Biomathematics

Biomathematical Modeling of Cancer and Beyond

Multi-scale tumor, immune, and therapy models built from ODEs, PDEs, and agent-based simulations.

16publications
2lab members, current and past
4collaborators and frequent co-authors
2019–2026years of papers
Biomathematical Modeling of Cancer and Beyond

About the project

What this project is about

Developing bio-mathematical models for cancer spread and treatment, and for additional diseases, using ODEs, PDEs, and simulations.

This project develops mechanistic models of disease progression with a current emphasis on cancer growth, treatment scheduling, and treatment-induced senescence. The lab combines continuum models, spatial PDE systems, and agent-based simulations to reason across scales, from cellular interactions to tumor-level response. The goal is not only to fit outcomes, but to expose biological mechanisms, compare treatment schedules, and evaluate hypotheses that are difficult to test experimentally.

Approach and outcomes

The methods the project relies on and what it has produced so far.

Methods

  • Nonlinear ODE and PDE systems
  • Spatial tumor-growth modeling
  • Agent-based simulation
  • Numerical analysis
  • Treatment scheduling
  • Mechanistic parameter fitting

Key outcomes

  • Therapy-combination models for lung and metastatic prostate cancer
  • Bridges between PDE and agent-based representations of tumor geometry
  • Mechanistic tools for evaluating senolytic and immunotherapy strategies

Publications

Every paper from this project, newest first. Lab members are in bold; each title opens the paper's own page with the abstract, a plain-language summary and, for most papers, the full text.

16 papers

2026 3 papers

2025 3 papers

2024 1 paper

  • Predicting lung cancer's metastats' locations using bioclinical model

    Teddy Lazebnik, Svetlana Bunimovich-Mendrazitsky

    Frontiers in Medicine · 2024Full text on the site

    Metastasis, the spread of cancer to other parts of the body, strongly affects lung cancer treatment outcomes, yet conventional imaging struggles to detect small metastases. We developed a bioclinical model that uses three-dimensional CT scans and a…

2023 3 papers

2022 2 papers

2021 1 paper

2020 2 papers

2019 1 paper

  • Treatment of Bladder Cancer Using BCG Immunotherapy: PDE Modeling

    Teddy Lazebnik, Shlomo Yanetz, Svetlana Bunimovich-Mendrazitsky, Niva Aaroni

    Functional Differential Equations · 2019Full text on the site

    BCG immunotherapy is an established treatment for superficial bladder cancer. We developed a first mathematical model that uses partial differential equations to describe how the tumor and the immune system interact in the bladder during BCG therapy, taking…

The team

The lab members who work or worked on this project, with their part in it, and the researchers we work with. See the whole lab on the team page.

Current members 1

Prof. Teddy Lazebnik

Prof. Teddy Lazebnik

Since Oct 2023

16 papers in this project

Past members 1

Eden Aloni

Eden Aloni

BSc (alumni) · Dec 2024 – Jun 2025

Mathematical modeling of the links between psychological stress and cancer development

Collaborators 1

Avner Friedman

Avner Friedman

Collaborator

5 papers in this project

Frequent co-authors

Researchers outside the lab who co-wrote two or more of the papers above.

Svetlana Bunimovich-Mendrazitsky 7 papersNiva Aaroni 2 papersShlomo Yanetz 2 papers

Videos

Short explainers of the research in this project.

Systemic Sclerosis in Silico: Why Spaced Shots Beat a Daily Pill (in Our Model)

In a model of skin scarring in systemic sclerosis, small TGF-beta-blocking shots every three weeks beat a daily cell-killing pill.

Based on: Mathematical Modeling of Systemic Sclerosis and Its Treatment

Interested in this project?

We welcome collaborations, data partnerships and students who want to work on biomathematics problems with us.