"Biochemical Engineering Experiment" is a compulsory curriculum for the concentrated practical teaching of biotechnology majors in Hunan University of Science and Engineering. It is also an experimental curriculum for improving the overall quality of bioengineering students under the context of "Emerging Engineering Education". The course includes comprehensive experiments and designable experiments, and the contents of which are designed by combining the local characteristic resources of Yongzhou, the research platform and the characteristics of the talents with engineering background. In the teaching practice, methods such as heuristic teaching, research cases-embedded teaching and interactive teaching are comprehensively used to boost students' interest in learning and stimulate their innovative thinking and application capability. Through curriculum examination and post-class investigation, it was found that the students' abilities of knowledge transfer and application were significantly improved, and they achieved excellent performances in discipline competitions and approved project proposals. The practice and continuous improvement of this course may facilitate fostering high-level innovative and application-oriented talents of biotechnology majors.
Humans ; Curriculum ; Students ; Learning ; Bioengineering ; Biomedical Engineering

In the "Tutorial for outline of the healthy China 2030 plan", biomedicine was listed as a key planning and development area. Shanghai government also lists biomedicine as an emerging pillar industry. The rapid development of biomedicine industry put higher requirement for talents. Taking the idea of cross integration, mutually beneficial development, inheritance and innovation, the School of Biotechnology of East China University of Science and Technology organically integrates bioengineering and pharmaceutical majors to develop a new undergraduate engineering program of biomedicine, which specially reforms the talent training practice from the aspects of developing a "trinity teaching" standard system, a "three integration, three convergence" curriculum system, and a "three comprehensive education" innovative talent training system. We put forward the trinity of "value guidance, knowledge system, technology and non-technical core competence literacy" to foster emerging biomedicine engineering talents, and developed a comprehensive innovative talents training mode featured by "covering class-in and class-out, covering every student, and covering ideology and curriculum". Moreover, we established effective connections between courses and training goals, between general education courses and professional courses, and between top-notch talent training systems and training programs. Based on the achievements of teaching reform of the emerging engineering program "intelligent bio-manufacturing", the experience we obtained may provide ideas for development of the first-class bioengineering major in China.
Bioengineering ; Biomedical Engineering ; China ; Curriculum ; Humans ; Students

"Bio-separation engineering" is a compulsory course for undergraduate students majored in bioengineering, and an important part of the "emerging engineering education" system for bioengineering. Our teaching team follows the principle of "student development as the center, innovation thinking as the core". Guided by the concept of "learning achievement", we reconstructed the teaching contents of this course, and carried out the teaching reform aiming at solving several long-standing problems. These include, for instance, the theoretical teaching is separated from the experimental practice, and students cannot internalize the theoretical knowledge into practical ability in time. Moreover, the contents of course is out-of-date and out of line with industry demand, the teaching form and assessment methods are relatively single, and the students' professional ability and quality are not effectively cultivated. In the new curriculum system, in which the "online" and "offline" teaching are both applied, we broke the boundary between theoretical and experimental courses, and made the contents keep up with the forefront of industry development through research-based teaching. In terms of teaching methods and teaching evaluation, we made full use of modern information technology to enrich classroom teaching activities, and carried out complete, dynamic and diversified assessment for students. These teaching reform measures greatly improved the students' interest in learning this course, as well as their professionalism and research ability.
Bioengineering ; Biomedical Engineering ; Curriculum ; Humans ; Learning ; Students

Bioengineering majors require students to acquire excellent abilities of thinking and analyzing complex problems and have high requirements for students' comprehensive practical skills. Because of the professional characteristics, it is necessary to develop students' abilities to solve complex problems via the teaching of a series of experiments. Therefore, it is particularly important to reform the traditional experiment teaching for students majoring in bioengineering to improve the teaching quality, which have great significance for the cultivation of comprehensive talents. In this study, with the advantages of geographical location and resources to cultivate application-oriented innovative talents, the course group of Comprehensive Experiment of Bioengineering has designed the course based on virtual simulation technology in Binzhou University. Taking the experiment of extraction and bioactivity analysis of Suaeda salsa (growing in the Yellow River Delta) polysaccharide in fermentation as a case, we studied the course design idea, experimental process, teaching method and result analysis, and have improved the teaching performance. This case analysis provides new ideas and content reference for the teaching reform of similar courses.
Bioengineering/education* ; Biomedical Engineering/education* ; Humans ; Students ; Technology ; Universities

The rapid development of bioeconomy urgently needs the support of biotechnology talents. Establishing an innovative training mode of biotechnology talents can provide support for regional economic development and industrial upgrading. Closely revolved around the concepts of new engineering disciplines development, such as serving the national strategy, docking industry, leading the future development and student-centered, a new economy-oriented training system was developed in School of Bioengineering of Dalian University of Technology. These systems include interdisciplinary curriculum system reconstruction, project-based teaching mode reform, evaluation system implementation and other aspects. The reform and exploration of the first-class biotechnology major under the new economic situation, puts forward the theory of value guidance, deep foundation, strong sense of innovation, technical and non-technical core ability literacy. This reform meets the industry demand for talent diversification, personalization, and dynamic change, helps the merge of industry and education, which provides a way for fostering first-class biotechnology-majored undergraduates.
Humans ; Biotechnology ; Bioengineering ; Biomedical Engineering ; Students ; Curriculum

As a strategic emerging industry of China, the biotechnology industry develops rapidly in recent years, which significantly increased the demand for creative and capable talents. As a core curriculum of bioengineering specialty, biotechnology equipment plays an important role in fostering such talents. To address the problems in biotechnology equipment course teaching such as limited equipment availability, limited engineering practice, and lack of learning motivations, curriculum reform and optimization were performed based on curriculum resource development, virtual reality-physical combined engineering training, and boosting learning motivations. The optimized teaching contents focus on fostering morality, intelligence, and creative practice abilities by connecting new requirements of social development, introducing new progress in biotechnology research, as well as new practices in research and development (R & D). Measures such as teaching methods innovation, assessment and evaluation methods optimization, cutting-edge R & D progress, diverse resources integration, and online-offline combined teaching, were developed to boost the learning motivation and foster the innovation competence of students. By above exploration and practice, the practice and innovation competence of students were significantly enhanced.
Humans ; Students ; Learning ; Curriculum ; Bioengineering ; Biomedical Engineering

Urology is an ancient academic discipline, and its rapid development is due to the combination between medicine and engineering. The development of urology in China is an example of the combination of industry-academia-research based on the progress of science and technology. This paper mainly summarizes the recent advances of interdisciplinary combination between medicine and engineering in urology.
Biomedical Engineering ; trends ; China ; Humans ; Interdisciplinary Research ; Urology ; trends

For patients with moderate-to-severe erectile dysfunction, implantable penile prostheses continue to be a viable treatment. Medical device developers apply design controls during the development cycle to ensure that a product performs as intended in the final use environment. This process relies heavily on the principles of systems engineering and documents every facet of performance, unmet need, and risk. To better understand design philosophy, it is important to frame benchmarked performance outcomes in the context of the ideal state. Careful consideration of erectile anatomy and physiology, including flaccid state, transitional phases, and full tumescence, informs penile prosthesis design philosophy and provides the foundation for product advancement.
Biomedical Engineering ; Erectile Dysfunction/surgery* ; Humans ; Male ; Penile Implantation ; Penile Prosthesis ; Prosthesis Design ; Systems Analysis

Human health is the foundation of human survival and development. It is an important objective of sustainable development to enhance human health level. With the development of science and technology, bioengineering, as an interdisciplinary biological technology, is becoming the key driver of these goals. This special issue reviewed and discussed the recent progress and future perspectives of bioengineering technologies in the biomedical applications from the aspects of engineering design, disease diagnosis, gene- and cell-based therapies. We hope this special issue could provide valuable references for promoting bioengineering technologies used for the healthcare applications.
Biomedical Engineering ; Humans

Monte Carlo (MC) simulation for light propagation in scattering and absorbing media is the gold standard for studying the interaction of light with biological tissue and has been used for years in a wide variety of cases. The interaction of photons with the medium is simulated based on its optical properties and the original approximation of the scattering phase function. Over the past decade, with the new measurement geometries and recording techniques invented also the corresponding sophisticated methods for the description of the underlying light–tissue interaction taking into account realistic parameters and settings were developed. Applications, such as multiple scattering, optogenetics, optical coherence tomography, Raman spectroscopy, polarimetry and Mueller matrix measurement have emerged and are still constantly improved. Here, we review the advances and recent applications of MC simulation for the active field of the life sciences and the medicine pointing out the new insights enabled by the theoretical concepts.
Biological Science Disciplines ; Biomedical Engineering ; Optogenetics ; Photons ; Spectrum Analysis, Raman ; Tomography, Optical Coherence