Through the SC Johnson College of Business, Cornell offers accredited undergraduate business degree programs in applied economics and management and hotel administration, as well as world-renowned graduate and professional business degrees. The College also offers nine minors intended for students majoring in subject areas other than business, to gain exposure to business concepts, frameworks and methods. Because the choices are so broad, students are encouraged to explore the offerings carefully to identify the program that best matches their business career goals. (Graduate study is available in the Johnson Graduate School of Management as well as both undergraduate Schools.) Applied Economics and Management The Charles H. Dyson School of Applied Economics and Management (AEM) offers a broad, flexible curriculum that reflects its analytical, applied economics approach. Students choose among 11 concentrations: finance, marketing, strategy, accounting, entrepreneurship, agribusiness management, food industry management, business analytics, environmental, energy and resource economics, international trade and development, and applied economics. The Dyson Business Minor for Engineers (DBME) is specifically tailored to the educational and career needs of engineering students. The Dyson Business Minor for Life Sciences major (DBMLS) offers business concepts in the context of nonprofit, research, pre-med, pre-dental and pre-vet fields. The Applied Economics and Management (AEM) minors offer specializations in Applied Economics; Environmental, Energy and Resource Economics; Food and Agricultural Business; and International Trade and Development ( dyson.cornell.edu ). Hotel Administration The Peter and Stephanie Nolan School of Hotel Administration offers the world’s premier hospitality management program. Its rigorous core business curriculum includes courses in finance and accounting; real estate development; facilities management; planning and design; food and beverage management; marketing, tourism, and strategy; analytics; information systems; operations; managerial and organizational behavior; human resource management; managerial communication; and law. The school also offers the undergraduate minor in real estate that is available to any Cornell undergraduate. The Statler Hotel gives students the opportunity to apply what they learn in a real-world business and its Practice Credit requirement further ensures a balance between theory and practical experience ( sha.cornell.edu ). Real Estate The Paul Rubacha Department of Real Estate develops visionary real estate leaders who will tackle the most pressing societal challenges facing the industry. Cornell College of Architecture, Art, and Planning (AAP) and the Cornell SC Johnson College of Business build on a 30-year legacy of real estate research and teaching and features Cornell’s real estate master’s degree program – the Baker Program in Real Estate , broadens professional and research degree programs, and attracts leading global scholars. ( realestate.cornell.edu ). Arts and Sciences Many of the liberal arts majors offered by the College of Arts and Sciences provide students with a background for a successful business career. In particular are majors in economics, mathematics, sociology, and psychology. Economics focuses on the production, distribution, and consumption of goods and services; monetary systems; and economic theories. Students interested in the human dimensions of business can choose sociology or psychology. Mathematics majors can choose concentrations in computer science, operations research, statistics, or economics to prepare for careers in areas such as actuarial science or finance ( as.cornell.edu ). Engineering Many of today’s business executives hold engineering degrees. Each of the College of Engineering’s 13 majors prepares students for business careers. Operations research and engineering, and information science, systems and technology are the most business-oriented engineering majors that prepare graduates for careers in areas such as investment banking and process engineering. Engineering students can take a business-oriented engineering minor in areas such as industrial systems and information technology, and operations research and management science. A business minor for engineering majors is also offered by the Charles H. Dyson School of Applied Economics and Management ( www.engineering.cornell.edu ). Human Ecology The College of Human Ecology offers three business-oriented majors. The fashion design management concentration in the fiber science and apparel design major prepares students for such careers in the fashion industry as a retail executive or merchandise buyer. Students majoring in design and environmental analysis can prepare for careers as facility planners and workplace strategists in consulting and real estate firms and large corporations. The policy analysis and management major focuses on analyzing problems in the public domain, ranging from the processes of making, implementing, and evaluating government policies to the ethical evaluation of contemporary social problems. The Policy Analysis and Management (PAM) minor in the College of Human Ecology builds on a rigorous interdisciplinary focus to describe and analyze public policy problems, particularly in the areas of health policy, regulatory policy, and social policy ( www.human.cornell.edu ). Industrial and Labor Relations The School of Industrial and Labor Relations (ILR) focuses on the study of people and policies in the workplace. Students learn how individuals, groups and organizations address workplace issues affecting businesses, society, the economy and international affairs. ILR’s curriculum balances structure and flexibility. Foundation courses provide a comprehensive view of the historical, legal, management and economic issues that define and influence workers and the workplace ( www.ilr.cornell.edu ). Related AreasCornell Career Services The central office of Cornell Career services provides a range of resources and guidance for students interested in business-related careers. Visit the Career Development Toolkit for modules on Pre-Grad preparation and specific business industries (e.g., Consulting, Finance, Entrepreneurship) including how to access specialty preparation resources such as Management Consulted and CaseCoach. Continuing Education and Summer Sessions The School of Continuing Education and Summer Sessions offers a wide variety of opportunities for business studies and professional development, ranging from precollege programs to executive education. Summer College’s three-week precollege programs, The Business World and Hotel Operations Management, acquaint high school students with the principles of business management. For college students, Campus-to-Career programs such as the Cornell University Prelaw Program and Internship in New York City and Cornell in Washington Summer Program pair internship opportunities with courses taught by distinguished experts. College graduates interested in health care may apply for the Cornell/Division of Nutritional Sciences Post-Baccalaureate Program in Health Studies. For business professionals, seminars and trainings such as the Administrative Management Institute, the Cornell University Viticulture and Enology Experience, and the Institute for Internet Culture, Policy, and Law provide opportunities to hone skills, increase effectiveness, stay abreast of changes in the work world, and network with colleagues ( www.sce.cornell.edu ). Entrepreneurship at Cornell This university-wide program is open to all Cornell students interested in eventually starting their own businesses or working for venture capital firms. Entrepreneurship-related courses are offered by all seven of Cornell’s undergraduate colleges and schools as well as by the Johnson Graduate School of Management and the Cornell Law School ( eship.cornell.edu ). International Programs Several additional programs allow business students to focus on a particular geographic area. Majors and minors are offered by the College of Arts and Sciences in Latino Studies, Latin American Studies, German Studies, European Studies, Asian American Studies, China and Asia-Pacific Studies, Asian Studies, East Asian Studies, Southeast Asian Studies, South Asian Studies, Near Eastern Studies, and Africana Studies. The College of Agriculture and Life Sciences offers a major in international agriculture and rural development. Pre-law StudyLaw schools do not prescribe any undergraduate degree program, nor do they require any specific courses as pre-requisites. This allows an aspiring pre-law student considerable latitude to explore legal careers and to prepare for law school in ways that best serve their individual goals. Whatever the path, each pre-law student should incorporate two essential guidelines into their planning: first, they should pursue a course of study in which they are genuinely interested; and second, they should seek out and make good use of opportunities to develop social awareness, critical analysis, and the ability to express themselves clearly and effectively—skills essential to the study and practice of law. When developing a course of study, it is important to recognize that law touches nearly every part of our public and private lives. Indeed, we might better consider the practice of law as a means of engaging with something, rather than an end unto itself, in which case any subject could prove relevant. Pre-law students are encouraged to pursue the subjects that they find most compelling, not only because genuine interest will lead to greater engagement, but also because doing so can provide a great foundation for future legal work. A student pursuing coursework in business or economics, for example, would arrive at law school with excellent context for corporate law work. A student in the physical or life sciences would be well positioned for the tech and health law fields (indeed, such a background is required for the patent law field). And someone pursuing fine or performing arts would find that to be directly relevant to the field of entertainment law, where they would work closely with artistic professionals and media companies. At the same time, the choice of a major need not determine a student’s destiny in the law. Every field of study provides training in vital communication and analytical skills that can be applied to law school, and intentional use of elective coursework and extracurricular activities can amount to a very well-rounded education. Cornell undergraduates have access to an accelerated path to law school via Cornell Law’s 3+3 Program , which they may apply for in the junior year. At the time of entry, they must have completed 108 of the 120 credits required for the bachelor’s degree and completed all major and college requirements. Students considering applying to this program should consult with their college pre-law advisor or the university pre-law advisor early in their sophomore year to discuss eligibility and application requirements. For information on additional preparation, including work experience and necessary examinations, students are strongly encouraged to meet with a Cornell Pre-Law Advisor and to consult the Pre-Law module on the Career Development Toolkit . Pre-medical and Pre-health StudyMedical, dental, and other health professional schools, while not requiring or recommending any particular major course of study, do require that particular undergraduate prerequisite courses be completed. These courses usually include general chemistry, organic chemistry, general biology, biochemistry, mathematics, physics and social/behavioral sciences. Some medical schools do not accept AP credit to fulfill prerequisite requirements. One or two semesters of writing-intensive courses (or two semesters of first-year writing seminar) may also be required. Other useful courses include upper-level biology, such as genetics, microbiology, anatomy, or physiology. No particular major is best for those considering medical, dental, or other health professions, and students are therefore encouraged to pursue their own intellectual interests. Students are more likely to succeed at and benefit from subjects that interest and stimulate them, and there is no evidence that medical or other health professional schools give special consideration to any particular undergraduate training beyond completion of the required prerequisite courses. In the past, most successful Cornell applicants to medical, dental, and other health professional schools have come from the Colleges of Arts and Sciences, Agriculture and Life Sciences, Human Ecology, and Engineering. Even students from the College of Architecture, Art, and Planning and the Schools of Hotel Administration and ILR have gained admission to medical or health professional schools. The appropriate choice depends to a great extent on the student’s other interests. Cornell offers many advising resources to support students who are interested in the health professions. Pre-veterinary StudyThere is no specific pre-veterinary program at Cornell, and students interested in veterinary medicine as a career should select a major for study that fits their interests while at the same time meeting the entrance requirements for veterinary colleges as listed below. Many pre-veterinary students at Cornell are enrolled in the College of Agriculture and Life Sciences, which offers several applied science majors, including animal science, which can lead to related careers if the student does not go to veterinary medical school. Some enter other divisions of the university, especially the College of Arts and Sciences, because of secondary interests or the desire for a broad liberal arts curriculum. The college-level prerequisite courses for admission to the College of Veterinary Medicine at Cornell are a full year each of English composition/writing-intensive courses, biology or zoology with labs, physics with labs, and general chemistry with labs; and a semester each of organic chemistry, biochemistry (4 semester credits), and advanced life sciences (see Veterinary College Admissions website for list of courses). These requirements will vary at other veterinary medical schools. For information on additional preparation, including work experience and necessary examinations, students may consult the College of Veterinary Medicine website , the Health Professions Advising Center , and enroll in the Pre-Vet Planning Canvas site . Welcome to Harvard OnlineHarvard Online presents curated online courses that combine faculty and disciplines from across the University, connecting learners around the globe with the world’s most urgent issues. Outsmarting Implicit BiasDesigned for individuals and teams, this Harvard Online course taught by preeminent Harvard Professor Mahzarin Banaji teaches the science of implicit bias and strategies to counter the impact of bias in the workplace. What are you interested in?Health care leadership. Deepen perspectives and advance insights into the strategic issues facing health care organizations today. Harvard on DigitalApproach new digital and data strategies with an eye toward people, mindsets, and systems. 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/ Ministry of Health and Family Welfare![pre med course coursework NATIONAL MEDICAL COMMISSION](https://cdnbbsr.s3waas.gov.in/s37bc1ec1d9c3426357e69acd5bf320061/uploads/2022/02/2022022135.png) LATEST NEWS- NEET (UG) 2023 Score Card
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No post to display IntroductionThe Ministry of Human Resource Development (MHRD), which is now known as the Ministry of Education (MoE), Government of India (GOI) has established the National Testing Agency (NTA) as an independent, autonomous and self-sustained premier testing organisation for conducting efficient, transparent and international standard tests in order to assess the competency of candidates for admission to premier higher education institutions. NATIONAL ELIGIBILITY CUM ENTRANCE TEST [ NEET (UG) – 2023] will be conducted by National Testing Agency (NTA) on Sunday, 07 May 2023 (Sunday) in Pen and Paper mode in 13 languages, as a common and uniform National Eligibility-cum-Entrance Test [(NEET (UG)] for admission to undergraduate medical education in all medical institutions. Similarly, as per Section 14 of the National Commission for Indian System of Medicine Act, 2020, there shall be a uniform NEET (UG) for admission to undergraduate courses in each of the disciplines i.e. BAMS, BUMS, and BSMS courses of the Indian System of Medicine in all Medical Institutions governed under this Act. NEET (UG) shall also be applicable to admission to BHMS course as per National Commission[...] Candidate Activity- NEET (UG) 2023 City Display
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Effects of undergraduate ultrasound education on cross-sectional image understanding and visual-spatial ability - a prospective study- Johannes Weimer 1 na1 ,
- Johannes Ruppert 2 na1 ,
- Thomas Vieth 1 ,
- Julia Weinmann-Menke 3 ,
- Holger Buggenhagen 1 ,
- Julian Künzel 4 ,
- Maximilian Rink 4 ,
- Liv Lorenz 5 ,
- Daniel Merkel 6 ,
- Carlotta Ille 1 ,
- Yang Yang 7 ,
- Lukas Müller 7 ,
- Roman Kloeckner 8 &
- Andreas Weimer 9
BMC Medical Education volume 24 , Article number: 619 ( 2024 ) Cite this article 92 Accesses Metrics details Introduction/aimRadiological imaging is crucial in modern clinical practice and requires thorough and early training. An understanding of cross-sectional imaging is essential for effective interpretation of such imaging. This study examines the extent to which completing an undergraduate ultrasound course has positive effects on the development of visual-spatial ability, knowledge of anatomical spatial relationships, understanding of radiological cross-sectional images, and theoretical ultrasound competencies. Material and methodsThis prospective observational study was conducted at a medical school with 3rd year medical students as part of a voluntary extracurricular ultrasound course. The participants completed evaluations (7-level Likert response formats and dichotomous questions “yes/no”) and theoretical tests at two time points (T1 = pre course; T2 = post course) to measure their subjective and objective cross-sectional imaging skills competencies. A questionnaire on baseline values and previous experience identified potential influencing factors. A total of 141 participants were included in the study. Most participants had no previous general knowledge of ultrasound diagnostics (83%), had not yet performed a practical ultrasound examination (87%), and had not attended any courses on sonography (95%). Significant subjective and objective improvements in competencies were observed after the course, particularly in the subjective sub-area of “knowledge of anatomical spatial relationships” ( p = 0.009). Similarly, participants showed improvements in the objective sub-areas of “theoretical ultrasound competencies” ( p < 0.001), “radiological cross-section understanding and knowledge of anatomical spatial relationships in the abdomen” ( p < 0.001), “visual-spatial ability in radiological cross-section images” ( p < 0.001), and “visual-spatial ability” ( p = 0.020). Ultrasound training courses can enhance the development of visual-spatial ability, knowledge of anatomical spatial relationships, radiological cross-sectional image understanding, and theoretical ultrasound competencies. Due to the reciprocal positive effects of the training, students should receive radiology training at an early stage of their studies to benefit as early as possible from the improved skills, particularly in the disciplines of anatomy and radiology. Peer Review reports IntroductionImaging techniques such as X-ray, computer tomography (CT), magnetic resonance imaging (MRI), and ultrasound are indispensable diagnostic tools for modern medicine [ 1 , 2 ]. Consequently, the number of scans performed with these imaging modalities has been continuously increasing [ 3 , 4 ]. Profound and early education in these examination methods is therefore paramount in the specialty of radiology. However, it is also crucial for all physicians involved in patient care, as they must correlate the findings on imaging with the clinical presentation of patients [ 5 , 6 , 7 , 8 , 9 , 10 , 11 ]. Students are often now taught the basics of major radiology imaging modalities at increasing numbers of universities during their medical studies [ 12 , 13 ]. Such teaching aims primarily to build competencies in interpreting radiological images of various procedures [ 12 , 14 ], which develops students’ understanding of radiological and anatomical cross-sectional images [ 15 , 16 ]. The basic skills required are knowledge of anatomical spatial relationships and visual-spatial ability [ 12 , 13 ]. Individual universities are responsible for the implementation of the training according to study regulations. If applicable, courses should incorporate catalogues of learning objectives and recommendations from professional societies. In the context of sonography training, national competency-based learning outcomes catalogues and international professional associations suggest that sonography should be integrated into anatomy teaching during the preclinical phase to enhance understanding of anatomy. Subsequently, multiple points of contact as possible should be provided across specialties during clinical training to promote the development of practical examination skills and understanding of pathology [ 17 , 18 , 19 , 20 ]. These catalogues address imaging procedures in different areas of competence and disciplines and thus should be included in the training programs [ 13 , 21 ]. Training approaches hence differ in timing, teaching formats, teaching methods, and scope of radiological training [ 11 , 13 , 22 , 23 ]. Only a few non-radiological educational concepts at undergraduate level include the interpretation of cross-sectional images of anatomy [ 15 , 16 , 24 ]. The choice of timing and the effectiveness of teaching methods must be carefully considered so that the teaching design uses the appropriate teaching methods for each stage of study to promote skill development. In addition to teaching specific technical content, modern teaching should include general skills. Integrating radiology training into medical studies at an early stage has various advantages. Particularly for anatomy training, radiology instruction in different imaging techniques (such as CT images, ultrasound images, MRI, or virtual anatomy training) can improve the anatomical skills of students [ 7 , 25 , 26 , 27 , 28 , 29 ]. Films of cross-sectional images, produced by scrolling through transverse, coronal, and sagittal sections of CT and MRI scans, are advantageous in understanding anatomical spatial relationships [ 27 , 28 ]. In addition, the use of ultrasound images and implementation of ultrasound training (such as with live image generation) can also be used to improve knowledge of anatomical spatial relationships as a supplement to classical anatomical dissection [ 26 , 30 , 31 , 32 ]. Also, a high level of the core competence visual-spatial ability is crucial for the successful implementation of ultrasound-assisted punctures across various medical disciplines [ 33 , 34 ]. Furthermore, there is a close relationship between high visual-spatial ability and high performance in learning anatomy [ 35 , 36 ]. Ultrasound imaging is characterized by the need for the examiner to actively generate the image, correct angles and then interpret the acquired images. Depending on the angle and position of the transducer, the resulting sectional images can vary greatly and must be reorientated continuously. This leads to an active confrontation with the resulting ultrasound images, which specifically enhances the students’ spatial imagination and cognitive skills [ 37 ]. Especially this combination of practical guidance of the transducer and direct image generation can help to better understand anatomical relationships and spatial relationships [ 31 , 37 ]. Ultrasound also has the advantage that it can be taught as a practical course during the degree programme whilst also being without radiation exposure, relatively quick, versatile and cost-effective compared to other imaging techniques. Students prefer a practically orientated education, so ultrasound is a highly effective way of combining theoretical and practical training. Research problem & aimOverall, visual-spatial ability and an understanding of anatomical spatial relationships, anatomical cross-sections and radiological cross-sections are essential competencies required in almost all areas of medicine for the correct interpretation of radiological procedures. Several studies examine the relationships between visual-spatial ability [ 35 , 37 , 38 , 39 , 40 ], understanding of anatomical spatial relationships [ 25 , 27 , 41 , 42 , 43 , 44 ], anatomical cross-Sects. [ 15 , 16 , 44 ] and radiological cross-Sects. [ 25 , 27 , 28 , 42 , 43 , 44 ]. Still, only a few investigate the influence of ultrasound training on these skills [ 7 , 37 , 38 ]. It has already been shown that a high visual-spatial ability can improve acquisition of ultrasound skills [ 37 , 38 ]. In contrast, there is evidence that visual-spatial skills can improve during an ultrasound course [ 37 ]. So far, it has only been shown in one direction that an understanding of cross-sectional radiological images can improve anatomy and visual-spatial ability [ 27 , 28 , 39 ]. This study aims to show whether ultrasound also enhances the other modalities to close this research gap and to clarify the correlations of these interactions. This study provides more insight into these core clinical skills and ultrasound training by examining whether and to what effect completing an ultrasound course improves visual-spatial ability, knowledge of anatomical spatial relationships and radiological cross-section image understanding. Study designThis single-centre study was conducted prospectively as an observational trial at a university medical center [ 45 ]. Figure 1 outlines the protocol of the study, including data collection. The course, which was voluntary and could accommodate 160 students, was offered to all 3rd year medical students. In order to provide the earliest possible exposure to ultrasound and to include the most inexperienced users, the course was introduced during the 3rd year of study. The course included theoretical tests (Theory pre and Theory post ) and evaluations (Evaluation pre and Evaluation post ) at two time points (T 1 = pre course; T 2 = post course). Participants were recruited through an official advertisement sent to an e-mail distribution list from the dean’s office that included all students in their 3rd degree year. The participants who registered via an online portal were pooled in groups of 5. A total of 30 groups were taught per week over a period of 10 weeks. Inclusion criteria were passing the first state exam and participation in at least 80% of the course activities, including both theory exams and evaluations. The primary outcome of the study is an objective improvement in visual-spatial ability, understanding of anatomical spatial relationships and radiological cross-section image understanding determined by comparison of pre- and post-tests and evaluations. The secondary outcome is a subjective increase in competence (7-level Likert response format). ![pre med course coursework figure 1](https://media.springernature.com/lw685/springer-static/image/art%3A10.1186%2Fs12909-024-05608-7/MediaObjects/12909_2024_5608_Fig1_HTML.png) Study design including course model and evaluation time points. After the study was designed (a) , the participants were recruited and pooled in groups (b) . Participants took part in the training program and the assessment time points (c) . TU: Teaching unit (45 min) CompetenciesWe applied the definitions of visual-spatial ability [ 28 , 33 , 35 , 36 , 37 , 38 , 39 , 40 , 41 , 42 , 46 ], 3D-Understanding [ 39 , 46 ], understanding of radiological cross-Sects. [ 12 , 44 ], interpretation of radiological images [ 12 , 15 , 16 , 25 , 27 , 28 , 42 , 44 , 47 ], understanding of anatomical cross-Sects. [ 15 , 16 , 27 ] and of anatomical spatial relationships [ 25 , 27 , 42 , 43 , 44 ] as well as theoretical and practical ultrasound competencies [ 7 , 24 , 26 , 30 , 31 ]. Table 1 summarizes the terms and their definitions as they were applied in this study. Figure 2 provides an overview of the relationships between these competencies based on current understanding. ![pre med course coursework figure 2](https://media.springernature.com/lw685/springer-static/image/art%3A10.1186%2Fs12909-024-05608-7/MediaObjects/12909_2024_5608_Fig2_HTML.png) Overview of competencies and their relationships (7, 12, 15, 16, 24, 27, 30, 32, 33, 39, 42, 44, 48). Arrow (black): Influences investigated by other studies; Arrow (red): Investigated influences from our study Ultrasound courseThe ultrasound course (Fig. 1 ) was developed based on the current national resident course curricula of the German Society for Ultrasound in Medicine (DEGUM), comparable peer-to-peer concepts, and the recommendations of other professional societies [ 17 , 18 , 50 , 51 , 52 , 53 , 54 , 55 ]. The course comprises 20 German teaching units (TU) of 45 min each, for a total of 15 h, with an emphasis on abdominal sonography and some head and neck sonography (Supplement 1 ). Participants voluntarily completed the Theory pre test and Evaluation pre questionnaire at time point T 1 before an introduction to the course. During the introduction, the participants received information about the course and the basics of ultrasound physics. After the introduction, participants completed a 10-week course with one session of 90 min per week. The participants received lecture notes for course preparation, containing only ultrasound images and no other cross-sectional images such as MRI or CT. All participants had the opportunity to spend the same amount of time practising with the ultrasound device. As part of the practical training, students practiced ultrasound examinations on each other. During the course, groups of 5 participants were taught by 1 peer tutor. Each session included a short review of the theoretical principles and a discussion of common pathologies with slide presentations. In the last session, the participants completed an ultrasound exam to evaluate their practical ultrasound skills as previously reported [ 56 ]. After that, at time point T 2 , they voluntarily completed the Theory post test and Evaluation post questionnaire. QuestionnairesThe themes “basic characteristics”, “previous experience in general medicine”, “previous experience in radiology”, “previous experience in cross-sectional imaging”, “self-assessment”, “course preparation”, and “engagement with radiological topics during the course” were queried by dichotomous questions (“yes”/“no”), single and multiple choice questions, and 7 level Likert response formats [ 57 ]. Theory testThe theory tests were developed based on current literature by an interdisciplinary panel of experts in radiology, internal medicine, and didactics [ 12 , 15 , 16 , 27 , 32 , 33 , 39 , 48 ]. The test consisted of 45 multiple-choice questions with a maximum score of 45 points available. The questions in the pre-and post-test were identically worded but contained different, new images to minimize recognition bias. The images used in the test were CT and MRI images, ultrasound images, and tube figure images (see Supplement 2 for an excerpt). 40 min were available to complete each test with 40 s per Visual-Spatial Ability question and 60 s for all types of other questions. The questions and images from the test were shown as a screen presentation in the lecture hall. After the processing time for a question had expired, the next question was displayed. The participants gave their answers in writing on a sheet of paper. The test addressed the following competencies: “Visual-spatial ability” ( VSA ): 15 multiple choice questions with tube figures as a modified mental rotation test modified after Vandenberg [ 33 , 39 , 40 , 42 , 48 ]. “Radiological cross-section image understanding ( RCU) ” + “knowledge of anatomical spatial relationships (ASR)” = ( RCU-ASR ): “Visual-spatial ability in radiological cross-sections” (VSA-RC): 15 multiple choice questions with combinations of CT or MRI cross-sections and ultrasound still images. Participants had to identify anatomical features in varying cross-sections (transversal, frontal, sagittal) or had to define the orientation of different cross-sectional planes in relation to each other based on the mental rotation test [ 48 ] and radiological cross-section image understanding [ 12 , 15 , 16 , 44 ]. “Understanding of radiological cross-sectional images and knowledge of anatomical spatial relationships in CT and MRI images of the abdomen and neck” (RCU-ASR-abd.) + (RCU-ASR-neck); based on preliminary works [ 15 , 16 , 32 , 40 ], participants should identify anatomical structures in cross-sections of abdomen, pelvis and head-neck. RCU-ASR-abd : 7 multiple choice questions with CT and MRI cross sections. RCU-ASR-neck : 3 multiple choice questions with CT and MRI cross Sect. “Theoretical ultrasound competencies” ( UsC ): 5 multiple choice questions with still images from ultrasound; based on preliminary works [ 7 , 24 , 30 , 44 ], participants should identify anatomical structures in sagittal and transverse sectional ultrasound images. Statistical analysisPrior to the start of the study, we performed a power calculation with the following parameters: effect size of 40%, power of 90%, and significance level of 0.05. This calculation indicated that a group size of n = 99 would be required. The data was stored in a Microsoft Excel spreadsheet. All statistical analyses were performed in Rstudio (Rstudio Team [2020]. Rstudio: Integrated Development for R. Rstudio, PBC, http://www.rstudio.com , last accessed on 15 01 2024) with R 4.0.3 (A Language and Environment for Statistical Computing, R Foundation for Statistical Computing, http://www.R-project.org ; last accessed on 15 01 2024). Binary and categorical baseline variables are given as absolute numbers and percentages. Continuous data are given as median and interquartile range (IQR) or as mean and standard deviation (SD). Categorical variables were compared using Fisher’s exact test and continuous variables using the T-test or the Mann-Whitney U test. Moreover, these tests were used to calculate the influence of the factors on the subjective and objective results. In addition, effect size was determined using Cohen’s d in a two-sample design. Parametric (ANOVA) or non-parametric (Kruskall-Wallis) analyses of variance were calculated and further explored with pairwise post hoc tests (T-test or Mann-Whitney U). Before the inference statistics, we conducted pairwise correlations of variables and plotted the correlation effect sizes and significances. P-values < 0.05 were considered statistically significant. Descriptive statistics and questionnairesOut of the 220 students in the 3rd year, 145 students applied for the 160 places that were available. The statistical analysis included a total of n = 141 data sets. Table 2 lists the participants’ demographic details, including their reported prior experience, from Evaluation pre . The study group had a mean age of 25 ± 4 years, was predominantly female (66%), and most participants (77%) reported having completed prior training in the medical field. Most participants stated that they had neither general prior knowledge of ultrasound diagnostics (83%) nor had performed practical ultrasound examinations (87%) and that they had not yet attended any ultrasound courses (95%). Most participants attended all 9 teaching sessions (8.5 ± 0.4 Sessions). The average preparation time per week was 3.05 h (± 1.2 h), of which an average of 1.3 h (± 0.8 h) was spent practising independently on the ultrasound device with the remainder dedicated to the theoretical processing of the course lecture notes. Most participants (85.7%) did not study other radiological topics such as MRI, CT, or X-rays during the course. Self-assessmentSupplement 3 presents the results of the participants’ subjective assessment of their competence regarding “Basic skills in the understanding of cross-sectional anatomy” at time points T 1 (Evaluation pre ) and T 2 (Evaluation post ). Overall, at T 1 these were already high (> 4.0 scale points [SP]). A post-hoc test analysis for the subjective skills at T 1 showed that only “visual perception” was significantly higher than “spatial orientation” ( p < 0.01) and “implementation of spatial perception into task-related movements”. ( p < 0.001). At T 2 this tendency was no longer detectable. A subjective increase in competency was recorded in the overall score, but without statistical significance. The largest, significant increase in the competencies surveyed was achieved for ASR ( p = 0.009). Theory testsFigure 3 and Supplement 3 show the results of the theory tests at T 1 (Theory pre ) and T 2 (Theory post ). A significant increase with a high effect size was achieved both in the overall score ( p < 0.001) and almost all competencies tested: UsC ( p < 0.001), RCU-ASR-abd ( p < 0.001), VSA-RC ( p < 0.001). and VSA ( p = 0.02). Only RCU-ASR-neck showed no significant increase. Both RSC-ASR-neck and theoretical UsC were initially significantly ( p < 0.001) worse than other competencies. Significantly higher scores were initially achieved for VSA than for RSC-ASR-abd ( p < 0.001). The same was observed for VSA-RC ( p < 0.01). At T 2 , participants achieved significantly ( p < 0.001) lower scores for RSC-ASR-neck than the other competencies. UsC was completed with a significantly higher score ( p < 0.01) than the other competencies. RSC-ASR-abd was significantly ( p = 0.033) higher than VSA-RC. ![pre med course coursework figure 3](https://media.springernature.com/lw685/springer-static/image/art%3A10.1186%2Fs12909-024-05608-7/MediaObjects/12909_2024_5608_Fig3_HTML.png) Results of the theory tests at time points T1(Theory pre ) and T2 (Theory post ). Box plots visualizing the respective overall score (a) as well as the score of the competencies: “VSA: visual-spatial ability” (b) , “VSA-RC: Visual-spatial ability in radiological cross-sectional images” (c) , “RCU-ASR- abd: Understanding of radiological cross-sectional images and knowledge of anatomical spatial relationships in CT and MRI images in the abdomen” (d) , “RCU-ASR-neck: Understanding of radiological cross-sectional images and knowledge of anatomical spatial relationships in CT and MRI images in the neck” (e) , and “UsC: theoretical ultrasound competences” (f) . A high number implies a high percentage performance in the test. The median (black lines), mean (red dots), and the effect size r are shown Supplement 4 shows possible influencing factors as indicated by their correlation to the results of the theory tests at T 1 (Theory pre ) and T 2 (Theory post ). At T 1 , previous practical ultrasound experience (“yes”) had a significant correlation ( p < 0.05) with the overall test result. “Dealing with other radiological topics” correlated to a significantly higher ( p < 0.05) overall test result at T 2 . The analysed correlations between the total scores of subjective assessments and objective competencies at T1 and T2 indicate that while no linear relationship was found at T1 ( R = 0.083; p = 0.33), a significant positive linear relationship was observed at T2 ( R = 0.35; p = 0.0031). At both T 1 and T 2 , the subjective competencies surveyed tended to have a weakly positive to moderately strong correlation with one another. In particular, the self-assessment of ultrasound skills correlated significantly and positively with the self-assessment of topographical understanding at T 1 ( R = 0.53, p = 0.005). In addition, a significant positive linear relationship was found between the self-assessment of topographical understanding and the objective examination performance at T 2 . The objective results of ultrasound skills/understanding correlated significantly positively with the results of the tube figures ( R = 0.32, p = 0.007). Students who participated in the “medical test before their studies” had a significantly better result in the overall test ( p < 0.01). Summary of key resultsThis prospective study examined the effects of a student ultrasound course on visual-spatial ability, understanding of anatomical spatial relationships, radiological cross-sections image understanding, and theoretical ultrasound competencies. In summary, a significant objective increase in these skills was found, accompanied by an improvement in subjective skills. These increases were particularly significant for the “understanding of anatomical spatial relationships” competency. Interpretation of subjective and objective gain in competenciesA slight, but insignificant improvement in the subjective assessment of personal skills was observed. The high number of participants with previous training in the medical field in the study group might have skewed the results towards higher initial skill levels. The significant subjective improvement in the “knowledge of anatomical spatial relationships” illustrates the influence of ultrasound training on anatomical/topographical knowledge and could be due to a better understanding of the anatomy through practice and experiencing the anatomical structures live during the examination training [ 7 ]. The significant correlation between self-assessment of ultrasound skills and topographical understanding also reflects this aspect. For this reason, ultrasound courses should be implemented in anatomy training [ 26 , 58 ]. In addition to an increase in subjective competencies, a significant improvement in objective competencies was detected, namely in visual-spatial ability (VSA), knowledge of anatomical spatial relationships (ASR), radiological cross-sectional image understanding (RCU), and theoretical ultrasound competencies (UsC). Each competency is discussed in turn below. VSA, i.e. the ability to interpret and manipulate spatial relationships, is an essential competency in the performance of interpreting radiological images [ 59 ]. VSA has been proven to be an important factor in the acquisition of skills in sonography [ 37 , 38 ]. There has been limited research into how an ultrasound course improves spatial imagination [ 37 , 38 ]. Consistent with our findings, one study found a significant improvement in VSA among learners after a structured ultrasound course [ 37 ]. In contrast to our study, VSA improvement was tested using the Revised Minnesota Paper Form Board Test [ 37 ]. Though not directly comparable, our participants also exhibited a significant correlation between their ultrasound skills and the results of the tube figure test in the post-test, and while the prior study examined a total of 73 participants, we were able to find similar results in a larger cohort (i.e., medical students from an entire university semester) [ 37 ]. VSA is important in other areas of clinical learning, such as understanding anatomy. Some studies have shown that good spatial imagination correlates positively with exam performance in anatomy courses [ 35 , 36 , 40 ], and learning anatomy has a positive influence on spatial imagination [ 41 ]. VSA is vital in surgical procedures and interventional procedures [ 33 , 34 ], including ultrasound-assisted punctures [ 33 ]. Studies often discuss gender differences in improving VSA. While some studies describe actual differences [ 33 , 39 , 42 ], others could not detect differences [ 40 ], as in this study. Yet if we could not replicate gender-based findings, our study is consistent with others in suggesting that VSA is not a static competency, as it improves through training [ 35 , 40 , 42 ]. Students with low levels of VSA can be supported through training to achieve a field-specific increase in competence [ 35 , 40 , 42 ], and our findings suggest that ultrasound training is one way to effect this increase. An understanding of ASR is the knowledge of spatial relationships of macroscopic anatomy and the relationships between anatomical structures. Teaching imaging techniques (specifically X-ray, CT, MRI, and ultrasound) has been found to help learners better understand complex anatomical structures and topographical relationships [ 25 , 27 , 28 , 43 , 44 ]. Macroscopic-anatomical examination performance improves after radiology training [ 25 , 27 , 28 , 43 , 44 ]. As is consistent with prior findings, we observed a significant improvement in the identification of anatomical structures in radiological images (RCU-ASR-abd.). While we observed lower scores in the RCU-ASR-neck aspect of the objective test, this might be explained by either the relative paucity of head and neck sonographic content taught in the course, or by the more complex anatomy, or by the slightly lower quantity of questions in the exam. Regardless, ultrasound training is suitable for teaching (cross-sectional) anatomy and is advantageous for developing or deepening prior knowledge of anatomy [ 7 ]. This study confirms these results and affirms the recommendation to incorporate ultrasound when teaching anatomy. RCU, i.e. the ability to correctly orientate oneself in radiological cross-sectional images and to correctly assign structures, is based on visual-spatial ability and knowledge of anatomical spatial relationships. A study testing depth perception in X-ray images showed that high visual-spatial ability makes it easier to understand 3D information in such images [ 39 ]. While this prior investigation used summation images, in which the illuminated structures are superimposed, rather than cross-sectional images as in our study, we agree with its finding that both VSA and other factors are important for the interpretation of 3D information in radiological images. Indeed, we echo De Barros et al. (2001) who were able to show that the interpretation of radiological cross-sections could be improved through a specific course in cross-sectional anatomy [ 16 ]. As in our study, their testing involved the assignation of anatomical structures in cross-sectional images, and through the combined presentation of anatomical and radiological cross-sections, the learners’ understanding of radiological cross-section images was improved [ 15 , 16 ]. The ultrasound training in our study has a further advantage in that students receive an interactive combination of anatomical spatial relationships and the direct generation of radiological cross-sections by live ultrasound examination practice on volunteers. To our knowledge, there are currently no specific studies with ultrasound courses examining the influence of ultrasound training on understanding radiological cross-sections in detail. Yet the data from this study indicate a positive influence of ultrasound training on visual-spatial ability, understanding of anatomical spatial relationships, and understanding of radiological cross-sections that warrants further investigation. Ultrasound in practical training sessions proved to be an effective and interactive teaching tool for the training of radiological cross-section image understanding. UsC improved significantly, suggesting that one of the main goals of the course was achieved as was the case in other studies [ 8 , 30 ]. Curricular and extracurricular training for ultrasound diagnostics should be integrated into the degree program [ 17 , 18 ]. In addition, contact with the radiology discipline at an early stage could increase students’ general interest in the field of radiology and even influence their choice of speciality after completing their degree [ 8 , 46 , 60 ]. Summary of future perspectives and implications for ultrasound trainingTraining concepts for radiological sectional imaging should be combined more effectively and incorporated earlier into degree programs. Ultrasound is beneficial for developing and deepening anatomical knowledge, as well as providing further interactive clinical imaging training, facilitating an easier transition into the workplace after graduation. Additionally, students can be specifically supported through targeted assessment of their skills. LimitationsThe tests were developed based on the current state of science and research. While VSA was assessed through a validated test [ 33 , 39 , 40 , 42 , 48 ], similar to comparable studies [ 15 , 16 , 32 ]), the newly developed parts of the test assessing UsC, RCU-ASR, and VSA-RC competencies have yet to be validated. The authors tried to select the same task structures with images that were equivalent in content but different, but not fundamentally different in terms of difficulty for the pre-and post-tests. Because the tests were part of a voluntary student ultrasound course, randomization into the study and control groups was not possible. Participants were acquired consecutively. Possible confounding factors, such as practical ultrasound experience or previous medical training were identified as tangible influencing factors and included in the analysis of the data. A high number of participants had previous medical training, but most reported little experience with ultrasound and the interpretation of imaging procedures. The improved results for students who took part in the “medical test before studies” can potentially be explained by the earlier intensive exploration of spatial perception tests. This connection could be investigated further in future studies, in particular whether there is an improvement in practical ultrasound skills. However, it cannot be ruled out that other personal factors (e.g. motivation) could have had a possible influence on the results. In general, the lack of a control group may affect the generalizability of the results. The study shows that participation in an ultrasound course can develop competencies in visual-spatial ability, knowledge of anatomical spatial relationships, and understanding of radiological cross-section images. Due to the mutually positive effects, students should receive radiological training at an early stage of their studies to benefit from the improved skills as early as possible. A combination of different teaching methods incorporating different cross-sectional image modalities, including ultrasound imaging, is advantageous, as the combination of practical and theoretical components enables multidimensional, dynamic learning of cross-sectional image representations. Future studies should focus on more precise correlations between the various competences and their interrelationship, also in the context of the digitalization within ultrasound training. 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A review of Key Likert Scale Development advances: 1995–2019. Front Psychol. 2021;12:637547. Schober A, Pieper CC, Schmidt R, Wittkowski W. Anatomy and imaging: 10 years of experience with an interdisciplinary teaching project in preclinical medical education - from an elective to a curricular course. Rofo. 2014;186(5):458–65. Berbaum KS, Smoker WR, Smith WL. Measurement and prediction of diagnostic performance during radiology training. AJR Am J Roentgenol. 1985;145(6):1305–11. Weimer JM, Rink M, Vieth T, Lauff J, Weimer A, Müller L, et al. Development and evaluation of a point-of-care ocular ultrasound curriculum for medical students - a proof-of-concept study. BMC Med Educ. 2023;23(1):723. Download references AcknowledgementsWe thank all participating students and lecturers for supporting our study. We would like to also thank C. Christe and C. Ille for their help in revising the figures. We would like to express our gratitude to Kay Stankov for his contributions to this publication. His dedicated efforts in consulting, supervising, and meticulously reviewing all statistical aspects have been instrumental in ensuring the rigor and accuracy of our research findings. Open Access funding enabled and organized by Projekt DEAL. Author informationJohannes Weimer and Johannes Ruppert contributed equally to this work. Authors and AffiliationsRudolf Frey Learning Clinic, University Medical Center of the Johannes Gutenberg University Mainz, Mainz, Germany Johannes Weimer, Thomas Vieth, Holger Buggenhagen & Carlotta Ille Department of Medicine, Justus Liebig University Giessen, Giessen, Germany Johannes Ruppert Department of Medicine, University Medical Center of the Johannes Gutenberg University Mainz, Mainz, Germany Julia Weinmann-Menke Department of Otorhinolaryngology, Head and Neck Surgery, University Hospital Regensburg, Regensburg, Germany Julian Künzel & Maximilian Rink Department of Radiation Oncology and Radiotherapy, University Medical Center of the Johannes Gutenberg University Mainz, Mainz, Germany BIKUS—Brandenburg Institute for Clinical Ultrasound, Brandenburg Medical School Theodor Fontane (MHB), Neuruppin, Germany Daniel Merkel Department of Diagnostic and Interventional Radiology, University Medical Center of the Johannes Gutenberg University Mainz, Mainz, Germany Yang Yang & Lukas Müller Institute of Interventional Radiology, University Hospital Schleswig-Holstein - Campus Lübeck, Lübeck, Germany Roman Kloeckner Center of Orthopedics, Trauma Surgery, and Spinal Cord Injury, Heidelberg University Hospital Heidelberg, Heidelberg, Germany Andreas Weimer You can also search for this author in PubMed Google Scholar ContributionsConceptualization: J.W., J.W.M., H.B., Y.Y., R.K. and A.W.; methodology and software: J.W., J.W.M., Y.Y. and A.W.; validation: J.W., D.M., J.K., L.M., R.K. and A.W.; formal analysis: J.W., L.M. and A.W.; investigation: J.W., J.W.M., Y.Y., R.K. and A.W.; resources: J.W., J.W.M., H.B. and R.K.; data curation: J.W., J.R., L.L., C.I., L.M. and A.W.; writing—original draft preparation: J.W., J.R and A.W. ; writing—review and editing: J.W., J.R., T.V., J.W.M., H.B., J.K., M.R., L.L., D.M., C.I., Y.Y., L.M., R.K. and A.W. visualization: J.W., C.I, L.M. and A.W. supervision: J.W., J.W.M., R.K. and A.W.; project administration: J.W., R.K., J.W.M. and A.W. ; All authors have read and agreed to the published version of the manuscript. Corresponding authorCorrespondence to Johannes Weimer . Ethics declarationsEthics approval and consent to participate. The approval for the study was waived by the local ethics committee of the State medical association of Rhineland-Palatinate (“Ethik-Kommission der Landesärztekammer Rheinland-Pfalz”, Mainz, Germany). All procedures performed in studies involving human participants were in accordance with the ethical standards of the institutional and national research committee and with the 1964 Helsinki declaration and its later amendments or comparable ethical standards. Informed written consent was obtained from all the participants. Consent for publicationNot Applicable. Competing interestsThe authors declare no competing interests. Additional informationPublisher’s note. Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations. Electronic supplementary materialBelow is the link to the electronic supplementary material. Supplementary Material 1Supplementary material 2, supplementary material 3, supplementary material 4, rights and permissions. Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article’s Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article’s Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/ . The Creative Commons Public Domain Dedication waiver ( http://creativecommons.org/publicdomain/zero/1.0/ ) applies to the data made available in this article, unless otherwise stated in a credit line to the data. Reprints and permissions About this articleCite this article. Weimer, J., Ruppert, J., Vieth, T. et al. Effects of undergraduate ultrasound education on cross-sectional image understanding and visual-spatial ability - a prospective study. BMC Med Educ 24 , 619 (2024). https://doi.org/10.1186/s12909-024-05608-7 Download citation Received : 14 March 2024 Accepted : 27 May 2024 Published : 05 June 2024 DOI : https://doi.org/10.1186/s12909-024-05608-7 Share this articleAnyone you share the following link with will be able to read this content: Sorry, a shareable link is not currently available for this article. Provided by the Springer Nature SharedIt content-sharing initiative - Undergraduate Radiology Education
- Undergraduate Ultrasound Education
- Visual–spatial ability
- Anatomical spatial relationships
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- Interpretation of radiological images
BMC Medical EducationISSN: 1472-6920 ![pre med course coursework pre med course coursework](https://bmcmededuc.biomedcentral.com/track/article/10.1186/s12909-024-05608-7) ![pre med course coursework DB-City](https://dwpt1kkww6vki.cloudfront.net/img/design/logo_db_city.png) - Bahasa Indonesia
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ElektrostalElektrostal Localisation : Country Russia , Oblast Moscow Oblast . Available Information : Geographical coordinates , Population, Altitude, Area, Weather and Hotel . Nearby cities and villages : Noginsk , Pavlovsky Posad and Staraya Kupavna . InformationFind all the information of Elektrostal or click on the section of your choice in the left menu. Elektrostal DemographyInformation on the people and the population of Elektrostal. Elektrostal Population | 157,409 inhabitants |
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Elektrostal Population Density | 3,179.3 /km² (8,234.4 /sq mi) |
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Elektrostal GeographyGeographic Information regarding City of Elektrostal . Elektrostal Geographical coordinates | Latitude: , Longitude: 55° 48′ 0″ North, 38° 27′ 0″ East |
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Elektrostal Area | 4,951 hectares 49.51 km² (19.12 sq mi) |
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Elektrostal Altitude | 164 m (538 ft) |
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Elektrostal Climate | Humid continental climate (Köppen climate classification: Dfb) |
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Elektrostal DistanceDistance (in kilometers) between Elektrostal and the biggest cities of Russia. Elektrostal MapLocate simply the city of Elektrostal through the card, map and satellite image of the city. Elektrostal Nearby cities and villagesElektrostal WeatherWeather forecast for the next coming days and current time of Elektrostal. Elektrostal Sunrise and sunsetFind below the times of sunrise and sunset calculated 7 days to Elektrostal. Day | Sunrise and sunset | Twilight | Nautical twilight | Astronomical twilight |
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8 June | 02:43 - 11:25 - 20:07 | 01:43 - 21:07 | 01:00 - 01:00 | 01:00 - 01:00 |
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9 June | 02:42 - 11:25 - 20:08 | 01:42 - 21:08 | 01:00 - 01:00 | 01:00 - 01:00 |
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10 June | 02:42 - 11:25 - 20:09 | 01:41 - 21:09 | 01:00 - 01:00 | 01:00 - 01:00 |
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11 June | 02:41 - 11:25 - 20:10 | 01:41 - 21:10 | 01:00 - 01:00 | 01:00 - 01:00 |
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12 June | 02:41 - 11:26 - 20:11 | 01:40 - 21:11 | 01:00 - 01:00 | 01:00 - 01:00 |
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13 June | 02:40 - 11:26 - 20:11 | 01:40 - 21:12 | 01:00 - 01:00 | 01:00 - 01:00 |
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14 June | 02:40 - 11:26 - 20:12 | 01:39 - 21:13 | 01:00 - 01:00 | 01:00 - 01:00 |
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Elektrostal HotelOur team has selected for you a list of hotel in Elektrostal classified by value for money. Book your hotel room at the best price. | Located next to Noginskoye Highway in Electrostal, Apelsin Hotel offers comfortable rooms with free Wi-Fi. Free parking is available. The elegant rooms are air conditioned and feature a flat-screen satellite TV and fridge... | from | | Located in the green area Yamskiye Woods, 5 km from Elektrostal city centre, this hotel features a sauna and a restaurant. It offers rooms with a kitchen... | from | | Ekotel Bogorodsk Hotel is located in a picturesque park near Chernogolovsky Pond. It features an indoor swimming pool and a wellness centre. Free Wi-Fi and private parking are provided... | from | | Surrounded by 420,000 m² of parkland and overlooking Kovershi Lake, this hotel outside Moscow offers spa and fitness facilities, and a private beach area with volleyball court and loungers... | from | | Surrounded by green parklands, this hotel in the Moscow region features 2 restaurants, a bowling alley with bar, and several spa and fitness facilities. Moscow Ring Road is 17 km away... | from | |
Elektrostal NearbyBelow is a list of activities and point of interest in Elektrostal and its surroundings. Elektrostal PageDirect link | |
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To explore the required and recommended pre-medical coursework for each school, including AP, community college and online course credits, please review the AMCAS MSAR Reports' Premedical Coursework Chart, as well as the tab on the top of the current webpage detailing Advanced Placement (AP) Credit Policies.
Required Premedical Coursework and Competencies. This page lists medical school websites that outline their required premedical coursework and competencies. Program directors, if you have a program to add or information to update, please contact: [email protected].
The Pre-Professional Advisement Center will then be able to assist you in planning out specific prerequisite courses and other premedical preparation. Below is a list of BYU coursework that, generally, fulfills prerequisites for most medical schools. This is not a comprehensive list. We strongly encourage you to utilize our office services to ...
Behavioral Sciences coursework may be used in place of Social Sciences. Pass/Fail is accepted for the Spring semester of 2020 only. Statistics Recommended N C Y AR University of Arkansas for Medical Sciences College of Medicine Behavioral Sciences Required N 6 Y Y Y Biochemistry Required N 3 Y N Y A general biochemistry course is required ...
General chemistry - 2 semesters with lab. Organic chemistry - 2 semesters with lab. Biochemistry - 1 semester. English - 2 semesters. Math - 2 semesters. Many schools also require statistics, psychology, and writing. Your undergraduate university will likely have advisors who will help make sure that you complete your pre-med ...
While each medical school requires the completion of a four-year degree from an accredited institution, the premedical coursework requirements vary from school to school. Every medical school determines their own list of required or recommended premedical coursework, and some accept AP, online, and community college courses while others do not.
According to the Association of American Medical Colleges, roughly 10% of medical school graduates pursued a dual degree in 2023. Master's degree tracks usually add about one year to a medical students' time in medical school. An MD/PhD can take upwards of eight years for medical students to advance to residency.
Shared core requirements for medical school: 1 year of Biology with lab. 1 year of General Chemistry with lab. 1 year of Organic Chemistry with lab. 1 year of Physics with lab. 1 year of English. At least 1 semester of Mathematics (Ex. Calculus or Statistics) These requirements are hardly arbitrary.
Prerequisites. Mason Courses. Biology with lab, 2 semesters. BIOL 213/Cell Biology. BIOL 311/Genetics. Anatomy and Physiology with lab, 2 semesters. (Strongly recommended) BIOL 124 and 125 or BIOL 430 and 431. Microbiology with lab, 1 semester.
"Pre-med" is the term people use to show that they want to go to med school and are taking the classes they need to get there. It's primarily used by college students. There isn't actually "pre-med" major; pre-med is just a term to let people know you have plans to be a doctor. You can be a biology major and pre-med, a Spanish major and pre-med ...
Pre-med is a set of core classes that students complete as part of the application to medical school. The designation " pre-med " comes with opportunities as well as constraints. On the one hand, it isn't a major in its own right—so f you choose this path, you get to choose any subject that you love to study as a major, while still ...
Many students take out loans of up to $50,000/year (private) or $20,000/year (private). There's another roughly $5,000 for book costs and $10,000 for room and board. Meanwhile, medical school tuition costs $200,000 on average, and students take out roughly $50,000 in loans per year over four years.
In the Premedical Program, you'll take challenging core science courses, many of which are taught by Harvard University faculty. And you'll have the opportunity to enroll in clinically relevant electives. Through either the premedical or pre-physician assistant (physician associate) track, you'll develop the knowledge and skills necessary ...
Subject Courses; Math Statistics: (usually fulfills math requirement at Texas schools) See TMDSAS acceptable statistics courses.. Calculus: is required by some out-of-state medical schools. M 408N OR; M 408K OR; M 408 C HPO does not list M 408R as a pre-med course. You can seek approval from individual schools that require calculus, but approval cannot be guaranteed.
Requirements General Guidelines. Requirements for entry vary by health profession, and often by individual institution. Students pursuing a pre-med/pre-health path at UC Berkeley are advised to consult the prerequisite coursework recommended for their health profession(s) of interest.All health professional graduate programs require some lower-division coursework in math and science, including ...
Resources for Navigating Pre-Med. From picking courses and choosing a major to finding research opportunities and exploring extracurriculars, being a pre-med student requires substantial commitment and good long-term planning. ... (Undergraduate Research and Fellowships), concentration advisers, house tutors, Pre-Med Peer Liaisons (PPL PAFs ...
1-2 semesters. Social, Behavioral Sciences and the Humanities. 2-3 courses. The most common course requirements for admission to health professions training programs can be fulfilled at Brown University by taking the courses detailed below. All required courses should be completed for a grade with the exception of mandatory S/NC courses.
Pre-medicine students complete courses with Northwestern curriculum and faculty, which offers students the opportunity to build a deep and strong science foundation. Coursework is primarily offered in evening and weekend classes and can be completed in 15, or 21 months, depending on the student's needs.
Pre-Requisite Information Please note that it is the responsibility of the student to research individual medical school admission requirements. There are various ways medical schools view pre-requisite coursework: specific courses, credit hours in disciplines or competency based. Your academic advisor can discuss courses required for your major.
The Harvard Medical School Continuing Education Catalog offers you the latest listing of continuing education courses with CME and CNE credits for clinicians and health care professionals in Live, ... The Blackburn Course in Obesity Medicine. Live Virtual June 10, 2024 - June 13, 2024 Gastroenterology 2024. Live Virtual June 10, 2024 - June 13 ...
Medical, dental, and other health professional schools, while not requiring or recommending any particular major course of study, do require that particular undergraduate prerequisite courses be completed. These courses usually include general chemistry, organic chemistry, general biology, biochemistry, mathematics, physics and social/behavioral sciences.
Harvard Online presents curated online courses that combine faculty and disciplines from across the University, connecting learners around the globe with the world's most urgent issues. ... Medical Director, Cardiac Services, Greater Sacramento The Permanente Medical Group and Chief, Cardiology Kaiser Permanente, South Sacramento.
High-Impact, Evidence-Based Education for Health Care ProfessionalsTo successfully train the next generation of health care professionals, medical educators must utilize innovative teaching strategies and techniques in both classroom and clinical settings. Training to Teach in Medicine is a six-month online certificate program taught by distinguished Harvard Medical School faculty for ...
Army-sponsored 1-year clinical psychology residency program for students at one of four military medical treatment facilities Requirements. Active duty or a civilian interested in commissioning as an active-duty Officer in the Army Medical Corps; Completed coursework in Ph.D., Psy.D., or counseling psychology doctoral program
Similarly, as per Section 14 of the National Commission for Indian System of Medicine Act, 2020, there shall be a uniform NEET (UG) for admission to undergraduate courses in each of the disciplines i.e. BAMS, BUMS, and BSMS courses of the Indian System of Medicine in all Medical Institutions governed under this Act.
As a biology major, your career options include becoming a biologist, going to medical school, and the following roles: ... Take a course from a top university to experience firsthand if it's a good fit. Once you sign up for Coursera, you can explore more than 7,000 courses, many of which are free to audit. Here are a few popular courses to ...
Assess where you are in your journey by using these worksheets. They'll help you keep track of your coursework and plan for interviews. Admissions Requirements Information about premedical coursework requirements and recommendations, and data sources for the Medical School Admission Requirements.
Ultrasound course. The ultrasound course (Fig. 1) was developed based on the current national resident course curricula of the German Society for Ultrasound in Medicine (DEGUM), comparable peer-to-peer concepts, and the recommendations of other professional societies [17, 18, 50,51,52,53,54,55].The course comprises 20 German teaching units (TU) of 45 min each, for a total of 15 h, with an ...
Elektrostal Geography. Geographic Information regarding City of Elektrostal. Elektrostal Geographical coordinates. Latitude: 55.8, Longitude: 38.45. 55° 48′ 0″ North, 38° 27′ 0″ East. Elektrostal Area. 4,951 hectares. 49.51 km² (19.12 sq mi) Elektrostal Altitude.
Students and Teachers. Introductory Pricing Terms and Conditions Creative Cloud Introductory Pricing Eligible students 13 and older and teachers can purchase an annual membership to Adobe® Creative Cloud™ for a reduced price of for the first year. At the end of your offer term, your subscription will be automatically billed at the standard subscription rate, currently at (plus applicable ...