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PFI-RP: Materials and Methods for Scalable Manufacturing of Flexible Resonant Sensors and their Wireless Readers.

Project: Research

Abstract & Details

Description

Award ID: 1827578

The broader impact/commercialization potential of this PFI project is to enable commercialization of a platform sensor technology, flexible resonant sensors, that has many potential applications in consumer, agriculture, and health markets. In the consumer market, the sensor system can be applied to wearable technologies to monitor stretch and strain such as in performance athletic wear. In agriculture, the sensor system can be applied to soil and water quality monitoring. In health, the sensor system can be applied to monitoring of biotherapeutics in manufacturing and health status of closed wounds. Advantages of this sensor platform are its passive unit architecture (no on-board power), potential low cost, and ability to measure in closed systems. This PFI will enable the founding of one or more startups in these market spaces, which will in turn lead to increased employment opportunities and economic development. Moreover, this project will train two graduate students and 10 undergraduates with technical skills in materials, electronics, and characterizations tools in an interdisciplinary environment. They will also receive valuable innovation skills in product design, reliability, robustness, and commercialization due to the project scope and inclusion of active industrial partners. These students with special attention to those underrepresented in STEM fields. The proposed project addresses attributes needed to commercialize resonant sensors that are common to all market sectors, namely 1) the methods and materials to enable scalable fabrication of the sensors, 2) the materials and methods to encapsulate (package) the sensors, and 3) custom reader hardware and analysis software to lower the cost and improve read range of the resonant sensor. For the first, screen-printable inks that are optimized for inductive resonance will be developed and large-batch (>1000 unit) methods of printing and roll to roll fabrication will be demonstrated. For the second, elastomeric encapsulants and flexible, polymeric substrates will be evaluated for their performance with resonant sensors. In the third, a low-cost (
NSF Program Director: Jesus Soriano Molla
StatusClosed
Effective start/end date09/15/1802/28/22

Funding

  • Other Programs (Technology): $750,000.00

Active Fiscal Year

  • FY2022

Start Fiscal Year

  • FY2018

TIP Programs

  • Other Programs (Technology)

Key Technology Areas

  • Advanced Materials
  • (confidence score: 100%)
  • Robotics and Advanced Manufacturing
  • (confidence score: 99%)

Technology Foci

  • Advanced Manufacturing (excluding biomanufacturing and semiconductor manufacturing)
  • (confidence score: 97%)
  • 2D materials
  • (confidence score: 82%)
  • Other next-generation materials
  • (confidence score: 92%)

Congressional District at Award

  • District n. 04 of Iowa

Current Congressional District

  • District n. 04 of Iowa

United States

  • Iowa

Core Based Statistical Area (CBSA)

  • Ames, IA

County

  • County: Story, IA

EPSCoR Jurisdiction

  • Yes

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