Development of human microphysiological systems for testing of ad/adrd interventional strategies across genetically diverse populations

Active Cooperative Agreement Awarded Last action

Award ID
U54AG090669
Recipient
Awarding agency
Obligated
$7,917,428

Award facts

Assistance listing
93.310 Trans-NIH Research Support
Completion date 26% complete
Funding agency
Office of the Director National Institutes of Health, Department of Health and Human Services
Place of performance
Boston, MA 02115, USA

Award details come from USAspending.gov.

Description

Abstract
Overall component alzheimer's disease manifests along a spectrum of levels of neuropathology, age of onsets and rates of cognitive decline. Genetic studies support a heterogeneous etiology, with around 70 associated loci, implicating several biological processes that mediate risk for ad. Studies are just beginning to emerge that attempt to provide frameworks for subtyping ad based upon biomarker data, genetic data and/or -omics profiles from the postmortem brain. Despite this, the majority of experimental systems for testing new therapeutics are not designed to capture the genetically complex drivers of ad. In turn, past clinical trials may have suffered from an inability to predict individual responsiveness based upon the drivers of disease in ad subtypes. A one-size-fits- all approach to clinical trials and clinical care is unlikely to be successful across all cases (i.e. anti-amyloid immunotherapy may work well in a subset of cases but not in others). Successful establishment of the proposed precision-ad center, which will establish a toolkit of 2D and 3D microphysiological systems (MPS) that capture human genetic diversity underlying risk and resilience to ad and report on the function of biological domains relevant to ad, is an important first step in identifying convergent and divergent mechanisms of ad and testing person-specific responsiveness to therapeutic interventions. Here, we will leverage a set of ipsc lines that we recently developed from over 100 participants in the religious order study (ROS) and memory and aging project (map) that span ethnically diverse populations and include deeply phenotyped and genome sequenced individuals. Our ability to analyze matched brain and plasma from the same individuals provides a valuable opportunity for cross-platform validation of key molecular findings. Under this award, we have four overarching goals: 1) to generate an atlas of molecular signatures of 2D and 3D MPS experimental systems across 100 ethnically diverse genetic backgrounds that are matched with multi-omic data from brain tissue and plasma from the same individuals; 2) to develop preclinical efficacy assays for testing of six interventional strategies for ad that target different biological domains and to identify biomarkers of responsiveness to each intervention; 3) to establish rigorous, automated pipelines for scaling preclinical assays of efficacy to enable testing of interventional strategies across diverse genetic backgrounds, and 4) to establish robust pipelines for open-access sharing and distribution of MPS models, methods, and data to ensure facile distribution to scientists from the academic and biopharma communities. To accomplish these goals, we have assembled a multidisciplinary team with deep experience in alzheimer's biology, stem cell modeling, drug discovery, screening, lipidomics, proteomics, computational biology, and open resource sharing platforms. Together, we aim to develop 2D and 3D models as scalable platforms for the use as precision medicine research tools to investigate the complex biology of ad and to accelerate drug discovery and preclinical drug development.

Transactions

Action Obligated Date
Amendment $0
Amendment $250,000
Amendment $0
Amendment $3,708,714
Original award $3,708,714

Subawards

Subrecipient Amount Awarded
Sloan-Kettering Institute For Cancer Research Dr. Chiosis brings a wealth of expertise in chemical biology, translational research, and drug discovery, demonstrated through a prolific publication record, an… $48,604
Jackson Laboratory JAX-NYSCF will establish pipelines for broad distribution of iPSC lines and derivatives, and contribute to developing web-based resources to foster the… $672,787
Jackson Laboratory Preclinical Efficacy and Safety Core – JAX-NYSCF, under the direction of Dr. Paull, will lend its expertise in iPSC technology, automation, and… $909,112
Rush University Medical Center The Rush University Medical Center subcontract will provide build out the RADC Resource Sharing Hub to better document and share data regarding the iPSCs… $89,549
New York Stem Cell Foundation Inc. The New York Stem Cell Foundation (NYSCF) Research Institute, under the direction of Dr. Paull, will lend its expertise in iPSC technology, automation, and… $508,040
New York Stem Cell Foundation Inc. NYSCF will establish pipelines for broad distribution of iPSC lines and derivatives, and contribute to developing web resources to foster the dissemination of… $391,188
Sage Bionetworks Sage Bionetworks leads Data Coordinating Centers (DCCs) that enable NIA-funded researchers to share Alzheimer's Disease (AD), AD-related dementias (ADRD), and… $144,736
The Leland Stanford Junior University backgrounds. The model systems to be developed range from reductionist 2D co- culture systems to complex multi-cell type 3D systems, with the understanding that… $84,098
Icahn School Of Medicine At Mount Sinai The Icahn School of Medicine at Mt. Sinai (ISMMS), under the direction of Dr. Joel Blanchard, will lend its expertise in iPSC technology, differentiation to… $1,277,278
Emory University The Seyfried lab will provide computational comparisons with human clinical and omics data from brain tissue from the same individuals. Biomarkers of biological… $64,610
Emory University The Seyfried Lab will provide proteomic profiling of 2D and 3D cellular systems across 100 diverse genetic backgrounds. We will also provide computational… $503,738
Jackson Laboratory Dr. Gregory Carter, PI and Core Lead, will continue with overall responsibility for overseeing and supervising the work conducted in the Bioinformatics and… $300,937
Show all 12

Quick answers

Who received award U54AG090669?

U54AG090669 was awarded to Brigham & Womens Hospital Inc. by National Institute on Aging (National Institutes of Health) on July 1, 2025.

How much is award U54AG090669 worth?

$7,917,428 has been obligated on U54AG090669.

Which agency awarded U54AG090669?

National Institute on Aging (National Institutes of Health) awarded U54AG090669, with funding from Office of the Director (National Institutes of Health).

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