Biology research
Explore six biology fields, original paper explainers, scientific methods, and Stanford researchers.
Search articles, biological fields, method guides, and learning resources across the whole website.
31 pages
Explore six biology fields, original paper explainers, scientific methods, and Stanford researchers.
Six connected perspectives on living systems, spanning molecular mechanisms, development, and disease.
How cells organize, communicate and adapt within living tissues.
Connecting DNA variation, gene regulation and biological function.
Following the cells, signals and developing circuits of the nervous system.
How protective responses develop, recognize threats and remain controlled.
Understanding abnormal growth, tissue interactions and treatment response.
Studying how tissues renew, specialize and recover after damage.
Search and filter Stanford-affiliated biology papers by topic and year.
A short protein motif recruits a natural shedding mechanism to regulate CAR signaling and preserve cell function in preclinical studies.
A Stanford team used genetic screens to equip cancer-killing cells with receptors that follow metabolic signals into tumors.
SDR-seq pairs targeted genomic sequencing with RNA measurements in the same cells, helping connect precise variants to cellular behavior.
Targeted mRNA nanoparticles and PET imaging connect immune-cell engineering with a way to measure delivery in living mice.
A programmable CRISPR transport system moves existing RNA inside cells, allowing researchers to test how local protein production shapes neuronal structure.
Genetic mapping, single-cell RNA sequencing and cell experiments connect an X-linked deletion to a pigment-cell signaling switch.
Four connected human stem-cell models let researchers watch sensory signals travel from peripheral neurons toward the cortex—and ask how pain-associated mutations change the whole circuit.
A Stanford study tests thousands of noncoding variants, then follows one colorectal-cancer signal from a single DNA letter to a cellular signaling pathway.
A Stanford phase 1 trial investigated GD2-targeting immune cells in diffuse midline gliomas, with both tumor responses and substantial safety challenges.
Patient-derived organoids and assembloids test an antisense strategy that reduces a disease-associated calcium-channel exon without removing the channel itself.
How a Stanford–Biohub collaboration used RNA sequencing to map 100,605 cells across 20 mouse organs and tissues.
Human forebrain spheroids made a hidden developmental process visible: neurons moving into a new region and joining its circuits.
Five in-depth guides to experimental techniques in biology.
How single-cell rna sequencing is used to investigate biology, including experimental design and limitations.
How crispr perturbation is used to investigate biology, including experimental design and limitations.
How fluorescence microscopy is used to investigate biology, including experimental design and limitations.
How organoids and assembloids is used to investigate biology, including experimental design and limitations.
How engineered cell therapy is used to investigate biology, including experimental design and limitations.
Profiles of Stanford researchers Michelle Monje, Sylvia Plevritis, Mark Skylar-Scott, and Steven Artandi.
Definitions and article links for the biological terms used across this research library.
How to interpret models, experiments, controls, biological replicates, and outcomes in research papers.
Primary papers, field references, photo credits, and editorial provenance for this research website.