[PBLD 1] Decision making for unanticipated moderate valve dysfunction discovered intra-operatively
Date, Time & Language
Nov 5(Fri) 09:00 – 10:00, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Nikolaos Skubas (Cleveland Clinic, USA)
Instructor
Charles Nyman (Brigham and Women's Hospital, USA)
Panel
Youn Joung Cho (Seoul National University, Korea)
Jin-Tae Kim (Seoul National University, Korea)
Joungmin Kim (Chonnam National University, Korea)
Jeong-Jin Min (Sungkyunkwan University, Korea)
Karam Nam (Seoul National University, Korea)
Learning objectives
At the end of this PBLD session, participants should have an approach to the unanticipated finding of
Moderate Mitral regurgitation
Moderate Tricuspid regurgitation
Moderate Aortic Stenosis
Moderate Aortic Regurgitation
Description
This will be a case based PBLD focusing on case examples with unanticipated findings intra-operatively, will provide clinical decision-making steps and available guidelines to guide the decision making process. Will provide mechanisms for audience members to ask questions and provide responses to clinical scenarios.
Key cases / problems
Unanticipated intra-operative findings of
Moderate Mitral regurgitation
Moderate Tricuspid regurgitation
Moderate Aortic Stenosis
Moderate Aortic Regurgitation
Useful material
If there is any further material or information would like to share with your potential PBLD audiences and for dynamic session, please feel free to send us with an attachment or type here.
[PBLD 2] Making sense of root cause analysis investigations of anesthesia-related adverse events
Date, Time & Language
Nov 5(Fri) 11:00 – 12:00, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Justin Sangwook Ko (Sungkyunkwan University, Korea)
Instructor
Paul Barach (Thomas Jefferson University, USA)
Panel
Geunjoo Choi (Chung-Ang University, Korea)
Ha Yeon Kim (Ajou University, Korea)
Ho-Jin Lee (Seoul National University, Korea)
Seokyung Shin (Yonsei University, Korea)
Jae Hee Woo (Ewha Womans University, Korea)
Learning objectives
The learning objectives include (1) reviewing the basic structure of an RCA (eg, main components and how it is done), (2) how to do an initial understanding and final event flow diagram, (3) how to collect information for RCA (eg, interviews), (4) how to do cause and effect diagramming to obtain actionable items (eg, fishbone diagram), and (5) how to develop actions to address underlying causes of anesthesia related system failures, and (6) learn to write a summary of the RCA to engage the key surgical and management leaders in improving the reliability, patient safety and quality improvement of your practice.
Description
CASE: A 15-year-old boy underwent elective right knee arthroscopy and debridement under general anesthesia with a laryngeal mask airway (LMA). He was otherwise healthy with no allergies to medications. After uneventful induction of anesthesia, the surgeons requested antibiotic prophylaxis with cefazolin 1 gram, which the anesthesiology team administered. Just before the surgical incision was made, 50 mcg of Fentanyl was administered. About 2 minutes later, spontaneous respirations slowed, and the patient became apneic. The surgeon and anesthesiologist assumed the patient’s apnea was due to opiate sensitivity and assisted ventilation by hand for 30 minutes. However, despite a rise in the end- tidal CO2 to 70mm Hg, spontaneous respirations did not return.
While current initiatives and collaborative practices strive to make patient care safer, adverse events still in anesthesia care continue to occur. Patient harm is often a consequence of medical errors, which can involve system-based mistakes, including missed or delayed diagnoses, miscommunication between care teams, invasive procedures gone awry, and misadministration of medication. The resulting impact on patients can range from no harm to death. Root cause analysis (RCA) is a structured approach to the investigation of patient safety incidents that is commonly applied in many modern health systems worldwide, particularly in acute hospital settings. It builds the foundation for a safety management system which is underpinned by high-reliable organizational (HRO) approaches. HRO adhere to 5 core principles: (1) sensitivity to operations and how they affect the organization; (2) reluctance to accept simple explanations and striving to identify the root source of problems; (3) preoccupation with failure including anticipating and correcting potential problems before they occur; (4) deference to individuals with expertise of the particular task at hand, regardless of hierarchy; and (5) commitment to resilience, and adaptive when developing new solutions to unexpected problems. As a result, major harm events in HROs are rare. When applied to perioperative systems, a culture of safety means identifying the systematic causes contributing to patient harm, encouraging error reporting and removing individual blame, and promoting multi-level collaboration to develop solutions that may prevent similar errors from happening again. There are existing tools intended to support this process, such as root cause analysis (RCA). Anesthesiology clinicians in particular are key drivers for improving perioperative care, but many lack experience or knowledge in the use of such systems-based practices or quality improvement and patient safety (QI/PS) methodologies, including how to conduct an RCA. Although RCA has been promoted as both tangible evidence of high reliability and an important tool for improving patient safety, literature suggests that execution of RCA within perioperative care is often suboptimal. One leading cause of this is a lack of knowledge and skill of personnel carrying out the RCA. A well-facilitated RCA team engages in a rich social form of clinical simulation through the opportunity to enact conditions that other people and other (local) systems have to cope with. Knowing one’s clinical workplace and making sense of how the organization fits together and functions is perhaps a more reasonable goal than drafting more rigid rules and policies for preventing errors and controlling anesthesia practice risks. This PBLD draws on the experience of facilitating more than 100 RCA investigations.
Key cases / problems
Tjia, Imelda MD; Rampersad, Sally MB, FRCA; Varughese, Anna MD, MPH;. et al. Wake Up Safe and Root Cause Analysis, Anesthesia & Analgesia: July 2014 - Volume 119 - Issue 1 - p 122-136 doi: 10.1213/ANE.0000000000000266.
Bagian JP, Gosbee J, Lee CZ, Williams L, McKnight SD, Mannos DM. The Veterans Affairs root cause analysis system in action. Jt Comm J Qual Improv. 2002;28:531-545.
Peerally MF, Carr S, Waring J, Dixon-Woods M. The problem with root cause analysis. BMJ Qual Saf. 2017;26:417-422.
Percarpio KB, Watts BV, Weeks WB. The effectiveness of root cause analysis: what does the literature tell us? Jt Comm J Qual Patient Saf. 2008;34:391-398.
Lawton R, McEachan RR, Giles SJ, Sirriyeh R, Watt IS, Wright J. Development of an evidence-based framework of factors contributing to patient safety incidents in hospital settings: a systematic review. BMJ Qual Saf. 2012;21:369-380.
Taylor-Adams S, Vincent C. Systems analysis of clinical incidents: the London Protocol. Clin Risk. 2004;10:211- 220.
Card AJ, Ward J, Clarkson PJ. Successful risk assessment may not always lead to successful risk control: a systematic literature review of risk control after root cause analysis. J Healthc Risk Manag. 2012;31:6-12.
assin B, Barach P. Making Sense of Root Cause Analysis Investigations of Surgery-Related Adverse Events. Surg Clin North America 2012, 1-15, doi:10.1016/j.suc.2011.12.008.
Conclusions
Medication-related adverse events are a frequent cause of patient morbidity and mortality in perioperative care, and must be better understood in order to prevent medication harm.
Incident investigation following an adverse perioperative event requires an organizational and departmental safety culture that fosters open dialogue surrounding medical errors to maximize organizational learning.
Root cause analysis is only one of many methods of incident investigation. Newer methods promote a systemic view of incident investigations and analysis.
Incident investigations in health care need to be conducted by professionals skilled in human factors engineering and systems thinking, alongside expert clinicians and frontline staff.
The recommendation phase should receive more attention. Perioperative corrective actions need to be congruent to the causal factors they are trying to address and monitored for successful implementation and risk mitigation.
Problems identified through root cause analysis cannot be solved by individuals but require coordinated efforts across the entire health care system.
[PBLD 3] BASILICA procedure during TAVI
Date, Time & Language
Nov 5(Fri) 13:30 – 14:30, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Yunseok Jeon (Seoul National University, Korea)
Instructor
Joerg Ender (Heart Center Leipzig, Germany)
Panel
Jong Hwan Lee (Sungkyunkwan University, Korea)
Jeong-Jin Min (Sungkyunkwan University, Korea)
Learning objectives
To understand the principle of BASILICA procedure
To verify candidates for the BASILICA procedure
To know the key steps for TEE guiding during the procedure
To know about possible complications
Description
After a short introduction about the principle of BASILICA procedure we will go through a BASICILA procedure based on a live in a box case.
Key cases / problems
Visualization of the aortic cups with TEE
Correct placement of the wires
Key steps for anesthetic management
Useful material
Please click the below link to check the article for BASILICA. We’d like to recommend you read the article before attending the session.
Go to the article
[PBLD 4] Echo guiding in transcatheter mitral edge to edge repair
Date, Time & Language
Nov 5(Fri) 15:30 – 16:30, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Jae-Kwang Shim (Yonsei University, Korea)
Instructor
Joerg Ender (Heart Center Leipzig, Germany)
Panel
Iksung Cho (Yonsei University, Korea)
Youn Joung Cho (Seoul National University, Korea)
Jae-sik Nam (University of Ulsan, Korea)
Learning objectives
To understand the principle of transcatheter mitral valve edge to edge repair
To know about the available devices
To know about the key steps during TEE guidance
Description
After a short overview of the procedure, the available devices and recent studies, there will be an interactive session based on live in a box cases.
Key cases / problems
What is crucial for planning the procedure
The importance of transseptal puncture
Graduation of residual mitral regurgitation
[PBLD 5] Mediastinal mass and airway compromise
Date, Time & Language
Nov 6(Sat) 09:00 – 10:00, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Peter Slinger (University of Toronto, Canada)
Instructor
Randal Blank (University of Virginia Health System, USA)
Panel
Hyun Joo Ahn (Sungkyunkwan University, Korea)
Jae Hyon Bahk (Seoul National University, Korea)
Wonjung Hwang (The Catholic University of Korea, Korea)
Dong Kyu Lee (Dongguk University, Korea)
Jae-sik Nam (University of Ulsan, Korea)
Young Jun Oh (Yonsei University, Korea)
MiHye Park (Sungkyunkwan University, Korea)
Susie Yoon (Seoul National University, Korea)
Program
* Detailed program will be updated soon
[PBLD 6] TEE for Intraop decision making
Date, Time & Language
Nov 6(Sat) 11:00 – 12:00, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Stanton Shernan (Harvard Medical School, USA)
Instructor
Alina Nicoara (Duke University Hospital, USA)
Panel
Ji-Hyun Chin (University Of Ulsan, Korea)
Joungmin Kim (Chonnam National University, Korea)
Karam Nam (Seoul National University, Korea)
Chung-Sik Oh (Konkuk University, Korea)
Learning objectives
Understand the etiologies of elevated gradients after aortic valve replacement
Recognize and apply echocardiographic findings to case studies
Recognize the utility of echo- anatomy and intraoperative echocardiographic analysis in surgical decision making during aortic valve replacement
Description
We will discuss several cases of aortic valve replacement. In each case there is an elevated gradient across the prosthetic valve after separation after cardiopulmonary bypass, however the etiology of the elevated gradient is different in each case. We will discuss step by step evaluation of the causes of the high gradient and what other factors play into surgical decision making.
Key cases / problems
We will discuss the implications of patient prosthesis mismatch, evaluation of paravalvular leaks, and prosthesis malfunction. Step by step evaluation of elevated gradients after separation from cardiopulmonary bypass taking into account patient factors as well as procedure technical aspects. We will discuss the role of the new findings into surgical decision making.
[PBLD 7] ROTEM interactive case discussions
Date, Time & Language
Nov 6(Sat) 13:30 – 14:30, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Tae-Yop Kim (Konkuk University, Korea)
Instructor
Klaus Görlinger (University Hospital Essen, Germany)
Panel
Young-Eun Jang (Seoul National University, Korea)
Ju-Deok Kim (Kosin University, Korea)
Jun-Gol Song (University of Ulsan, Korea)
Hyungseok Suh (Kyung Hee University, Korea)
Learning objectives
Participants should learn how to use key ROTEM parameter (CT, A5, ML) for basic interpretation.
Participants should understand how to use ROTEM assays combinations to optimize the diagnostic performance.
Participants should learn how to perform a structured ROTEM result interpretation by using evidence-based algorithms.
Participants should learn to interpret ROTEM results based on its high negative predictive value for bleeding in the context of the patients’ clinical situation and the clinical setting.
Description
Rotational thromboelastometry (ROTEM) provides timely information regarding hemostasis in bleeding situations and in patients at risk of thrombosis (e.g., in COVID-19). Accordingly, ROTEM is an essential part of Patient Blood Management (PBM) and can be used to guide hemostatic therapy
and anticoagulation. Fully-automated systems such as ROTEM sigma allow for point-of-care use but result interpretation may still be challenging
for non-experienced users. Therefore, education in hemostasis and implementation of evidence-based bleeding management algorithms are paramount
for implementation of PBM.
Key cases / problems
Poll Questions will be used during the interactive case discussion.
To answer the questions please go to
https://pollev.com/klausg428 on your smartphone.
Useful material
If there is any further material or information would like to share with your potential PBLD audiences and for dynamic session,
please feel free to send us with an attachment or type here.
In order to prepare for the session, I recommend reading the following article:
Görlinger K, Pérez-Ferrer A, Dirkmann D, Saner F, Maegele M, Calatayud ÁAP, Kim TY. The role of evidence-based algorithms for rotational thromboelastometry-guided bleeding management. Korean J Anesthesiol. 2019 Aug;72(4):297-322.
[PBLD 8] Hemodynamic management
Date, Time & Language
Nov 6(Sat) 15:30 – 16:30, English
Place
Hybrid (Online + Room D) - Access details will be sent to the registrants.
Moderator
Thomas Scheeren (University Medical Center Groningen, Netherlands)
Instructor
Laurence Weinberg (Austin Health, Melbourne, Australia)
Panel
Ah-Reum Cho (Pusan National University, Korea)
Yang-Hoon Chung (Soonchunhyang University, Korea)
Kyu Nam Kim (Hanyang University, Korea)
Youngsuk Kwon (Hallym University, Korea)
Dong Kyu Lee (Dongguk University, Korea)
Learning objectives
This will be an interactive and pragmatic problem based learning discussion (PBLD) to gain a better understanding of managing patients undergoing complex liver resection surgery. Participants will gain an in-depth knowledge about applying advanced haemodynamic monitoring in this setting. Moreover, the intraoperative haemodynamic states commonly are observed during liver resection surgery will be outlined. Rational use of fluid
and vasoactive medications will be overviewed.
Description
You are anaesthetising a 48-year-old male patient with Child Pugh B Cirrhosis who is undergoing a right hepatectomy .for hepatocellular cancer.
He is functionally independent and active.
BMI 28 kg/m2
Mild portal hypertension (platelet count of 112 x109/L)
Mild ascites on abdominal USS
Prothrombin time 13 sec
INR 1.2
Low albumin 2.7 g/dL
Bilirubin: normal
Hemoglobin 11.2 g/dL
Mild chronic kidney disease (creatinine 132 umol/L)
TTE shows a mild reduced left ventricular systolic function (i.e., mild cirrhotic cardiomyopathy) and normal RV function. Valvular function = normal
Respiratory function tests: normal
Key cases / problems
How would you work this this patient up preoperatively?
How would you risk stratify this patient?
What are the key intraoperative haemodynamic principles for major liver resection?
Would you use advanced haemodynamic monitoring in this case?
How would you apply goal directly therapy in this specific surgical setting?
These questions.... and more will be overviewed using real video footage of this case.
Haemodynamic management principles, fluid intervention and use of vasoactive medications and strategies will be overviewed.
Useful material
It's not essential to read this material prior to the PBLD as all content will be covered during the PBLD, however these references will help you better understand some of the management principles that will be discussed.
- Nicoll A. Surgical risk in patients with cirrhosis. J Gastroenterol Hepatol.
2012 Oct;27(10):1569-75. doi: 10.1111/j.1440-1746.2012.07205.x. PMID: 22694313Prothrombin time 13 sec
- Melloul E et al. Guidelines for Perioperative Care for Liver Surgery: Enhanced Recovery After Surgery (ERAS)
Society Recommendations. World J Surg. 2016 Oct;40(10):2425-40. doi: 10.1007/s00268-016-3700-1. PMID: 27549599
- Zhao Y et al. Enhanced recovery after surgery program reduces length of hospital stay and complications in liver resection:
A PRISMA-compliant systematic review and meta-analysis of randomized controlled trials. Medicine (Baltimore).
2017 Aug;96(31):e7628. doi: 10.1097/MD.0000000000007628. PMID: 28767578; PMCID: PMC562613
- Liu TS et al. Application of controlled low central venous pressure during hepatectomy: A systematic review and meta-analysis. J Clin Anesth. 2021 Aug 1;75:110467. doi: 10.1016/j.jclinane.2021.110467. Epub ahead of print. PMID: 34343737.
- Moggia E et al. Methods to decrease blood loss during liver resection: a network meta-analysis. Cochrane Database Syst Rev. 2016 Oct 31;10(10):CD010683. doi: 10.1002/14651858.CD010683.pub3. PMID: 27797116; PMCID: PMC6472530. = normal
- Yoshino K et al. A systematic review of prediction models for post-hepatectomy liver failure in patients undergoing liver surgery. HPB (Oxford). 2021 May 19:S1365-182X(21)00141-6. doi: 10.1016/j.hpb.2021.05.002. Epub ahead of print. PMID: 34090805.