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1.
Clinical relevance in the teaching of biomedical sciences within health care courses presupposes that there is internationally agreed core material within the curricula. However, with the exception of a syllabus for neuroanatomy and gross anatomy of the head and neck for medical students, core syllabuses within many of the specialized anatomical sciences have yet to be developed. The International Federation of Associations of Anatomists aims to formulate internationally accepted core syllabuses for all anatomical sciences disciplines initially using Delphi Panels that comprise anatomists, scientists, and clinicians who evaluate syllabus content. Here, the suggestions of a Delphi Panel for embryology and teratology are presented prior to their publication on the website of the International Federation of Associations of Anatomists. Hence, to obtain a more definitive syllabus, it is required that anatomical and embryological/teratological societies, as well as individual anatomists, embryologists and clinicians, freely comment upon, elaborate and amend, this draft syllabus. The goal is to set internationally recognized standards and thereby provide guidelines concerning embryological and teratological knowledge when involved with course development. Clin. Anat. 30:159–167, 2017. © 2016 Wiley Periodicals, Inc.  相似文献   

2.
Discussion is ongoing concerning the need to ensure the clinical relevance of the biomedical sciences. However, clinical relevance within health care courses presupposes that there is internationally agreed core material to be taught and learned. For anatomy, by the initial use of Delphi Panels that comprise anatomists, scientists, and clinicians, the International Federation of Associations of Anatomists (IFAAs) is developing internationally accepted core syllabuses for all anatomical sciences disciplines in the health care professions. In this article, the deliberations of a Delphi Panel for the teaching of thoracic anatomy in the medical curriculum are presented, prior to their publication on the IFAA's website. To develop the syllabus further, it is required that anatomical societies, as well as individual anatomists and clinicians, comment upon, elaborate, and amend this draft recommended syllabus. The aim is to set internationally recognized standards and thus to provide guidelines concerning the knowledge of the human thorax expected of graduating medical professionals. Such information should be borne in mind by those involved in the development of medical courses. Clin. Anat. 33:300–315, 2020. © 2019 Wiley Periodicals, Inc.  相似文献   

3.
The Anatomical Society has developed a series of learning outcomes in consultation with dentists, dental educators and anatomists delivering anatomical content to undergraduate dental students. A modified Delphi methodology was adopted to select experts within the field that would recommend core anatomical content in undergraduate dental programmes throughout the UK. Utilising the extensive learning outcomes from two UK Dental Schools, and neuroanatomy learning outcomes that remained outside the Anatomical Society's Core Gross Anatomy Syllabus for Medical Students, a modified Delphi technique was utilised to develop dental anatomical learning outcomes relevant to dental graduates. The Delphi panel consisted of 62 individuals (n = 62) from a wide pool of educators associated with the majority of undergraduate dental schools in the UK, representing a broad spectrum of UK Higher Education Institutions. The output from this study was 147 anatomical learning outcomes deemed to be applicable to all dental undergraduate programmes in the UK. The new recommended core anatomy syllabus for dental undergraduates, grouped into body regions, offers a comprehensive anatomical framework with which to scaffold clinical practice. The syllabus, presented as a set of learning outcomes, may be used in a variety of pedagogic situations, including where anatomy teaching exists within an integrated dental curriculum (both horizontally in the basic sciences part of the curriculum and vertically within the clinical years).  相似文献   

4.
The need for closer and personal scientific exchange among anatomists, histologists, embryologists, morphologists, anthropologists, veterinarians, dentists, biologists, and zoologists, and professionals of allied health sciences, and their interest in the uniformity of the technological language they all used in teaching and research, led a group of leaders in the field of Anatomy to found the International Federation of Associations of Anatomists (IFAA).  相似文献   

5.
The Anatomical Society has developed a series of learning outcomes that ‘experts’ within the field would recommend as core knowledge outputs for a Master's Degree Programme in Pharmacy (MPharm) within the UK. Using the Anatomical Society core gross anatomy syllabus for medical anatomy as a foundation, a modified Delphi technique was used to develop outcomes specific to pharmacy graduates. A Delphi panel consisting of medical practitioners, pharmacists and anatomists (n = 39) was created and involved ‘experts’ representing 20 UK Higher Education Institutions. The output from this study was 49 pharmacy‐specific learning outcomes that are applicable to all pharmacy programmes. The new MPharm anatomy syllabus offers a basic anatomical framework upon which pharmacy educators can build the necessary clinical practice and knowledge. These learning outcomes could be used to develop anatomy teaching within an integrated curriculum as per requirements of the General Pharmaceutical Council (GPhC).  相似文献   

6.
A modified Delphi method was employed to seek consensus when revising the UK and Ireland's core syllabus for regional anatomy in undergraduate medicine. A Delphi panel was constructed involving ‘expert’ (individuals with at least 5 years’ experience in teaching medical students anatomy at the level required for graduation). The panel (n = 39) was selected and nominated by members of Council and/or the Education Committee of the Anatomical Society and included a range of specialists including surgeons, radiologists and anatomists. The experts were asked in two stages to ‘accept’, ‘reject’ or ‘modify’ (first stage only) each learning outcome. A third stage, which was not part of the Delphi method, then allowed the original authors of the syllabus to make changes either to correct any anatomical errors or to make minor syntax changes. From the original syllabus of 182 learning outcomes, removing the neuroanatomy component (163), 23 learning outcomes (15%) remained unchanged, seven learning outcomes were removed and two new learning outcomes added. The remaining 133 learning outcomes were modified. All learning outcomes on the new core syllabus achieved over 90% acceptance by the panel.  相似文献   

7.
As a result of international nomenclatures being in Latin, with the terms usually being undefined and translated into national vernacular languages, the same terms have been used in different ways in different countries. Fascia is an example of this, the limits of the meaning of the word differing in English-, French- and German-speaking countries. These differences are itemised in a comparative table. In 1989 the General Assembly of the International Federation of Associations of Anatomists [IFAA] created the Federative Committee on Anatomical Terminology [FCAT] with a remit to create a new terminology for the anatomical sciences with full democratic consultation with the member societies of IFAA. The draft recommendations of FCAT on fascia and the reasons for them are given. Problems associated with the use, or lack of use, of international terminologies are illustrated. For the advancement of medical knowledge and understanding, the cooperation of authors, editors and publishers in using the current terminology in the right way remains of critical importance. It is suggested that, after adopting a terminology, IFAA has a responsibility to arrange for technical back-up.  相似文献   

8.
The study of human anatomy is fundamental to medical education globally. Knowledge of musculoskeletal anatomy is essential for safe and effective clinical practice, yet this topic often receives insufficient medical program time and perceptions differ regarding which knowledge is core. Given the lack of syllabuses specific to musculoskeletal anatomy, this article aims to provide a detailed syllabus for the vertebral column and limbs relevant to medical students. A Delphi panel comprising anatomists and clinicians rated 2,260 anatomical structures and concepts as “essential,” “important,” “acceptable,” or “not required,” with evaluations based around the core knowledge deemed acceptable for a competent medical student. Based on the percentage of panelist agreement for an item to be considered “essential,” each item was then classified as core (≥60%), recommended (30%–59%), not recommended (20%–29%), or not core (<20%). Items not classified as core or recommended but rated important by greater than 50% of the panel were highlighted for future consideration. A total of 252/389 musculoskeletal concept items were categorized as core or recommended. The number of core or recommended items for the vertebral column, upper limb, and lower limb were 220/438, 322/663, and 318/770, respectively. Ninety‐six items were recommended for future consideration. The results of this Delphi panel will be published on the International Federation of Associations of Anatomists website for continuing international consideration and deliberation by relevant stakeholders. The aim is to set an internationally recognized syllabus, that covers the minimum musculoskeletal content that is academically and clinically relevant. Clin. Anat. 32:974–1007, 2019. © 2019 Wiley Periodicals, Inc.  相似文献   

9.
One of the most ancient of sciences, anatomy has evolved over many centuries. Its methods have progressively encompassed dissection instruments, manual illustration, stains, microscopes, cameras and photography, and digital imaging systems. Like many other more modern scientific disciplines in the late 20th century, anatomy has also benefited from the revolutionary development of digital computers and their automated information management and analytical capabilities. By using newer methods of computer and information sciences, anatomists have made outstanding contributions to science, medicine, and education. In that regard, there is a strong rationale for recognizing anatomical informatics as a proper subdiscipline of anatomy. A high-level survey of the field reveals important anatomical applications of computer sciences methods in imaging, image processing and visualization, virtual reality, modeling and simulation, structural database processing, networking, and artificial intelligence. Within this framework, computational anatomy is a developing field focusing on data-driven mathematical models of bodily structures. Mastering such computer sciences and informatics methods is crucial for new anatomists, who will shape the future in research, clinical knowledge, and teaching.  相似文献   

10.
A modified Delphi methodology was used to develop a consensus regarding a series of learning outcome statements to act as the foundation of an undergraduate medical core embryology syllabus. A Delphi panel was formed by recruiting stakeholders with experience in leading undergraduate teaching of medical students. The panel (= 18), including anatomists, embryologists and practising clinicians, were nominated by members of Council and/or the Education Committee of the Anatomical Society. Following development of an a priori set of learning outcome statements (= 62) by the authors, panel members were asked in the first of a two‐stage process to ‘accept’, ‘reject’ or ‘modify’ each learning outcome, to propose additional outcomes if desired. In the second stage, the panel was asked to either accept or reject 16 statements which had either been modified, or had failed to reach consensus, during the first Delphi round. Overall, 61 of 62 learning outcome statements, each linked to examples of clinical conditions to provide context, achieved an 80% level of agreement following the modified Delphi process and were therefore deemed accepted for inclusion within the syllabus. The proposed syllabus allows for flexibility within individual curricula, while still prioritising and focusing on the core level of knowledge of embryological processes by presenting the essential elements to all newly qualified doctors, regardless of their subsequent chosen specialty.  相似文献   

11.
Previous studies suggest that, while both medical students and professional anatomists recognize the importance of gender issues and do not wish to associate with sexism, most are unaware of the possible negative aspects of sexism within anatomy (Morgan et al. 2014 , J. Anat. 224:352–365; 2016 , Clin. Anat. 29:892–910). To further investigate this issue, we provided second year medical students at Cardiff University (n = 293) and at the University of Paris Descartes, Sorbonne Paris Cité (n = 142) and professional anatomists (n = 208) with a questionnaire inviting them to address the possibility that gender factors within anatomical imagery (both historical and contemporary) hinder the dispassionate representation of anatomy. Ethical approval for the survey was obtained from the universities at both Cardiff and Paris. In the light of previous findings, the hypothesis tested was that medical students and professional anatomists do not perceive a gender bias when reflected in imagery that is based on anatomical iconography. Our survey results support this hypothesis and suggest that most students and anatomists are unaware of the possible negative aspects of sexism within the culture of anatomy. We consequently recommend that teachers of anatomy and authors of anatomical textbooks should be aware of the possibility of adverse effects on professional matters relating to equality and diversity issues when using imagery. Clin. Anat. 30:711–732, 2017. © 2017Wiley Periodicals, Inc.  相似文献   

12.
The Anatomical Society has developed a series of learning outcomes in consultation with nursing educators delivering anatomical content to undergraduate (preregistration) nursing students. A Delphi panel methodology was adopted to select experts within the field that would recommend core anatomical content in undergraduate nursing programmes throughout the UK. Using the Anatomical Society's Core Gross Anatomy Syllabus for Medical Students as a foundation, a modified Delphi technique was used to develop discipline‐specific outcomes to nursing graduates. The Delphi panel consisted of 48 individuals (n = 48) with a minimum of 3 years' experience teaching anatomy to nursing students, representing a broad spectrum of UK Higher Education Institutions. The output from this study was 64 nursing specific learning outcomes in anatomy that are applicable to all undergraduate (preregistration) programmes in the UK. The new core anatomy syllabus for Undergraduate Nursing offers a basic anatomical framework upon which nurse educators, clinical mentors and nursing students can underpin their clinical practice and knowledge. The learning outcomes presented may be used to develop anatomy teaching within an integrated nursing curriculum.  相似文献   

13.
The Anatomical Society's core syllabus for anatomy (2003 and later refined in 2007) set out a series of learning outcomes that an individual medical student should achieve on graduation. The core syllabus, with 182 learning outcomes grouped in body regions, referenced in the General Medical Council's Teaching Tomorrow's Doctors, was open to criticism on the grounds that the learning outcomes were generated by a relatively small group of anatomists, albeit some of whom were clinically qualified. We have therefore used a modified Delphi technique to seek a wider consensus. A Delphi panel was constructed involving ‘experts’ (n = 39). The revised core syllabus of 156 learning outcomes presented here is applicable to all medical programmes and may be used by curriculum planners, teachers and students alike in addressing the perennial question: ‘What do I need to know ?’  相似文献   

14.
This article deals with a recent revision of the terminology of the Sections Central Nervous System (CNS; Systema nervosum centrale) and Peripheral Nervous System (PNS; Systema nervosum periphericum) of the Terminologia Anatomica (TA, 1998) and the Terminologia Histologica (TH, 2008). These sections were extensively updated by the Federative International Programme for Anatomical Terminology (FIPAT) Working Group Neuroanatomy of the International Federation of Associations of Anatomists (IFAA). After extensive discussions by FIPAT, and consultation with the IFAA Member Societies, these parts were merged to form a Terminologia Neuroanatomica (TNA). After validation at the IFAA Executive Meeting, September 22, 2016, the TNA has been placed on the open part of the FIPAT website ( http://FIPAT.library.dal.ca ) as the official FIPAT Terminology. This article outlines the major differences between the TNA and the TA. Clin. Anat. 30:145–155, 2017. © 2016 Wiley Periodicals, Inc.  相似文献   

15.
Attitudes of professional anatomists to curricular change   总被引:3,自引:0,他引:3  
Throughout the world, recent developments in medical curricula have led to marked changes in the teaching of gross anatomy. This change has involved decreasing curricular student contact time and the use of new methods for anatomical teaching. Some "modern" anatomists have welcomed the arrival of these novel methods while other, more "traditional," anatomists have fought to maintain the use of cadaveric dissection. Consequently, controversy over teaching methods has developed to the point that "modernist" and "traditionalist" views within the community of professional anatomists seem to have diverged such that the importance of gross anatomy in the medical curriculum is disputed and that cadaveric dissection by students is no longer the preferred method of teaching. This study tests this hypothesis using Thurstone and Chave attitude analyses to assess attitudes to educational change and the importance of anatomy in medicine and a matrix questionnaire that required professional anatomists to relate course aims to different teaching methods. In total, 112 completed questionnaires were received from anatomists who are employed at higher education institutions that use various teaching methods and who span the academic hierarchy. The results suggest that over 90% of anatomists favor educational change and approximately 98% of professional anatomists believe that gross anatomy has an important role to play in clinical medicine. A clear majority of the anatomists (69%) favored the use of human cadaveric dissection over other teaching methods (this method seeming to achieve a range of different course aims/objectives) (P < 0.001; Kruskal-Wallis). Using Kruskal-Wallis statistical tests, the order-of-preference for teaching methods was found to be as follows: 1. Practical lessons using cadaveric dissection by students. 2. Practical lessons using prosection. 3. Tuition based upon living and radiological anatomy. 4. Electronic tuition using computer aided learning (CAL). 5. Didactic teaching alone (e.g. lectures/class room-based tuition). 6. Use of models. The preference for the use of human cadaveric dissection was evident in all groups of anatomists, whether "traditionalist" or "modernist" (P = 0.002, Chi-squared). These findings are therefore not consistent with our initial hypothesis.  相似文献   

16.
The “surgeon‐anatomist” was originally a single individual who self‐pursued knowledge and understanding of anatomy as the foundation for successful surgical outcomes. However, recent advances in medical education have ironically led to the separation of anatomy and surgery. This physical and emotional “divorce” of anatomists and surgeons into separate individuals has created several critical educational issues for medical and surgical educators including a general lack of anatomical knowledge in medical students and misalignment of graduate medical education procedural specialty training with the Accreditation Council of Graduate Medical Education Core Competencies and now the Next Accreditation System. There are numerous opportunities for anatomists and surgeons to work together to improve educational instruction of established difficult anatomical regions, procedural training, or even develop new techniques and procedures. Similarly, anatomists with specialized training in medical education would be invaluable partners to ensure that procedural assessments align with instructional technologies for truly longitudinal curricula that starts at the medical student level, but stops at the patient outcomes of attending surgeons. This mutually beneficial relationship would be similar to multidisciplinary care teams and current surgeon and PhD/EdD partnerships. The restoration of the relationship between anatomists and surgeons would be invaluable to surgical education and remains an exciting research opportunity. Clin. Anat. 28:931–934, 2015. © 2015 Wiley Periodicals, Inc.  相似文献   

17.
Egypt is famously known for its Nile and pyramids, yet not many people know that Egypt made possible the origin of the anatomical sciences. Several ancient papyri guide us through the Egyptians' exploration of the human body and how they applied anatomical knowledge to clinical medicine to the best of their knowledge. It is through records, such as the Edwin Smith, Ebers, and Kahun papyri and other literature detailing the work of the Egyptian embalmers, physicians, and Greek anatomists, that we are able to take a glimpse into the evolution of the anatomical sciences from 3000 B.C. to 250 B.C. It is through the Egyptian embalmer that we were able to learn of some of the first interactions with human organs and their detailed observation. The Egyptian physician's knowledge, being transcribed into the Ebers and Edwin Smith papyri, enabled future physicians to seek reference to common ailments for diagnosing and treating a variety of conditions ranging from head injuries to procedures, such as trans-sphenoidal surgery. In Alexandria, Herophilus, and Erasistratus made substantial contributions to the anatomical sciences by beginning the practice of human dissection. For instance, Herophilus described the anatomy of the heart valves along with Erasistratus who demonstrated how blood was prevented from flowing retrograde under normal conditions. Hence, from various records, we are able to unravel how Egypt paved the road for study of the anatomical sciences.  相似文献   

18.
The history of anatomy in Nazi Germany highlights the consequences to humanity when the destructive potentials immanent to all science and medicine are enabled by an anti-democratic, totalitarian regime. Anatomy presents an example of ethical transgressions by scientists and health care professionals that were amplified in the criminal political climate of the Nazi regime. This can happen anywhere, as science is never apolitical. This article gives a short account of anatomy in Nazi Germany, which is followed by an outline of the tangible and intangible legacies from this history, to then discuss implications for anatomy education today. While Jewish and politically dissident anatomists were forced out of their positions and country by the Nazi regime, the majority of the remaining anatomists joined the Nazi party and used bodies of Nazi victims for education and research. Some anatomists even performed deadly human experiments. Patterns and legacies that emerge from this history can be traced into the present and concern research ethics in general and anatomical body procurement specifically. They shed light on current practices and controversies in the anatomical sciences, including anthropology. It will be argued here that the history of anatomy in Nazi Germany can inform current anatomy education in a concept of anatomy as the first “clinical discipline.” By integrating insights from the history of anatomy into the learning process, anatomy education can model an approach to medicine that includes a full appreciation of the shared humanity of medical practitioners and patients.  相似文献   

19.
Over many years, anatomical terminology has been the subject of much controversy and disagreement. Previously, the International Anatomical Nomenclature Committee has been responsible for the production of six editions of Nomina Anatomica. In 1989 a new committee, the Federative Committee on Anatomical Terminology (FCAT), was created by its parent body, the International Federation of Associations of Anatomists (IFAA). FCAT has worked for 9 years and published Terminologia Anatomica (TA) in 1998. FCAT's aim has been to democratize the terminology and make it the internationally accepted, living language of anatomy. The worldwide adoption of the same terminology would eliminate national differences, which were causing extreme confusion in instances where the same structure was known by several names. The new terminology is thus the result of worldwide consultation and contains Latin and equivalent English terms. It is indexed in Latin and English and contains an index of eponyms in order to find the correct non-eponymous term. The future goal of FCAT is to continue to improve the terminology-new structures are described, different terms come into use, and the terminology needs to be expanded to include terms used by clinicians for structures that currently do not appear in the list. Future versions of the terminology must accommodate the needs of all who use it, both in the clinical and scientific worlds.  相似文献   

20.
General notions of architecture are familiar to anatomists, and they frequently use the word in describing the functional structures of cells, tissues, and whole organisms. Beyond concepts relating to orderly structure, anatomists infrequently encounter the profession of architecture and practicing architects. Significantly, anatomists can work with architects in the design and building of laboratories and classrooms, efforts that can have sustained effects on the practice of anatomy. In this paper, we consider cooperative interactions between anatomists and architects in designing new laboratories that accommodate educational innovations and increasingly valuable dissection resources. We begin by introducing architecture and architects in their roles in design and building. We next consider essential features and technologies for new laboratories that support a combination of classical dissection, prosection, models, and computer-based information. Different working conditions are reviewed for designing renovations of existing facilities, long-term planning for new, same-institution buildings, and extramural planning and construction for new medical schools. Whatever the project, anatomists work with architects in repeated interactive planning meetings that arrive at working laboratory designs by a process similar to successive approximation. In consulting on designs for extramural institutions, anatomists must balance client administration and faculty needs with objective oversight of practice-side design features, constraints, and capacity for innovative uses with new curricula. Architects are the key agents in producing laboratories designed for flexible and innovative anatomical education, although client-favored models for Internet-based technology can limit future use of cadavers in multiyear teaching of medical and health sciences students.  相似文献   

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