[Skip to Content]
[Skip to Content Landing]

Should Organizational Investment in Robotic Surgical Technology Ever Influence Surgeons' Decisions About Surgical Approach to Patients' Surgical Care?

Learning Objectives
1. Explain a new or unfamiliar viewpoint on a topic of ethical or professional conduct
2. Evaluate the usefulness of this information for health care practice, teaching, or conduct
3. Decide whether and when to apply the new information to health care practice, teaching, or conduct
1 Credit CME
Abstract

This commentary on a case considers balancing prospective benefits and harms of robotic technology use and argues that health care organizations should invest in centralizing robotic expertise in departments rather than having a mere collection of surgeons trained in robotics. This commentary also examines costs that should be considered in organizational determinations of robotics investments.

Case

Dr M is a surgeon drawn to work in University Hospital, given the organization's reputation for leadership and investment in robot-assisted surgical technology. During her job interviews, Dr M is asked how many robotic-assisted procedures she has performed, and University Hospital's marketing director invites Dr M to discuss strategies for showcasing her robotic skills on the organization's website and in advertising campaigns. During negotiations in her hiring process, Dr M is offered dedicated block time in University Hospital's operating room (OR), where she could board 2 full days of surgery with access to the robot. Dr M is enthusiastic about this prospect, but she is also concerned that being hired as a minimally invasive surgeon—and, more specifically, as a robotic surgeon—could, over time, limit the scope of her professional decision making about how to approach surgical care of her patients, especially those for whom open or laparoscopic surgical techniques might be indicated.

Dr M wonders how to broach this set of concerns without appearing to extinguish University Hospital's interest in her enthusiasm for robotic surgical innovation. Dr M also wonders how to address conflicts of interest that could emerge, especially in striving to balance University Hospital's investment interests with appropriate exercise of her overall surgical autonomy and growing robotic surgical technique skill set. Dr M feels strongly that the professional autonomy she exercises when making decisions about her patients' surgical care should remain uncompromised by organizational pressure to maximize profit generated from robotics use in the OR. Dr M considers how to proceed in her negotiations.

Commentary

Quiz Ref IDRobotic surgery is a relatively new and evolving technology with several promising features, including improved visualization and surgeon ergonomics and the ability to perform procedures that laparoscopy cannot achieve. It is rapidly being introduced in many fields, including general surgery, colorectal surgery, thoracic surgery, gynecology, urology, and even select cardiac and head and neck procedures.1 While much of the growth is driven by the pursuit of decreased pain, improved cosmesis, and better surgical outcomes, the robot is not exempt from ethical issues arising from any new medical technology. Due to the high costs of the robot, minimally invasive surgeons who persuade administrators to invest in robotic technology—or those who are hired specifically for their robotic expertise—may feel extrinsic pressure to utilize the robot to justify the investment or their dedicated robotic block time. Examining the fixed and variable costs of robotic technology and surgical reimbursement, along with the relevance of the economic concepts of scarcity and opportunity cost, suggests that surgeons should continue to recommend the technique they expect to yield the best result, regardless of perceived pressures to use the robot. Robotic surgery also presents challenges when obtaining informed consent for surgery, including framing effects, incompletely defined risk-benefit profiles, and lack of a consensual training and credentialing process. Surgeons need to be honest and forthcoming with patients to overcome these challenges and to obtain proper consent and maintain ethical integrity.

Investment in and Reimbursement of Robotic Surgery

Newly hired minimally invasive surgeons may feel pressure (consciously or subconsciously) to utilize the robot in an attempt to maximize organizational return on technological investment and justify their hiring. In actuality, the relationship between robotic utilization and profitability is not straightforward. Economically, it is important to examine both fixed and variable costs of robotic surgery. Quiz Ref IDThe fixed costs include the purchase price (up to 2.5 million USD) and annual service contract and maintenance costs (150 000-200 000 USD),24 which health care organizations absorb regardless of robot utilization. The decision to purchase robotic technology commits the organization to this fixed cost. Variable costs—primarily the cost of robotic instruments, which are often limited to a predetermined number of uses before they must be replaced—will (by definition) vary. In a simplistic microeconomic model, if an organization's variable costs exceed its profit, it behooves the organization to shut down. While shutting down seems counterintuitive, the organization's fixed costs must be paid regardless of profit, so it becomes “cheaper” to shut down and stop the loss incurred by the excess variable costs. Multiple studies58 have shown that the magnitude of variable costs are routinely higher for robotic than laparoscopic procedures across multiple specialties.912 The higher costs are primarily related to instruments and accessories but can also be attributed to longer operative times.13Quiz Ref IDWhile a supplemental Current Procedural Terminology (CPT®) code exists for surgical techniques requiring the use of robotic systems (CPT code S2900), these techniques are considered part of the primary procedure and their cost is not reimbursed by Medicare14 or many private insurers.15,16 Therefore, it is possible that robot use for an operation that could be safely performed by another method could increase organizational costs without a corresponding increase in reimbursement. With this possibility in mind, young surgeons should follow the ethical principle of beneficence when considering their surgical approach, setting aside organizational financial considerations.

Minimally invasive surgeons may also feel extrinsic pressure to utilize the robot to validate their dedicated block time, which raises issues of scarcity and opportunity cost. Scarcity—the idea that there are finite resources to supply theoretically unlimited demand—requires making resource allocation decisions. As mentioned previously, the costs associated with purchasing and maintaining a surgical robot are significant. Therefore, many hospital systems only possess one or two robotic systems, and, with increasing numbers of surgeons utilizing the robot, availability is limited. In a retrospective review of robotic surgeries conducted at the University of California, San Diego, organizational robotic case volume nearly quadrupled from 2006 to 2016 (from 120 to 586 cases), while the number of unique surgeons utilizing robotic technology more than doubled (from 12 to 28) over the same period.17 A similar trend was seen in general surgery from 2012 to 2018 in the state of Michigan, which saw an increase from 1.8% to 15.1% in general surgery procedures being performed on the robot and a corresponding increase from 8.7% to 35.1% of general surgeons utilizing the robot.18 Opportunity cost—the value of the next-best alternative foregone when making a decision—can be important to consider when one is attempting to maximize allocation of a scarce resource. Anytime a robotic procedure is performed, particularly one that could be performed laparoscopically with similar results, the opportunity cost is equivalent to the value of the same surgery performed laparoscopically plus the value of another procedure that could only have been performed on the robotic platform in its stead. Until robotic systems become ubiquitous, minimally invasive surgeons should avoid boarding robotic cases that can be performed with equivalent outcomes using other techniques simply to fill their block time. Performing unnecessary robotic surgeries can worsen the robot scarcity problem and limit opportunities for other surgeons to use the robot. Additionally, while an association has been found between hospital profitability and robotic ownership, both the diversity of procedures performed and total surgery volume were important contributors to profitability.19 To maximize return on robotic investment, hospital organizations should regard the goal of their investment as developing a robust robotic surgery department rather than collecting robotic technology and individual surgeons. As robotic surgery becomes more popular and as more robotic surgeons are hired, it will become more important for surgical departments to maximize the robot's utility and “spread the wealth” among multiple surgeons and surgical specialties.

Challenges of Informed Consent in Robotic Surgery

When considering an operative approach, the surgeon is legally and ethically bound to obtain informed consent from the patient. This process involves a clear and accurate discussion of the patient's disease process and natural course, the proposed operation and its associated risks and benefits, and alternative operative approaches and their risks and benefits. Informed consent should be a collaborative effort, with the surgeon listening carefully to the patient and considering their values and opinions. Robotic surgery, however, presents several challenges to the informed consent process.

Framing effect.Quiz Ref IDThe framing effect is a form of cognitive bias, wherein decision making is influenced by the manner of presentation (positive vs negative).20 Experiments have shown that people are more willing to engage in risky behaviors when presented with positive frames and are more risk averse when presented with negative frames (ie, glass half full vs half empty).21 Specifically applied to robotic surgery, patients are more likely to elect to undergo a robotic procedure when it is described as “innovative” or “state-of-the-art” than when uncertainty about the evidence of its effectiveness is disclosed.22 However, the magnitude of the framing effect can be reduced (if not eliminated entirely) by providing clear, credible, and unbiased information. As outlined in the American College of Surgeons Statements on Principles,23 the information presented in the informed consent process “must be presented fairly, clearly, accurately, and compassionately…. The surgeon should not exaggerate the potential benefits of the proposed operation nor make promises or guarantees.” This statement highlights the importance of having an honest, unbiased preoperative conversation about the perceived vs measurable benefits of performing the operation robotically or via other methods to allow the patient to make the best decision about their care.

Unknown benefits and risks.Quiz Ref IDAs robotic technology is relatively new, there are few studies on its long-term risk profile. While the robot has several potential advantages over laparoscopic surgery, including a 3-dimensional field of view, increased wrist motion and dexterity, elimination of tremors, and improved surgeon ergonomics, these advantages have not been shown to improve clinical outcomes. As a historical parable, laparoscopic cholecystectomies were first introduced with the promise of decreased postoperative pain and decreased hospital length of stay and were rapidly incorporated into general surgery practices without the proposed benefits having been proven.24 Moreover, the procedure was not first proven safe, and later studies revealed higher rates of bile duct injury.2527 Although laparoscopic cholecystectomy has become the standard of care, patients who consented to laparoscopic cholecystectomies in their infancy were unaware of the true risk-benefit profile. Modern comparisons of laparoscopic vs robotic cholecystectomy have shown that robotic surgery reduces hospital length of stay without a subsequent increase in bile duct injury or postoperative bile leak rates.2830 However, in one study, robotic cholecystectomies were performed in patients with symptomatic cholelithiasis and chronic cholecystitis but not in patients with acute cholecystitis,30 which could skew these beneficial results. Similar results have been demonstrated for inguinal hernias,31,32 hysterectomies,12,33 and radical nephrectomies,34 suggesting that robotic surgery is safe, but few definite benefits of robotic over laparoscopic operations have been shown. When consenting for a robotic surgical approach, the surgeon is ethically bound to fairly present the known risks and benefits as well as the uncertainties, thereby empowering the patient to make an informed decision.

Variable training and time to mastery. Further complicating the informed consent process is the variability of the credentialing process and the learning curve for performing robotic surgery. While there is no consensus, most surgeons are required to complete an online course on the basic use of the robot, followed by an in-person training course (both offered by the robot company directly), and then to complete a number of proctored cases before gaining robotic credentials. While the current credentialing process is designed to ensure that surgeons are practicing safely, it does not necessarily ensure the best patient outcomes. In fact, it has been demonstrated that while it only takes execution of 5 to 20 cases to build basic proficiency on the robot,3539 it can require at least 150 robotic laparoscopic prostatectomies to achieve oncologic outcomes comparable to those achieved with radical retropubic prostatectomy40—suggesting that the true learning curve is substantially longer than the credentialing process. Furthermore, robotic credentials are not granted on an operation-by-operation basis; surgeons are generally proctored on relatively simple procedures but then are credentialed for all robotic surgeries in their field. This credentialing process suggests that there may be discordance between the complexity of proctored cases and subsequent cases performed. Without a consensual credentialing process or defined learning curve,41 calling oneself a “robotic surgeon” can confuse patients and complicate decision making. The loss-of-chance doctrine42—a legal concept traditionally utilized in contract law—has recently been applied to cases of medical malpractice. While traditional medical malpractice requires physician negligence resulting in patient injury,43 loss-of-chance allows consideration of the lost chance of a better outcome.44 Applied directly to surgery, patients have a right to undergo the surgical procedure by the technique and surgeon that offer optimal results. While there may not be a deviation from the standard of care, the patient is “harmed” by a relatively poorer outcome than they might have received otherwise. Therefore, surgeons should disclose their experience, skill, and comfort level with the proposed and alternative surgical approaches, thereby enabling the patient to make the best choice about care and have the best chance for a positive outcome.

Conclusion

It is imperative that surgeons avoid external pressures that may affect patient care. The American Board of Internal Medicine has defined several principles of medical professionalism, among them the primacy of patient welfare and patient autonomy.45 Primacy of patient welfare ensures that the patient's best interests are at the forefront of the surgical plan, while autonomy ensures that the patient is allowed to make informed decisions about their care. To maximize patient autonomy, surgeons must explain the proposed operative approach in detail, including the risks and benefits and alternative options. By eliminating framing bias and disclosing their experience with the proposed technique, surgeons allow the patient to make a truly educated care decision. Moreover, while all physicians are subject to conflicts of interest, the American College of Surgeons Code of Professional Conduct requires all conflicts that might influence patient care decisions to be disclosed and resolved.23 If all else fails, the surgeon should focus on operating for their patients rather than on their patients, and the goal should not be to “convince” the patient to agree to their plan.46 Following this simple principle will likely alleviate any significant conflicts of interest. While minimally invasive surgeons may feel economic pressure to utilize the robot, they should remember that profitability is not directly related to robotic utilization and only perform robotic operations they feel are in the best interest of the patient in order to allow equitable access to the robot for other surgeons.

Sign in to take quiz and track your certificates

The AMA Journal of Ethics exists to help medical students, physicians and all health care professionals navigate ethical decisions in service to patients and society. The journal publishes cases and expert commentary, medical education articles, policy discussions, peer-reviewed articles for journal-based, video CME, audio CME, visuals, and more. Learn more

Article Information

AMA Journal of Ethics

AMA J Ethics. 2023;25(8):E575-582

AMA CME Accreditation Information

CME Disclosure Statement: Unless noted, all individuals in control of content reported no relevant financial relationships.

If applicable, all relevant financial relationships have been mitigated.

Editor's Note

The case to which this commentary is a response was developed by the editorial staff.

Conflict of Interest Disclosure: The author(s) had no conflicts of interest to disclose.

Author Information:

  • Ryan D. Rosen, DO is a third-year general surgery resident. His undergraduate degree is in economics, and his interests include how rational actors respond to incentive systems and issues of scarcity; David A. Edelman, MD, MSHPEd is a professor of surgery and the program director of a general surgery residency training program. He specializes in minimally invasive and bariatric surgery, and robotic techniques are frequently utilized as part of his practice.

References:
1.
Ng  AT, Tam  PC.  Current status of robot-assisted surgery.  Hong Kong Med J. 2014;20(3):241–250.Google Scholar
2.
Minogue  D.  Table 16: Capital and operating costs of da Vinci surgical system.  In: Ho  C, Tsakonas  E, Tran  K,  et al.  Robot-Assisted Surgery Compared With Open Surgery and Laparoscopic Surgery: Clinical Effectiveness and Economic Analyses.  Canadian Agency for Drugs and Technologies in Health; 2011:chap 5.  CADTH Technology Report 137. Accessed March 22, 2023. https://www.ncbi.nlm.nih.gov/books/NBK168933/table/T16/Google Scholar
3.
Steinberg  PL, Merguerian  PA, Bihrle  W  III, Heaney  JA, Seigne  JD.  A da Vinci robot system can make sense for a mature laparoscopic prostatectomy program.  JSLS. 2008;12(1):9–12.Google Scholar
4.
Tindera  M.  Robot wars: $60B intuitive surgical dominated its market for 20 years.  Now rivals like Alphabet are moving in.  Forbes. February 28 , 2019. Accessed March 20, 2023. https://www.forbes.com/sites/michelatindera/2019/02/14/intuitive-surgical-stock-robot-surgery-da-vinci-alphabet-jnj-ceo-gary-guthart/?sh=27c7f531a37bGoogle Scholar
5.
Childers  CP, Maggard-Gibbons  M.  Estimation of the acquisition and operating costs for robotic surgery.  JAMA. 2018;320(8):835–836.Google ScholarCrossref
6.
Patel  S, Rovers  MM, Sedelaar  MJP,  et al.  How can robot-assisted surgery provide value for money?  BMJ Surg Interv Health Technol. 2021;3(1):e000042.Google ScholarCrossref
7.
Barbash  GI, Glied  SA.  New technology and health care costs—the case of robot-assisted surgery.  N Engl J Med. 2010;363(8):701–704.Google ScholarCrossref
8.
Feldstein  J, Schwander  B, Roberts  M, Coussons  H.  Cost of ownership assessment for a da Vinci robot based on US real-world data.  Int J Med Robot. 2019;15(5):e2023.Google ScholarCrossref
9.
Pokala  B, Flores  L, Armijo  PR, Kothari  V, Oleynikov  D.  Robot-assisted cholecystectomy is a safe but costly approach: a national database review.  Am J Surg. 2019;218(6):1213– 1218.Google ScholarCrossref
10.
Juo  YY, Hyder  O, Haider  AH, Camp  M, Lidor  A, Ahuja  N.  Cost and outcomes analysis of robotic, laparoscopic, and open colon resection: a national study.  J Am Coll Surg. 2013;217(3)(suppl):S112–S113.Google Scholar
11.
Morelli  L, Di Franco  G, Valentina  L,  et al.  The higher cost of robotic technology can be offset by clinical advantages: a case-matched cost-analysis of robot-assisted vs open pancreatoduodenectomy.  J Am Coll Surg. 2021;233(5):e123.Google ScholarCrossref
12.
Wright  JD, Ananth  CV, Lewin  SN,  et al.  Robotically assisted vs laparoscopic hysterectomy among women with benign gynecologic disease.  JAMA. 2013;309(7):689–698.Google ScholarCrossref
13.
Turchetti  G, Palla  I, Pierotti  F, Cuschieri  A.  Economic evaluation of da Vinci-assisted robotic surgery: a systematic review.  Surg Endosc. 2012;26(3):598–606.Google ScholarCrossref
14.
Intuitive Surgical.  Da Vinci surgical system 2021 US coding and reimbursement guide: Medicare national average rates.  Intuitive Surgical; 2021. Accessed July 18, 2023. https://www.readkong.com/page/da-vinci-surgical-system-2021-u-s-coding-reimbursement-9853029
15.
Patel  S.  Robot assisted surgery S2900 SAI-change in prior authorization requirements.  Aetna Better Health® of Pennsylvania; August 30 , 2019. Accessed January 18, 2023. https://www.aetnabetterhealth.com/content/dam/aetna/medicaid/pennsylvania/provider/pdf/PriorAuthChangeRobotSurg2KW.pdf
17.
Stringfield  SB, Parry  LA, Eisenstein  SG, Horgan  SN, Kane  CJ, Ramamoorthy  SL.  Experience with 10 years of a robotic surgery program at an academic medical center.  Surg Endosc. 2022;36(3):1950–1960.Google ScholarCrossref
18.
Sheetz  KH, Claflin  J, Dimick  JB.  Trends in the adoption of robotic surgery for common surgical procedures.  JAMA Netw Open. 2020;3(1):e1918911.Google ScholarCrossref
19.
Shih  YT, Shen  C, Hu  JC.  Do robotic surgical systems improve profit margins? A cross-sectional analysis of California hospitals.  Value Health. 2017;20(8):1221–1225.Google ScholarCrossref
20.
Rabin  M.  Psychology and economics.  J Econ Lit. 1998;36:11–46.Google Scholar
21.
Peng  J, Li  H, Miao  D, Feng  X, Xiao  W.  Five different types of framing effects in medical situation: a preliminary exploration.  Iran Red Crescent Med J. 2013;15(2):161–165.Google Scholar
22.
Dixon  PR, Grant  RC, Urbach  DR.  The impact of marketing language on patient preference for robot-assisted surgery.  Surg Innov. 2015;22(1):15–19.Google ScholarCrossref
23.
 Statements on principles.  American College of Surgeons. April 12 , 2016. Accessed February 1, 2023. https://www.facs.org/about-acs/statements/statements-on-principles/
24.
Polychronidis  A, Laftsidis  P, Bounovas  A, Simopoulos  C.  Twenty years of laparoscopic cholecystectomy: Philippe Mouret—March 17, 1987.  JSLS. 2008;12(1):109–111.Google Scholar
25.
Southern Surgeons Club.  A prospective analysis of 1518 laparoscopic cholecystectomies.  N Engl J Med. 1991;324(16):1073–1078.Google ScholarCrossref
26.
Nuzzo  G, Giuliante  F, Giovannini  I,  et al.  Bile duct injury during laparoscopic cholecystectomy: results of an Italian national survey on 56 591 cholecystectomies.  Arch Surg. 2005;140(10):986–992.Google ScholarCrossref
27.
Flum  DR, Cheadle  A, Prela  C, Dellinger  EP, Chan  L.  Bile duct injury during cholecystectomy and survival in Medicare beneficiaries.  JAMA. 2003;290(16):2168–2173.Google ScholarCrossref
28.
Ghanem  M, Shaheen  S, Blebea  J,  et al.  Robotic versus laparoscopic cholecystectomy: case-control outcome analysis and surgical resident training implications.  Cureus. 2020;12(4):e7641.Google Scholar
29.
Kane  WJ, Charles  EJ, Mehaffey  JH,  et al.  Robotic compared with laparoscopic cholecystectomy: a propensity matched analysis.  Surgery. 2020;167(2):432–435.Google ScholarCrossref
30.
Strosberg  DS, Nguyen  MC, Muscarella  P  II, Narula  VK.  A retrospective comparison of robotic cholecystectomy versus laparoscopic cholecystectomy: operative outcomes and cost analysis.  Surg Endosc. 2017;31(3):1436–1441.Google ScholarCrossref
31.
Solaini  L, Cavaliere  D, Avanzolini  A, Rocco  G, Ercolani  G.  Robotic versus laparoscopic inguinal hernia repair: an updated systematic review and meta-analysis.  J Robot Surg. 2022;16(4):775–781.Google ScholarCrossref
32.
Prabhu  AS, Carbonell  A, Hope  W,  et al.  Robotic inguinal vs transabdominal laparoscopic inguinal hernia repair: the RIVAL randomized clinical trial.  JAMA Surg. 2020;155(5):380–387.Google ScholarCrossref
33.
Soto  E, Lo  Y, Friedman  K,  et al.  Total laparoscopic hysterectomy versus da Vinci robotic hysterectomy: is using the robot beneficial?  J Gynecol Oncol. 2011;22(4):253–259.Google ScholarCrossref
34.
Jeong  IG, Khandwala  YS, Kim  JH,  et al.  Association of robotic-assisted vs laparoscopic radical nephrectomy with perioperative outcomes and health care costs, 2003 to 2015.  JAMA. 2017;318(16):1561–1568.Google ScholarCrossref
35.
Lavery  HJ, Small  AC, Samadi  DB, Palese  MA.  Transition from laparoscopic to robotic partial nephrectomy: the learning curve for an experienced laparoscopic surgeon.  JSLS. 2011;15(3):291–297.Google ScholarCrossref
36.
Giulianotti  PC, Coratti  A, Angelini  M,  et al.  Robotics in general surgery: personal experience in a large community hospital.  Arch Surg. 2003;138(7):777–784.Google ScholarCrossref
37.
Menon  M, Shrivastava  A, Tewari  A,  et al.  Laparoscopic and robot assisted radical prostatectomy: establishment of a structured program and preliminary analysis of outcomes.  J Urol. 2002;168(3):945–949.Google ScholarCrossref
38.
Haseebuddin  M, Benway  BM, Cabello  JM, Bhayani  SB.  Robot-assisted partial nephrectomy: evaluation of learning curve for an experienced renal surgeon.  J Endourol. 2010;24(1):57–61.Google ScholarCrossref
39.
Ou  YC, Yang  CR, Wang  J, Cheng  CL, Patel  VR.  Robotic-assisted laparoscopic radical prostatectomy: learning curve of first 100 cases.  Int J Urol. 2010;17(7):635–640.Google ScholarCrossref
40.
Herrell  SD, Smith  JA  Jr.  Robotic-assisted laparoscopic prostatectomy: what is the learning curve?  Urology. 2005;66(5)(suppl):105–107.Google Scholar
41.
Soomro  NA, Hashimoto  DA, Porteous  AJ,  et al.  Systematic review of learning curves in robot-assisted surgery.  BJS Open. 2020;4(1):27–44.Google ScholarCrossref
42.
 Loss of chance in English law.  Wikipedia. Updated May 23, 2022. Accessed February 2, 2023. https://en.wikipedia.org/wiki/Loss_of_chance_in_English_law
43.
Bal  BS.  An introduction to medical malpractice in the United States.  Clin Orthop Relat Res. 2009;467(2):339–347.Google ScholarCrossref
44.
Ferrarese  A, Pozzi  G, Borghi  F,  et al.  Informed consent in robotic surgery: quality of information and patient perception.  Open Med (Wars). 2016;11(1):279–285.Google ScholarCrossref
45.
ABIM Foundation; ACP-ASIM Foundation; European Federation of Internal Medicine.  Medical professionalism in the new millennium: a physician charter.  Ann Intern Med. 2002;136(3):243–246.Google ScholarCrossref
46.
Strong  VE, Forde  KA, MacFadyen  BV,  et al.  Ethical considerations regarding the implementation of new technologies and techniques in surgery.  Surg Endosc. 2014;28(8):2272–2276.Google ScholarCrossref
AMA CME Accreditation Information

Credit Designation Statement: The American Medical Association designates this Journal-based CME activity activity for a maximum of 1.00  AMA PRA Category 1 Credit(s)™. Physicians should claim only the credit commensurate with the extent of their participation in the activity.

Successful completion of this CME activity, which includes participation in the evaluation component, enables the participant to earn up to:

  • 1.00 Medical Knowledge MOC points in the American Board of Internal Medicine's (ABIM) Maintenance of Certification (MOC) program;;
  • 1.00 Self-Assessment points in the American Board of Otolaryngology – Head and Neck Surgery’s (ABOHNS) Continuing Certification program;
  • 1.00 MOC points in the American Board of Pediatrics’ (ABP) Maintenance of Certification (MOC) program;
  • 1.00 Lifelong Learning points in the American Board of Pathology’s (ABPath) Continuing Certification program; and
  • 1.00 credit toward the CME [and Self-Assessment requirements] of the American Board of Surgery’s Continuous Certification program

It is the CME activity provider's responsibility to submit participant completion information to ACCME for the purpose of granting MOC credit.

Close
Close
Close
Close

Name Your Search

Save Search
Close
Close

Lookup An Activity

or

My Saved Searches

You currently have no searches saved.

Close

My Saved Courses

You currently have no courses saved.

Close