Path Catalog
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Path Catalog
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共 7800 条 Path · 第 46 / 780 页
This advanced learning path guides genetic engineering students through the integration of core techniques, applications, regulation, and ethics. It emphasizes the synthesis of molecular biology methods with real-world applications and responsible innovation, preparing learners for careers in biotechnology.
This path equips learners with the conceptual tools to analyze ethical issues in genetic engineering. It covers foundational genetics and ethics, then progresses through specific applications, societal implications, and governance frameworks, culminating in advanced case studies and synthesis.
This learning path bridges genetic engineering and bioinformatics, guiding learners from foundational molecular biology and programming to advanced sequence analysis, structural modeling, and design tools. It emphasizes practical application for engineering DNA constructs, proteins, and genetic circuits.
This path systematically explores how biotechnology is applied to agriculture, covering genetic modification, breeding, food security, and environmental impacts. It progresses from core genetic and molecular concepts to advanced applications and societal considerations.
This advanced learning path explores how genetic engineering is applied in medicine, covering therapeutic interventions, diagnostics, drug development, and ethical considerations. It builds from molecular biology fundamentals through to clinical applications and regulatory frameworks.
This advanced graduate-level path equips students with the knowledge to design, engineer, and evaluate genetically modified T cells for cancer immunotherapy. It bridges fundamental immunology, genetic engineering tools, and clinical applications with a focus on CAR-T and emerging challenges.
This learning path provides a systematic, graduate-level journey into the design, synthesis, assembly, and application of synthetic chromosomes. It covers foundational molecular biology, cutting-edge DNA synthesis and assembly methods, computational design principles, and the practical challenges of engineering chromosomes in yeast and bacteria, culminating in current applications and future directions in synthetic biology.
This advanced graduate-level learning path equips learners with a deep understanding of gene drive technology, spanning its population genetics foundations, molecular mechanisms, applications in disease control and conservation, and the associated ethical, regulatory, and risk assessment frameworks. It is designed for genetic engineering and ecology students seeking systematic knowledge to engage in research, policy, or responsible application of gene drives.
A comprehensive graduate-level learning path covering the principles, engineering, and applications of cytosine and adenine base editors. It begins with foundational genome editing concepts and progresses through the molecular mechanisms, delivery methods, and translational applications, culminating in strategies for optimizing and applying base editors in research and therapeutic contexts.
A systematic graduate-level learning path covering the molecular mechanism of prime editing, guide RNA design, delivery strategies, and its applications and limitations in genetic engineering.