Quantitative cancer-immunity cycle modeling to optimize bevacizumab and atezolizumab combination therapy for advanced renal cell carcinoma
Lei Du, Chenghang Li, Jinzhi Lei

TL;DR
This study introduces a quantitative model of the cancer-immunity cycle to optimize combination immunotherapy for advanced renal cell carcinoma, integrating biological data and pharmacokinetics for personalized treatment strategies.
Contribution
We developed a novel quantitative cancer-immunity cycle model that predicts tumor evolution and treatment response, aiding in optimizing combination therapy for RCC.
Findings
Identified optimal bevacizumab and atezolizumab treatment regimens.
Calibrated model with clinical immunohistochemistry data.
Proposed tumor biomarkers with predictive clinical value.
Abstract
The incidence of advanced renal cell carcinoma(RCC) has been rising, presenting significant challenges due to the limited efficacy and severe side effects of traditional radiotherapy and chemotherapy. While combination immunotherapies show promise, optimizing treatment strategies remains difficult due to individual heterogeneity. To address this, we developed a Quantitative Cancer-Immunity Cycle (QCIC) model that integrates ordinary differential equations with stochastic modelling to quantitatively characterize and predict tumor evolution in patients with advanced RCC. By systematically integrating quantitative systems pharmacology principles with biological mechanistic knowledge, we constructed a virtual patient cohort and calibrated the model parameters using clinical immunohistochemistry data to ensure biological validity. To enhance predictive performance, we coupled the model with…
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Taxonomy
TopicsCancer Immunotherapy and Biomarkers · Renal cell carcinoma treatment · Mathematical Biology Tumor Growth
