PIPages
Labs

Pawel K. Mazur

University of Texas MD Anderson Cancer Center, TX·Genetics

Lung cancer causes more cancer deaths than any other cancer worldwide. For several of its forms, including small cell lung cancer and lung squamous cell carcinoma, there are still no targeted drugs.

Fields

Genetics

Pharmacology

Biochemistry

Topics

lung cancer

lung adenocarcinoma

lung squamous cell carcinoma

Grants
3 known grants, through Jun 2028

What they work on

  1. Dissect how the enzyme CARM1 methylates the tumor-promoting transcription factor NFIB and signals through the effector protein TRIM29 in small cell lung cancer, using knock-in mice that carry a non-methylatable NFIB.
  2. Test whether small-molecule CARM1 inhibitors slow small cell lung cancer, using a range of preclinical mouse models.
  3. Determine how raising or lowering the histone-modifying enzyme NSD2 affects KRAS G12C-driven lung adenocarcinoma initiation, progression, metastasis and tumor diversity, using a tunable NSD2 mouse model.
  4. Test a first-in-class NSD2 inhibitor, alone and in combination therapies, against KRAS G12C mouse tumors and patient-derived lung adenocarcinoma xenografts.
  5. Define NSD3's roles in lung squamous cell carcinoma initiation, maintenance and metastasis, using inducible dual-recombinase mice that switch NSD3 on or off at chosen tumor stages.
  6. Map the gene programs controlled by NSD3 through the H3K36me2 histone mark, and its effect on cell-to-cell diversity in tumors, using epigenomic and single-cell methods in mouse and human models.

More about the research

This research looks at epigenetic regulators as possible drug targets. These are enzymes that chemically tag proteins to control which genes are switched on. The lab's projects focus on methyltransferases, enzymes that attach small methyl groups to histones (the spool proteins that package DNA) or to transcription factors (proteins that turn genes on). Each project combines engineered mouse models of a specific lung cancer, molecular studies of how the enzyme works, and tests of drugs that block it.

Why it matters

Patients with small cell lung cancer and lung squamous cell carcinoma currently have no targeted therapies. Patients with lung adenocarcinoma still see limited gains from existing drugs. By testing CARM1, NSD2 and NSD3 as drug targets, including a first-in-class NSD2 inhibitor and CARM1 inhibitors in preclinical models, this work could support new treatments. Combination therapies that lower the dose of each drug may reduce side effects and slow drug resistance.

Known grants

From NIH and NSF research grants. Labs often have other funding we can't see.

Mechanisms of action and therapeutic targeting of the CARM1-NFIB axis in small cell lung cancer

NIH · Jul 2023 – Jun 2028

Therapeutic Targeting of NSD2 in Lung Adenocarcinoma

NIH · Jun 2023 – May 2028

Role of NSD3 in regulation of cancer pathogenesis

NIH · Apr 2023 – Mar 2028

Closest labs

Kwok Kin Wong

New York University, NY·Medicine & Clinical Research

Determine how co-mutations such as MYC, KMT2D, STK11 and PTEN change SCLC plasticity (cells' ability to switch identity) and transcriptional subtypes, using new mouse models built on TP53/RB1-mutant SCLC.

Ite Offringa

University of Southern California, CA·Medicine & Clinical Research

Generate a mouse monoclonal antibody that recognizes only isoaspartylated ELAVL4, a damaged protein form on small cell lung cancer cells, by immunizing with a synthetic peptide and optimizing binding speed and strength.

Wantong Yao

University of Texas MD Anderson Cancer Center, TX·Medicine & Clinical Research

Define the molecular pathways through which a newly identified stress-response regulator helps pancreatic ductal adenocarcinoma (PDAC) cells survive nutrient shortage, low oxygen and oxidative stress, and evade the immune system.

The school

University of Texas MD Anderson Cancer Center: 23 labs on PI Pages, $1.4B a year on research.

More about University of Texas MD Anderson Cancer Center

Reach out

A start for your email. Fill in the brackets.