The Multi X Office of the Defense Advanced Research Projects Agency (DARPA) is preparing to launch the Atomically Precise Molecules (APM) program, an upcoming effort to develop new material-synthesis capabilities using programmable precision polymers, or PPPs. The program will initially demonstrate this capability through next-generation non-linear optical materials for electro-optic modulators, with potential relevance to defense and commercial applications including communications and LiDAR.
DARPA is currently hosting a Proposers Day for prospective performers. The formal Program Solicitation is anticipated to be released before the event, but the current Special Notice is for information and program-planning purposes only.
What Is DARPA’s APM Program?
The APM program seeks to develop synthesis approaches that enable precise control over the sequence, orientation, and composition of molecules within a material. DARPA refers to these materials as programmable precision polymers.
The objective is to make materials with properties that can be deliberately designed at the molecular level, then expressed across larger scales and functional systems. In practical terms, APM aims to give material designers more control over performance characteristics that are currently limited by conventional synthesis methods.
DARPA’s initial application is non-linear optical materials, which are important for technologies such as LiDAR and communications. The APM program intends to apply programmable precision polymers to improve electro-optic material performance and support electro-optic modulators operating at sub-nanosecond switching speeds.
The broader ambition is more expansive. If successful, APM could establish a new synthesis capability for fit-for-purpose materials and contribute to DARPA Multi X Office’s vision for a programmable matter economy.
Why Programmable Precision Polymers Matter
Materials performance often depends on molecular structure, but conventional methods do not provide complete control over the sequence, orientation, and composition of the molecules that form a material.
APM is focused on changing that constraint. Programmable precision polymers would allow researchers to control material properties at multiple scales, from individual molecules to coordinated arrangements of molecules within a functional material or device.
For non-linear optical applications, this could enable material systems designed to maximize electro-optic performance instead of relying on the properties available from existing materials. DARPA plans to use electro-optic modulators as the initial demonstration, but the agency notes that this synthesis capability could eventually enable a much broader range of functions and applications.
APM Program Structure
ARPA anticipates a 36-month program divided into two phases:
| Phase | Duration | Planned focus |
|---|---|---|
| Phase 1 | 12 months | Develop new chemistries capable of producing programmable precision polymers. |
| Phase 2 | 24 months | Use those chemistries to synthesize advanced materials and integrate them into functional devices that surpass the current state of the art. |
Experience in non-linear optical device design and fabrication is preferred, though DARPA states it is not required.
Who Should Track This Opportunity?
APM may be relevant to companies, universities, national-scale research organizations, and cross-disciplinary teams working in:
Polymer chemistry and precision polymer synthesis
Computational chemistry and dynamic, multi-body materials modeling
Bottom-up or top-down self-assembly
Materials characterization
Materials scale-up and manufacturing
Microfabrication and device integration
Photonics and electro-optical materials
Non-linear optical device design
High-speed electro-optic modulation
Advanced communications and sensing technologies
DARPA is encouraging teaming where it is strategically necessary to address the program’s multidisciplinary objectives. For many prospective performers, a strong submission will likely require an integrated chemistry, materials, modeling, characterization, and device-development team rather than a single-discipline approach.
Preparing for the Official APM Solicitation
The immediate task is not to draft a proposal against incomplete requirements. It is to decide whether your capabilities can credibly support the core APM challenge: developing synthesis approaches for programmable precision polymers and translating those materials into high-performance functional devices.
Before the solicitation is released, prospective teams should:
Register for Proposers Day before the September 23 deadline.
Evaluate whether their expertise addresses a core program need or fills a critical gap for a potential team.
Identify teaming needs across chemistry, modeling, characterization, scale-up, microfabrication, and photonics.
Prepare a focused, unclassified capability statement for the poster session, lightning rounds, or proposer profile list.
Develop targeted questions for DARPA on the planned technical scope, metrics, integration expectations, and anticipated performer roles.
Review the formal Program Solicitation once released, as it will contain the official requirements, submission process, evaluation criteria, and deadlines.
APM is not a conventional materials-development opportunity. DARPA is looking toward a new way to design and synthesize materials with intentional control at the molecular level. Teams that can pair a credible scientific approach with a clear path to scalable materials and functional device integration will be best positioned when the formal solicitation arrives.
EverGlade is a national advisory firm helping innovators and investors navigate the federal funding and financing ecosystem. We support companies across the funding lifecycle, from early-stage strategy through proposal development, negotiations, and program execution.
For additional information on where your capabilities could plug into this emerging program, schedule a conversation with our team.






