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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7817 Paths
7817 Paths · page 588 / 782
This learning path introduces the structure and composition of the human genome, covering its size, the role of protein-coding genes, non-coding DNA, repetitive elements, and single nucleotide polymorphisms (SNPs). It builds from basic genetics concepts to provide a foundational understanding for pre-med and biology students.
This learning path guides students with basic biology knowledge through the structure and organization of genomes across bacteria, archaea, viruses, and organelles. It emphasizes comparing and contrasting these genomes, including chromosomal and extrachromosomal elements, to build a systematic understanding of genomic diversity.
This learning path introduces high school biology students to the structure and organization of genomes in prokaryotes and eukaryotes. It covers DNA packaging, chromosomes, chromatin, repetitive sequences, transposons, and gene density, building from basic genetics to a comparative understanding.
This learning path introduces students to the fundamental concepts of genomics, starting from basic genetics and progressing to the structure of genomes, including genes, exons, introns, and genome size. It also explores the C-value paradox, providing a systematic understanding of the field's scope and history.
This learning path equips aspiring geneticists with advanced research skills, covering study design, model organisms, data analysis, reproducibility, statistical rigor, ethics, and scientific communication. It builds on a solid genetics foundation, guiding learners from experimental planning through to publishing reproducible research.
This learning path provides an advanced, graduate-level exploration of the genetic contributions to psychiatric disorders such as autism and schizophrenia. It covers foundational human genetics, key variant types (CNVs, de novo mutations, polygenic contributions), and model systems used in research, emphasizing the interpretation of complex genetic data.
This advanced graduate-level path guides biomedical and pharmaceutical students through the science of epigenetic drug development. Starting with fundamental epigenetic mechanisms, it progresses to the rational design and application of HDAC, DNMT, and HAT inhibitors in cancer therapy, including combination strategies.
This advanced graduate-level path introduces the principles and applications of ancient DNA (aDNA) research. Starting with DNA degradation and contamination control, it covers extraction, sequencing, and authenticating ancient genomes, then moves to population genetics analyses and case studies in Neanderthal genomics and human migration.
This learning path guides synthetic biology students through the design of genetic circuits for novel functions. It covers foundational molecular genetics, core circuit modules (logic gates, oscillators, biosensors), and advanced topics like metabolic engineering and minimal genomes, with emphasis on design principles and practical applications.
This path guides biomedical graduate students from fundamental genetics through the design, generation, and application of transgenic mouse models. It covers classical knockout and knock-in strategies, conditional systems like Cre-lox, CRISPR-based genome editing in mice, and essential phenotyping approaches, emphasizing practical career skills for biomedical research.