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Cancer Biology & Cancer Neuroscience

Cancer as a Neural Circuit Disease

An independent primer on cancer evolution, Hallmarks of Cancer, the tumor microenvironment, pediatric glioma, neuron-to-cancer signaling, and emerging therapeutic strategies.

3 modules · 9 lessons · 1h · mastery threshold 80

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About this course

Background for Research in the Michelle Monje Lab This independent educational primer introduces scientific concepts relevant to research themes in the Michelle Monje Lab at Stanford University. It is not an official Stanford University or Michelle Monje Lab course and does not imply endorsement or affiliation. For ambitious high-school students and early undergraduates. Video-first lessons with concise written companions. Approximately one hour with assessments; mastery-only certificate eligibility at 80%, without a capstone or Research Defense.

Syllabus

Module 1

Cancer Biology Foundations

Evolution, hallmark capabilities, and the tumor ecosystem.

Module 2

Brain Cancer and Experimental Methods

Developmental states, diffuse midline glioma, and causal evidence.

Module 3

Cancer Neuroscience

Activity-dependent growth, electrical integration, and careful translation.

Concepts you'll master

  • Activity-dependent glioma growth and NLGN3

    Interpret activity-dependent growth and conditional NLGN3 dependence.

  • Cancer as clonal evolution

    Explain tumor change through clonal variation and selection.

  • Cancer-neuroscience translation and treatment-related neural effects

    Evaluate preclinical findings, retrospective associations, and neural treatment effects.

  • Correlation, perturbation, and causal mechanism

    Combine controlled perturbations and recordings to strengthen causal claims.

  • Diffuse midline glioma and developmental cell-state biology

    Relate diffuse midline glioma to developmental cell states.

  • Enabling/emerging characteristics in modern Hallmarks taxonomy

    Keep enabling characteristics and proposed new dimensions distinct from core capabilities.

  • Experimental methods for cancer neuroscience

    Match experimental methods to structure, activity, and cell-state questions.

  • Functional neuron-to-glioma synapses

    Separate functional synaptic evidence from cell identity.

  • Glutamatergic, GABAergic, cholinergic, and electrical tumor signaling

    Distinguish transmitter mechanisms and tumor-specific electrical responses.

  • H3K27 alteration, anatomy, and treatment difficulty

    Distinguish H3K27-altered midline tumors and the pontine DIPG clinical label.

  • Hallmark capabilities governing proliferation and survival

    Distinguish hallmark capabilities from individual genes.

  • Immune, stromal, vascular, neural, and extracellular components

    Distinguish general carcinoma stroma from the brain tumor microenvironment.

  • Invasion, metabolism, immune evasion, and plasticity

    Relate invasion, metabolic change, immune escape, and plasticity to cancer behavior.

  • Mechanism-guided therapy and GD2 CAR T

    Distinguish early GD2 CAR T activity from established clinical efficacy.

  • NLGN3-CSPG4/mechanotransduction and developmental-state hijacking

    Explain NLGN3-CSPG4 mechanotransduction within tested models.

  • Oncogenes, tumor suppressors, and tumor heterogeneity

    Distinguish oncogenes, tumor suppressors, and heterogeneous cell states.

  • Replicative immortality and tumor vascularization

    Explain telomere maintenance and inducing or accessing blood vessels.

  • Tumor microenvironment as an ecosystem

    Describe a tumor as interacting malignant and nonmalignant populations.