Literature DB >> 35722216

Curiositas.

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Year:  2022        PMID: 35722216      PMCID: PMC9200095     

Source DB:  PubMed          Journal:  Ulster Med J        ISSN: 0041-6193


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Who is depicted in the top image? What is shown on the bottom image? Who developed it? What educational technique is being utilised here? When was this technique developed? What does this image represent? Who used the apparatus? What relevance does it have to today’s society? The above image depicts a post-simulation debriefing session. Do medical simulations share common structures regarding their design? If so, what commonalities do they share? Can the structural order of a medical simulation be altered? Please refer to ‘Curiositas: Guidelines for contributors’ http://www.ums.ac.uk/curiositas.html and email curiositas@ums.ac.uk with your ideas and submissions. In the macabre age of late-19th century Paris, a young lady was hauled from the Seine; lifeless, unknown, and body unclaimed. Ambiguity flourishes in terms of the supposed events leading to her death. However, one commonly recited history is that after a spate of emotionally charged words with her lover, the seemingly irreparable state of the relationship drove this girl to plunge into the Seine, without return1. In a somewhat ironic twist, little could this heart-broken lover have realized that after death she would go on to have probably the most ‘kissed’ lips in the world. Whilst waiting for an identification that never came, ‘L’Inconnue de la Seine’ (the unknown of the Seine) so transfixed one particular mortuary assistant that he demanded a facial cast be taken to preserve her beauty. In the years that followed, L’Inconnue de la Seine’s facial cast was reproduced, attracting an almost cult-like entourage of fans, composed of artists, playwrights, and philosophers2. Prior to receiving a phone call from the esteemed physician Peter Safar, author of ‘ABC of Resuscitation’ about the manufacture of a rubber mannequin to be used for CPR, the Norwegian toymaker, Asmund Laerdal, had recently saved his small son from drowning3. Receptive to the issue at hand, Laerdal set about creating a realistic, rubber female head and torso, but couldn’t decide on a face. One evening whilst having dinner at his in-laws, Laerdal noticed a serine female face hanging on the opposite wall; briskly deciding to take it down and use it for his mannequin. Resusci Anne, now fondly known as CPR Annie, was born4. Most, if not all, medical students will encounter CPR Annie at some point during their studies. However, the next time your lips are pressed to hers, remember that you're training to save a life on the facial reproduction of L'Inconnue de la Seine, a lady whose life may have been longer, had someone known how to resuscitate her! Moulage, from the French moulé (to mould), traditionally describes the process of making wax casts of anatomical specimens. More recently this practice has evolved into the use of special effects makeup to simulate disease and injury and allow an immersive environment for the student learner1. The exact origins of moulage are uncertain. Whilst the process of casting human body parts can be traced to the ancient Egyptians’ mummification process, moulding for the purposes of education seems to have begun in the 17th century. Gaetano Giulio Zummo, a Sicilian abbot, presented wax models of anatomical specimens across Europe. Towards the beginning of the 19th century, dermatological models became the prime utilisation of this method2,3. More recently, moulage has been used extensively in the world of simulation teaching. Below are a few examples of how moulage has been used at Queen’s University Belfast: left, self-inflicted lacerations moulage (temporary transfer tattoo); middle, dermal nevus prosthetic; right, superficial spreading melanoma (temporary transfer tattoo). Two hundred and sixty years ago, French midwife Angelique Marguerite Le Boursier du Coudray embarked on a journey to bring healthcare education to the masses. To address the high infant mortality rate, she identified deficiencies in young women’s knowledge in the process of birth1. Nick-named ‘The Machine’, Madame du Coudray developed an obstetric manikin consisting of a female pelvis complete with womb, pelvic organs and infant to demonstrate the critical steps involved in birth. Manufactured from leather, cotton and canvas, this combination of basic materials created an opportunity to truly save lives2. Authorised by King Louis XV in 1759, over a quarter of a century as du Coudray toured the Kingdom of France, it is estimated she taught in excess of 5,000 doctors, surgeons and nurses the process of childbirth through simulation. Mechanical elements including strings and straps to simulate stretching of the birth canal and perineum and a separate detailed infant attached via umbilical cord. Complete with a shaped nose, ears, drawn on hair and mouth she also demonstrated management of complications such as breech position deliveries3. Through her pioneering efforts, du Coudray was appointed head accoucheuse at the Parisian Hotel Dieu Hospital, leaving an enduring legacy of learning through simulation in obstetrics, the principles of which are still in use today. Running paid courses complete with certificates of completion, her teaching model included peer-to-peer learning through her former students, mirroring modern-day medical education training4. Furthermore, the use of literature to accompany The Machine provided a written guide on childbirth, including management of complications, which supplemented clinical skills gained through hands-on practice: essential components of modern-day medical education through simulation, over a quarter of a millennium later1. 1 and 2. As simulation-based medical education (SBME) has developed through the years, the structure of the student simulation experience has evolved to encompass several phases. Whilst each training centre will develop its own plan regarding SBME, there are three common phases in simulation: briefing, simulation and debriefing. During the briefing phase, educators aim to reduce learner anxiety by introducing the simulation landscape and constituent simulators. The simulation phase involves participation in a designed scenario. The debriefing phase is traditionally a post-simulation feedback session, where educators encourage learners to share their emotional responses and thought processes concerning the simulation, allowing reflection and informed discussion in terms of learning and performance1. Debriefing can further be divided into three subphases, reaction, analysis, and summary. The reaction subphase encourages learner self-expression. Analysis is generally composed of a formative assessment. The summary delivers critical key messages and points of improvement2. 3. In recent years, research has validated the use of intra-simulation debriefing as a tool to aid learner understanding3. These forms of ‘debriefing-on-demand’ are also touted for their potential anxiety-reducing, performance-enhancing effects, partially due to their ability to alter simulation structure4. However, whilst intra-simulation debriefing affords real-time analysis of a learner’s anxieties, and consequent performance, it may also act to reduce the overall fidelity of the simulation at hand.
  12 in total

1.  Asmund S. Laerdal.

Authors:  Nina Tjomsland; Peter Baskett
Journal:  Resuscitation       Date:  2002-05       Impact factor: 5.262

2.  The Greek moulages: a picture of skin diseases in former times.

Authors:  A-M Worm; M Hadjivassiliou; A Katsambas
Journal:  J Eur Acad Dermatol Venereol       Date:  2007-04       Impact factor: 6.166

Review 3.  The evolution of anatomical illustration and wax modelling in Italy from the 16th to early 19th centuries.

Authors:  Alessandro Riva; Gabriele Conti; Paola Solinas; Francesco Loy
Journal:  J Anat       Date:  2009-11-09       Impact factor: 2.610

4.  Relaxation before Debriefing during High-fidelity Simulation Improves Memory Retention of Residents at Three Months: A Prospective Randomized Controlled Study.

Authors:  Marc Lilot; Jean-Noel Evain; Christian Bauer; Jean-Christophe Cejka; Alexandre Faure; Baptiste Balança; Olivia Vassal; Cécile Payet; Bernard Bui Xuan; Antoine Duclos; Jean-Jacques Lehot; Thomas Rimmelé
Journal:  Anesthesiology       Date:  2018-03       Impact factor: 7.892

5.  The face of CPR.

Authors:  Stephanie Loke; S L McKernon
Journal:  BMJ       Date:  2020-12-10

6.  Angélique Marguerite Le Boursier du Coudray (1712-1790) - Pioneer of simulation.

Authors:  Gurpreet Kaur Jandu; Azizah Khan
Journal:  J Med Biogr       Date:  2021-04-07

7.  "Debriefing-on-Demand": A Pilot Assessment of Using a "Pause Button" in Medical Simulation.

Authors:  Michael McMullen; Rosemary Wilson; Melinda Fleming; David Mark; Devin Sydor; Louie Wang; Jorge Zamora; Rachel Phelan; Jessica E Burjorjee
Journal:  Simul Healthc       Date:  2016-06       Impact factor: 1.929

Review 8.  Annie, Annie! Are You Okay?: Faces Behind the Resusci Anne Cardiopulmonary Resuscitation Simulator.

Authors:  Jennifer B Gordetsky; Soroush Rais-Bahrami; Ronald Rabinowitz
Journal:  Anesth Analg       Date:  2020-08       Impact factor: 5.108

Review 9.  Investigating the impact of moulage on simulation engagement - A systematic review.

Authors:  Jessica B Stokes-Parish; Robbert Duvivier; Brian Jolly
Journal:  Nurse Educ Today       Date:  2018-02-22       Impact factor: 3.442

Review 10.  Simulation-based Education and Human Factors Training in Postgraduate Medical Education: A Northern Ireland Perspective.

Authors:  Sara Lawson; James Reid; Michael Morrow; Keith Gardiner
Journal:  Ulster Med J       Date:  2018-10-01
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