Preparing your Path…
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Path Catalog
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7801 Paths · page 294 / 781
This advanced learning path equips senior biomedical engineering students with the knowledge to analyze modern imaging modalities. It covers the physics and mathematics of image reconstruction, the principles and applications of contrast agents, and the techniques used in functional imaging, culminating in a comprehensive understanding of how these elements integrate in advanced imaging systems.
This learning path guides senior students through the systematic design of advanced biomaterials for medical use, covering hydrogels, nanomaterials, surface modification, and characterization. It builds from foundational materials science and biology through to advanced design and application, with a focus on practical implementation and critical evaluation.
This learning path introduces junior biomedical engineering students to the core concepts and tools of bioinformatics, focusing on sequence analysis, genomics, proteomics, and biological databases. It begins with foundational biology and programming, then progresses through sequence alignment, database usage, and genomic analysis, culminating in proteomics and practical applications. The path emphasizes hands-on learning with standard bioinformatics tools.
A structured learning path for junior biomedical engineering students to gain hands-on laboratory skills in biosignal acquisition, device testing, data analysis, and reporting. The path covers foundational concepts, practical techniques, and professional practices essential for a career in biomedical engineering.
This advanced learning path guides junior university students through the foundational biology and biomaterials science required for tissue engineering, covering scaffolds, stem cells, growth factors, and bioreactors. It builds from cell and molecular basics to the design and application of tissue-engineered constructs, culminating in current challenges and future directions.
This learning path introduces junior biomedical engineering students to the fundamentals of biomedical optics, covering light-tissue interactions and core optical imaging techniques. It progresses from basic physics and biology prerequisites through the principles of microscopy, endoscopy, and optical coherence tomography, emphasizing their clinical applications.
This learning path introduces the fundamental physics, signal processing, and engineering principles behind major medical imaging modalities: X-ray, CT, MRI, ultrasound, and nuclear imaging. It is designed for junior university students in biomedical engineering, providing a systematic progression from basic imaging physics to modality-specific concepts.
This learning path guides junior biomedical engineering students through the essential concepts of signals and systems, leading to a comprehensive understanding of biomedical signal processing. It covers foundational mathematics, core signal processing techniques, and their application to ECG, EEG, and EMG signals, including filtering and frequency analysis.
A systematic learning path for junior university students in biomedical engineering to apply mechanics to biological systems. It builds from fundamental mechanics and biology through tissue-level mechanics to joint-level applications, with an emphasis on bone, muscle, cartilage, and joint mechanics.
This learning path introduces the fundamental principles of biomaterials used in biomedical applications. It covers the four main classes of biomaterials—metals, ceramics, polymers, and composites—along with the critical concept of biocompatibility and the underlying materials science and biological principles. Designed for junior university students, the path progresses from foundational concepts to specific material classes and their applications.