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OpenR01NIDAClinical trial: Not allowed

BRAIN Initiative: Theories, Models and Methods for Analysis of Complex Data from the Brain (R01 Clinical Trial Not Allowed)

National Institute on Drug Abuse (NIDA) · NIH Institute/Center · RFA-DA-27-004

Source: Grants.gov · View original posting ↗

Award
Amount not listed
Deadline
Nov 8, 2027
Letter of intent
Mechanism
R01
Duration
Expected awards
Funding cycle
One-time
Open date
Sep 16, 2025
Total funding
Clinical trial
Not allowed
Established investigatorGovernmentHigher educationSmall businessNonprofitForeign entities

Funding context

12%of applications funded

Based on FY2025 NIDA R01 applications (135 of 1,146 applications awarded).

Payline: NIH discontinued percentile paylines for 2026 under its Unified Funding Strategy ↗ — scores are now weighed in context rather than against a fixed cutoff.

NIDA R01, FY2025 — atypical NIH funding year (multi-year upfront funding / rescinded paylines); NIH reports FY2025 success rates as not comparable to prior years.

Aggregate historical data by institute, mechanism, and fiscal year — context for planning, not a prediction for this opportunity. Source ↗

Research areas

Basic mechanisms & biologyTherapeutics & drug discovery

Auto-classified from the title and description (keyword-based) — may be imperfect.

Description

The Theories, Models and Methods (TMM) initiative will support the development of computational tools for understanding dynamic brain circuits that are made broadly accessible to the greater research community. This program supports applications focused on tool building and dissemination in the domain of theories about neural circuit mechanisms, models of circuit structure and function, and/or computational methods of analysis spanning across scales from neurons to behavior. The development of novel theories, computational models and methods for understanding brain function will help characterize fundamental principles of brain function and organization, characterize cellular and circuit-level neural computations over time in different regions, and understand how interactions of multiple brain circuits enable flexible behaviors and contribute to brain-wide neural dynamics. These tools will be critical for developing treatments such as closed loop systems for brain disorders including Parkinsons disease and major depressive disorder.

Data notes: award amount not published in the source feed.