
Explore the intersection of precision medicine and real-world applications at scale, featuring insights from Tempus' Chief Scientific Officer on advancing healthcare through data-driven approaches.

Explore microbiome markers in Alzheimer's progression, focusing on genome analysis, sequencing techniques, and the microbiome's role in neuroinflammatory events and disease onset.

Explore clinical research in cancer genomics and its impact on treatment approaches, including personalized medicine, tumor profiling, and targeted therapies.

Explore heart disease, genetics, and patient advocacy through a compelling conversation between a renowned professor and his resilient patient, offering insights into precision medicine and medical mysteries.

Innovative AI methods for integrating pathology images and genomics data to enhance cancer grading accuracy, addressing modality challenges and improving performance when genomics data is missing.

Fall 2020 Prof. Manolis KellisComputational Biology: Genomes, Networks, Evolution, HealthMachine Learning in Genomics: Dissecting the circuitry of Human Disease

Comprehensive exploration of computational biology, covering genomics, networks, evolution, and health applications through advanced algorithms, data analysis, and cutting-edge research topics.

Comprehensive exploration of computational biology techniques, from dynamic programming to deep learning, applied to genomics, epigenomics, and systems biology. Covers cutting-edge topics like single-cell genomics and genome engineering.

Explore deep learning applications in genomics, from neural networks to single-cell analysis. Gain insights into regulatory genomics, epigenomics, and genetics through advanced computational techniques.

Explore genomic conflicts within cells, organisms, and between species. Learn about meiosis fairness, uniparental inheritance, and evolutionary strategies to resolve conflicts in sexual species.

Comprehensive exploration of genomics, covering DNA sequencing, genome assembly, gene editing, epigenomics, RNA-seq, chromatin organization, interaction networks, and genetic variation analysis.

Explore computational genomics, covering DNA sequencing technologies, genome assembly, BLAST algorithms, antibiotic resistance, and advanced k-mer analysis techniques.

Explore the human microbiome's impact on health, development, and immunity. Learn about metagenomics, predictive modeling, and future clinical applications in this fascinating lecture on our inner microbial ecosystem.

Explore the evolution of genetics, from Mendel's pea experiments to modern genomics, including McClintock's revolutionary "jumping gene" discovery and its impact on our understanding of heredity and evolution.

Explore genomic sequence evolution in adapting budding yeast populations, uncovering insights into evolutionary dynamics and genetic adaptation mechanisms.

Explore complex systems composed of defined building blocks, from Lego sets to genomes. Learn about common theoretical frameworks and data analysis tools for understanding these "component systems" across various fields.

Exploring a multidimensional view of biology beyond genomics, emphasizing history, context, environment, and narrative to reframe our understanding of life and its complexities.

Explore genomics, epigenetics, and DNA sequencing methods. Learn about genome editing, transcriptomics, and comparative genomics. Gain hands-on experience through tutorials and laboratory sessions.

Explore genetic variation patterns through mathematical models, examining inheritance, natural selection, and population dynamics to interpret DNA data and understand evolutionary mechanisms.

Explore a Nobel laureate's scientific journey, from childhood curiosity to groundbreaking discoveries in genetics, offering insights into the path of scientific excellence and innovation.

Explore UCLA's cutting-edge clinical exome sequencing, its challenges, and real-world applications in genetic diagnostics. Learn about life-changing cases and research findings in genomic medicine.