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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7817 Paths
7817 Paths · page 591 / 782
This advanced graduate-level path equips biomedical students with a systematic understanding of how genetic alterations drive cancer. It covers the cell cycle, key gene classes (proto-oncogenes, tumor suppressors), driver mutations, and classic examples like RB1 and TP53, culminating in hereditary cancer syndromes.
This graduate-level path explores the genetic mechanisms that orchestrate animal development, focusing on model organisms and the hierarchical segmentation of Drosophila. Learners will progress from foundational genetics to advanced concepts in developmental genetics, including morphogen gradients, gap genes, pair-rule genes, and segment polarity genes, with cross-species comparisons.
This learning path guides clinical and genetics students through the principles and practice of karyotyping, from basic chromosome biology to advanced techniques such as FISH and spectral karyotyping. It covers the identification of aneuploidies and structural abnormalities, emphasizing interpretation and clinical application.
This advanced learning path equips pre-med and genetics students with the skills to analyze complex human pedigrees, covering Mendelian inheritance, X-linked traits, mitochondrial inheritance, penetrance, variable expressivity, and risk calculation. Learners will progress from foundational concepts to sophisticated analysis, culminating in practical application.
This advanced graduate-level path systematically explores the genetic and epigenetic mechanisms of genomic imprinting, covering fundamental epigenetic concepts, imprinted gene regulation, imprinting control centers, and clinical syndromes such as Prader-Willi and Angelman. Learners will progress from basic epigenetic principles to complex regulatory mechanisms and their pathological consequences.
This advanced graduate-level path systematically explores the mechanisms of epigenetic inheritance, from foundational gene regulation to DNA methylation, histone modifications, chromatin remodeling, and transgenerational inheritance. Learners will understand how gene expression can be stably altered without changes to the DNA sequence.
This advanced graduate-level path explores the molecular mechanisms of homologous recombination during meiosis, focusing on the double-strand break repair model, Holliday junctions, heteroduplex DNA, gene conversion, and crossover interference. It builds from basic meiosis and DNA structure to detailed molecular models, emphasizing the genetic consequences of recombination.
This learning path provides a systematic introduction to population genetics, focusing on the Hardy-Weinberg principle and the forces that alter allele frequencies. It covers the mathematical foundations, assumptions, statistical testing, and real-world applications, equipping learners with the tools to analyze genetic variation in populations.
A comprehensive learning path for genetics and breeding students to understand the genetic basis of continuously varying traits. It covers the fundamental concepts of quantitative genetics, including polygenic inheritance, genetic variance decomposition, heritability estimation, and QTL mapping, with a foundation in basic statistics.
This learning path guides genetics students through the central dogma of molecular biology, focusing on the flow of genetic information from DNA to RNA to protein, and the mechanisms that regulate this flow. It covers transcription, translation, operons, transcription factors, and epigenetic regulation, building from basic molecular biology foundations to intermediate-level concepts.