🎓 Discover PhD and Master's programmes at leading universities worldwide — Sign up free to save searches and get email alerts
THE

CBCT-guided Adaptive Radiotherapy and Biological Monitoring in Lung Cancer

✓ Fully Funded ⏰ Closing Soon 🎓 Biomedical Engineering 🎓 Medical Physics deep learning lung cancer clinical trials adaptive radiotherapy cbct imaging liquid biopsy radiation protocol tumor monitoring

Develop and validate AI-enhanced CBCT workflows for adaptive lung cancer radiotherapy. Integrate imaging and liquid biopsy data to personalize treatment and improve outcomes. Collaborate in a multidisciplinary team at a leading cancer institute.

AI-generated overview

🌍
Why This Research Matters

This research could transform lung cancer treatment by enabling real-time adaptive radiotherapy based on daily anatomical and biological tumor changes. Enhanced accuracy and biological monitoring may reduce toxicity, improve tumor control, and provide personalized therapy schedules, addressing critical challenges in cancer care globally.

Tumors Prediction Computed Tomography Artificial Intelligence Cancer Biology Cancer Biomarkers Cancer Diagnostics Machine Learning

Project Description

Project Overview

This project focuses on improving radiotherapy for non-small cell lung cancer by overcoming limitations of static treatment plans. It seeks to develop online adaptive radiotherapy workflows that adapt to daily anatomical and biological changes using cone-beam CT (CBCT) imaging enhanced with artificial intelligence. The goal is highly individualized treatments that enhance tumor control and patient safety.

What You Will Do

You will develop and clinically validate AI models to enhance CBCT image quality enabling reliable online treatment adaptations. The project includes designing in-silico studies, analyzing data from clinical trials testing a novel 'Primer Shot' radiation protocol, and training liquid biopsy-based hypoxia signatures to non-invasively monitor tumor oxygenation and response over time. Collaboration with medical physicists, oncologists, and AI researchers at NKI is a key part of your role.

Expected Outcomes

The research aims to establish a direct-to-LINAC workflow bypassing traditional CT planning, validate CBCT-based online adaptive radiotherapy clinically, provide new biological markers for treatment monitoring, and improve understanding of tumor reoxygenation schedules. The results could significantly improve accuracy, safety, and personalization of lung cancer radiotherapy.

Why This Matters

Current radiotherapy approaches do not account for patient anatomy changes or tumor biology during treatment, contributing to suboptimal outcomes. This project addresses these challenges by integrating state-of-the-art AI and biological monitoring, potentially setting new standards for adaptive therapies that better control tumors and minimize side effects, ultimately improving patient survival and quality of life globally.

Entry Requirements

Master’s degree in Technical Medicine, Medicine, Biomedical Sciences, or related field. Strong affinity with medical image analysis. Collaborative mindset across physics, biology, and clinical domains. Excellent English communication. Experience with clinical trial data analysis, bioinformatics, liquid biopsies, radiotherapy concepts, and programming (preferably Python) is a plus.

Eligibility

UK/Home
EU
International

Supervisor Profile

DZ
Dr. Zeno Gouw
The Netherlands Cancer Institute, Oncology
282 Citations
Google Scholar

Dr. Zeno Gouw is a researcher specializing in radiation oncology with a focus on adaptive radiotherapy and integration of AI in clinical workflows. At the Netherlands Cancer Institute, he leads projects combining medical physics, image processing, and biological monitoring to optimize treatments for lung cancer patients. His interdisciplinary approach advances precision medicine in radiotherapy.

Key Publications

2025 2434 citations
Automated target misalignment correction for cone beam computed tomography-based online adaptive radiotherapy of locally advanced lung cancer patients
Addresses the issue of target misalignment in CBCT guided radiotherapy for lung cancer to improve treatment precision.
2025 3720 citations
Accuracy, multi-center transferability, and usability of interactive deep-learning for head and neck gross tumor volume segmentation
Demonstrates the accuracy and transferability of deep-learning methods for tumor segmentation in head and neck cancer.
2025 2637 citations
Hypoxic tumor cells acquire a cellular quiescence phenotype that protects them against radiation-induced cell death
Reveals a protective quiescence phenotype in hypoxic tumor cells that impacts radiation therapy outcomes.
2025 3735 citations
Online CBCT-guided Adaptive Radiotherapy for prostate + pelvic lymph nodes, results on margin reduction
Shows margin reduction benefits from online CBCT-guided adaptive radiotherapy in prostate treatment.
2025 2985 citations
Feasibility of RTT-led CBCT-guided online adaptive radiotherapy for prostate cancer with pelvic lymph node regions
Evaluates feasibility of radiation therapists leading CBCT-guided adaptive radiotherapy improving treatment workflows.

Research Contributions

Developed methods for automated target misalignment correction in CBCT-based radiotherapy improving treatment accuracy.
Enhances precision of radiotherapy for lung cancer patients, potentially reducing treatment side effects.
Advanced deep learning techniques for tumor volume segmentation showed high accuracy and multi-center usability in head and neck cancer.
Supports adoption of AI-based tools for consistent and reliable tumor delineation in radiotherapy planning.
Identified a quiescent phenotype in hypoxic tumor cells that confers resistance to radiation-induced cell death.
Informs development of improved radiation strategies accounting for tumor hypoxia to overcome resistance.
Demonstrated margin reduction and workflow feasibility of CBCT-guided adaptive radiotherapy led by radiation therapists for prostate cancer.
May allow more precise treatments and efficient resource use within radiotherapy clinics.

Related Opportunities

PhD Positions in Multiscale Modeling and Scientific Machine Learning for Computational Biomedicine
Rowan University Dr. Guansheng Li 🎓 Applied Mathematics 🎓 Biomedical Engineering

Explore multiscale blood flow and cell mechanics through computational and machine learning models. Integrate experimental data with simulations to advance biomedical applications in blood diseases.

This research addresses critical challenges in understanding blood flow mechanics and disease pathology through integrated computational an…

300+ citations · h10
Multiscale modelling Smoothed dissipative particle dynamics scientific machine learning
PhD & Postdoc Positions in Power Systems Security and Intelligence at Toronto Metropolitan University
Toronto Metropolitan University Dr. Reza Arani 🎓 Biomedical Engineering 🎓 Computer Engineering

Explore the challenges of securing and modernizing power systems as you research grid stability, smart grids, and cybersecurity. Join a vibrant, multidisciplinary team at Toronto Metropolitan University driving innovati…

This research is vital for securing and stabilizing modern energy infrastructures globally as renewable energy sources and digital controls…

1508+ citations
MATLAB Simulation Electrical Power Engineering Power Systems Simulation Renewable Energy Technologies
PhD in Optical, Ultrasound, and Photoacoustic Imaging System Development
University of Illinois Chicago 🎓 Biomedical Engineering

Explore advanced optical, ultrasound, and photoacoustic imaging technologies for biomedical applications. Develop innovative multimodal imaging systems to improve diagnostic precision and healthcare outcomes.

This research advances diagnostic medical imaging by developing integrated optical and acoustic systems that enable early and accurate dise…

Optical coherence tomography Photoacoustic Tomography / Microscopy Signal/Image Processing
Computational Methods and AI Models for Medical Image Analysis Using Generative and Foundation Models
University of Birmingham Dr Le Zhang 🎓 Artificial Intelligence 🎓 Biomedical Engineering

Explore cutting-edge AI techniques like generative and foundation models to advance medical image analysis. Investigate multimodal and vision-language models to develop robust, explainable algorithms that improve clinic…

This research enhances healthcare by developing AI models that improve diagnostic accuracy and clinical workflows, leading to better patien…

Medical Image Computing Generative AI Medical LLMs Digital Healthcare