Comparing oncology clinical programs by use of innovative designs and expected net present value optimization: Which

Tom Parke1, Olga Marchenko2, Vladimir Anisimov3

  • 1a Berry Consultants , Abingdon , Oxfordshire , UK.

Insights

Innovative adaptive designs significantly improve the success probability and financial value of oncology clinical programs. Utilizing response adaptive randomization in Phase 2 and group sequential designs in Phase 3 offers the most robust development strategies.

Area of Science:

  • Clinical Trial Design
  • Biostatistics in Oncology
  • Drug Development Strategy

Background:

  • Designing oncology clinical programs is complex, with high failure rates in Phase 2 and Phase 3 trials over the past decade.
  • Standard clinical trial approaches have demonstrated limited success in oncology drug development.
  • Improving development strategies through innovative statistical methods is crucial for drug development.

Purpose of the Study:

  • To evaluate and compare hypothetical oncology clinical programs using various Phase 2 and Phase 3 study design combinations.
  • To assess the impact of adaptive designs on the probability of clinical program success and expected net present value (eNPV).
  • To identify optimal development strategies for oncology drug development.

Main Methods:

  • Simulation of eight Phase 2/Phase 3 oncology development programs using combinations of five Phase 2 and three Phase 3 study designs.
  • Comparison of simulated programs based on the probability of clinical program success and expected net present value (eNPV).
  • Evaluation of adaptive designs, including response adaptive randomization, and group sequential designs.

Main Results:

  • Development strategies incorporating adaptive designs showed robust improvement in eNPV compared to standard approaches.
  • A three-arm response adaptive randomization design in Phase 2 combined with a group sequential design with 5 analyses in Phase 3 yielded the highest eNPV.
  • The study identified specific design combinations that enhance the probability of clinical program success in oncology.

Conclusions:

  • Innovative statistical methods, particularly adaptive designs, can significantly improve the efficiency and success rates of oncology clinical programs.
  • Response adaptive randomization in Phase 2 and group sequential designs in Phase 3 represent superior development strategies.
  • The findings provide valuable insights for optimizing oncology drug development pathways.

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