Path Category
Loading Path Category from the AllPath API…
ALLPATHFoundationALLPATHFoundationPath Category
Loading Path Category from the AllPath API…
Path Category
Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7817 Paths
7817 Paths · page 583 / 782
This learning path guides high school biology students through the foundational concepts of species and speciation. Starting with basic evolutionary principles, it explores different species concepts, mechanisms of reproductive isolation, and the processes of allopatric and sympatric speciation, culminating in a comprehensive understanding of how new species arise.
This learning path guides students from foundational evolutionary concepts to a mechanistic understanding of natural selection. It covers variation, heritability, fitness, the three modes of selection, sexual selection, and how adaptations arise, with practice and assessment nodes to reinforce learning.
This learning path introduces high school biology students to the major lines of evidence supporting evolutionary theory. It starts with foundational concepts of evolution and natural selection, then explores each category of evidence, including the fossil record, comparative anatomy, biogeography, molecular biology, and direct observation. The path emphasizes how these independent lines of evidence converge to support common ancestry and descent with modification.
This path traces the development of evolutionary theories from ancient philosophical ideas to the modern evolutionary synthesis. It examines the contributions of key figures such as Lamarck and Darwin, the evidence that shaped their thinking, and the integration of genetics that formed the foundation of modern biology.
This learning path introduces students to the fundamental concepts and history of evolutionary biology. Beginning with basic biology and the historical context of Darwin and Wallace, it covers natural selection, adaptation, and descent with modification. The path emphasizes the scientific evidence and reasoning behind evolution, providing a solid foundation for further study.
This path equips aspiring genomics researchers with essential skills for independent research, covering study design, data management, computational reproducibility, statistical rigor, ethical considerations, and scientific communication. It builds on a solid genomics background and progresses from foundational concepts to advanced application.
This learning path guides functional genomics researchers from foundational CRISPR-Cas9 biology to designing, executing, and analyzing high-throughput genetic screens. It covers sgRNA library design, selection strategies, hit identification, and validation, with practical considerations for genome-wide studies.
This advanced graduate-level path explores how non-coding RNAs, particularly lncRNAs and enhancer RNAs, function in epigenetic regulation across the genome. It covers the molecular mechanisms, experimental approaches including RNA-seq and ChIP-seq, and analytical methods for integrating multi-omics data. The path emphasizes hands-on analysis and critical evaluation of current research.
This advanced learning path guides epigenomics students from foundational chromatin biology through the principles of chromosome conformation capture and the interpretation of 3D genome organization. It covers key architectural features like TADs, CTCF, and loops, culminating in an understanding of how these structures influence gene regulation and nuclear processes.
This path introduces the principles and methods for spatially resolving gene expression within intact tissue sections. It covers foundational molecular biology, key spatial transcriptomics technologies such as MERFISH and in situ sequencing, and the computational approaches for analyzing tissue architecture. The path progresses from basic concepts to advanced applications, emphasizing the conceptual basis and practical considerations of each method.