PFI-TT: Development of an Automated Cell Culturing Platform for Highly Efficient and Reliable Drug Testing in Physiologically Representative Disease Models

Project: Research project

Project Details

Description

The broader impact/commercial potential of this Partnerships for Innovation - Technology Translation (PFI-TT) project to make drug testing faster and more reliable. This project will build a first-of-its-kind automated cell culturing platform that will allow pharmaceutical companies make faster, more efficient, and reliable predictions regarding whether costly (up to a $billion) animal and human drug trials are justified. This leads to: (1) cheaper, faster, and more reliable data collection per sample, (2) more robust product quality, and (3) a significant labor reduction. Lastly, an education program will be designed to train diverse entrepreneurial students in the time-sensitive financial, legal, managerial, and ethical aspects of commercialization and running biotech startups.The proposed project advances the ability to perform localized cell and/or chemical manipulations (i.e., removal/collection, delivery/addition) within living cultures used as disease models on microscales and without significantly disturbing an ongoing experiment. The benefits articulated above are generated by: (1) real-time non-sacrificial monitoring of the cell behavior (as opposed to the typically sacrificial endpoint analysis necessitated by the conventional products currently on the market); (2) detected problems corrected within the culture immediately (as opposed to waiting until the endpoint analysis to find out about their existence) and in a consistent automated manner; and (3) automation of the manual labor associated with culturing and analyzing the cells. Project objectives are to: (1) Make the culturing platform easier to set up and operate by an inexperienced user. This will be done by bundling its individual hardware and electronics components into a single Plug-and-Play system; (2) Design disposable culturing inserts for ensuring system sterility for the customers and recurring profits for the partnership; and (3) Develop a fabrication recipe that will enable less labor-intensive mass manufacturing of the product than the manual method that was used to create its alpha prototype. This will be accomplished using automated tools like laser-cutting and 3D printing.This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.
StatusFinished
Effective start/end date3/15/222/29/24

Funding

  • National Science Foundation: $250,000.00

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