributes to the lack of concordance between patient wishes, particularly related to end-of-life care, and clinical plans of care [4,5]. Addressing this gap between care provided and care desired, as well as providing high-quality, patient-centered care is needed.
Access to palliative care providers (who are trained to address these priorities) in the outpatient setting lags, despite an increase in specialists [6,7]. Thus, primary and specialty care providers in the outpatient setting are best positioned to align their care strategy with the goals of their patients. However, there have been limited results in showing that goals-of-care communication can be improved within the practice setting [8,9]. A randomized clinical trial among hospitalized seniors at the end-of-life showed an association where those who received advanced care planning with had improved quality of life, reduced care at dying, and reduced psychological distress among family [10]. However, in another randomized trial, simulation-based communication training compared with usual education among internal medicine and nurse practitioner trainees did not improve quality of communication about end-of-life care or quality of end-of-life care but was associated with a small increase in patients’ depressive symptoms [11]. A recent 2018 literature review of strategies used to facilitate the discussion of advance care planning with older adults in primary care settings identified effective interventions, including delivering education using various delivery methods, computer-generated triggers for primary care physicians (PCPs), inclusion of multidisciplinary professionals for content delivery, and patient preparation for PCP visit [12].
This article adds to the literature by demonstrating the feasibility and impact of implementing an intervention to increase communication about goals of care and end-of-life care. Further, this study highlights how communication that is bilateral, predetermined, and structured can be integrated into primary care. Strengths of the study include the use of randomization; deployment of validated survey tools; and confirmatory factor analysis to assess whether the survey variables are consistent with the hypothesized constructs. In addition, study staff were blinded when extracting data from the EHR record around discussions and documentation of goals-of-care conversations during patient visits. However, several limitations are present. There may be limited generalizability as the study was performed at low-scale, across one region as well as selection bias among clinicians participating in the study. Clinicians were not blinded of their assignment, which may have influenced their behaviors to discuss and document goals-of-care conversations.
Applications for Clinical Practice
Increasing quality communication around the end of life and understanding of a patient’s goals is important. Good communication can facilitate the development of a comprehensive treatment plan that is medically sound and concordant with the patient’s wishes and values. Clinicians and practices should consider adopting approaches to communication priming and accurate documentation, including: (1) incorporating/automating Jumpstart-Tips forms into practice (and tailoring as needed); (2) identifying similar education material that can serve as a primer for patients; (3) creating a pre-visit form for patients/caregivers to document and inform the clinician of their goals prior to the visit; (4) incorporating a standard EHR note to document and update goals-of-care discussion at each visit; and (5) more broadly encouraging (or providing training for) clinicians to practice bilateral communications with patients during visits.
—Ronald Sanchez, MPH, and Katrina F. Mateo, MPH
1. Wright AA, Zhang B, Ray A, et al. Associations between end-of-life discussions, patient mental health, medical care near death, and caregiver bereavement adjustment. JAMA 2008;300:1665–73.
2. Anderson WG, Chase R, Pantilat SZ, et al. Code status discussions between attending hospitalist physicians and medical patients at hospital admission. J Gen Intern Med 2011;26:359–66.
3. Osborn TR, Curtis JR, Nielsen EL, et al. Identifying elements of ICU care that families report as important but unsatisfactory: decision-making, control, and ICU atmosphere. Chest 2012;142:1185–92.
4. Covinsky KE, Fuller JD, Yaffe K, et al. Communication and decision-making in seriously ill patients: findings of the SUPPORT project. The Study to Understand Prognoses and Preferences for Outcomes and Risks of Treatments. J Am Geriatr Soc 2000;48:S187–93.
5. Heyland DK, Dodek P, Rocker G, et al. What matters most in end-of-life care: perceptions of seriously ill patients and their family members. CMAJ 2006;174:627–33
6. Dumanovsky T, Augustin R, Rogers M, Lettang K, Meier DE, Morrison RS. The growth of palliative care in U.S. hospitals: a status report. J Palliat Med 2016;19:8–15.
7. Dumanovsky T, Rogers M, Spragens LH, Morrison RS, Meier DE. Impact of staffing on access to palliative care in U.S. hospitals. J Palliat Med 2015;18:998–9.
8. Roze des Ordons, AL, Sharma N, Heyland DK, et al. Strategies for effective goals of care discussions and decision-making: perspectives from a multi-centre survey of Canadian hospital-based healthcare providers. BMC Palliative Care, 2015;14:38.
9. You JJ, Dodek P, Lamontagne F, et al. What really matters in end-of-life discussions? Perspectives of patients in hospital with serious illness and their families. CMAJ 2014;18:E679–E687.
10. Detering KM, Hancock AD, Reade MC, Silvester W. The impact of advance care planning on end of life care in elderly patients: randomised controlled trial. BMJ. 2010;340:c1345.
11. Curtis JR, Back AL, Ford DW, et al. Effect of communication skills training for residents and nurse practitioners on quality of communication with patients with serious illness: a randomized trial. JAMA 2013;310:2271–81.
12. Solis GR, Mancera BM, Shen MJ. Strategies used to facilitate the discussion of advance care planning with older adults in primary care settings: A literature review. J Am Assoc Nurse Pract 2018;30:270–9.
1. Wright AA, Zhang B, Ray A, et al. Associations between end-of-life discussions, patient mental health, medical care near death, and caregiver bereavement adjustment. JAMA 2008;300:1665–73.
2. Anderson WG, Chase R, Pantilat SZ, et al. Code status discussions between attending hospitalist physicians and medical patients at hospital admission. J Gen Intern Med 2011;26:359–66.
3. Osborn TR, Curtis JR, Nielsen EL, et al. Identifying elements of ICU care that families report as important but unsatisfactory: decision-making, control, and ICU atmosphere. Chest 2012;142:1185–92.
4. Covinsky KE, Fuller JD, Yaffe K, et al. Communication and decision-making in seriously ill patients: findings of the SUPPORT project. The Study to Understand Prognoses and Preferences for Outcomes and Risks of Treatments. J Am Geriatr Soc 2000;48:S187–93.
5. Heyland DK, Dodek P, Rocker G, et al. What matters most in end-of-life care: perceptions of seriously ill patients and their family members. CMAJ 2006;174:627–33
6. Dumanovsky T, Augustin R, Rogers M, Lettang K, Meier DE, Morrison RS. The growth of palliative care in U.S. hospitals: a status report. J Palliat Med 2016;19:8–15.
7. Dumanovsky T, Rogers M, Spragens LH, Morrison RS, Meier DE. Impact of staffing on access to palliative care in U.S. hospitals. J Palliat Med 2015;18:998–9.
8. Roze des Ordons, AL, Sharma N, Heyland DK, et al. Strategies for effective goals of care discussions and decision-making: perspectives from a multi-centre survey of Canadian hospital-based healthcare providers. BMC Palliative Care, 2015;14:38.
9. You JJ, Dodek P, Lamontagne F, et al. What really matters in end-of-life discussions? Perspectives of patients in hospital with serious illness and their families. CMAJ 2014;18:E679–E687.
10. Detering KM, Hancock AD, Reade MC, Silvester W. The impact of advance care planning on end of life care in elderly patients: randomised controlled trial. BMJ. 2010;340:c1345.
11. Curtis JR, Back AL, Ford DW, et al. Effect of communication skills training for residents and nurse practitioners on quality of communication with patients with serious illness: a randomized trial. JAMA 2013;310:2271–81.
12. Solis GR, Mancera BM, Shen MJ. Strategies used to facilitate the discussion of advance care planning with older adults in primary care settings: A literature review. J Am Assoc Nurse Pract 2018;30:270–9.
Are There Differences in Efficacy and Safety Between 2nd-Generation Drug-Eluting Stents for Left Main Coronary Intervention?
Study Overview
Objective. To compare the effectiveness and safety profiles of various second-generation drug-eluting stents (DES) for left main coronary intervention.
Design. Retrospective study using 3 multicenter prospective registries (IRIS-DES, IRIS-MAIN, PRECOMBAT).
Setting and participants. Among the 4470 patients enrolled in the 3 registries treated between July 2007 and July 2015, the authors identified 2692 patients with significant left main coronary artery disease who received second-generation DES for inclusion in the study. The centers for IRIS-DES and PRECOMBAT are academic and community hospitals in South Korea, with IRIS-MAIN involving academic and community hospitals in South Korea, China, India, Indonesia, Japan, Malaysia, Taiwan, and Thailand. Of the patients in these registries, 1254 received cobalt-chromium everolimus-eluting stents (CoCr-EES), 232 biodegradable polymer biolimus-eluting stents (BP-BES), 616 platinum-chromium EES (PtCr-EES) and 590 Resolute zotarolimus-eluting stents (Re-ZES).
Main outcome measure. Target-vessel failure.
Main results. At 3 years, rates of target-vessel failure were not significantly different for the different types of stents (16.7% for the CoCr-EES, 13.2% for the BP-BES, 18.7% for the PtCr-EES, and 14.7% for the Re-ZES; P = 0.15). The adjusted hazard ratios (HRs) for target-vessel failure were similar in between-group comparisons of the different stents, except for the PtCr-EES versus the BP-BES (HR 1.60, 95% confidence interval 1.01 to 2.54; P = 0.046). There were no significant differences in risk of composite of all-cause death, any myocardial infarction, or any revascularization and its individual components according to the different types of stents.
Conclusion. There was no significant between-group differences in 3-year risk of target-vessel failure, except for a higher risk of primary outcome with PtCr-EES compared to BP-BES.
Commentary
Left main coronary artery disease is identified in 5% to 7% of the population and is one of the more perplexing lesions to treat given the poorer outcome compared to non–left main lesion and the importance of the vessels the left main supplies [1]. Historically, coronary artery bypass grafting (CABG) has been the standard of care on the basis of the survival benefit observed in early trials compared with medical therapy. Left main percutaneous coronary intervention (PCI) has evolved as an alternative to CABG over the past few decades. Early studies using balloon angioplasty or bare metal stents were limited primarily due to high restenosis rate [1]. In the DES era, results have been overall comparable to CABG. Unprotected left main PCI using first-generation DES was non-inferior compared to CABG in the pre-specified sub-study of SYNTAX trial and in PRECOMBAT trial using paclitaxel-eluting stents and sirolimus-eluting stents, respectively [2,3]. Largely based on these trials, the 2014 ACC/AHA guidelines give class IIa recommendation for patients with low-risk anatomy (Syntax score 0–22) and class IIb recommendation for patients with intermediate-risk anatomy (Syntax score 23–32) for left main PCI [4]. Moreover, European guidelines give class Ib recommendation for patients with low-risk anatomy, and class IIa recommendation for intermediate-risk anatomy for left main PCI [5]. However, the SYNTAX trial and PRECOMBAT trial were limited by not meeting non-inferiority (SYNTAX) and wide non-inferiority (PRECOMBAT) and selection bias due to large exclusion criteria. In addition, first-generation DES were used in these trials (tacrolimis-eluting stent for SYNTAX and sirolimus-eluting stent for PRECOMBAT). The standard of care has now shifted to wide use of second-generation DES [1].
Subsequently, 2 larger-scale clinical trials using second-generation DES were designed and results have been reported recently [6,7]. The EXCEL trial enrolled 1905 patients with significant left main coronary disease and compared CoCr-EES to CABG. At 3 years, the primary endpoint of a composite of death from any cause, stroke, or myocardial infarction occurred in 15.4% of the PCI patients and in 14.7% of the CABG patients (P = 0.02 for non-inferiority; P = 0.98 for superiority). Similarly, the NOBLE trial enrolled 1201 patients with significant left main coronary disease and compared PCI to CABG. In this trial, the biolimus-eluting second-generation stent became their preferred stent during the study period. At 5 years, the primary endpoint of a composite of all-cause mortality, non-procedural myocardial infarction, any repeat coronary intervention, and stroke was higher in PCI compared to CABG patients (28% vs 18%, HR 1.51, 95% CI 1.13–2.00), exceeding the limit of non-inferiority, and CABG was significantly better compared to PCI (P = 0.004). The difference in the results is likely due to trial design. The primary endpoint was different in the 2 studies—EXCEL did not include repeat coronary intervention in the composite endpoint. The NOBLE study had a longer enrollment period and earlier-generation stents (sirolimus-eluting) were used in the earlier stages of the trial. In addition, the NOBLE study did not assess for peri-procedural myocardial infarction as an endpoint, which is known to be associated with adverse outcome. In both trials, cardiovascular mortality and all-cause mortality were similar at the end of follow-up.
In this context, the Lee et al study compared 4 types of currently available second-generation stents by pooling data from 3 large registries in Asia [8]. The main finding from this study was that target-vessel failure, defined as the composite of cardiac death, target-vessel myocardial infarction, or target-vessel revascularization at 3 years follow-up was not different among the types of second-generation drug eluting stents (P = 0.15).
Another important finding from this study was that the stent thrombosis rate at follow-up was very low (< 1%). This is consistent with the EXCEL study, which reported a definite stent thrombosis rate of 0.7% and was lower than in the NOBLE study, which reported a rate of 3%. One of the possible explanations for this difference could be stent selection. In contrast to the EXCEL study, which exclusively used Co-Cr EES by study protocol, NOBLE
study included first-generation sirolimus-drug eluting stent (11%) and BP-BES (89%). However, there are multiple factors that contribute to stent thrombosis other than stent selection, such as lesion characteristics, adequate stent expansion, and use of dual antiplatelet therapy [9].
The observed finding of small increase in target-vessel failure in PtCr-EES versus the BP-BES needs to be interpreted with caution. First, this was an observational study, and the treatment strategy or choice of stent was determined by a local interventional cardiologist, which could lead to selection bias. Although the authors performed propensity analysis, residual cofounding is likely. Second, since there was no difference in the primary analysis, the subgroup analysis becomes less important. In addition, authors did not perform statistical correction for multiple comparisons.
Despite the above limitations, this large-scale observational study gives us important insights to the performance of each second-generation DES. All currently available second-generation DES appear to be an option for use for left main coronary intervention.
Applications for Clinical Practice
In patients presenting with significant left main disease, left main PCI using a contemporary second-generation stent is safe and effective and likely has equivalent outcomes to CABG. However, PCI may be associated with higher rate of repeat revascularization. The rate of target-vessel failure was similar between different types of second-generation DES.
—Taishi Hirai, MD, and John E.A. Blair, MD, University of Chicago Medical Center, Chicago, IL
1. Rab T, Sheiban I, Louvard Y, et al. Current interventions for the left main bifurcation. JACC Cardiovasc Interv 2017;10:849–65.
2. Morice MC, Serruys PW, Kappetein AP, et al. Outcomes in patients with de novo left main disease treated with either percutaneous coronary intervention using paclitaxel-eluting stents or coronary artery bypass graft treatment in the Synergy Between Percutaneous Coronary Intervention with TAXUS and Cardiac Surgery (SYNTAX) trial. Circulation 2010;121:2645–53.
3. Park SJ, Kim YH, Park DW, et al. Randomized trial of stents versus bypass surgery for left main coronary artery disease. N Engl J Med 2011;364:1718–27.
4. Fihn SD, Blankenship JC, Alexander KP, et al. 2014 ACC/AHA/AATS/PCNA/SCAI/STS focused update of the guideline for the diagnosis and management of patients with stable ischemic heart disease: a report of the American College of Cardiology/American Heart Association Task Force on Practice Guidelines, and the American Association for Thoracic Surgery, Preventive Cardiovascular Nurses Association, Society for Cardiovascular Angiography and Interventions, and Society of Thoracic Surgeons. J Am Coll Cardiol 2014;64:1929–49.
5. Windecker S, Kolh P, Alfonso F, et al. 2014 ESC/EACTS Guidelines on myocardial revascularization: The Task Force on Myocardial Revascularization of the European Society of Cardiology (ESC) and the European Association for Cardio-Thoracic Surgery (EACTS)Developed with the special contribution of the European Association of Percutaneous Cardiovascular Interventions (EAPCI). Eur Heart J 2014;35:2541–619.
6. Stone GW, Sabik JF, Serruys PW, et al. Everolimus-eluting stents or bypass surgery for left main coronary artery disease. N Engl J Med 2016;375:2223–35.
7. Mäkikallio T, Holm NR, Lindsay M, et al. Percutaneous coronary angioplasty versus coronary artery bypass grafting in treatment of unprotected left main stenosis (NOBLE): a prospective, randomised, open-label, non-inferiority trial. Lancet 2016;388:2743–52.
8. Lee PH, Kwon O, Ahn JM, et al. Safety and effectiveness of second-generation drug-eluting stents in patients with left main coronary artery disease. J Am Coll Cardiol 2018;71:832–41.
9. Claessen BE, Henriques JP, Jaffer FA, et al. Stent thrombosis: a clinical perspective. JACC Cardiovasc Interv 2014;7:1081–92.
Study Overview
Objective. To compare the effectiveness and safety profiles of various second-generation drug-eluting stents (DES) for left main coronary intervention.
Design. Retrospective study using 3 multicenter prospective registries (IRIS-DES, IRIS-MAIN, PRECOMBAT).
Setting and participants. Among the 4470 patients enrolled in the 3 registries treated between July 2007 and July 2015, the authors identified 2692 patients with significant left main coronary artery disease who received second-generation DES for inclusion in the study. The centers for IRIS-DES and PRECOMBAT are academic and community hospitals in South Korea, with IRIS-MAIN involving academic and community hospitals in South Korea, China, India, Indonesia, Japan, Malaysia, Taiwan, and Thailand. Of the patients in these registries, 1254 received cobalt-chromium everolimus-eluting stents (CoCr-EES), 232 biodegradable polymer biolimus-eluting stents (BP-BES), 616 platinum-chromium EES (PtCr-EES) and 590 Resolute zotarolimus-eluting stents (Re-ZES).
Main outcome measure. Target-vessel failure.
Main results. At 3 years, rates of target-vessel failure were not significantly different for the different types of stents (16.7% for the CoCr-EES, 13.2% for the BP-BES, 18.7% for the PtCr-EES, and 14.7% for the Re-ZES; P = 0.15). The adjusted hazard ratios (HRs) for target-vessel failure were similar in between-group comparisons of the different stents, except for the PtCr-EES versus the BP-BES (HR 1.60, 95% confidence interval 1.01 to 2.54; P = 0.046). There were no significant differences in risk of composite of all-cause death, any myocardial infarction, or any revascularization and its individual components according to the different types of stents.
Conclusion. There was no significant between-group differences in 3-year risk of target-vessel failure, except for a higher risk of primary outcome with PtCr-EES compared to BP-BES.
Commentary
Left main coronary artery disease is identified in 5% to 7% of the population and is one of the more perplexing lesions to treat given the poorer outcome compared to non–left main lesion and the importance of the vessels the left main supplies [1]. Historically, coronary artery bypass grafting (CABG) has been the standard of care on the basis of the survival benefit observed in early trials compared with medical therapy. Left main percutaneous coronary intervention (PCI) has evolved as an alternative to CABG over the past few decades. Early studies using balloon angioplasty or bare metal stents were limited primarily due to high restenosis rate [1]. In the DES era, results have been overall comparable to CABG. Unprotected left main PCI using first-generation DES was non-inferior compared to CABG in the pre-specified sub-study of SYNTAX trial and in PRECOMBAT trial using paclitaxel-eluting stents and sirolimus-eluting stents, respectively [2,3]. Largely based on these trials, the 2014 ACC/AHA guidelines give class IIa recommendation for patients with low-risk anatomy (Syntax score 0–22) and class IIb recommendation for patients with intermediate-risk anatomy (Syntax score 23–32) for left main PCI [4]. Moreover, European guidelines give class Ib recommendation for patients with low-risk anatomy, and class IIa recommendation for intermediate-risk anatomy for left main PCI [5]. However, the SYNTAX trial and PRECOMBAT trial were limited by not meeting non-inferiority (SYNTAX) and wide non-inferiority (PRECOMBAT) and selection bias due to large exclusion criteria. In addition, first-generation DES were used in these trials (tacrolimis-eluting stent for SYNTAX and sirolimus-eluting stent for PRECOMBAT). The standard of care has now shifted to wide use of second-generation DES [1].
Subsequently, 2 larger-scale clinical trials using second-generation DES were designed and results have been reported recently [6,7]. The EXCEL trial enrolled 1905 patients with significant left main coronary disease and compared CoCr-EES to CABG. At 3 years, the primary endpoint of a composite of death from any cause, stroke, or myocardial infarction occurred in 15.4% of the PCI patients and in 14.7% of the CABG patients (P = 0.02 for non-inferiority; P = 0.98 for superiority). Similarly, the NOBLE trial enrolled 1201 patients with significant left main coronary disease and compared PCI to CABG. In this trial, the biolimus-eluting second-generation stent became their preferred stent during the study period. At 5 years, the primary endpoint of a composite of all-cause mortality, non-procedural myocardial infarction, any repeat coronary intervention, and stroke was higher in PCI compared to CABG patients (28% vs 18%, HR 1.51, 95% CI 1.13–2.00), exceeding the limit of non-inferiority, and CABG was significantly better compared to PCI (P = 0.004). The difference in the results is likely due to trial design. The primary endpoint was different in the 2 studies—EXCEL did not include repeat coronary intervention in the composite endpoint. The NOBLE study had a longer enrollment period and earlier-generation stents (sirolimus-eluting) were used in the earlier stages of the trial. In addition, the NOBLE study did not assess for peri-procedural myocardial infarction as an endpoint, which is known to be associated with adverse outcome. In both trials, cardiovascular mortality and all-cause mortality were similar at the end of follow-up.
In this context, the Lee et al study compared 4 types of currently available second-generation stents by pooling data from 3 large registries in Asia [8]. The main finding from this study was that target-vessel failure, defined as the composite of cardiac death, target-vessel myocardial infarction, or target-vessel revascularization at 3 years follow-up was not different among the types of second-generation drug eluting stents (P = 0.15).
Another important finding from this study was that the stent thrombosis rate at follow-up was very low (< 1%). This is consistent with the EXCEL study, which reported a definite stent thrombosis rate of 0.7% and was lower than in the NOBLE study, which reported a rate of 3%. One of the possible explanations for this difference could be stent selection. In contrast to the EXCEL study, which exclusively used Co-Cr EES by study protocol, NOBLE
study included first-generation sirolimus-drug eluting stent (11%) and BP-BES (89%). However, there are multiple factors that contribute to stent thrombosis other than stent selection, such as lesion characteristics, adequate stent expansion, and use of dual antiplatelet therapy [9].
The observed finding of small increase in target-vessel failure in PtCr-EES versus the BP-BES needs to be interpreted with caution. First, this was an observational study, and the treatment strategy or choice of stent was determined by a local interventional cardiologist, which could lead to selection bias. Although the authors performed propensity analysis, residual cofounding is likely. Second, since there was no difference in the primary analysis, the subgroup analysis becomes less important. In addition, authors did not perform statistical correction for multiple comparisons.
Despite the above limitations, this large-scale observational study gives us important insights to the performance of each second-generation DES. All currently available second-generation DES appear to be an option for use for left main coronary intervention.
Applications for Clinical Practice
In patients presenting with significant left main disease, left main PCI using a contemporary second-generation stent is safe and effective and likely has equivalent outcomes to CABG. However, PCI may be associated with higher rate of repeat revascularization. The rate of target-vessel failure was similar between different types of second-generation DES.
—Taishi Hirai, MD, and John E.A. Blair, MD, University of Chicago Medical Center, Chicago, IL
Study Overview
Objective. To compare the effectiveness and safety profiles of various second-generation drug-eluting stents (DES) for left main coronary intervention.
Design. Retrospective study using 3 multicenter prospective registries (IRIS-DES, IRIS-MAIN, PRECOMBAT).
Setting and participants. Among the 4470 patients enrolled in the 3 registries treated between July 2007 and July 2015, the authors identified 2692 patients with significant left main coronary artery disease who received second-generation DES for inclusion in the study. The centers for IRIS-DES and PRECOMBAT are academic and community hospitals in South Korea, with IRIS-MAIN involving academic and community hospitals in South Korea, China, India, Indonesia, Japan, Malaysia, Taiwan, and Thailand. Of the patients in these registries, 1254 received cobalt-chromium everolimus-eluting stents (CoCr-EES), 232 biodegradable polymer biolimus-eluting stents (BP-BES), 616 platinum-chromium EES (PtCr-EES) and 590 Resolute zotarolimus-eluting stents (Re-ZES).
Main outcome measure. Target-vessel failure.
Main results. At 3 years, rates of target-vessel failure were not significantly different for the different types of stents (16.7% for the CoCr-EES, 13.2% for the BP-BES, 18.7% for the PtCr-EES, and 14.7% for the Re-ZES; P = 0.15). The adjusted hazard ratios (HRs) for target-vessel failure were similar in between-group comparisons of the different stents, except for the PtCr-EES versus the BP-BES (HR 1.60, 95% confidence interval 1.01 to 2.54; P = 0.046). There were no significant differences in risk of composite of all-cause death, any myocardial infarction, or any revascularization and its individual components according to the different types of stents.
Conclusion. There was no significant between-group differences in 3-year risk of target-vessel failure, except for a higher risk of primary outcome with PtCr-EES compared to BP-BES.
Commentary
Left main coronary artery disease is identified in 5% to 7% of the population and is one of the more perplexing lesions to treat given the poorer outcome compared to non–left main lesion and the importance of the vessels the left main supplies [1]. Historically, coronary artery bypass grafting (CABG) has been the standard of care on the basis of the survival benefit observed in early trials compared with medical therapy. Left main percutaneous coronary intervention (PCI) has evolved as an alternative to CABG over the past few decades. Early studies using balloon angioplasty or bare metal stents were limited primarily due to high restenosis rate [1]. In the DES era, results have been overall comparable to CABG. Unprotected left main PCI using first-generation DES was non-inferior compared to CABG in the pre-specified sub-study of SYNTAX trial and in PRECOMBAT trial using paclitaxel-eluting stents and sirolimus-eluting stents, respectively [2,3]. Largely based on these trials, the 2014 ACC/AHA guidelines give class IIa recommendation for patients with low-risk anatomy (Syntax score 0–22) and class IIb recommendation for patients with intermediate-risk anatomy (Syntax score 23–32) for left main PCI [4]. Moreover, European guidelines give class Ib recommendation for patients with low-risk anatomy, and class IIa recommendation for intermediate-risk anatomy for left main PCI [5]. However, the SYNTAX trial and PRECOMBAT trial were limited by not meeting non-inferiority (SYNTAX) and wide non-inferiority (PRECOMBAT) and selection bias due to large exclusion criteria. In addition, first-generation DES were used in these trials (tacrolimis-eluting stent for SYNTAX and sirolimus-eluting stent for PRECOMBAT). The standard of care has now shifted to wide use of second-generation DES [1].
Subsequently, 2 larger-scale clinical trials using second-generation DES were designed and results have been reported recently [6,7]. The EXCEL trial enrolled 1905 patients with significant left main coronary disease and compared CoCr-EES to CABG. At 3 years, the primary endpoint of a composite of death from any cause, stroke, or myocardial infarction occurred in 15.4% of the PCI patients and in 14.7% of the CABG patients (P = 0.02 for non-inferiority; P = 0.98 for superiority). Similarly, the NOBLE trial enrolled 1201 patients with significant left main coronary disease and compared PCI to CABG. In this trial, the biolimus-eluting second-generation stent became their preferred stent during the study period. At 5 years, the primary endpoint of a composite of all-cause mortality, non-procedural myocardial infarction, any repeat coronary intervention, and stroke was higher in PCI compared to CABG patients (28% vs 18%, HR 1.51, 95% CI 1.13–2.00), exceeding the limit of non-inferiority, and CABG was significantly better compared to PCI (P = 0.004). The difference in the results is likely due to trial design. The primary endpoint was different in the 2 studies—EXCEL did not include repeat coronary intervention in the composite endpoint. The NOBLE study had a longer enrollment period and earlier-generation stents (sirolimus-eluting) were used in the earlier stages of the trial. In addition, the NOBLE study did not assess for peri-procedural myocardial infarction as an endpoint, which is known to be associated with adverse outcome. In both trials, cardiovascular mortality and all-cause mortality were similar at the end of follow-up.
In this context, the Lee et al study compared 4 types of currently available second-generation stents by pooling data from 3 large registries in Asia [8]. The main finding from this study was that target-vessel failure, defined as the composite of cardiac death, target-vessel myocardial infarction, or target-vessel revascularization at 3 years follow-up was not different among the types of second-generation drug eluting stents (P = 0.15).
Another important finding from this study was that the stent thrombosis rate at follow-up was very low (< 1%). This is consistent with the EXCEL study, which reported a definite stent thrombosis rate of 0.7% and was lower than in the NOBLE study, which reported a rate of 3%. One of the possible explanations for this difference could be stent selection. In contrast to the EXCEL study, which exclusively used Co-Cr EES by study protocol, NOBLE
study included first-generation sirolimus-drug eluting stent (11%) and BP-BES (89%). However, there are multiple factors that contribute to stent thrombosis other than stent selection, such as lesion characteristics, adequate stent expansion, and use of dual antiplatelet therapy [9].
The observed finding of small increase in target-vessel failure in PtCr-EES versus the BP-BES needs to be interpreted with caution. First, this was an observational study, and the treatment strategy or choice of stent was determined by a local interventional cardiologist, which could lead to selection bias. Although the authors performed propensity analysis, residual cofounding is likely. Second, since there was no difference in the primary analysis, the subgroup analysis becomes less important. In addition, authors did not perform statistical correction for multiple comparisons.
Despite the above limitations, this large-scale observational study gives us important insights to the performance of each second-generation DES. All currently available second-generation DES appear to be an option for use for left main coronary intervention.
Applications for Clinical Practice
In patients presenting with significant left main disease, left main PCI using a contemporary second-generation stent is safe and effective and likely has equivalent outcomes to CABG. However, PCI may be associated with higher rate of repeat revascularization. The rate of target-vessel failure was similar between different types of second-generation DES.
—Taishi Hirai, MD, and John E.A. Blair, MD, University of Chicago Medical Center, Chicago, IL
1. Rab T, Sheiban I, Louvard Y, et al. Current interventions for the left main bifurcation. JACC Cardiovasc Interv 2017;10:849–65.
2. Morice MC, Serruys PW, Kappetein AP, et al. Outcomes in patients with de novo left main disease treated with either percutaneous coronary intervention using paclitaxel-eluting stents or coronary artery bypass graft treatment in the Synergy Between Percutaneous Coronary Intervention with TAXUS and Cardiac Surgery (SYNTAX) trial. Circulation 2010;121:2645–53.
3. Park SJ, Kim YH, Park DW, et al. Randomized trial of stents versus bypass surgery for left main coronary artery disease. N Engl J Med 2011;364:1718–27.
4. Fihn SD, Blankenship JC, Alexander KP, et al. 2014 ACC/AHA/AATS/PCNA/SCAI/STS focused update of the guideline for the diagnosis and management of patients with stable ischemic heart disease: a report of the American College of Cardiology/American Heart Association Task Force on Practice Guidelines, and the American Association for Thoracic Surgery, Preventive Cardiovascular Nurses Association, Society for Cardiovascular Angiography and Interventions, and Society of Thoracic Surgeons. J Am Coll Cardiol 2014;64:1929–49.
5. Windecker S, Kolh P, Alfonso F, et al. 2014 ESC/EACTS Guidelines on myocardial revascularization: The Task Force on Myocardial Revascularization of the European Society of Cardiology (ESC) and the European Association for Cardio-Thoracic Surgery (EACTS)Developed with the special contribution of the European Association of Percutaneous Cardiovascular Interventions (EAPCI). Eur Heart J 2014;35:2541–619.
6. Stone GW, Sabik JF, Serruys PW, et al. Everolimus-eluting stents or bypass surgery for left main coronary artery disease. N Engl J Med 2016;375:2223–35.
7. Mäkikallio T, Holm NR, Lindsay M, et al. Percutaneous coronary angioplasty versus coronary artery bypass grafting in treatment of unprotected left main stenosis (NOBLE): a prospective, randomised, open-label, non-inferiority trial. Lancet 2016;388:2743–52.
8. Lee PH, Kwon O, Ahn JM, et al. Safety and effectiveness of second-generation drug-eluting stents in patients with left main coronary artery disease. J Am Coll Cardiol 2018;71:832–41.
9. Claessen BE, Henriques JP, Jaffer FA, et al. Stent thrombosis: a clinical perspective. JACC Cardiovasc Interv 2014;7:1081–92.
1. Rab T, Sheiban I, Louvard Y, et al. Current interventions for the left main bifurcation. JACC Cardiovasc Interv 2017;10:849–65.
2. Morice MC, Serruys PW, Kappetein AP, et al. Outcomes in patients with de novo left main disease treated with either percutaneous coronary intervention using paclitaxel-eluting stents or coronary artery bypass graft treatment in the Synergy Between Percutaneous Coronary Intervention with TAXUS and Cardiac Surgery (SYNTAX) trial. Circulation 2010;121:2645–53.
3. Park SJ, Kim YH, Park DW, et al. Randomized trial of stents versus bypass surgery for left main coronary artery disease. N Engl J Med 2011;364:1718–27.
4. Fihn SD, Blankenship JC, Alexander KP, et al. 2014 ACC/AHA/AATS/PCNA/SCAI/STS focused update of the guideline for the diagnosis and management of patients with stable ischemic heart disease: a report of the American College of Cardiology/American Heart Association Task Force on Practice Guidelines, and the American Association for Thoracic Surgery, Preventive Cardiovascular Nurses Association, Society for Cardiovascular Angiography and Interventions, and Society of Thoracic Surgeons. J Am Coll Cardiol 2014;64:1929–49.
5. Windecker S, Kolh P, Alfonso F, et al. 2014 ESC/EACTS Guidelines on myocardial revascularization: The Task Force on Myocardial Revascularization of the European Society of Cardiology (ESC) and the European Association for Cardio-Thoracic Surgery (EACTS)Developed with the special contribution of the European Association of Percutaneous Cardiovascular Interventions (EAPCI). Eur Heart J 2014;35:2541–619.
6. Stone GW, Sabik JF, Serruys PW, et al. Everolimus-eluting stents or bypass surgery for left main coronary artery disease. N Engl J Med 2016;375:2223–35.
7. Mäkikallio T, Holm NR, Lindsay M, et al. Percutaneous coronary angioplasty versus coronary artery bypass grafting in treatment of unprotected left main stenosis (NOBLE): a prospective, randomised, open-label, non-inferiority trial. Lancet 2016;388:2743–52.
8. Lee PH, Kwon O, Ahn JM, et al. Safety and effectiveness of second-generation drug-eluting stents in patients with left main coronary artery disease. J Am Coll Cardiol 2018;71:832–41.
9. Claessen BE, Henriques JP, Jaffer FA, et al. Stent thrombosis: a clinical perspective. JACC Cardiovasc Interv 2014;7:1081–92.
Usability and Patient Perceptions of the Sarilumab Pen for Treatment of RA
Study Overview
Objective. To assess usability and patient perceptions of the sarilumab auto-injector device (“sarilumab pen”) among patients with moderate-to-severe rheumatoid arthritis (RA).
Design. 12-week, randomized, parallel-group usability study.
Setting and participants. The study was conducted at 53 centers in 6 countries. Inclusion criteria were a diagnosis of RA (as defined by American College of Rheumatology/ European League Against Rheumatism 2010 Criteria) of ≥ 3-month disease duration, willing and able to self inject, continuous treatment with 1 or a combination of nonbiologic disease modifying antirheumatic drugs (except leflunomide in combination with methotrexate); and moderatly to severely active RA, defined as 4/66 swollen joint, 4/68 tender joints, and high-sensitivity C-reactive protein (hsCRP) measurement ≥ 4 mg/L. Exclusion criteria were age
Patients were randomized 1:1:1:1 to sarilumamb 150 or 200 mg every 2 weeks administered by single-use, disposable, prefilled pen or pre-filled syringe. Randomization method was not reported.
Main outcomes measures. The primary endpoint was number of “product technical failures” (PTFs). Patients randomized to the pen were given a diary that had questions related to their ability to remove the cap, start the injection, and complete the injection. Participants were asked to answer the questions each time they used the pen. If the response was “no” to any of the 3 questions, this was considered a “product technical complaint” (PTC). PTCs that had a validated technical cause based on pen evaluation and analysis were considered PTFs.
In addition, patient perceptions and satisfaction with the pen were assessed via questionnaire. At baseline, patients were asked about injections and prior experience with self-injection, and at 12 weeks they were asked about their experiences in using the pen. Other outcomes assessed included adverse events and pharmokinetic parameters.
Results. 217 participants were enrolled: 108 patients were in the pen group (56 randomized to 150 mg and 52 randomized to 200 mg) and 109 were in the syringe group (53 randomized to 150 mg and 56 randomized to 200 mg). Completion rates were similar among groups. Sixteen patients discontinued due to treatment-emergent adverse events. There were no PTFs. There was one PTC, in which the user accidently bumped the pen, which expelled the drug onto the floor.
At baseline, before the first injection, the majority of patients reported that they were not afraid of needles (58%), had past experience with self-injections (55%), and were either “very confident” or “extremely confident” regarding self-injections (55%). After the 12-week assessment phase, when asked about their overall level of satisfaction, 98% of patients reported they were “satisfied” or “very satisfied” with the sarilumab pen.
Treatment emergent adverse events occurred in 66% of patients, with no clinically meaningful differences leading to discontinuation in the pen and syringe groups. The most common adverse events were infections and neutropenia.
Conclusion. Patients successfully completed self-injections with the sarilumab pen and found it easy to use.
Commentary
Rheumatoid arthritis (RA) is a common immune-mediated disease characterized by chronically progressive inflammation and destruction of joints and associated structures, resulting in significant morbidity, mortality, and disability. Improved understanding of RA disease pathogenesis in recent years has led to the development of new biologic treatments designed to target specific elements of the RA inflammatory response.
Sarilumab is an interleukin-6 blocker that was approved in the US in 2017 for the treatment of adult patients with moderately to severely active RA who have had an inadequate response or intolerance to one or more disease-modifying antirheumatic drugs. While a syringe form of this drug is currently available, at the time of this writing the pen has not yet been released.
In this real-world usability study sponsored by Sanofi, there were no technical difficulties with using the pen. Most patients thought the pen was easy or very easy to use, and safety and effeicacy appeared to be generally comparable between the pen and syringe. The pen also offers safety protection features that prevent needlestick injury.
The authors of the current study noted that results from previous studies have shown that patients with RA favor treatment devices that are easy to use, convenient, less painful, and take less time to use, and patients have demonstrated a preference for autoinjector devices over more conventional methods of treatment administration [1–3], such as syringes. Pens have been well accepted for the treatment of other chronic health conditions, including diabetes mellitus, migraine headaches, and growth hormone deficiency, and subcutaneous administration of a tumor necrosis factor (TNF) inhibitor via pen has also been accepted for the treatment of RA [1]. As RA requires lifelong treatment, the use of a pen that is ergonomically designed to take into account the manual dexterity issues relevant to this patient population could potentially enhance compliance.
Applications for Clinical Practice
A prefilled pen was well accepted and associated with favorable patient perceptions,
1. Kivitz A, Cohen S, Dowd JE, et al. Clinical assessment of pain, tolerability, and preference of an autoinjection pen versus a prefilled syringe for patient self-administration of the fully human, monoclonal antibody adalimumab: the TOUCH trial. Clin Ther 2006;28:1619–29.
2. Demary W, Schwenke H, Rockwitz K, et al. Subcutaneously administered methotrexate for rheumatoid arthritis, by prefilled syringes versus prefilled pens: patient preference and comparison of the self-injection experience. Patient Prefer Adherence 2014;8:1061–71.
3. Thakur K, Biberger A, Handrich A, Rezk MF. Patient perceptions and preferences of two etanercept autoinjectors for rheumatoid arthritis: findings from a patient survey in Europe. Rheumatol Ther 2016;3:245–56.
Study Overview
Objective. To assess usability and patient perceptions of the sarilumab auto-injector device (“sarilumab pen”) among patients with moderate-to-severe rheumatoid arthritis (RA).
Design. 12-week, randomized, parallel-group usability study.
Setting and participants. The study was conducted at 53 centers in 6 countries. Inclusion criteria were a diagnosis of RA (as defined by American College of Rheumatology/ European League Against Rheumatism 2010 Criteria) of ≥ 3-month disease duration, willing and able to self inject, continuous treatment with 1 or a combination of nonbiologic disease modifying antirheumatic drugs (except leflunomide in combination with methotrexate); and moderatly to severely active RA, defined as 4/66 swollen joint, 4/68 tender joints, and high-sensitivity C-reactive protein (hsCRP) measurement ≥ 4 mg/L. Exclusion criteria were age
Patients were randomized 1:1:1:1 to sarilumamb 150 or 200 mg every 2 weeks administered by single-use, disposable, prefilled pen or pre-filled syringe. Randomization method was not reported.
Main outcomes measures. The primary endpoint was number of “product technical failures” (PTFs). Patients randomized to the pen were given a diary that had questions related to their ability to remove the cap, start the injection, and complete the injection. Participants were asked to answer the questions each time they used the pen. If the response was “no” to any of the 3 questions, this was considered a “product technical complaint” (PTC). PTCs that had a validated technical cause based on pen evaluation and analysis were considered PTFs.
In addition, patient perceptions and satisfaction with the pen were assessed via questionnaire. At baseline, patients were asked about injections and prior experience with self-injection, and at 12 weeks they were asked about their experiences in using the pen. Other outcomes assessed included adverse events and pharmokinetic parameters.
Results. 217 participants were enrolled: 108 patients were in the pen group (56 randomized to 150 mg and 52 randomized to 200 mg) and 109 were in the syringe group (53 randomized to 150 mg and 56 randomized to 200 mg). Completion rates were similar among groups. Sixteen patients discontinued due to treatment-emergent adverse events. There were no PTFs. There was one PTC, in which the user accidently bumped the pen, which expelled the drug onto the floor.
At baseline, before the first injection, the majority of patients reported that they were not afraid of needles (58%), had past experience with self-injections (55%), and were either “very confident” or “extremely confident” regarding self-injections (55%). After the 12-week assessment phase, when asked about their overall level of satisfaction, 98% of patients reported they were “satisfied” or “very satisfied” with the sarilumab pen.
Treatment emergent adverse events occurred in 66% of patients, with no clinically meaningful differences leading to discontinuation in the pen and syringe groups. The most common adverse events were infections and neutropenia.
Conclusion. Patients successfully completed self-injections with the sarilumab pen and found it easy to use.
Commentary
Rheumatoid arthritis (RA) is a common immune-mediated disease characterized by chronically progressive inflammation and destruction of joints and associated structures, resulting in significant morbidity, mortality, and disability. Improved understanding of RA disease pathogenesis in recent years has led to the development of new biologic treatments designed to target specific elements of the RA inflammatory response.
Sarilumab is an interleukin-6 blocker that was approved in the US in 2017 for the treatment of adult patients with moderately to severely active RA who have had an inadequate response or intolerance to one or more disease-modifying antirheumatic drugs. While a syringe form of this drug is currently available, at the time of this writing the pen has not yet been released.
In this real-world usability study sponsored by Sanofi, there were no technical difficulties with using the pen. Most patients thought the pen was easy or very easy to use, and safety and effeicacy appeared to be generally comparable between the pen and syringe. The pen also offers safety protection features that prevent needlestick injury.
The authors of the current study noted that results from previous studies have shown that patients with RA favor treatment devices that are easy to use, convenient, less painful, and take less time to use, and patients have demonstrated a preference for autoinjector devices over more conventional methods of treatment administration [1–3], such as syringes. Pens have been well accepted for the treatment of other chronic health conditions, including diabetes mellitus, migraine headaches, and growth hormone deficiency, and subcutaneous administration of a tumor necrosis factor (TNF) inhibitor via pen has also been accepted for the treatment of RA [1]. As RA requires lifelong treatment, the use of a pen that is ergonomically designed to take into account the manual dexterity issues relevant to this patient population could potentially enhance compliance.
Applications for Clinical Practice
A prefilled pen was well accepted and associated with favorable patient perceptions,
Study Overview
Objective. To assess usability and patient perceptions of the sarilumab auto-injector device (“sarilumab pen”) among patients with moderate-to-severe rheumatoid arthritis (RA).
Design. 12-week, randomized, parallel-group usability study.
Setting and participants. The study was conducted at 53 centers in 6 countries. Inclusion criteria were a diagnosis of RA (as defined by American College of Rheumatology/ European League Against Rheumatism 2010 Criteria) of ≥ 3-month disease duration, willing and able to self inject, continuous treatment with 1 or a combination of nonbiologic disease modifying antirheumatic drugs (except leflunomide in combination with methotrexate); and moderatly to severely active RA, defined as 4/66 swollen joint, 4/68 tender joints, and high-sensitivity C-reactive protein (hsCRP) measurement ≥ 4 mg/L. Exclusion criteria were age
Patients were randomized 1:1:1:1 to sarilumamb 150 or 200 mg every 2 weeks administered by single-use, disposable, prefilled pen or pre-filled syringe. Randomization method was not reported.
Main outcomes measures. The primary endpoint was number of “product technical failures” (PTFs). Patients randomized to the pen were given a diary that had questions related to their ability to remove the cap, start the injection, and complete the injection. Participants were asked to answer the questions each time they used the pen. If the response was “no” to any of the 3 questions, this was considered a “product technical complaint” (PTC). PTCs that had a validated technical cause based on pen evaluation and analysis were considered PTFs.
In addition, patient perceptions and satisfaction with the pen were assessed via questionnaire. At baseline, patients were asked about injections and prior experience with self-injection, and at 12 weeks they were asked about their experiences in using the pen. Other outcomes assessed included adverse events and pharmokinetic parameters.
Results. 217 participants were enrolled: 108 patients were in the pen group (56 randomized to 150 mg and 52 randomized to 200 mg) and 109 were in the syringe group (53 randomized to 150 mg and 56 randomized to 200 mg). Completion rates were similar among groups. Sixteen patients discontinued due to treatment-emergent adverse events. There were no PTFs. There was one PTC, in which the user accidently bumped the pen, which expelled the drug onto the floor.
At baseline, before the first injection, the majority of patients reported that they were not afraid of needles (58%), had past experience with self-injections (55%), and were either “very confident” or “extremely confident” regarding self-injections (55%). After the 12-week assessment phase, when asked about their overall level of satisfaction, 98% of patients reported they were “satisfied” or “very satisfied” with the sarilumab pen.
Treatment emergent adverse events occurred in 66% of patients, with no clinically meaningful differences leading to discontinuation in the pen and syringe groups. The most common adverse events were infections and neutropenia.
Conclusion. Patients successfully completed self-injections with the sarilumab pen and found it easy to use.
Commentary
Rheumatoid arthritis (RA) is a common immune-mediated disease characterized by chronically progressive inflammation and destruction of joints and associated structures, resulting in significant morbidity, mortality, and disability. Improved understanding of RA disease pathogenesis in recent years has led to the development of new biologic treatments designed to target specific elements of the RA inflammatory response.
Sarilumab is an interleukin-6 blocker that was approved in the US in 2017 for the treatment of adult patients with moderately to severely active RA who have had an inadequate response or intolerance to one or more disease-modifying antirheumatic drugs. While a syringe form of this drug is currently available, at the time of this writing the pen has not yet been released.
In this real-world usability study sponsored by Sanofi, there were no technical difficulties with using the pen. Most patients thought the pen was easy or very easy to use, and safety and effeicacy appeared to be generally comparable between the pen and syringe. The pen also offers safety protection features that prevent needlestick injury.
The authors of the current study noted that results from previous studies have shown that patients with RA favor treatment devices that are easy to use, convenient, less painful, and take less time to use, and patients have demonstrated a preference for autoinjector devices over more conventional methods of treatment administration [1–3], such as syringes. Pens have been well accepted for the treatment of other chronic health conditions, including diabetes mellitus, migraine headaches, and growth hormone deficiency, and subcutaneous administration of a tumor necrosis factor (TNF) inhibitor via pen has also been accepted for the treatment of RA [1]. As RA requires lifelong treatment, the use of a pen that is ergonomically designed to take into account the manual dexterity issues relevant to this patient population could potentially enhance compliance.
Applications for Clinical Practice
A prefilled pen was well accepted and associated with favorable patient perceptions,
1. Kivitz A, Cohen S, Dowd JE, et al. Clinical assessment of pain, tolerability, and preference of an autoinjection pen versus a prefilled syringe for patient self-administration of the fully human, monoclonal antibody adalimumab: the TOUCH trial. Clin Ther 2006;28:1619–29.
2. Demary W, Schwenke H, Rockwitz K, et al. Subcutaneously administered methotrexate for rheumatoid arthritis, by prefilled syringes versus prefilled pens: patient preference and comparison of the self-injection experience. Patient Prefer Adherence 2014;8:1061–71.
3. Thakur K, Biberger A, Handrich A, Rezk MF. Patient perceptions and preferences of two etanercept autoinjectors for rheumatoid arthritis: findings from a patient survey in Europe. Rheumatol Ther 2016;3:245–56.
1. Kivitz A, Cohen S, Dowd JE, et al. Clinical assessment of pain, tolerability, and preference of an autoinjection pen versus a prefilled syringe for patient self-administration of the fully human, monoclonal antibody adalimumab: the TOUCH trial. Clin Ther 2006;28:1619–29.
2. Demary W, Schwenke H, Rockwitz K, et al. Subcutaneously administered methotrexate for rheumatoid arthritis, by prefilled syringes versus prefilled pens: patient preference and comparison of the self-injection experience. Patient Prefer Adherence 2014;8:1061–71.
3. Thakur K, Biberger A, Handrich A, Rezk MF. Patient perceptions and preferences of two etanercept autoinjectors for rheumatoid arthritis: findings from a patient survey in Europe. Rheumatol Ther 2016;3:245–56.
Are PTSD Responses Inherited or Acquired?
Neuroimaging studies have consistently reported reduced activation of the medial prefrontal cortex (mPFC) in patients with posttraumatic stress disorder (PTSD) while they recall and imagine stressful personal events. During script-driven imagery (SDI) sessions, patients with PTSD exhibit increased psychophysiologic (eg, heart rate, skin conductance, and facial electromyographic) responses to trauma-related memories. However, the origin of the responses remained unclear. Are they familial, acquired, or resulting from trauma exposure?
Researchers from Harvard University, University of California Los Angeles, and University of New England conducted a study of 26 male identical twin pairs to help find the answer. The participants were divided into 4 groups: combat-exposed with PTSD (ExP+), their combat-unexposed twins without PTSD, combat-exposed participants without PTSD, and their combat-unexposed twins without PTSD. They engaged in SDI during functional magnetic resonance (fMRI) imaging and concurrent skin conductance measurement.
The results of the fMRI tests showed diminished activation in the medial prefrontal cortex of the patients with PTSD compared with the other groups. The SC response scores did not correlate significantly with PTSD symptom severity.
Contrary to the researchers’ predictions, mPFC activation was not inversely correlated with PTSD symptom severity. However, they say their finding of reduced mPFC activation in the ExP+ group provides evidence that the abnormality is an acquired characteristic. If those findings are replicated, such objectively measured biologic characteristics could potentially aid in diagnosing PTSD or assessing treatment response.
Source:
Dahlgren MK, Laifer LM, VanElzakker MB, et al. Psychol Med. 2018;48(7):1128-1138.
doi: 10.1017/S003329171700263X.
Neuroimaging studies have consistently reported reduced activation of the medial prefrontal cortex (mPFC) in patients with posttraumatic stress disorder (PTSD) while they recall and imagine stressful personal events. During script-driven imagery (SDI) sessions, patients with PTSD exhibit increased psychophysiologic (eg, heart rate, skin conductance, and facial electromyographic) responses to trauma-related memories. However, the origin of the responses remained unclear. Are they familial, acquired, or resulting from trauma exposure?
Researchers from Harvard University, University of California Los Angeles, and University of New England conducted a study of 26 male identical twin pairs to help find the answer. The participants were divided into 4 groups: combat-exposed with PTSD (ExP+), their combat-unexposed twins without PTSD, combat-exposed participants without PTSD, and their combat-unexposed twins without PTSD. They engaged in SDI during functional magnetic resonance (fMRI) imaging and concurrent skin conductance measurement.
The results of the fMRI tests showed diminished activation in the medial prefrontal cortex of the patients with PTSD compared with the other groups. The SC response scores did not correlate significantly with PTSD symptom severity.
Contrary to the researchers’ predictions, mPFC activation was not inversely correlated with PTSD symptom severity. However, they say their finding of reduced mPFC activation in the ExP+ group provides evidence that the abnormality is an acquired characteristic. If those findings are replicated, such objectively measured biologic characteristics could potentially aid in diagnosing PTSD or assessing treatment response.
Source:
Dahlgren MK, Laifer LM, VanElzakker MB, et al. Psychol Med. 2018;48(7):1128-1138.
doi: 10.1017/S003329171700263X.
Neuroimaging studies have consistently reported reduced activation of the medial prefrontal cortex (mPFC) in patients with posttraumatic stress disorder (PTSD) while they recall and imagine stressful personal events. During script-driven imagery (SDI) sessions, patients with PTSD exhibit increased psychophysiologic (eg, heart rate, skin conductance, and facial electromyographic) responses to trauma-related memories. However, the origin of the responses remained unclear. Are they familial, acquired, or resulting from trauma exposure?
Researchers from Harvard University, University of California Los Angeles, and University of New England conducted a study of 26 male identical twin pairs to help find the answer. The participants were divided into 4 groups: combat-exposed with PTSD (ExP+), their combat-unexposed twins without PTSD, combat-exposed participants without PTSD, and their combat-unexposed twins without PTSD. They engaged in SDI during functional magnetic resonance (fMRI) imaging and concurrent skin conductance measurement.
The results of the fMRI tests showed diminished activation in the medial prefrontal cortex of the patients with PTSD compared with the other groups. The SC response scores did not correlate significantly with PTSD symptom severity.
Contrary to the researchers’ predictions, mPFC activation was not inversely correlated with PTSD symptom severity. However, they say their finding of reduced mPFC activation in the ExP+ group provides evidence that the abnormality is an acquired characteristic. If those findings are replicated, such objectively measured biologic characteristics could potentially aid in diagnosing PTSD or assessing treatment response.
Source:
Dahlgren MK, Laifer LM, VanElzakker MB, et al. Psychol Med. 2018;48(7):1128-1138.
doi: 10.1017/S003329171700263X.
Federal Health Data Trends:Vietnam Era Veterans (FULL)
According to the VA, 8,744,000 veterans served in the Armed Forces in the time between the Gulf of Tonkin incident and the signing of the Paris Peace Accords.1 Of those, 3,403,000 were deployed to Southeast Asia. Those who served during this period often were exposed to unique environmental hazards, such as commonly used pesticides and herbicides, as well as diseases attributed to the tropical environment, such as fungal infections, and there were more than 40,000 reported cases of malaria. Upon returning home, these veterans faced a tough readjustment that often magnified the stress associated with combat.
Today, the VA recognizes 8 conditions related to service in Vietnam for the purposes of establishing service-connection: soft tissue sarcoma, non-Hodgkin lymphoma, Hodgkin disease, chloracne, porphyria cutanea tarda, respiratory cancers, multiple myeloma, prostate cancer, acute peripheral neuropathy, and spina bifida in offspring. As the veterans of this conflict age into their retirement years, the VA now also faces the challenge of providing care to this growing senior population.
According to the VA, 8,744,000 veterans served in the Armed Forces in the time between the Gulf of Tonkin incident and the signing of the Paris Peace Accords.1 Of those, 3,403,000 were deployed to Southeast Asia. Those who served during this period often were exposed to unique environmental hazards, such as commonly used pesticides and herbicides, as well as diseases attributed to the tropical environment, such as fungal infections, and there were more than 40,000 reported cases of malaria. Upon returning home, these veterans faced a tough readjustment that often magnified the stress associated with combat.
Today, the VA recognizes 8 conditions related to service in Vietnam for the purposes of establishing service-connection: soft tissue sarcoma, non-Hodgkin lymphoma, Hodgkin disease, chloracne, porphyria cutanea tarda, respiratory cancers, multiple myeloma, prostate cancer, acute peripheral neuropathy, and spina bifida in offspring. As the veterans of this conflict age into their retirement years, the VA now also faces the challenge of providing care to this growing senior population.
According to the VA, 8,744,000 veterans served in the Armed Forces in the time between the Gulf of Tonkin incident and the signing of the Paris Peace Accords.1 Of those, 3,403,000 were deployed to Southeast Asia. Those who served during this period often were exposed to unique environmental hazards, such as commonly used pesticides and herbicides, as well as diseases attributed to the tropical environment, such as fungal infections, and there were more than 40,000 reported cases of malaria. Upon returning home, these veterans faced a tough readjustment that often magnified the stress associated with combat.
Today, the VA recognizes 8 conditions related to service in Vietnam for the purposes of establishing service-connection: soft tissue sarcoma, non-Hodgkin lymphoma, Hodgkin disease, chloracne, porphyria cutanea tarda, respiratory cancers, multiple myeloma, prostate cancer, acute peripheral neuropathy, and spina bifida in offspring. As the veterans of this conflict age into their retirement years, the VA now also faces the challenge of providing care to this growing senior population.
Health Canada expands approval of obinutuzumab
Health Canada has expanded the approved use of obinutuzumab (Gazyva®).
The anti-CD20 monoclonal antibody is now approved for use in combination with chemotherapy to treat patients with previously untreated follicular lymphoma (FL) that is advanced (stage II bulky, stage III, or stage IV).
In patients who respond to this treatment, obinutuzumab monotherapy can be given as maintenance.
Health Canada previously approved obinutuzumab for the following indications:
- In combination with chlorambucil to treat patients with previously untreated chronic lymphocytic leukemia
- First in combination with bendamustine, then as monotherapy, in FL patients who relapsed after or are refractory to a rituximab-containing regimen.
Phase 3 results
Health Canada’s latest approval of obinutuzumab is based on results from the phase 3 GALLIUM study, which were published in NEJM in October 2017. The following are updated data from the product monograph.
GALLIUM included 1385 patients with previously untreated non-Hodgkin lymphoma, and 1202 of these patients had previously untreated, advanced FL.
Half of the FL patients (n=601) were randomized to receive obinutuzumab plus chemotherapy (followed by obinutuzumab maintenance for up to 2 years), and half were randomized to rituximab plus chemotherapy (followed by rituximab maintenance for up to 2 years).
The different chemotherapies used were CHOP (cyclophosphamide, doxorubicin, vincristine, and prednisone), CVP (cyclophosphamide, vincristine, and prednisone), and bendamustine.
At a median observation time of 41.1 months, the overall response rate was 91% in the obinutuzumab arm and 88% in the rituximab arm. The complete response rates were 28% and 27%, respectively.
The median progression-free survival was not reached in either arm. The hazard ratio, for obinutuzumab compared to rituximab, was 0.72 (95% CI, 0.56-0.93, P=0.0118).
The estimated 3-year progression-free survival was 78.9% in the rituximab arm and 83.4% in the obinutuzumab arm.
Safety was evaluated based on all 1385 patients in the study, 86% of whom had FL and 14% of whom had marginal zone lymphoma.
Serious adverse events (AEs) occurred in 50% of patients in the obinutuzumab arm and 43% in the rituximab arm. Fatal AEs occurred in 5% and 4%, respectively. Infections and second malignancies were the leading causes of these deaths.
During the monotherapy period, the most common AEs (≥ 5%) in patients treated with obinutuzumab were cough (21%), neutropenia (19%), upper respiratory tract infection (15%), viral upper respiratory tract infection (15%), diarrhea (13%), arthralgia (10%), fatigue (9%), sinusitis (9%), infusion reactions (8%), pneumonia (8%), herpes zoster (8%), lower respiratory tract infection (7%), pyrexia (7%), back pain (6%), headache (6%), urinary tract infection (6%), nausea (6%), bronchitis (5%), and vomiting (5%).
Grade 3-4 AEs (≥1%) in patients treated with obinutuzumab included neutropenia (17%), pneumonia (3%), and febrile neutropenia (2%). There were 2 deaths due to pneumonia in the obinutuzumab arm.
Health Canada has expanded the approved use of obinutuzumab (Gazyva®).
The anti-CD20 monoclonal antibody is now approved for use in combination with chemotherapy to treat patients with previously untreated follicular lymphoma (FL) that is advanced (stage II bulky, stage III, or stage IV).
In patients who respond to this treatment, obinutuzumab monotherapy can be given as maintenance.
Health Canada previously approved obinutuzumab for the following indications:
- In combination with chlorambucil to treat patients with previously untreated chronic lymphocytic leukemia
- First in combination with bendamustine, then as monotherapy, in FL patients who relapsed after or are refractory to a rituximab-containing regimen.
Phase 3 results
Health Canada’s latest approval of obinutuzumab is based on results from the phase 3 GALLIUM study, which were published in NEJM in October 2017. The following are updated data from the product monograph.
GALLIUM included 1385 patients with previously untreated non-Hodgkin lymphoma, and 1202 of these patients had previously untreated, advanced FL.
Half of the FL patients (n=601) were randomized to receive obinutuzumab plus chemotherapy (followed by obinutuzumab maintenance for up to 2 years), and half were randomized to rituximab plus chemotherapy (followed by rituximab maintenance for up to 2 years).
The different chemotherapies used were CHOP (cyclophosphamide, doxorubicin, vincristine, and prednisone), CVP (cyclophosphamide, vincristine, and prednisone), and bendamustine.
At a median observation time of 41.1 months, the overall response rate was 91% in the obinutuzumab arm and 88% in the rituximab arm. The complete response rates were 28% and 27%, respectively.
The median progression-free survival was not reached in either arm. The hazard ratio, for obinutuzumab compared to rituximab, was 0.72 (95% CI, 0.56-0.93, P=0.0118).
The estimated 3-year progression-free survival was 78.9% in the rituximab arm and 83.4% in the obinutuzumab arm.
Safety was evaluated based on all 1385 patients in the study, 86% of whom had FL and 14% of whom had marginal zone lymphoma.
Serious adverse events (AEs) occurred in 50% of patients in the obinutuzumab arm and 43% in the rituximab arm. Fatal AEs occurred in 5% and 4%, respectively. Infections and second malignancies were the leading causes of these deaths.
During the monotherapy period, the most common AEs (≥ 5%) in patients treated with obinutuzumab were cough (21%), neutropenia (19%), upper respiratory tract infection (15%), viral upper respiratory tract infection (15%), diarrhea (13%), arthralgia (10%), fatigue (9%), sinusitis (9%), infusion reactions (8%), pneumonia (8%), herpes zoster (8%), lower respiratory tract infection (7%), pyrexia (7%), back pain (6%), headache (6%), urinary tract infection (6%), nausea (6%), bronchitis (5%), and vomiting (5%).
Grade 3-4 AEs (≥1%) in patients treated with obinutuzumab included neutropenia (17%), pneumonia (3%), and febrile neutropenia (2%). There were 2 deaths due to pneumonia in the obinutuzumab arm.
Health Canada has expanded the approved use of obinutuzumab (Gazyva®).
The anti-CD20 monoclonal antibody is now approved for use in combination with chemotherapy to treat patients with previously untreated follicular lymphoma (FL) that is advanced (stage II bulky, stage III, or stage IV).
In patients who respond to this treatment, obinutuzumab monotherapy can be given as maintenance.
Health Canada previously approved obinutuzumab for the following indications:
- In combination with chlorambucil to treat patients with previously untreated chronic lymphocytic leukemia
- First in combination with bendamustine, then as monotherapy, in FL patients who relapsed after or are refractory to a rituximab-containing regimen.
Phase 3 results
Health Canada’s latest approval of obinutuzumab is based on results from the phase 3 GALLIUM study, which were published in NEJM in October 2017. The following are updated data from the product monograph.
GALLIUM included 1385 patients with previously untreated non-Hodgkin lymphoma, and 1202 of these patients had previously untreated, advanced FL.
Half of the FL patients (n=601) were randomized to receive obinutuzumab plus chemotherapy (followed by obinutuzumab maintenance for up to 2 years), and half were randomized to rituximab plus chemotherapy (followed by rituximab maintenance for up to 2 years).
The different chemotherapies used were CHOP (cyclophosphamide, doxorubicin, vincristine, and prednisone), CVP (cyclophosphamide, vincristine, and prednisone), and bendamustine.
At a median observation time of 41.1 months, the overall response rate was 91% in the obinutuzumab arm and 88% in the rituximab arm. The complete response rates were 28% and 27%, respectively.
The median progression-free survival was not reached in either arm. The hazard ratio, for obinutuzumab compared to rituximab, was 0.72 (95% CI, 0.56-0.93, P=0.0118).
The estimated 3-year progression-free survival was 78.9% in the rituximab arm and 83.4% in the obinutuzumab arm.
Safety was evaluated based on all 1385 patients in the study, 86% of whom had FL and 14% of whom had marginal zone lymphoma.
Serious adverse events (AEs) occurred in 50% of patients in the obinutuzumab arm and 43% in the rituximab arm. Fatal AEs occurred in 5% and 4%, respectively. Infections and second malignancies were the leading causes of these deaths.
During the monotherapy period, the most common AEs (≥ 5%) in patients treated with obinutuzumab were cough (21%), neutropenia (19%), upper respiratory tract infection (15%), viral upper respiratory tract infection (15%), diarrhea (13%), arthralgia (10%), fatigue (9%), sinusitis (9%), infusion reactions (8%), pneumonia (8%), herpes zoster (8%), lower respiratory tract infection (7%), pyrexia (7%), back pain (6%), headache (6%), urinary tract infection (6%), nausea (6%), bronchitis (5%), and vomiting (5%).
Grade 3-4 AEs (≥1%) in patients treated with obinutuzumab included neutropenia (17%), pneumonia (3%), and febrile neutropenia (2%). There were 2 deaths due to pneumonia in the obinutuzumab arm.
A new use for ibrutinib?
Preclinical research suggests ibrutinib could treat G-CSFR-mutant myeloid disorders.
“Mutations in G-CSFR have a harmful effect on the production of neutrophils and are reported in patients with several blood disorders, including severe congenital neutropenia, chronic neutrophilic leukemia, and acute myeloid leukemia,” said Ken Greis, PhD, of the University of Cincinnati in Ohio.
“Unfortunately, despite years of research, the malignant signaling of the mutated G-CSFRs is not well understood.”
With this in mind, Dr Greis and his colleagues created a comprehensive signaling network of normal and mutated G-CSFR. Their goal was to understand how abnormal cellular signaling from the mutant receptors results in disease development.
The researchers described this work in Leukemia.
“We are able to look at . . . phosphorylation that results in phosphate groups being attached to the amino acid tyrosine (Tyr) in proteins,” Dr Greis explained. “These phosphorylation events (pTyr) can act as switches to activate or inactivate proteins and/or specific cellular processes.”
“By evaluating pTyr activity in the normal versus mutant receptor cells, we can produce a network similar to a wiring diagram of cellular regulation. Observed disruptions at any of the nodes in the network for the mutated receptors can then be investigated further to understand and perhaps target the abnormal signaling corresponding to the disease.”
This analysis of pTyr activity revealed that G-CSFR mutants had aberrant activation of BTK, as well as abnormal kinetics of canonical STAT3, STAT5, and MAPK phosphorylation.
“When we first got these results, one of the most exciting things was that BTK was already the target of an FDA-approved drug, ibrutinib . . .,” said study author H. Leighton Grimes, PhD, of the University of Cincinnati.
The researchers tested ibrutinib in cells with mutant and wild-type G-CSFR and found the drug killed the mutant cells but not the wild-type cells. This was the case in myeloid progenitor 32D cell lines and primary human CD34+ umbilical cord blood cells.
“Progenitor cells expressing mutated G-CSFR in animal models and in human blood cells also showed enhanced sensitivity to ibrutinib compared to the normal G-CSFR, thus confirming that the mutated cells could likely be eliminated by treatment with ibrutinib and may represent an effective therapy for these patients,” Dr Grimes said.
Ibrutinib also demonstrated synergy with the JAK1/2 inhibitor ruxolitinib. G-CSFR-mutant CD34+ cells were sensitive to each drug alone, but combining them “dramatically enhanced” the sensitivity, according to the researchers.
“These data demonstrate the strength of global proteomics approaches, like the pTyr profiling used here, in dissecting cancer-forming pathways and points to the possibility that ibrutinib could be an effective therapy for myeloid leukemias with G-CSFR mutations,” Dr Greis said.
“Further studies are needed to determine if these findings will be applicable in patient samples, but the hope is that clinical trials are just around the corner, since we’re investigating a drug that has already been found to be safe by the FDA.”
Preclinical research suggests ibrutinib could treat G-CSFR-mutant myeloid disorders.
“Mutations in G-CSFR have a harmful effect on the production of neutrophils and are reported in patients with several blood disorders, including severe congenital neutropenia, chronic neutrophilic leukemia, and acute myeloid leukemia,” said Ken Greis, PhD, of the University of Cincinnati in Ohio.
“Unfortunately, despite years of research, the malignant signaling of the mutated G-CSFRs is not well understood.”
With this in mind, Dr Greis and his colleagues created a comprehensive signaling network of normal and mutated G-CSFR. Their goal was to understand how abnormal cellular signaling from the mutant receptors results in disease development.
The researchers described this work in Leukemia.
“We are able to look at . . . phosphorylation that results in phosphate groups being attached to the amino acid tyrosine (Tyr) in proteins,” Dr Greis explained. “These phosphorylation events (pTyr) can act as switches to activate or inactivate proteins and/or specific cellular processes.”
“By evaluating pTyr activity in the normal versus mutant receptor cells, we can produce a network similar to a wiring diagram of cellular regulation. Observed disruptions at any of the nodes in the network for the mutated receptors can then be investigated further to understand and perhaps target the abnormal signaling corresponding to the disease.”
This analysis of pTyr activity revealed that G-CSFR mutants had aberrant activation of BTK, as well as abnormal kinetics of canonical STAT3, STAT5, and MAPK phosphorylation.
“When we first got these results, one of the most exciting things was that BTK was already the target of an FDA-approved drug, ibrutinib . . .,” said study author H. Leighton Grimes, PhD, of the University of Cincinnati.
The researchers tested ibrutinib in cells with mutant and wild-type G-CSFR and found the drug killed the mutant cells but not the wild-type cells. This was the case in myeloid progenitor 32D cell lines and primary human CD34+ umbilical cord blood cells.
“Progenitor cells expressing mutated G-CSFR in animal models and in human blood cells also showed enhanced sensitivity to ibrutinib compared to the normal G-CSFR, thus confirming that the mutated cells could likely be eliminated by treatment with ibrutinib and may represent an effective therapy for these patients,” Dr Grimes said.
Ibrutinib also demonstrated synergy with the JAK1/2 inhibitor ruxolitinib. G-CSFR-mutant CD34+ cells were sensitive to each drug alone, but combining them “dramatically enhanced” the sensitivity, according to the researchers.
“These data demonstrate the strength of global proteomics approaches, like the pTyr profiling used here, in dissecting cancer-forming pathways and points to the possibility that ibrutinib could be an effective therapy for myeloid leukemias with G-CSFR mutations,” Dr Greis said.
“Further studies are needed to determine if these findings will be applicable in patient samples, but the hope is that clinical trials are just around the corner, since we’re investigating a drug that has already been found to be safe by the FDA.”
Preclinical research suggests ibrutinib could treat G-CSFR-mutant myeloid disorders.
“Mutations in G-CSFR have a harmful effect on the production of neutrophils and are reported in patients with several blood disorders, including severe congenital neutropenia, chronic neutrophilic leukemia, and acute myeloid leukemia,” said Ken Greis, PhD, of the University of Cincinnati in Ohio.
“Unfortunately, despite years of research, the malignant signaling of the mutated G-CSFRs is not well understood.”
With this in mind, Dr Greis and his colleagues created a comprehensive signaling network of normal and mutated G-CSFR. Their goal was to understand how abnormal cellular signaling from the mutant receptors results in disease development.
The researchers described this work in Leukemia.
“We are able to look at . . . phosphorylation that results in phosphate groups being attached to the amino acid tyrosine (Tyr) in proteins,” Dr Greis explained. “These phosphorylation events (pTyr) can act as switches to activate or inactivate proteins and/or specific cellular processes.”
“By evaluating pTyr activity in the normal versus mutant receptor cells, we can produce a network similar to a wiring diagram of cellular regulation. Observed disruptions at any of the nodes in the network for the mutated receptors can then be investigated further to understand and perhaps target the abnormal signaling corresponding to the disease.”
This analysis of pTyr activity revealed that G-CSFR mutants had aberrant activation of BTK, as well as abnormal kinetics of canonical STAT3, STAT5, and MAPK phosphorylation.
“When we first got these results, one of the most exciting things was that BTK was already the target of an FDA-approved drug, ibrutinib . . .,” said study author H. Leighton Grimes, PhD, of the University of Cincinnati.
The researchers tested ibrutinib in cells with mutant and wild-type G-CSFR and found the drug killed the mutant cells but not the wild-type cells. This was the case in myeloid progenitor 32D cell lines and primary human CD34+ umbilical cord blood cells.
“Progenitor cells expressing mutated G-CSFR in animal models and in human blood cells also showed enhanced sensitivity to ibrutinib compared to the normal G-CSFR, thus confirming that the mutated cells could likely be eliminated by treatment with ibrutinib and may represent an effective therapy for these patients,” Dr Grimes said.
Ibrutinib also demonstrated synergy with the JAK1/2 inhibitor ruxolitinib. G-CSFR-mutant CD34+ cells were sensitive to each drug alone, but combining them “dramatically enhanced” the sensitivity, according to the researchers.
“These data demonstrate the strength of global proteomics approaches, like the pTyr profiling used here, in dissecting cancer-forming pathways and points to the possibility that ibrutinib could be an effective therapy for myeloid leukemias with G-CSFR mutations,” Dr Greis said.
“Further studies are needed to determine if these findings will be applicable in patient samples, but the hope is that clinical trials are just around the corner, since we’re investigating a drug that has already been found to be safe by the FDA.”
Conflicts of interest among FDA advisers
An investigative report has unearthed potential conflicts of interest among physicians who serve on advisory panels for the US Food and Drug Administration (FDA).
The investigation revealed that some FDA advisers are receiving significant post-hoc payments from the makers of drugs they reviewed.
The investigation also uncovered relationships between advisers and drug companies that predate drug reviews.
Journalist Charles Piller and his colleagues conducted this investigation and detailed the results in Science.
The report includes data—from the federal Open Payments website—on 107 physicians who voted on FDA advisory committees between 2013 and 2016.
Forty of these advisers received more than $10,000 in post-hoc earnings or research support from the makers of drugs they reviewed or from competing drug companies.
Twenty-six advisers received more than $100,000, and 7 advisers received more than $1 million.
The 17 top earners received more than $300,000 each. For these advisers, 94% of their earnings came from the makers of drugs they previously reviewed or from those companies’ competitors.
The data also show that some advisers received funds from drug companies concurrent with or in the year before their advisory service.
Of the 17 top-earning advisers, 11 received financial support from competing companies on one or more of the drugs they reviewed. Five advisers also received support from the makers of one or more of the drugs reviewed.
The FDA did not disclose this information to the public or issue waivers for these potential conflicts. The FDA can issue a waiver to allow the participation of an adviser with an active conflict or one that ended in the year before a vote, as long as the adviser in question can provide expertise that cannot be provided by someone else.
It is possible that the FDA dismissed the aforementioned financial ties that predated drug reviews, deciding these relationships were not conflicts and did not require a waiver. However, it is also possible that the FDA did not know about these potential conflicts.
Piller and his colleagues were unable to determine what the FDA knew, as the agency refused to release disclosure documents, discuss individual advisers, or explain what steps, if any, the FDA takes to validate advisers’ disclosures.
An investigative report has unearthed potential conflicts of interest among physicians who serve on advisory panels for the US Food and Drug Administration (FDA).
The investigation revealed that some FDA advisers are receiving significant post-hoc payments from the makers of drugs they reviewed.
The investigation also uncovered relationships between advisers and drug companies that predate drug reviews.
Journalist Charles Piller and his colleagues conducted this investigation and detailed the results in Science.
The report includes data—from the federal Open Payments website—on 107 physicians who voted on FDA advisory committees between 2013 and 2016.
Forty of these advisers received more than $10,000 in post-hoc earnings or research support from the makers of drugs they reviewed or from competing drug companies.
Twenty-six advisers received more than $100,000, and 7 advisers received more than $1 million.
The 17 top earners received more than $300,000 each. For these advisers, 94% of their earnings came from the makers of drugs they previously reviewed or from those companies’ competitors.
The data also show that some advisers received funds from drug companies concurrent with or in the year before their advisory service.
Of the 17 top-earning advisers, 11 received financial support from competing companies on one or more of the drugs they reviewed. Five advisers also received support from the makers of one or more of the drugs reviewed.
The FDA did not disclose this information to the public or issue waivers for these potential conflicts. The FDA can issue a waiver to allow the participation of an adviser with an active conflict or one that ended in the year before a vote, as long as the adviser in question can provide expertise that cannot be provided by someone else.
It is possible that the FDA dismissed the aforementioned financial ties that predated drug reviews, deciding these relationships were not conflicts and did not require a waiver. However, it is also possible that the FDA did not know about these potential conflicts.
Piller and his colleagues were unable to determine what the FDA knew, as the agency refused to release disclosure documents, discuss individual advisers, or explain what steps, if any, the FDA takes to validate advisers’ disclosures.
An investigative report has unearthed potential conflicts of interest among physicians who serve on advisory panels for the US Food and Drug Administration (FDA).
The investigation revealed that some FDA advisers are receiving significant post-hoc payments from the makers of drugs they reviewed.
The investigation also uncovered relationships between advisers and drug companies that predate drug reviews.
Journalist Charles Piller and his colleagues conducted this investigation and detailed the results in Science.
The report includes data—from the federal Open Payments website—on 107 physicians who voted on FDA advisory committees between 2013 and 2016.
Forty of these advisers received more than $10,000 in post-hoc earnings or research support from the makers of drugs they reviewed or from competing drug companies.
Twenty-six advisers received more than $100,000, and 7 advisers received more than $1 million.
The 17 top earners received more than $300,000 each. For these advisers, 94% of their earnings came from the makers of drugs they previously reviewed or from those companies’ competitors.
The data also show that some advisers received funds from drug companies concurrent with or in the year before their advisory service.
Of the 17 top-earning advisers, 11 received financial support from competing companies on one or more of the drugs they reviewed. Five advisers also received support from the makers of one or more of the drugs reviewed.
The FDA did not disclose this information to the public or issue waivers for these potential conflicts. The FDA can issue a waiver to allow the participation of an adviser with an active conflict or one that ended in the year before a vote, as long as the adviser in question can provide expertise that cannot be provided by someone else.
It is possible that the FDA dismissed the aforementioned financial ties that predated drug reviews, deciding these relationships were not conflicts and did not require a waiver. However, it is also possible that the FDA did not know about these potential conflicts.
Piller and his colleagues were unable to determine what the FDA knew, as the agency refused to release disclosure documents, discuss individual advisers, or explain what steps, if any, the FDA takes to validate advisers’ disclosures.
Long-term follow-up of monoclonal gammopathy of undetermined significance
Clinical question: What is the expected clinical progression of patients with monoclonal gammopathy of undetermined significance (MGUS)?
Study design: Prospective, observational cohort study.
Setting: Single institution in Minnesota.
Synopsis: Investigators identified 1,395 patients with MGUS during 1960-1994, with a median follow-up of 34 years. Progression to multiple myeloma, plasma cell disorders, or lymphoid disorders was noted in 147 patients (11%), which represents a 6.5-times higher risk for these disorders, compared with the age/sex–adjusted control population.
Two risk factors were associated with progression of disease: elevated serum M protein (greater than 1.5 g/dL) and an abnormal serum free light chain ratio. Risk of progression at 20 years in patients with both of these risk factors was 55% in patients with IgM subtypes and 30% in patients with non-IgM subtypes. With a single risk factor, risk of progression at 20 years was 41% and 20%, respectively. With no risk factors the risk of progression at 20 years was 19% and 7%. Overall expected survival was shorter in patients with MGUS versus that in the age/sex–matched control population.
Bottom line: Patients with MGUS have a shorter life expectancy than the general population, and the IgM subtype is associated with a greater risk of progression at 20 years, compared with the non-IgM subtype.
Citation: Kyle RA et al. Long-term follow-up of monoclonal gammopathy of undetermined significance. N Eng J Med. 2018 Jan 18;378(3):241-9.
Dr. Thota is a hospitalist at UC San Diego Health and an assistant clinical professor at the University of California, San Diego.
Clinical question: What is the expected clinical progression of patients with monoclonal gammopathy of undetermined significance (MGUS)?
Study design: Prospective, observational cohort study.
Setting: Single institution in Minnesota.
Synopsis: Investigators identified 1,395 patients with MGUS during 1960-1994, with a median follow-up of 34 years. Progression to multiple myeloma, plasma cell disorders, or lymphoid disorders was noted in 147 patients (11%), which represents a 6.5-times higher risk for these disorders, compared with the age/sex–adjusted control population.
Two risk factors were associated with progression of disease: elevated serum M protein (greater than 1.5 g/dL) and an abnormal serum free light chain ratio. Risk of progression at 20 years in patients with both of these risk factors was 55% in patients with IgM subtypes and 30% in patients with non-IgM subtypes. With a single risk factor, risk of progression at 20 years was 41% and 20%, respectively. With no risk factors the risk of progression at 20 years was 19% and 7%. Overall expected survival was shorter in patients with MGUS versus that in the age/sex–matched control population.
Bottom line: Patients with MGUS have a shorter life expectancy than the general population, and the IgM subtype is associated with a greater risk of progression at 20 years, compared with the non-IgM subtype.
Citation: Kyle RA et al. Long-term follow-up of monoclonal gammopathy of undetermined significance. N Eng J Med. 2018 Jan 18;378(3):241-9.
Dr. Thota is a hospitalist at UC San Diego Health and an assistant clinical professor at the University of California, San Diego.
Clinical question: What is the expected clinical progression of patients with monoclonal gammopathy of undetermined significance (MGUS)?
Study design: Prospective, observational cohort study.
Setting: Single institution in Minnesota.
Synopsis: Investigators identified 1,395 patients with MGUS during 1960-1994, with a median follow-up of 34 years. Progression to multiple myeloma, plasma cell disorders, or lymphoid disorders was noted in 147 patients (11%), which represents a 6.5-times higher risk for these disorders, compared with the age/sex–adjusted control population.
Two risk factors were associated with progression of disease: elevated serum M protein (greater than 1.5 g/dL) and an abnormal serum free light chain ratio. Risk of progression at 20 years in patients with both of these risk factors was 55% in patients with IgM subtypes and 30% in patients with non-IgM subtypes. With a single risk factor, risk of progression at 20 years was 41% and 20%, respectively. With no risk factors the risk of progression at 20 years was 19% and 7%. Overall expected survival was shorter in patients with MGUS versus that in the age/sex–matched control population.
Bottom line: Patients with MGUS have a shorter life expectancy than the general population, and the IgM subtype is associated with a greater risk of progression at 20 years, compared with the non-IgM subtype.
Citation: Kyle RA et al. Long-term follow-up of monoclonal gammopathy of undetermined significance. N Eng J Med. 2018 Jan 18;378(3):241-9.
Dr. Thota is a hospitalist at UC San Diego Health and an assistant clinical professor at the University of California, San Diego.