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Dermatology

Principles of Cutaneous Tumor Biology

Built from Dermatology, 5th Edition

The first 25 slides of Principles of Cutaneous Tumor Biology
The first 25 slides, exactly as they appear. The full deck has 94 content slides.

What’s inside

6 sections · 94 slides

  1. 01

    Overview

    • Why skin cancer research matters
    • Three levels of cancer biology
    • The evolution of cancer hallmarks
    • History of conceptual advances in cancer biology

    4 slides

  2. 02

    The Genome Perspective

    How DNA damage builds up and gets selected during cancer development

    • The DNA sequencing revolution
    • Landmark genome projects
    • Structural genomic alterations
    • Types of somatic mutations
    • Mutations classified by size
    • Structural variation and karyotype changes
    • Oncogenes: mutations that switch signals on
    • Tumor suppressor genes: losing the brakes
    • Oncogenes versus tumor suppressor genes
    • Loss of heterozygosity in tumor suppressor genes
    • The Darwinian model of gradual evolution
    • Reading a tumor's mutational history
    • Driver mutations versus passenger mutations
    • Hotspot mutations in known cancer genes
    • Genomic aberrations seen in cancer
    • Chromothripsis: genome shattering
    • Chromoplexy and kataegis
    • Gradual versus punctuated genome evolution
    • Gradual versus punctuated cancer genome evolution
    • Cancer evolution begins earlier than expected
    • Evolution differs by melanoma subtype

    21 slides

  3. 03

    The Cell Perspective

    How driver mutations rewire a single cell's behavior

    • Functional capabilities acquired by cancer cells
    • Hallmark capabilities of cancer cells
    • Sustained proliferative signaling
    • Ras mutations lock the growth switch on
    • BRAF inhibitors and the MAPK pathway
    • Deregulated metabolism: the Warburg effect
    • Oncogenic signaling drives metabolic rewiring
    • Cell cycle control by p53 and Rb
    • Cell cycle checkpoints and error-prone replication
    • p53: guardian of the genome
    • CDKN2A and Rb: losing the G1/S brake
    • Resisting cell death: senescence
    • Apoptosis: programmed cell death
    • Apoptotic signaling pathways
    • Newer forms of programmed cell death
    • Genome instability and aneuploidy
    • Aneuploidy and innate immune sensing

    17 slides

  4. 04

    The Tissue Perspective

    How mutant cells reorganize the surrounding tissue into a tumor ecosystem

    • Disrupted tissue architecture in cancer
    • A dysregulated communication network
    • The tumor as a dynamic ecosystem
    • Skin stem cells and tissue renewal
    • Injury triggers a plastic, adaptable state
    • UV injury, tissue repair, and cancer development
    • Hedgehog and Notch guide tissue repair
    • Avoiding immune destruction
    • Immune checkpoint blockade breakthrough
    • How the immune system spots cancer cells
    • Self-antigens and cancer testis antigens
    • How tumors evade immune attack
    • Immune recognition and the metastatic process
    • Cancer-promoting inflammation
    • A double-edged inflammatory pathway
    • Chromosomal instability drives a vicious cycle
    • Inducing new blood vessels (angiogenesis)
    • Abnormal tumor blood vessels
    • Invasion and metastasis: the "seed and soil" idea
    • Epithelial-to-mesenchymal transition (EMT)
    • The metastatic cascade
    • Metastasis-initiating cells
    • Genomic changes in metastatic disease

    23 slides

  5. 05

    Pathogenesis of Keratinocyte Carcinomas

    How basal cell and squamous cell carcinoma develop at the molecular level

    • Basal cell versus squamous cell carcinoma
    • The highest mutation burden of any cancer
    • Discovering BCC's molecular cause
    • The Hedgehog signaling pathway
    • The Hedgehog signaling pathway
    • Targeting Hedgehog signaling in BCC
    • BCC's fuller driver mutation landscape
    • Molecular pathogenesis and evolution of BCC
    • Modeling cSCC in mice
    • Discovering the Notch pathway
    • The Notch signaling pathway
    • Notch: cancer-promoting in some tissues, protective in skin
    • cSCC's driver mutation landscape
    • Molecular pathogenesis and evolution of cSCC
    • The evolutionary trajectory of cSCC

    15 slides

  6. 06

    Current Developments and Future Perspectives

    New technologies shaping the next stage of cancer research and care

    • Mapping cancer ecosystems in space and time
    • Toward a cancer-specific tissue atlas
    • The microbiome and cancer
    • Bringing molecular profiling into the clinic
    • Key takeaways
    • References
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    • Dermatology, 5th Edition (2-Volume Set)

    14 slides