DocumentCode
3541047
Title
Analyzing pathway design from drug perturbation experiments
Author
Berlow, Noah ; Pal, Ranadip ; Davis, Lara ; Keller, Charles
Author_Institution
Texas Tech Univ., Lubbock, TX, USA
fYear
2012
fDate
5-8 Aug. 2012
Firstpage
552
Lastpage
555
Abstract
Drugs that target specific kinases are becoming common in cancer research. In this article, we analyze the design of a modeling approach for drug sensitivity prediction and combination targeted therapy design based on drug perturbation experiments. We consider a target inhibition map model that predicts the tumor sensitivities for all possible combination of target inhibitions. The estimation of the model is based on experimental sensitivity data for multiple target inhibitory drugs. The target inhibition map model provides a steady-state snapshot of the underlying dynamical model. To analyze the robustness of the combination therapy design approach, we consider the inverse problem of possible dynamic models that can generate the target inhibition map model and their transient and steady state response to drugs. We showed that the knowledge of the steady state target inhibition map can be used to estimate the directional pathway using a small number of steady state target expression measurements.
Keywords
cancer; drug delivery systems; drugs; enzymes; inverse problems; medical computing; molecular biophysics; perturbation theory; tumours; cancer research; drug perturbation; drug sensitivity prediction; experimental sensitivity data; inverse problem; kinases; multiple target inhibitory drugs; pathway design; steady state target expression measurements; steady state target inhibition map; target inhibition map model; targeted therapy design; tumor sensitivity; Analytical models; Bismuth; Cancer; Drugs; Sensitivity; Steady-state; Tumors;
fLanguage
English
Publisher
ieee
Conference_Titel
Statistical Signal Processing Workshop (SSP), 2012 IEEE
Conference_Location
Ann Arbor, MI
ISSN
pending
Print_ISBN
978-1-4673-0182-4
Electronic_ISBN
pending
Type
conf
DOI
10.1109/SSP.2012.6319757
Filename
6319757
Link To Document