Cancer Page 603

More in Cancer

  1. Triple-Negative Breast Cancer: pCR and Prognosis

    Learn how a tumor’s response to initial treatment helps determine the long-term prognosis for patients with triple-negative breast cancer.

    By Elizabeth C. Owens
  2. What Is 2-HG and How Does It Cause Cancer?

    Explore how gene mutations cause a common metabolite, 2-HG, to accumulate and promote cancer by altering a cell’s epigenetic code and halting its development.

    By Fiona Richardson
  3. What Are RNF2 Compounds and How Do They Fight Cancer?

    Learn how the RNF2 protein regulates gene activity. In some cancers, its overproduction silences protective genes, a process new compounds aim to reverse.

    By Fiona Richardson
  4. Tks5: The Scaffold Protein Behind Cancer’s Spread

    Learn how the Tks5 scaffold protein acts as a molecular platform, assembling the components that allow cells to become invasive and drive disease progression.

    By Fiona Richardson
  5. Radioactive Iodine Treatment Success Rate for Thyroid Cancer

    This clinical overview of radioactive iodine treatment explains how efficacy is determined and the patient-specific variables that contribute to a positive prognosis.

    By Anna Mayer
  6. APL Leukemia Relapse After 5 Years: Causes and Outlook

    An uncommon event, a late APL relapse has a distinct biological basis that often contributes to a favorable outlook with modern targeted therapies.

    By Michelle Robertson
  7. The Myt1 Protein: Role in Cell Division and Cancer

    Explore the Myt1 protein, a fundamental regulator of cell division. Understand how its role in maintaining genetic stability also makes it a target for cancer therapy.

    By Kendra Keller
  8. KIT Exon 11 Mutation: Significance, Diagnosis & Treatment

    A specific genetic alteration, the KIT exon 11 mutation, is a key biomarker that directly influences treatment pathways and outcomes for certain cancers.

    By Michelle Robertson
  9. Glioblastoma Growth Rate: Factors and Progression

    Explore the biological drivers of glioblastoma progression, from its unique infiltrative nature to the key molecular markers that determine its course.

    By Eric Ali
  10. The p53 DNA Binding Domain and Its Role in Cancer

    The p53 protein’s DNA binding domain is central to tumor suppression. Its structural integrity directly governs its ability to regulate cell fate.

    By Fiona Richardson
  11. CD19 CAR-T Cell Therapy: What It Is & How It Works

    Explore the fundamentals of CD19 CAR-T cell therapy, a targeted immunotherapy that re-engineers a patient’s own immune cells to fight B-cell malignancies.

    By Angela Sorensen
  12. What Is EGFR 131 Targeted Cancer Therapy?

    Explore how targeted radiotherapy uses a guiding molecule to deliver a radioactive payload, providing a precise treatment for cancers driven by the EGFR protein.

    By Esther Leroux
  13. IDH1 R132H Mutation: Cancer Driver and Therapeutic Target

    Learn how the IDH1 R132H mutation alters enzyme function to drive cancer, creating a specific vulnerability that can be addressed by targeted therapies.

    By Edward Jarvis
  14. ALK Fusion: Cancers, Detection, and Targeted Therapy

    Learn how identifying an ALK gene fusion provides a clear path for treatment, guiding the use of targeted therapies to manage specific types of cancer.

    By Nada Farah