In‑Vitro Contractile Force Sensing Platform for Quantitative Tissue Mechanics | New Jersey Institute of Technology

In‑Vitro Contractile Force Sensing Platform for Quantitative Tissue Mechanics

In‑Vitro Contractile Force Sensing Platform for Quantitative Tissue Mechanics (In‑Vitro Contractile Force Indicator, Tech ID: 21‑024)

Technology Overview: This technology provides an in‑vitro contractile force indicator that enables quantitative measurement of cellular and tissue‑level mechanical forces. The platform converts contractile activity into measurable signals, allowing researchers to monitor functional performance of engineered tissues or cell cultures in real time. The system is particularly useful for evaluating muscle, cardiac, and cytoskeletal behavior under physiological or pharmacological conditions.

Industry Pain Point: Existing in‑vitro assays inadequately capture mechanical functionality, limiting translational relevance of tissue models.

NJIT Solution: This technology enables direct, quantitative force measurement, improving assessment of tissue function and drug response.

Key Features & Advantages

  • Quantitative measurement of contractile forces
  • Real‑time functional readout
  • Compatible with in‑vitro tissue models
  • Enables mechanobiology‑focused drug testing

Development Stage: TRL 4–5 – Laboratory validation completed.

Target Markets

  • Drug discovery and screening
  • Tissue engineering research
  • Mechanobiology platforms

Market Opportunity

  • Global cell‑based assay market (2026): ~$24B
  • CAGR: ~9–10%
  • Projected market size (2035): ~$50–55B

Commercial & IP Details

Inventors: Katherine Coombs, Jonathan Grasman, Cassandra Martin, Jessica Pridmore

Patent Information:
Category(s):
Diagnostics, Sensors & Analytical Platforms
For Information, Contact:
Ikechukwu Nwabufo
IP Licensing & Marketing Manager
in49@njit.edu
Inventors:
Jessica Pridmore
Cassandra Martin
Jonathan Grasman
Katherine Coombs
Keywords:
Drug Discovery Technologies
in vitro model
Mechanobiology
Patent Issued
Quantitative Measurement
Real-time
Tissue Engineering