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 235 / 780 页
This learning path introduces foundational cell biology concepts essential for understanding biomaterials. It covers the cell membrane, organelles, cell adhesion, cell signaling, and the extracellular matrix, providing the biological basis for how cells interact with materials.
A foundational learning path for high school students with basic biology to understand biocompatibility, its key requirements, including cytotoxicity, hemocompatibility, and the ISO 10993 standards. The path builds from basic cell biology and materials science to the principles of biological evaluation of medical devices.
This learning path introduces the biological environment of the human body and the host response to implanted biomaterials. Starting with basic cell biology and the immune system, it progresses through protein adsorption, the inflammatory response, and fibrous encapsulation, providing a foundational understanding for beginners.
This learning path introduces the classification of biomaterials based on their origin (natural vs. synthetic) and application (biodegradable vs. permanent). It covers the four main material classes—metals, ceramics, polymers, and composites—and provides foundational knowledge in materials science and biology needed to understand their use in medical devices.
This learning path introduces the fundamental concepts of biomaterials, including their definitions, classifications, historical evolution, and the basic host response. It is designed for high school students beginning materials science or biology, with a focus on systematic learning.
A systematic graduate-level path to develop research skills in composite materials, covering problem formulation, literature review, experimental design, characterization, data analysis, scientific communication, ethics, and reproducibility. Designed for students who have completed foundational and core composite materials courses.
This advanced graduate-level path guides learners through the principles and practices of designing composites inspired by biological materials. It covers key natural structural motifs (nacre-like and Bouligand structures), hierarchical design strategies, and the mechanical principles that make these architectures high-performing. The path emphasizes the translation of biological concepts into engineering materials, including manufacturing considerations and characterization techniques.
This learning path guides graduate students and researchers through the analysis of 3D textile composites, covering preform architectures, manufacturing processes, and property evaluation. It emphasizes through-thickness properties and impact resistance, building from fundamentals of composite materials and textile structures to advanced characterization techniques.
This learning path provides a comprehensive understanding of functionally graded composites (FGMs), covering their design principles, thermal and mechanical property analysis, fabrication methods, and applications. It guides learners from fundamental mechanics of materials through advanced modeling techniques, tailored for graduate students and researchers.
This advanced learning path equips graduate students and researchers with a comprehensive understanding of self-healing mechanisms in composite materials. It covers the fundamental polymer chemistry required, the major extrinsic and intrinsic healing approaches (microcapsules, vascular networks, reversible chemistry), and the critical aspect of recovery of mechanical properties. The path emphasizes the scientific principles and practical considerations for designing effective self-healing composites.