Objective To evaluate medical students’ perceptions and attitudes toward artificial intelligence (AI)-assisted diagnosis of renal cell carcinoma (RCC), and to analyze their educational needs regarding AI in pathological diagnosis. Methods A questionnaire survey (including closed and open-ended questions) was conducted to assess medical students’ perceptions, attitudes, and educational needs concerning AI-assisted RCC diagnosis. Participants included medical students from different specialties and standardized training residents. The questionnaire covered demographic information, perceptions and attitudes toward AI, and AI-related educational needs. Results A total of 249 respondents completed the survey. The majority were standardized training residents, mostly aged 23-26 years, and 40.96% had practical experience in pathological diagnosis of RCC. The median scores for most closed-ended questions were 4. Respondents generally considered “efficiency” and “improved accuracy” as the most prominent advantages of AI, with timeliness, automated diagnosis, reduction of human error, and precise diagnosis being the most emphasized aspects. Analysis of AI-related educational needs revealed high-frequency keywords such as “expanding sample size” “balanced responsibility allocation” and “enhancing collaboration skills.” Conclusion Medical students hold a positive attitude toward AI and its application in RCC diagnosis, but there remains a lack of formal AI-related education.
It has always been an important policy of the Chinese government to provide aid and assistance for the development of Tibet. With nearly one-eighth of China’s total land areas and about 0.002% of China’s total population, the Tibet Autonomous Region lags behind the domestic average level in medical education and is in bad need for medical professionals. The West China Center of Medical Sciences (WCCMS) of Sichuan University has managed to introduce US projects to set up the West China–Tibet Telemedical Education System to transmit medical courses in a real-time and interactive way. Based on this system, WCCMS has established a model for assisting the Tibet University Medical College through transmitting medical courses, training their medical faculty, sending WCCMS faculty to work in Tibet and admitting medical teachers and students from Tibet to study and be trained at West China Medical School and Hospital.
Global Minimum Essential Requirements (GMER) is focused on training medical students to equip them with the scientific foundation of medicine, clinical techniques, a doctor’s professional ethos, social sciences, health economics, medical information management and communication skills, etc. Based on GMER and its evaluation and through the integration of GMER’s seven requirements into the objectives of the clinical-medicine major, Shanxi Medical University is reforming medical education to carry forward high quality education in a comprehensive way. These reforms include adjustments in the content, methods and means of the teaching in order to improve teaching conditions and optimize the curriculum structure, and to enhance the quality of education. At the same time the management system is being reformed and sustainability-featured mechanisms of management and operation are being created, to make simulated hospital a base wherein GMER is fully followed. Simulated hospital for clinical teaching is built to cultivate the students’ abilities in clinical thinking and clinical education. This takes into full consideration training in professional quality, the cultivation of students’ comprehensive ability and GMER’s aim of reaching the final objective, namely, the following four transformations of the students: from essential knowledge to clinical practice, from single technique to all-round ability, from patterning thought to integrated and innovative thought and from a student of clinical medicine to a professional doctor. The objective is to fulfill the task of teaching clinical medicine in a more favorable way, promoting the reform and development of China’s medical education and keeping pace with changes in medical education elsewhere in the world.
ObjectiveTo investigate the situation of further medical education in students in our hospital from 2010 to 2014, and provide insights into how to elevate the teaching and management quality of continuing medical education (CME).
MethodWe collected and statistically analyzed the electronic information of students in our hospital between January 2010 and 2014 December, including gender, ethnicity, age, education, and job title.
ResultsThere were totally 7 478 students who received further education in the five years, and most of them were between 26 and 35 years old with junior titles and bachelor's degree. The number of students from minorities, county hospitals, medical school affiliated hospitals, provincial hospitals and hospitals from other provinces increased year by year. But there were still some problems in the present situation of further medical education in our hospital, including: lacking detailed publicity work, complicated student sources, different working capabilities of the students, and difficult regulation of uniform education planning.
ConclusionsTo solve the problems, we need to properly balance the number of students and the quality of the training, make scientific enrollment plan, strengthen the CME publicity work, improve the quality of students, draw up differentiation cultivation plan, strictly implement examination and evaluation, and constantly improve the information feedback system.
Simulation-based medical education is becoming increasingly common. In this paper, the status and goal of SBME development is analyzed after a brief introduction of SBME. Secondly, the essentiality and possibility of bringing SBME to a situated paradigm are clarified, because there are rich implications for situated cognition as the theory foundation of SBME. As a main discussion point, eight practical situated designing principles for SBME in theoretical and practical contexts are then expounded. Finally, a specific attitude toward the relationship between theory and practice for the SBME teachers is also elucidated.
Objective To explore the application effect of the four-dimensional teaching library model in the training of neuroinfection subspecialty continuing physicians, and compare it with traditional rotational training. Methods Continuing physicians who received training in the Department of Neurology of Xuanwu Hospital, Capital Medical University between March 2021 and February 2023 were selected. The continuing physicians who received traditional rotational training between March 2021 and February 2022 would serve as the control group, and the continuing physicians who received four-dimensional teaching library model training between March 2022 and February 2023 would serve as the experimental group. The Mini-CEX scale was used to evaluate the clinical comprehensive abilities of two groups of continuing physicians. At the same time, self-made questionnaires were used to evaluate the evaluation of two groups of continuing physicians on different teaching modes. Results A total of 55 continuing physicians were included. Among them, there were 27 people in the control group and 28 people in the experimental group. There was no statistically significant difference in the comparison of general information between the two groups (P＞0.05). At the time of graduation, all items on the Mini-CEX scale in the experimental group were higher than those in the control group (P<0.05). The survey questionnaire results showed that the experimental group scored higher than the control group in terms of improving learning interest, improving self-learning ability, improving clinical thinking, improving analysis and problem-solving ability, improving doctor-patient communication ability, and increasing teamwork (P<0.05). Conclusion The application effect of the four-dimensional teaching library model in the training of neuroinfection subspecialty continuing physicians is better than that of traditional rotational training, which can significantly improve the clinical comprehensive ability of continuing physicians and is worth promoting.
Interventional radiology is an emerging discipline based on image-guided minimally invasive diagnosis and treatment. The number of interventional procedures performed is increasing year by year, resulting in a dramatic increase in the demand for interventional radiologists. Procedure training systems based on virtual reality (VR) technology simulate real interventional procedure through real-time interaction between hand manipulators and virtual environments, allowing physicians to experience real interventional procedures during training and reducing training time and costs. A growing number of medical schools are now adopting VR simulated training systems for interventional procedure training. This article reviews the relevant research progress of VR simulation interventional procedure training system in recent years and discusses the development prospects of VR technology in interventional procedure training.
The continuing medical education system of West China Hospital of Sichuan University is based on whole life cycle. We actively promote the continuing education, systematize and institutionalize the top-level design, and adopting flexible and diverse training methods. It is of great significance for a staff's entire career to continuously improve professional accomplishment, specialized knowledge and working skills, to adapt to the development of medical science and technology and the reform of health service, and to drive hospital innovation and high-quality development, so as to eventually achieve the goal of "double first-class" construction.
Objective To evaluate the effectiveness of combining three-dimensional printing (3DP) models with three-dimensional visualization (3DV) technology in the teaching of thoracoscopic sublobar resection. Methods From March 2024 to June 2025, 150 interns were randomly assigned by envelope method to the 3DV, 3DP, and combined (3DV+3DP) groups. Three theoretical tests and score changes were used to assess short- and long-term teaching outcomes, and a questionnaire survey was conducted to analyze learning experience. Results After teaching, scores improved significantly in all groups (P<0.001), with the greatest increase in the combined group (47.18±5.81), which was higher than the 3DV and 3DP groups (P<0.001 and P=0.002, respectively). At 1 month, scores declined in all groups (P=0.028), but the combined group showed the smallest decrease (?6.94 ± 6.05). The combined group also showed the most pronounced advantage in spatial cognition (38.0%). Conclusion Innovative 3DP+3DV instructional model improves sublobar lung resection teaching and shows better long-term retention and spatial cognition.
In the context of collaboration between healthcare and education systems, in order to promote competency-oriented medical education reform and improve the clinical capabilities of medical students at all levels, it is urgent to enhance the organizational guarantee to establish a stable teaching team in university-affiliated hospitals. As the National Clinical Teaching and Training Demonstration Center, West China School of Medicine / West China Hospital of Sichuan University has taken the lead to explore the building of a full-time teaching team for clinical practice teaching, innovating and implementing the system of “Full-time Practice Teaching Post”. This innovative measure ensures the whole-process management, teaching, and assessment of medical students, strengthens teacher training and top-level design of teaching and research, improves the incentive mechanism for teachers, applies multiple teaching resources and novel teaching methods, and finally improves the quality and culture of clinical practice teaching.
