Preparing your Path…
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Path Catalog
Data is pulled live from GET /api/v1/paths, and only Paths with a published version are listed.
7801 Paths · page 295 / 781
This learning path provides a systematic introduction to biosensors, covering fundamental concepts, biological recognition elements, transduction mechanisms, and key applications. It emphasizes the interdisciplinary nature of biosensors, integrating biology, chemistry, and engineering principles.
A structured learning path for junior biomedical engineering students to understand the principles and practices of biomedical instrumentation. It covers essential electronics and physiology foundations, then progresses through biosignals, transducers, amplifiers, and signal conditioning, culminating in practical measurement systems.
This learning path provides a systematic introduction to the structure and function of the human body, focusing on the cardiovascular, respiratory, nervous, and musculoskeletal systems. It is designed for sophomore biomedical engineering students to build a solid foundation in anatomy and physiology, emphasizing the relationships between structure and function. The path progresses from basic concepts and terminology to detailed system-level understanding, with cross-system integration and clinical applications.
This learning path introduces high school students to the world of medical devices, covering basic concepts, types, and their roles in healthcare. It explains how devices are classified based on risk and provides examples across diagnostics, therapeutics, and patient monitoring.
This learning path introduces the fundamental chemistry concepts needed for biomedical engineering, starting with basic atomic structure and bonding, progressing through organic chemistry and biochemistry, and concluding with pH, buffers, and their physiological relevance. It is designed for high school students with no prior chemistry background.
A beginner-friendly learning path covering the fundamental biology needed for biomedical engineering. It starts with cell biology, then explores human anatomy and physiology, and finishes with genetics basics, providing a systematic foundation for further study.
This learning path provides pre-engineering students with the foundational mathematical tools essential for biomedical engineering. It covers algebra, calculus, differential equations, statistics, and linear algebra, with a focus on their applications to biological and medical systems.
This path introduces high school students to the scope, history, and core concepts of biomedical engineering. It covers the essential areas of medical devices, bioinstrumentation, biomaterials, and imaging, providing a foundation for further exploration.
This graduate-level learning path equips aerospace engineering students and researchers with systematic research skills. It covers problem formulation, literature review, experimental and simulation methods, data analysis, scientific writing, and research ethics, with a focus on aerospace applications.
This graduate-level path explores the fundamental astrodynamics, advanced propulsion technologies, and mission architectures required for deep space exploration. It covers the physics of orbital mechanics, the challenges of long-duration missions, and the conceptual design of interstellar and outer-planet missions, emphasizing the critical role of propulsion systems.