DON26TZ01-NV002ActiveSBIR

Modeling for Frontal Polymerization Curing Process

Department of DefenseNAVY

AI Overview

This STTR seeks a scalable modeling tool to predict frontal polymerization curing characteristics—including front velocity, temperature, and mechanical effects like warpage—across multiple initiation methods and geometries. The solution addresses computational limitations in current simulations while enabling faster composite manufacturing and repair applications.

This summary is AI-generated from the official solicitation.

Key Details

Agency
Department of Defense
Funding Amount
Release Date
March 2, 2026
Due Date
June 3, 2026

Official Description

Frontal polymerization is the process of curing a resin monomer into a polymer with a localized self-sustaining and moving reaction zone. Frontal polymerization has many benefits over traditional resin cure methods, such as reduced cure time from many hours to seconds or minutes [Refs 1,-2], a significant reduction of the energy required to cure (in some cases over 99.5%) [Ref 3], and reduced cost associated with curing a resin [Ref 3].

Frontal polymerization has many potential applications su...

Change History

Q&A UpdatedMay 6, 2026 at 3:03 PM

Modeling for Frontal Polymerization Curing Process

Added 1 new Q&A: Q1 clarifies that DON will select 3 proposals for Phase I award. Previous Q&As (Q2-Q5) renumbered to Q3-Q5 with no content changes.

Status ChangedMay 6, 2026 at 1:47 PM

Modeling for Frontal Polymerization Curing Process

Status changed from Pre-Release to Open

Q&A UpdatedMay 4, 2026 at 10:28 PM

Modeling for Frontal Polymerization Curing Process

Added 1 new Q&A (Q1) clarifying boundary conditions: simulating ambient temperatures ~35F-120F is beneficial but not required for Phase I scope.

Q&A UpdatedApr 29, 2026 at 7:39 PM

Modeling for Frontal Polymerization Curing Process

# Q&A Changes Summary **Added 1 new Q&A (Q1):** Clarifies acceptable resin chemistries—any frontally polymerizable formulation acceptable, but systems with "long" shelf life (months+) viewed as advantageous. **Updated 2 existing Q&As with answers:** **Q2:** Now open to non-mechanism-based models; robustness across multiple resins/mechanisms not required but advantageous; prioritizes scalability to larger geometries (patches/small panels). **Q3:** Clarifies "scalable" means mm→inches/foot length scales; 3D modeling advantageous if solvable within days-couple weeks; no quantitative compute benchmarks provided; computational time increases acceptable if reasonable turnaround maintained.

Q&A UpdatedApr 27, 2026 at 12:47 PM

Modeling for Frontal Polymerization Curing Process

# Summary This Q&A clarifies funding priorities regarding polymerization modeling: whether mechanism-based kinetic models or automated DSC characterization better serves new resin systems, and how "scalability" is weighted between physical length scales versus computational integration with warpage/stress predictions.

Date ChangedApr 14, 2026 at 3:03 AM

Modeling for Frontal Polymerization Curing Process

Close Date changed from 2026-04-22 to 2026-06-03

Date ChangedApr 14, 2026 at 3:03 AM

Modeling for Frontal Polymerization Curing Process

Open Date changed from 2026-03-25 to 2026-05-06

Status ChangedApr 14, 2026 at 3:03 AM

Modeling for Frontal Polymerization Curing Process

Status changed from Removed to Pre-Release

Opportunity RemovedMar 3, 2026 at 4:25 PM

Modeling for Frontal Polymerization Curing Process

Opportunity DON26TZ01-NV002 no longer available

Opportunity AddedMar 2, 2026 at 11:14 PM

Modeling for Frontal Polymerization Curing Process

New opportunity: Modeling for Frontal Polymerization Curing Process

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