PartnershipUpdated on 6 January 2026
Virtual Human Twin Models for Brain Tumour Progression Modelling & Personalised Treatment Response HORIZON-MISS-2026-02-CANCER-01
Professor at Kaunas University of Technology
Kaunas, Lithuania
About
1) EXCELLENCE
Vision: Create dynamic, multiscale Virtual Human Twins (VHTs) for hard-to-treat brain tumours (e.g., high-grade gliomas / early-onset and refractory cases) that combine mechanistic modelling + multimodal AI, updated longitudinally to simulate disease evolution and compare treatment strategies in silico, and made accessible via UNCAN.eu and the Advanced VHT Platform.
Specific objectives (science & tech)
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O1. Multiscale VHT core: tumour–host models spanning molecular → cellular → tissue/organ levels, capturing infiltration, angiogenesis, oedema, therapy response and resistance.
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O2. Patient-specific parameterisation: infer VHT parameters from MRI (multi-sequence), pathology-derived phenotypes, (when available) omics/immune profiles, and real-world clinical data; represent uncertainty explicitly.
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O3. Longitudinal updating: “twin refresh” after each follow-up scan/clinical event using Bayesian/data-assimilation methods to track progression under therapy.
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O4. Clinically meaningful validation: demonstrate predictive/decision utility for progression and treatment response, with usability evidence for clinical uptake.
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O5. Open, interoperable delivery: publish reusable model/data assets with metadata in line with EU requirements and platform integration.
Core innovation (what is new)
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Mechanism + AI coupling: AI provides robust patient-specific states (tumour compartments, uncertainty, phenotypes); mechanistic simulators provide time-evolving causal dynamics and counterfactual treatment testing.
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Explainable VHT “drivers”: attention/XAI outputs are aligned to mechanistic variables (e.g., infiltration rate, radiosensitivity proxies) to produce actionable explanations, not just heatmaps.
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Interoperability by design: assets packaged as containers/APIs for integration into EU platforms and imaging ecosystems. +
2) IMPACT
Contribution to expected outcomes
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Advanced multiscale VHTs used by multidisciplinary researchers to understand onset/progression mechanisms (tumour–host–immune interactions; therapy resistance).
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VHT-based solutions for personalised treatment (simulated therapy pathways with uncertainty) enabling improved treatment stratification.
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Access via UNCAN.eu + Advanced VHT Platform with open-science assets and reusability across Europe.
Key exploitable results
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VHT-Brain Engine (hybrid mechanistic + AI inference, HPC-ready)
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Longitudinal “twin refresh” toolkit (calibrated updating from follow-up imaging)
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Clinician-facing decision dashboard (uncertainty-aware scenario comparison; explainability)
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Open benchmarks & synthetic twin generator (privacy-preserving validation and stress tests)
3) IMPLEMENTATION
Consortium partners:
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Clinical neuro-oncology partners: cohorts, endpoints, tumour board workflow integration, prospective observational validation.
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Your AI group (key competence): transformer segmentation, explainable attention, multimodal fusion, optimisation, survival/outcome modelling—feeding patient-specific states and uncertainty into the VHT.
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Mechanistic modelling/HPC partners: tumour growth/invasion solvers, therapy PK/PD modules, scalable computing.
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Data/standards & platform partners: FAIRification, metadata pipelines, UNCAN.eu and VHT platform asset packaging and interoperability.
Work plan (WPs)
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WP1 Coordination, ethics, patient involvement (sex/gender considerations; governance)
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WP2 FAIR multimodal data pipeline (imaging + clinical + optional omics/immune; harmonisation; metadata)
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WP3 AI perception layer (segmentation/classification/phenotypes; XAI/attention; uncertainty)
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WP4 Multiscale VHT engine (mechanistic models + AI coupling; twin refresh)
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WP5 Verification, validation & clinical usability (retrospective + observational prospective; decision studies)
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WP6 UNCAN.eu & Advanced VHT Platform integration + open science (assets, APIs, documentation)
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WP7 Mission cluster networking (budgeted participation in the Cancer Mission “Understanding” cluster)
Organisation
Similar opportunities
Project cooperation
Robertas Damaševičius
Professor at Kaunas University of Technology
Kaunas, Lithuania
Partnership
Robertas Damaševičius
Professor at Kaunas University of Technology
Kaunas, Lithuania
Project cooperation
Robertas Damaševičius
Professor at Kaunas University of Technology
Kaunas, Lithuania