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Updated: Oct 15, 2025

Translational Orthotopic Models of Glioblastoma Multiforme
Published on: February 17, 2023
How translational modeling in oncology needs to get the mechanism just right
James W T Yates1, David A Fairman2
1DMPK, In Vitro In Vivo Translation, GSK, Stevenage, UK.
Abstract:
Translational model-based approaches have played a role in increasing success in the development of novel anticancer treatments. However, despite this, significant translational uncertainty remains from animal models to patients. Optimization of dose and scheduling (regimen) of drugs to maximize the therapeutic utility (maximize efficacy while avoiding limiting toxicities) is still predominately driven by clinical investigations. Here, we argue that utilizing pragmatic mechanism-based translational modeling of nonclinical data can further inform this optimization. Consequently, a prototype model is demonstrated that addresses the required fundamental mechanisms.
Insights
Mechanism-based translational modeling of preclinical data can improve anticancer drug development. This approach helps optimize drug dosing and scheduling to enhance efficacy and reduce toxicity in patients.
Area of Science:
- Pharmacology
- Translational oncology
- Computational biology
Background:
- Translational model-based approaches have improved anticancer drug development but significant gaps remain in translating findings from animal models to human patients.
- Current optimization of drug dose and scheduling (regimen) primarily relies on clinical investigations, often after initial nonclinical studies.
- There is a need for improved methods to bridge the gap between preclinical data and clinical outcomes in cancer therapy.
Purpose of the Study:
- To advocate for the use of pragmatic mechanism-based translational modeling of nonclinical data to optimize anticancer drug regimens.
- To demonstrate a prototype model that incorporates fundamental mechanisms relevant to drug efficacy and toxicity.
- To reduce translational uncertainty in the development of novel anticancer treatments.
Main Methods:
- Utilizing mechanism-based translational modeling.
- Analyzing nonclinical data to inform drug regimen optimization.
- Developing a prototype model to address key biological and pharmacological mechanisms.
Main Results:
- A prototype mechanism-based translational model was developed.
- The model demonstrates the potential to inform anticancer drug regimen optimization.
- The approach addresses fundamental mechanisms crucial for predicting clinical outcomes.
Conclusions:
- Pragmatic mechanism-based translational modeling offers a valuable tool to enhance the optimization of anticancer drug regimens.
- This modeling approach can help reduce the uncertainty in translating preclinical findings to clinical efficacy and safety.
- Further development and application of such models can accelerate the delivery of more effective anticancer therapies to patients.
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