Office of Research, UC Riverside
Search Funding

Program TitlePersonalized Regenerative Immunocompetent Nanotechnology Tissue (PRINT) (ARPA-H-SOL-24-101)
Program WebsiteLink
AgencyAdvanced Research Projects Agency for Health (ARPA-H); US DHHS
Number of Submissions Allowed1
Internal UCR Deadline5/6/2024
Intent Deadline5/28/2024
Agency Final Deadline8/20/2024




ARPA-H will host a Proposer’s Day on May 07, 2024. The
event will allow for both in-person and virtual participation and is intended
to facilitate teaming and foster a greater understanding of the PRINT Program.

ARPA-H is soliciting
proposals to transform organ biofabrication by leveraging recent advances in 3D
bioprinting, cell manufacturing, biomaterials, modeling, and tissue
engineering. The platform will use patient-matched organ biofabrication to
restore normal human organ function for the kidney, heart, or liver.
Ultimately, ARPA-H intends to negotiate multiple Cooperative Agreements or
Other Transaction (OT) Agreements with proposers whose proposals are most
advantageous to the Government.




Proposals are expected to
use innovative approaches that include novel technology, enabling revolutionary
advances in medicine and healthcare. Specifically excluded are proposals that
represent an evolutionary or incremental advance in the current state of the
art, including clinical trials of an otherwise developed product. Additionally,
proposals directed towards policy changes, traditional education and training,
or center coordination, formation, or development, and construction of physical
infrastructure are outside the scope of the ARPA-H mission.





PRINT program will address
these limitations by:



  • Selecting patient cell
    sources and developing effective protocols to differentiate/expand all necessary
    organ specific cell types while maintaining immunocompetence.


  • Developing large scale
    Good Laboratory Practice (GLP)/GMP manufacturing processes, cell biobank, and
    effective storage and cell transport conditions.


  • Developing a library of
    natural and synthetic bioinks for structural integrity while exhibiting native tissue
    biomechanics, effective vascularization at the time of print, self-assembly of
    tissue units, and unique native tissue environments.


  • Building high speed and
    precision bioprinting software and hardware.


  • Developing a bioreactor
    system that will enable active perfusions at the time and point, post print maturation,
    and maintain viability up to transplantation.


  • Down-selecting to the most
    promising teams for functional and structural evaluation in a large animal
    model.


 




Database Key: 2126966170