comboLTR

comboLTR predicts anti-cancer effects of drug combinations by modeling nonlinear dose–response interactions across cancer cell lines using polynomial regression with latent tensor reconstruction.


Key Features:

  • Polynomial Regression via Latent Tensor Reconstruction: Implements polynomial regression through latent tensor reconstruction to model nonlinear target functions across dose and context dimensions.
  • Recommender System-Style Features: Indexes response data as tensors across diverse contexts using recommender-system-style features to capture context-specific interaction patterns.
  • Integration of Chemical and Multi-Omics Features: Incorporates chemical properties and multi-omics data as input features to inform predictions.
  • Efficiency and Predictive Performance: Predicts full dose–response matrices for novel drug combinations without requiring prior monotherapy or combination response data and reports improved predictive accuracy and computational efficiency relative to state-of-the-art methods.

Scientific Applications:

  • Prioritization of Drug Combinations: Prioritizes candidate drug combinations for pre-clinical and clinical validation by predicting combination efficacy across doses and cell lines.
  • Overcoming Drug Resistance: Models combination therapies to support identification of regimens that may overcome drug resistance in cancer.

Methodology:

Constructs a data tensor of response values across doses and cell lines, incorporates chemical properties and multi-omics features, indexes tensors with recommender-system-style features, and applies polynomial regression via latent tensor reconstruction to predict dose–response matrices for new drug combinations.

Topics

Details

License:
MIT
Tool Type:
command-line tool
Programming Languages:
Python
Added:
6/14/2021
Last Updated:
8/23/2021

Operations

Publications

Wang T, Szedmak S, Wang H, Aittokallio T, Pahikkala T, Cichonska A, Rousu J. Modeling drug combination effects via latent tensor reconstruction. Unknown Journal. 2021. doi:10.1101/2021.04.16.439989.

Documentation