Path Catalog
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Path Catalog
列表数据实时取自 GET /api/v1/paths，仅包含存在已发布版本的 Path。
共 7800 条 Path · 第 233 / 780 页
A comprehensive graduate-level learning path covering the theory and practice of applying molecular dynamics (MD) simulations to study protein-surface interactions in biomaterials. Starting from statistical mechanics and force fields, the path progresses through simulation techniques, water models, and analysis methods, culminating in advanced topics such as enhanced sampling and machine learning potentials.
This advanced graduate-level path equips learners with the theoretical foundations to analyze and model the degradation of biodegradable polymers. It covers polymer chemistry basics, hydrolysis kinetics, autocatalysis, diffusion-reaction coupling, and degradation-product release, culminating in the application of these concepts to real biomaterials.
This advanced graduate-level learning path systematically explores the tribology of artificial joints, focusing on wear mechanisms, lubrication, wear debris, and the role of UHMWPE. It builds from fundamental concepts in tribology and biomaterials to advanced topics in biotribology and joint prosthesis design, culminating in a comprehensive understanding of wear theory in artificial joints.
This advanced graduate-level path systematically develops the thermodynamic framework needed to understand and predict protein adsorption on biomaterial surfaces. It progresses from core physical chemistry through surface thermodynamics to the molecular driving forces (hydrophobic effect, conformational entropy) that govern adsorption, enabling learners to analyze adsorption equilibria and energetics.
This learning path provides a systematic, graduate-level study of hydrogels, covering polymer fundamentals, crosslinking chemistry, swelling behavior, mechanical properties, and stimuli-responsive design, followed by applications in drug delivery and wound healing. It emphasizes the scientific principles that govern hydrogel performance and the practical considerations for biomedical use.
This path provides a systematic, graduate-level understanding of designing biomaterial-based drug delivery systems, covering fundamental principles of controlled release, material classes, and advanced targeting strategies. Learners will progress from core concepts in pharmacokinetics and mass transport to the rational design of liposomes, hydrogels, and nanoparticles, culminating in integrated design considerations and case studies.
This advanced graduate-level path equips learners with the knowledge to design and fabricate scaffolds for tissue engineering. It covers fundamental biomaterials, scaffold architecture, biodegradable polymers, and advanced manufacturing techniques, culminating in an integrated design project.
This advanced graduate-level path systematically covers the principles of tissue engineering, from foundational cell and biomaterial science to the design of scaffolds, bioreactors, and strategies for regenerating bone, skin, and cartilage. It emphasizes the integration of cells, scaffolds, and signaling molecules, and prepares learners to critically evaluate tissue engineering approaches.
This advanced graduate-level path systematically explores the molecular mechanisms by which cells sense and respond to biomaterial surfaces. It covers the extracellular matrix, integrin-mediated adhesion, focal adhesion assembly, mechanotransduction pathways, and downstream signaling that influences cell fate. The path integrates cell biology and materials science to provide a comprehensive understanding of cell-material interactions.
A systematic learning path covering key testing methods for biomaterials evaluation, including in vitro cytotoxicity, cell culture, in vivo implantation, histology, and ISO 10993 guidelines. Designed for undergraduate engineering and biology students with basic knowledge of materials and biology.