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Guided learning journeys that build knowledge step by step.
category · Learning · slug · learning · 7817 Paths
7817 Paths · page 593 / 782
This path explores inheritance patterns that deviate from simple Mendelian ratios, including incomplete dominance, codominance, multiple alleles, pleiotropy, epistasis, and polygenic inheritance. It starts with a review of basic Mendelian genetics and builds understanding of each exception, emphasizing the molecular and genetic mechanisms behind them.
This learning path guides high school biology students through the fundamental principles of Mendelian inheritance, focusing on the laws of segregation and independent assortment. Starting from basic genetics concepts, it covers monohybrid and dihybrid crosses, dominant and recessive traits, test crosses, and Mendel's laws, building a solid foundation for understanding inheritance patterns.
A beginner-friendly path introducing the core concepts of genetics, from Mendel's experiments to modern understanding of genes, alleles, genotypes, and phenotypes. Designed for high school students with basic biology background.
This learning path equips aspiring researchers with essential skills for conducting independent research in molecular biology. It covers scientific reasoning, hypothesis testing, experimental design, literature review, data analysis, reproducibility, scientific writing, and ethics, building from a solid molecular biology background.
This advanced graduate-level path explores how viruses replicate and express their genomes, covering genome types, entry, replication strategies, transcription, translation, assembly, and immune evasion. It builds on foundational molecular biology and virology concepts, emphasizing the diversity of viral strategies and their mechanistic basis.
This advanced graduate-level learning path explores the emerging field of RNA modifications, focusing on m6A, m5C, and pseudouridine. Learners will understand the writers, erasers, and readers that dynamically regulate these modifications and how they influence RNA metabolism and cellular function. The path begins with foundational RNA biology and progresses to current research frontiers, preparing learners to engage with primary literature and experimental design.
This learning path guides RNA biology students through the foundational concepts of gene regulation and non-coding RNAs, then delves into the classification and mechanisms of long non-coding RNAs. It explores specific roles in dosage compensation and imprinting, and concludes with the implications of lncRNA dysregulation in human diseases.
This advanced learning path guides graduate students in genomics and cell biology through the principles and practices of single-cell RNA-sequencing (scRNA-seq). Starting from fundamental RNA-seq concepts, it covers experimental methods including cell isolation, microfluidics, and library preparation, followed by computational analysis such as data normalization, clustering, and trajectory inference. The path emphasizes the integration of experimental design and bioinformatics to answer biological questions.
This learning path guides bioengineering students through the foundational concepts of synthetic biology, from core molecular biology to advanced engineering principles. Learners will explore standardization, genetic circuit design, biosensors, and metabolic engineering, culminating in a comprehensive understanding of how biological systems can be engineered.
This path equips epigenetics researchers with the skills to study protein-DNA interactions in vivo, covering chromatin biology, crosslinking, sonication, immunoprecipitation, and downstream analysis via ChIP-qPCR and ChIP-seq. It emphasizes hands-on laboratory techniques and data interpretation for career advancement.