Postdoctoral Researcher · TU Munich

I study brain
diseases...

∂u/∂t = ∇(D∇u) + ρu(1 − u) FISHER–KPP EQUATION
MRI · SIMULATED · t = 0 d
tumor volume · 0.0%
click inside the brain to seed a tumor

About

Portrait of Ivan Ezhov

I am a postdoctoral researcher in the group of Prof. Daniel Rueckert at the Chair for AI in Healthcare and Medicine, Technical University of Munich. My work combines biophysical modeling, inverse problems, and machine learning, ranging from patient-specific simulations of tumor growth to real-time optical imaging of brain tissue. The goal of my research is to personalize radiotherapy planning and neurosurgery. I received my PhD (summa cum laude) from TUM, supervised by Prof. Bjoern Menze. Before that, I studied physics, with an MSc from TUM and a BSc from St. Petersburg Polytechnic University.

Publications

For an always up-to-date list, please visit my Google Scholar page.
* denotes equal contribution

2026

2025

2024

2023

2022

2021

2020

2019

Teaching & Mentoring

Teaching

  • TU Munich, since 2022 AI in Medicine I & II Lectured and coordinated the course with practical projects focusing on medical AI for cohorts of 150+ graduate students.
  • TU Munich, 2018–2020 Informatics I for Engineering Coordinated tutorial sessions for 200+ undergraduate students.

Student supervision

4 PhD (co-supervised) · 15 MSc · 9 BSc

Professional service

  • Journal reviewer IEEE Transactions on Medical Imaging (TMI), Medical Image Analysis (MedIA)
  • Conference reviewer MICCAI, MIDL, WACV
  • Grant reviewer Croucher Foundation

Outreach

  • Since 2026 Responsible and Applied AI Center, Kenya Designed the structure and curriculum of the center.
  • Since 2022 Computer classes in Nepal and Kenya Built computer classrooms in remote schools.

Awards

News

Contact

ivan.ezhov@tum.de
Chair for AI in Healthcare and Medicine
Technical University of Munich (TUM) and TUM University Hospital
Munich, Germany

HSI · SIMULATED · 450–950 nm · 51 BANDS
TRUE COLOR · RGB FROM CUBE
StO₂ 40%100%

…and read tissue
with light.

Every molecule has its own spectral fingerprint: how strongly it absorbs light at each wavelength. A hyperspectral camera records a full spectrum for every pixel, and I develop methods that unmix those spectra into molecular composition (oxygenated and deoxygenated hemoglobin, water, lipids, cytochrome-c-oxidase) in real time, to help show surgeons where a tumor ends.

Unmixed concentrations
HbO₂
HHb
H₂O
−ln R(λ) ≈ Σi ci εi(λ) · L + G MODIFIED BEER–LAMBERT LAW