Funded Projects
Explore our currently funded projects. You may search with all three fields, then focus your results by applying any of the dropdown filters. After customizing your search, you may download results and even save your specific search for later.
Project # | Project Title | Research Focus Area | Research Program | Administering IC | Institution(s) | Investigator(s) | Location(s) | Year Awarded |
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3R01NS102432-02S1
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AIBP AND REGULATION OF NEUROPATHIC PAIN | Preclinical and Translational Research in Pain Management | Discovery and Validation of Novel Targets for Safe and Effective Treatment of Pain | NINDS | UNIVERSITY OF CALIFORNIA, SAN DIEGO | MILLER, YURY; YAKSH, TONY L. | LA JOLLA, CA | 2019 |
NOFO Title: Administrative Supplements to Existing NIH Grants and Cooperative Agreements (Parent Admin Supp Clinical Trial Optional)
NOFO Number: PA-18-591 Summary: Persistent pain states arising from inflammatory conditions, such as in arthritis, diabetes, HIV, and chemotherapy, exhibit a common feature in the release of damage-associated molecular pattern molecules, which can activate toll-like receptor-4 (TLR4). Previous studies suggest that TLR4 is critical in mediating the transition from acute to persistent pain. TLR4 as well as other inflammatory receptors localize to lipid raft microdomains on the plasma membrane. We have found that the secreted apoA-I binding protein (AIBP) accelerates cholesterol removal, disrupts lipid rafts, prevents TLR4 dimerization, and inhibits microglia inflammatory responses. We propose that AIBP targets cholesterol removal to lipid rafts harboring activated TLR4. The aims of this proposal are to: 1) determine whether AIBP targets lipid rafts harboring activated TLR4; 2) test whether AIBP reduces glial activation and neuroinflammation in mouse models of neuropathic pain; and 3) identify the origin and function of endogenous AIBP in the spinal cord. |
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1U24NS113844-01
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EPPIC-NET DCC | Clinical Research in Pain Management | Early Phase Pain Investigation Clinical Network (EPPIC-Net) | NINDS | NEW YORK UNIVERSITY SCHOOL OF MEDICINE | PETKOVA, EVA (contact); TROXEL, ANDREA B | New York, NY | 2019 |
NOFO Title: HEAL Initiative: Early Phase Pain Investigation Clinical Network - Data Coordinating Center (U24 Clinical Trials Not Allowed)
NOFO Number: RFA-NS-19-024 Summary: The Data Coordinating Center (DCC) of the Early Phase Pain Investigation Clinical Network (EPPIC-Net) will be the data and biospecimen manager for pain research within the HEAL Partnership. As such, it will host, manage, standardize, curate, and provide a sharing platform for data and biospecimens for HEAL initiatives, such as the Acute to Chronic Pain Signatures initiative and the BACPAC, in addition to EPPIC-Net studies. The DCC will develop and maintain a databank for depositing data, will link these data with a repository for biological samples, and will create a platform for teams to work together to analyze and interpret data. Further, the DCC will provide leadership in the statistical design and analysis of EPPIC-Net studies and will deploy advanced systems and processes for data collection, management, quality assurance, and reporting. The DCC will create, sustain, and continually advance a robust organization for the rapid design, implementation, and performance of high-quality rigorous Phase II clinical trials to test promising therapeutics for pain. |
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1U24NS113849-01
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The Icahn School of Medicine at Mount Sinai (ISMMS) EPPIC-Net Specialized Clinical Center | Clinical Research in Pain Management | Early Phase Pain Investigation Clinical Network (EPPIC-Net) | NINDS | ICAHN SCHOOL OF MEDICINE AT MOUNT SINAI | ROBINSON-PAPP, JESSICA | New York, NY | 2019 |
NOFO Title: HEAL Initiative: Early Phase Pain Investigation Clinical Network - Specialized Clinical Centers (U24 Clinical Trials Not Allowed)
NOFO Number: RFA-NS-19-025 Summary: The Icahn School of Medicine at Mount Sinai (ISMMS) will support the mission of the Early Phase Pain Investigation Clinical Network (EPPIC-Net), through the ISMMS Department of Neurology as the core of a hub and spokes structure. The study contains four specific aims: (1) to streamline and optimize rapid implementation of EPPIC-Net studies, exceeding the required minimum of 100 subjects recruited per year to EPPIC-Net studies; (2) to ensure access to patient populations with a wide range of pain disorders, including CLBP, using a hub and spokes model to ensure effective recruitment; (3) to provide the highest-quality protocol implementation, deep clinical phenotyping of pain disorders, and accurate and complete data collection; and (4) to work collaboratively with the EPPIC-Net Coordinating Centers and investigators from the NIH HEAL Partnership to assist with development/design of clinical trials. The study team will also increase training opportunities through EPPIC-Net within ISMMS and the larger pain research community, training junior investigators to become future pain clinical trials leaders and increase and disseminate knowledge about pain research throughout the network. |
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3R01NS094461-04S2
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TARGETING SPECIFIC INTERACTIONS BETWEEN A-KINASE ANCHORING PROTEINS (AKAPS) AND ION CHANNELS WITH CELL-PERMEANT PEPTIDES AS A NOVEL MODE OF THERAPEUTIC INTERVENTION AGAINST PAIN DISORDERS | Preclinical and Translational Research in Pain Management | Discovery and Validation of Novel Targets for Safe and Effective Treatment of Pain | NINDS | UNIVERSITY OF TEXAS HLTH SCIENCE CENTER | SHAPIRO, MARK S | SAN ANTONIO, TX | 2019 |
NOFO Title: Administrative Supplements to Existing NIH Grants and Cooperative Agreements (Parent Admin Supp Clinical Trial Optional)
NOFO Number: PA-18-591 Summary: Multi-protein complexes have emerged as a mechanism for spatiotemporal specificity and efficiency in the function and regulation of myriad cellular signals. In particular, many ion channels are clustered either with the receptors that modulate them, or with other ion channels whose activities are linked. Often the clustering is mediated by scaffolding proteins, such as the AKAP79/150 protein that is a focus of this research. This research will focus on three different channels critical to nervous function. One is the"M-type" (KCNQ, Kv7) K+ channel that plays fundamental roles in the regulation of excitability in nerve and muscle. It is thought to associate with Gq/11- coupled receptors, protein kinases, calcineurin (CaN), calmodulin (CaM) and phosphoinositides via AKAP79/150. Another channel of focus is TRPV1, a nociceptive channel in sensory neurons that is also thought to be regulated by signaling proteins recruited by AKAP79/150. The third are L-type Ca2+ (CaV1.2) channels that are critical to synaptic plasticity, gene regulation and neuronal firing. This research will probe complexes containing AKAP79/150 and these three channels using"super-resolution" STORM imaging of primary sensory neurons and heterologously-expressed tissue-culture cells, in which individual complexes can be visualized at 10-20 nm resolution with visible light, breaking the diffraction barrier of physics. The researchers hypothesize that AKAP79/150 brings several of these channels together to enable functional coupling, which the researchers will examine by patch-clamp electrophysiology of the neurons. Förster resonance energy transfer (FRET) will also be performed under total internal reflection fluorescence (TIRF) or confocal microscopy, further testing for complexes containing KCNQ, TRPV1 and CaV1.2 channels. Since all three of these channels bind to AKAP79/150, the researchers hypothesize that they co-assemble into complexes in neurons, together with certain G protein-coupled receptors. Furthermore, the researchers hypothesize these complexes to not be static, but rather to be dynamically regulated by other cellular signals, which the researchers will examine using rapid activation of kinases or phosphatases. Several types of mouse colonies of genetically altered AKAP150 knock-out or knock-in mice will be utilized. |
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1U19AR076725-01
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HEALing LB3P: Profiling Biomechanical, Biological and Behavioral phenotypes | Clinical Research in Pain Management | Back Pain Consortium Research Program | NIAMS | UNIVERSITY OF PITTSBURGH AT PITTSBURGH | SOWA, GWENDOLYN A (contact); VO, NAM V | Pittsburgh, PA | 2019 |
NOFO Title: HEAL Initiative: Back Pain Consortium (BACPAC) Research Program: Mechanistic Research Centers (U19 Clinical Trial Optional)
NOFO Number: RFA-AR-19-026 Summary: The University of Pittsburgh Low Back Pain: Biological, Biomechanical, and Behavioral Phenotypes (LB3P) Mechanistic Research Center (MRC) will to perform in-depth phenotyping of patients with chronic low back pain (cLBP), using a multimodal approach to characterize patients and provide insight into the phenotypes associated with experience of cLBP to direct targeted and improved treatments. The LB3P MRC will be formed of three Research Cores, three support cores, and one research project. This approach will leverage and integrate distinctive resources at the University of Pittsburgh laboratories to deliver quantified biomechanical, biological, and behavioral characteristics; functional assessments; and patient-reported outcomes, coupled with advanced data analytics using a novel Network Phenotyping Strategy (NPS). By eliminating isolated and disconnected approaches to treatment and focusing on personalized patient-centric approaches, this approach will yield improved outcomes and patient satisfaction. |
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1UG3DA051241-01
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Integrated Treatment for Veterans with Co-Occurring Chronic Pain and Opioid Use Disorder | Clinical Research in Pain Management | Pain Management Effectiveness Research Network (ERN) | NIDA | University of New Mexico | WITKIEWITZ, KATIE A (contact); VOWLES, KEVIN E | Albuquerque, NM | 2019 |
NOFO Title: HEAL Initiative: Pain Management Effectiveness Research Network: Clinical Trial Planning and Implementation Cooperative Agreement (UG3/UH3 Clinical Trial Required)
NOFO Number: RFA-NS-19-021 Summary: Chronic pain is common, costly, and debilitating. Opioid prescription in the treatment of chronic pain is frequent and carries a consequent risk of poor treatment outcome, as well as higher morbidity and mortality in a clinically significant number of patients, particularly those who meet criteria for opioid dependence. Despite the alarming increases in prescription opiate misuse and opioid use disorder (OUD) nationally in the United States, there are few treatment options available that target both pain-related interference and OUD among patients with chronic pain. In military veterans, this issue is of particular importance as numerous reports indicate frequent use of opioids in the treatment of chronic pain, as well as increasing opioid-related problems. To date, there are no evidence-based treatment options that aim to both reduce pain interference while simultaneously addressing problematic opioid use. The overall aim of this study will be to determine the efficacy of an integrated psychosocial treatment in veterans with chronic pain who are taking buprenorphine for the treatment of OUD. To achieve this aim, they will utilize a randomized design to assess the efficacy of two empirically supported interventions: Acceptance and Commitment Therapy for chronic pain and Mindfulness-Based Relapse Prevention for substance use and misuse. |
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1UH2AR076741-01
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Imaging Epigenetic Dysregulation in Patients with Low Back Pain | Clinical Research in Pain Management | Back Pain Consortium Research Program | NIAMS | MASSACHUSETTS GENERAL HOSPITAL | WEY, HSIAO-YING | Boston, MA | 2019 |
NOFO Title: HEAL Initiative: Back Pain Consortium (BACPAC) Research Program Technology Research Sites (UH2/UH3 Clinical Trial Optional)
NOFO Number: RFA-AR-19-028 Summary: Inhibitors of the epigenetic enzymes histone deacetylases (HDACs) produce analgesic responses and are therefore therapeutic targets for pain. The research team recently resolved a PET imaging agent, [11C]Martinostat, that selectively binds to a subset of HDAC enzymes. A series of initial proof-of-concept clinical validation studies will be conducted to evaluate whether [11C]Martinostat PET is a sensitive biomarker to detect the typical (axial) chronic low back pain (cLBP). The research team will validate [11C]Martinostat PET’s ability to differentiate subtypes of pain by comparing axial cLBP and other cLBP patients with radiculopathy and longitudinally study subacute LBP patients (sLBP) to investigate whether there is a unique imaging signature that differentiates patients who develop cLBP and those who recover from low back pain. Using [11C]Martinostat to understand HDAC expression changes in chronic pain patients will validate an epigenetic drug target, refine patient selection based on HDAC expression, and facilitate proof of mechanism in developing novel analgesics. |
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1U24NS115678-01
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EPPIC-Net Hub at University of Washington | Clinical Research in Pain Management | Early Phase Pain Investigation Clinical Network (EPPIC-Net) | NINDS | University of Washington | BACKONJA, MIROSLAV MISHA (contact); CURATOLO, MICHELE ; STACEY, BRETT | Seattle, WA | 2019 |
NOFO Title: HEAL Initiative: Early Phase Pain Investigation Clinical Network - Specialized Clinical Centers (U24 Clinical Trial Not Allowed)
NOFO Number: RFA-NS-19-036 Summary: The Helping to End Addiction Long-term? (HEAL) Initiative’s Early Phase Pain Investigation Clinical Network (EPPIC-Net) is a unique opportunity to impact the management of pain, through expeditious discovery and validation of biomarkers and analgesic therapies, and in-depth phenotyping. The University of Washington’s (UW) Division of Pain Medicine (UW Pain; “hub”) includes four core clinical sites. Committed spokes include specialty care clinics, primary care clinics, external academic medical centers, and health systems. To achieve the goals of the HEAL Initiative’s EPPIC-Net, the study group will (1) establish UW EPPIC-Net hub and spokes infrastructure, provide scientific leadership and administrative oversight, and apply expertise in design and conduct of high-quality multidisciplinary Phase 2 clinical trials and biomarker validation studies; (2) develop policies and procedures for rapid design, initiation, recruitment, conduct, and closure of high-quality multidisciplinary Phase 2 clinical trials and biomarker validation studies for specific pain conditions at UW Pain EPPIC-Net hub and spokes; and (3) establish mechanisms for communication, education and training, and performance assessment of the UW-EPPIC-Net hub and spokes, to assure efficient and timely utilization of resources to most effectively recruit research participants into EPPIC-Net. |
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1U24NS113846-01
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Medical University of South Carolina Specialized Clinical Center of EPPIC-Net | Clinical Research in Pain Management | Early Phase Pain Investigation Clinical Network (EPPIC-Net) | NINDS | MEDICAL UNIVERSITY OF SOUTH CAROLINA | BORCKARDT, JEFFREY J (contact); BRADY, KATHLEEN T | Charleston, SC | 2019 |
NOFO Title: HEAL Initiative: Early Phase Pain Investigation Clinical Network - Specialized Clinical Centers (U24 Clinical Trials Not Allowed)
NOFO Number: RFA-NS-19-025 Summary: The Medical University of South Carolina (MUSC) Specialized Clinical Center (Hub) of the Early Phase Pain Investigation Clinical Network (EPPIC-Net) will provide a robust and readily accessible infrastructure for rapid implementation and performance of high-quality comprehensive studies of novel treatments for patients with a wide variety of pain conditions. The MUSC-Hub will harness multidisciplinary clinical, research, statistical, and data management expertise to provide the scientific leadership and infrastructure required to design and conduct multisite Phase II clinical trials, biomarker validation studies, and deep phenotyping of patient populations as part of the EPPIC-Net with the overall goal of accelerating the development of new therapies for patients with acute and/or chronic pain. |
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1U18EB029351-01
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Development of an MRgFUS system for precision-targeted neuromodulation of pain circuits with simultaneous functional MRI | Preclinical and Translational Research in Pain Management | Translating Discoveries into Effective Devices to Treat Pain | NIBIB | VANDERBILT UNIVERSITY MEDICAL CENTER | CASKEY, CHARLES F (contact); CHEN, LI MIN ; GRISSOM, WILLIAM A | Nashville, Tennessee | 2019 |
NOFO Title: HEAL Initiative: Translational Development of Devices to Treat Pain (U18 Clinical Trial Not Allowed)
NOFO Number: RFA-EB-18-003 Summary: This project aims to develop a next-generation noninvasive neuromodulation system for non-addictive pain treatments. The research team will build an integrated system that uses magnetic resonance image-guided focused ultrasound (MRgFUS) stimulation to target pain regions and circuits in the brain with high precision. The system will use MR imaging to locate three pain targets commonly used in clinical pain treatments, to stimulate those targets with ultrasound, and to monitor responses of nociceptive pain circuits using a functional MRI readout. Three collaborating laboratories will tackle the goals of this project: (Aim 1) Develop focused ultrasound technology for neuromodulation in humans, compatible with the high magnetic fields in an MRI scanner. (Aim 2) Develop MRI technology to find neuromodulation targets, compatible with focused ultrasound transducers. (Aim 3) Validate the complete MRgFUS neuromodulation system in brain pain regions in nonhuman primates. By the end of the project, the research team will have a fully developed and validated MRgFUS system that is ready for pilot clinical trials in pain management. |
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1R44NS113740-01
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An Instrument to Assess the Functional Impact of Chronic Pain | Cross-Cutting Research | Small Business Programs | NINDS | BARRON ASSOCIATES, INC. | CLARK, BRIAN R | Charlottesville, VA | 2019 |
NOFO Title: PHS 2018-02 Omnibus Solicitation of the NIH, CDC, and FDA for Small Business Innovation Research Grant Applications (Parent SBIR [R43/R44] Clinical Trial Not Allowed)
NOFO Number: PA-18-574 Summary: The proposed Fast Track SBIR effort will develop and validate the reliable, low-cost KnowPain instrument. KnowPain will objectively and quantitatively assess the functional impact of chronic pain using measures derived from six degrees-of-freedom motion, heart rate, skin surface temperature, and skin conductivity collected via a specially designed, ergonomic wrist-worn biometric sensing instrument. The new assessment instrument will apply advanced psychometric methods to both physiologic and kinematic data to provide precise scores for functional impairment due to chronic pain. The assessment results will be presented to the clinician in an easy-to-understand report and will include longitudinal results, confidence estimates, and normative data to enable comparisons both within and between patients. The system will include provision to interface with electronic medical records. Accurate functional assessment is a crucial component in the effective treatment of chronic pain. The proposed approach will supplement existing methods for assessing patient function by providing novel and highly complementary information for a more complete (and often unobserved) picture of the impact of chronic pain on patient function. KnowPain measures will provide important data on the practical consequences of pain and on treatment efficacy. |
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3U24TR001597-04S1
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TIN Supplement | Clinical Research in Pain Management | Pain Management Effectiveness Research Network (ERN) | NCATS | University of Utah | Dean, Jonathan Michael | Salt Lake City, UT | 2019 |
NOFO Title: CTSA Network - Trial Innovation Centers (TICs) (U24)
NOFO Number: RFA-TR-15-002 |
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1UH3NS115118-01
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Transcranial focused ultrasound for head and neck cancer pain. A pilot study | Preclinical and Translational Research in Pain Management | Translating Discoveries into Effective Devices to Treat Pain | NINDS | UNIVERSITY OF VIRGINIA | ELIAS, WILLIAM JEFFREY | Charlottesville, VA | 2019 |
NOFO Title: HEAL Initiative: Clinical Devices to Treat Pain (UH3 Clinical Trial Optional)
NOFO Number: RFA-NS-19-018 Summary: Head and neck cancer is particularly susceptible to nociceptive and neuropathic pains because it is dense with sensitive anatomic structures and richly innervated. Transcranial magnetic resonance imaging–guided focused ultrasound (FUS) is a new stereotactic modality capable of delivering high-intensity energy through the intact human skull with submillimeter precision. This clinical trial will target the spinothalamic and spinoreticular pain circuits by unilateral FUS mesencephalotomy, an effective procedure for cancer pain but limited by the accuracy of its era. The primary aim is to assess the safety and preliminary effectiveness in six head and neck cancer patients with opioid-resistant pain. Researchers will investigate the potential mechanism of pain relief as the mesencephalotomy target involves the confluence of the ascending and descending pain systems. Aims 2 and 3 will investigate these systems with electrophysiology specific for the spinothalamic tract and carfentenil positron emission tomography imaging that measures the brain’s endogenous opioids. |
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1UG3NS114947-01
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Novel HCN1-selective small molecule inhibitors for the treatment of neuropathic pain | Preclinical and Translational Research in Pain Management | Development and Optimization of Non-Addictive Therapies to Treat Pain | NINDS | WEILL MEDICAL COLL OF CORNELL UNIV | GOLDSTEIN, PETER A | New York, NY | 2019 |
NOFO Title: Optimization of Non-addictive Therapies [Small Molecules and Biologics] to Treat Pain (UG3/UH3 Clinical Trial Not Allowed)
NOFO Number: RFA-NS-19-010 Summary: Neuropathic pain is characterized by neuronal hyperexcitability and spontaneous activity, properties associated with activity of hyperpolarization-activated, cyclic nucleotide-regulated (HCN1-4) channels, the source of the pacemaker current, Ih. Inhibition of HCN1-mediated Ih elicits marked antihyperalgesia in multiple animal models of neuropathic pain, including models for direct nerve injury and chemotherapy-induced peripheral neuropathy, and does so with little or no disruption to either normal pain processing or baseline behaviors and activities. The overall objective is to develop a peripherally restricted HCN1 inverse-agonist as a therapeutic for neuropathic pain. Researchers have generated a novel small molecule that combines an antihyperalgesic HCN1 inhibitor with a motif that controls distribution and membrane presentation and is a potential non-opioid antihyperalgesic treatment for peripheral neuropathic pain. |
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3U19TW008163-10S1
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DIVERSE DRUG LEAD COMPOUNDS FROM BACTERIAL SYMBIONTS IN PHILIPPINE MOLLUSKS | Preclinical and Translational Research in Pain Management | FIC | UNIVERSITY OF UTAH | HAYGOOD, MARGO GENEVIEVE | Salt Lake City, UT | 2018 | |
NOFO Title: Limited Competition: International Cooperative Biodiversity Groups (U19)
NOFO Number: RFA-TW-13-001 Summary: The Philippine Mollusk Symbiont International Cooperative Biodiversity Group harnesses the vast biodiversity of the Philippines to discover new drugs to treat bacterial infections, parasitic infections, pain, and other neurological conditions and cancer, all of which are serious health problems in both the Philippines and the United States. The Republic of the Philippines represents a unique nexus of exceptional biodiversity, dense human population with pressing societal needs, consequent urgent need for conservation, and government commitment to education and technology to harness national human and natural resources for a sustainable future. Mollusks are one of the most diverse groups of marine animals, and their associated bacteria represent an unexplored trove of chemical diversity. Researchers will use an increasing understanding of the interactions between mollusk symbionts and their hosts to discover the most novel and useful molecules. The project will document and describe Philippine mollusk biodiversity and support training and infrastructure that provide the foundation for conservation of Philippine biodiversity. |
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3R01DK103901-04S1
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TARGETING THE TRANSIENT RECEPTOR POTENTIAL CHANNELS TO IMPROVE BOWEL DYSFUNCTION | Preclinical and Translational Research in Pain Management | NIDDK | WASHINGTON UNIVERSITY | HU, HONGZHEN | SAINT LOUIS, MO | 2018 | |
NOFO Title: Research Project Grant (Parent R01)
NOFO Number: PA-13-302 Summary: Postoperative ileus (POI) following gastrointestinal (GI) surgery leads to significant patient morbidity and prolonged hospitalizations. Recent studies have demonstrated that intestinal manipulation and surgical trauma activate inflammatory macrophages (M?) and release inflammatory mediators such as nitric oxide (NO) to inhibit intestinal smooth muscle cells in POI. Intestinal M? are a highly heterogeneous and dynamic population in the innate immune system. Preliminary studies show that transient receptor potential vanilloid 4 (TRPV4) channel, a molecular sensor of tissue damage and inflammation, is exclusively expressed by the F4/80+/CD206+ intestinal anti-inflammatory M2 M?. Activation of TRPV4 produces an intestinal contractile response and improves GI transit in a mouse model of POI. The current proposal aims to elucidate the cellular and molecular mechanisms underlying the activation of TRPV4 in the intestinal M2 M?. |
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1U24AR076730-01
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Back Pain Consortium (BACPAC) Research Program Data Integration, Algorithm Development and Operations Management Center | Clinical Research in Pain Management | Back Pain Consortium Research Program | NIAMS | UNIV OF NORTH CAROLINA CHAPEL HILL | ANSTROM, KEVIN J (contact); IVANOVA, ANASTASIA ; LAVANGE, LISA | Chapel Hill, NC | 2019 |
NOFO Title: HEAL Initiative: Back Pain Consortium (BACPAC) Research Program Data Integration, Algorithm Development and Operations Management Center (U24 Clinical Trial Not Allowed)
NOFO Number: RFA-AR-19-027 Summary: The BACPAC Research Program’s Data Integration, Algorithm Development, and Operations Management Center (DAC) will bring cohesion to research performed by the participating Mechanistic Research Centers, Technology Research Sites, and Phase 2 Clinical Trials Centers. DAC Investigators will share their vision and provide scientific leadership and organizational support to the BACPAC Consortium. The research plan consists of supporting design and conduct of clinical trials with precision interventions that focus on identifying the best treatments for individual patients. The DAC will enhance collaboration and research progress with experienced leadership, innovative design and analysis methodologies, comprehensive research operations support, a state-of-the-art data management and integration system, and superior administrative support. This integrated structure will set the stage for technology assessments, solicitation of patient input and utilities, and the evaluation of high-impact interventions through the innovative design and sound execution of clinical trials, leading to effective personalized treatment approaches for patients with chronic lower back pain. |
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1UG3TR003148-01
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Multi-organ-on-chip device for modeling opioid reinforcement and withdrawal, and the negative affective component of pain: a therapeutic screening tool. | Preclinical and Translational Research in Pain Management | Translational Research to Advance Testing of Novel Drugs and Human Cell-Based Screening Platforms to Treat Pain and Opioid Use Disorder | NCATS | UNIVERSITY OF CALIFORNIA LOS ANGELES | MAIDMENT, NIGEL T (contact); ASHAMMAKHI, NUREDDIN ; SEIDLITS, STEPHANIE KRISTIN; SVENDSEN, CLIVE NIELS | Los Angeles, CA | 2019 |
NOFO Title: HEAL Initiative: Tissue Chips to Model Nociception, Addiction, and Overdose (UG3/UH3 Clinical Trial Not Allowed)
NOFO Number: RFA-TR-19-003 Summary: Researchers will develop multi-organ, microphysiological systems (MPSs) based on human induced pluripotent stem cell-derived midbrain-fated dopamine (DA)/gamma-aminobutyric acid neurons on a three-dimensional platform that incorporates microglia, blood–brain barrier (BBB), and liver metabolism. RNA sequencing and metabolomics analyses will complement the primary DA release measure to identify novel mechanisms contributing to chronic opioid-induced plasticity in DA responsiveness. The chronic pain-relevant aspect of the model will be realized by examination of aversive kappa-mediated opioid effects on DA transmission in addition to commonly abused mu opioid receptor agonists, and by incorporation of inflammatory-mediating microglia. Incorporation of BBB and liver metabolism modules into the microphysiologic system platform will permit screening of drugs. Throughput will be increased by integration of online sensors for online detection of DA and other analytes. Researchers will use a curated set of 100 chemical genomics probes. |
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1U44NS115111-01
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High-Resolution, Spinal Cord Stimulation for Non-Opioid Treatment of Neuropathic Pain | Preclinical and Translational Research in Pain Management | Translating Discoveries into Effective Devices to Treat Pain | NINDS | MICRO-LEADS, INC. | MCLAUGHLIN, BRYAN L | Somerville, MA | 2019 |
NOFO Title: HEAL Initiative: Translational Devices to Treat Pain (U44 Clinical Trial Optional)
NOFO Number: RFA-NS-19-017 Summary: The research team will develop HD64—a high-resolution, 64-channel spinal cord stimulation therapy to provide more pain relief for those suffering from chronic neuropathic pain and opioid dependence. HD64 provides an ultra-thin conformal blanket of stimulation contacts across the width of the spinal cord and enables more precise targeting of the lateral structures of the spinal cord to enhance pain relief. A cadaveric pilot run followed by a non-significant risk intraoperative study will be performed to inform the design parameters of HD64 arrays. The study will evaluate activation of medial and lateral spinal targets. At the end of Phase 1, the clinical feasibility of HD64 surgical leads will be established. In Phase 2, researchers will develop an external active lead pulse generator and charger. They will perform an early feasibility study human trial using active HD64 and mechanical and electrical design verification testing and chronic safety studies in large animals. |
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1UG3AT010621-01
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Group-based mindfulness for patients with chronic low back pain in the primary care setting | Clinical Research in Pain Management | Pragmatic and Implementation Studies for the Management of Pain to Reduce Opioid Prescribing (PRISM) | NCCIH | BOSTON MEDICAL CENTER | MORONE, NATALIA E | Boston, MA | 2019 |
NOFO Title: HEAL Initiative: Pragmatic and Implementation Studies for the Management of Pain to Reduce Opioid Prescribing (PRISM)(UG3/UH3 Clinical Trial Optional)
NOFO Number: RFA-AT-19-004 Summary: The opioid crisis has underscored the urgency of alleviating patients’ chronic low back pain (cLBP) with effective therapies, including evidence-based nonpharmacologic approaches. Mindfulness-based stress reduction (MBSR) is now recommended by the American College of Physicians for initial treatment of cLBP. A pragmatic clinical trial (PCT) will inform health care decision makers about whether this program can be implemented in a real-life clinical setting and measure its impact on outcomes. The OPTIMUM (Optimizing Pain Treatment In Medical settings Using Mindfulness) program will integrate and test an evidence-based mindfulness clinical pain program for patients with cLBP in the primary care provider (PCP) setting. It will be conducted with three health care system sites. Four hundred and fifty persons ? 18 years of age with cLBP will be randomized to OPTIMUM + PCP Usual Care or PCP Usual Care. |
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1U24NS113800-01
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University of Florida Early Phase Pain Investigation Clinical Center | Clinical Research in Pain Management | Early Phase Pain Investigation Clinical Network (EPPIC-Net) | NINDS | UNIVERSITY OF FLORIDA | PRZKORA, RENE (contact); TIGHE, PATRICK J | Gainesville, FL | 2019 |
NOFO Title: HEAL Initiative: Early Phase Pain Investigation Clinical Network - Specialized Clinical Centers (U24 Clinical Trials Not Allowed)
NOFO Number: RFA-NS-19-025 Summary: A major barrier to developing new pain treatments has been the absence of infrastructure to facilitate well-designed and carefully conducted clinical trials to test the efficacy of promising treatments. The UF Health Specialized Clinical Center Network will include UF Health as “hub” and statewide partners serving as spokes as part of the EPPIC Network. The University of Florida (UF) has the capability to reach more than 50% of the population of Florida, the third most populous state of the United States, and the capacity to successfully enroll patients with varying pain conditions into clinical trial protocols through its hub and spoke infrastructure as part of EPPIC-Net. |
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1RF1NS113839-01
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Target validation of a novel CGRP receptor in migraine | Preclinical and Translational Research in Pain Management | Discovery and Validation of Novel Targets for Safe and Effective Treatment of Pain | NINDS | UNIVERSITY OF IOWA | RUSSO, ANDREW F | Iowa City, IA | 2019 |
NOFO Title: Discovery and Validation of Novel Targets for Safe and Effective Pain Treatment (R01 Clinical Trial Not Allowed)
NOFO Number: RFA-NS-18-043 Summary: Migraine is a painful and debilitating neurological condition, the development and maintenance of which involves the neuropeptide calcitonin gene-related peptide (CGRP). An exciting development in the treatment of migraine is the recent FDA approval of a new class of CGRP-targeted therapies designed to prevent migraine. However, these drugs meet a clinically relevant endpoint for only about half of the patients. This project will test the hypothesis that the high-affinity CGRP receptor AMY1 is a novel and unexplored target that mediates specific migraine-related behaviors in the brain and/or periphery to cause migraine. Validation of CGRP and AMY1 receptor involvement in migraines will create a new direction for the development of novel drugs and provide alternatives to opioids for management of migraine and potentially for other chronic pain conditions. |
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3R44TR001326-03S1
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Automation and validation of human on a chip systems for drug discovery | Cross-Cutting Research | Small Business Programs | NCATS | HESPEROS, LLC | SHULER, MICHAEL L; HICKMAN, JAMES J | Orlando, FL | 2019 |
NOFO Title: PHS 2017-02 Omnibus Solicitation of the NIH, CDC, and FDA for Small Business Innovation Research Grant Applications (Parent SBIR [R43/R44])
NOFO Number: PA-17-302 Summary: Hesperos uses microphysiological systems in combination with functional readouts to establish systems capable of analysis of chemicals and drug candidates for toxicity and efficacy during pre-clinical testing, with initial emphasis on predictive toxicity. The team constructed physiological systems that represent cardiac, muscle and liver function, and demonstrated a multi-organ functional cardiac/liver module for toxicity studies as well as metabolic activity evaluations. In addition, the team demonstrated multi-organ toxicity in a 4-organ system composed of neuronal, cardiac, liver and muscle components. While much is known about the cells and neural circuitry regulating pain modulation there is limited knowledge regarding the precise mechanism by which peripheral and spinal level antinociceptive drugs function, and no available human-based model reproducing this part of the pain pathway. The ascending pain modulatory pathways provide a well characterized neural architecture for investigating pain regulatory physiology. In this project, the research team propose a human-on-a-chip neuron tri-culture system composed of nociceptive neurons, GABAergic interneurons and glutamatergic dorsal projection neurons (DPN) integrated with a MEMS construct. Using this model, investigators will interrogate pain signaling physiology at three levels, 1) at the site of origin by targeting nociceptive neurons with pain modulating compounds including noxious stimuli and inflammatory mediators, 2) at the inhibitory GABAergic interneuron, and 3) at the ascending spinal level by targeting glutamatergic DPNs. These circuits will be integrated utilizing expertise in patterning neurons as well as integration with BioMEMs devices. This system provides scientists with a better understanding of ascending pain pathway physiology and enable clinicians to consider alternative indications for treating pain at peripheral and spinal levels. |
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3R01DA037621-05S1
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Long-term activation of spinal opioid analgesia after imflammation - Supplement | Preclinical and Translational Research in Pain Management | Discovery and Validation of Novel Targets for Safe and Effective Treatment of Pain | NIDA | University of Pittsburgh | TAYLOR, BRADLEY K | Pittsburgh, PA | 2019 |
NOFO Title: Administrative Supplements for Validation of Novel Non-Addictive Pain Targets (Clinical Trials Not Allowed)
NOFO Number: NOT-NS-18-073 Summary: Severe tissue injury generates central sensitization. Latent sensitization (LS) is a silent form of central sensitization that persists after tissue has healed and overt signs of hyperalgesia have resolved. Pain remission during LS is likely maintained by tonic opioid receptor activity. The opioid receptor inverse agonist, naloxone, can reinstate experimental pain when delivered one week after the resolution of secondary hyperalgesia following first degree thermal injury. Our aims are to test: 1) the hypothesis that burn or surgery triggers LS and long-term opioid analgesia in humans; 2) the hypothesis that mu-opioid receptor (MOR) constitutive activity (MORCA) receptors by opioid peptides maintains endogenous analgesia and restricts LS to a state of pain remission; 3) the extent to which MORs inhibit neural activity in the DH and synaptic strength in presynaptic terminals of primary afferent nociceptors during LS; and 4) whether MORs inhibit spinal NMDA receptor subunits to block pain during LS. |
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1U24NS115714-01
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California Clinical and Translational Pain Research Consortium | Clinical Research in Pain Management | Early Phase Pain Investigation Clinical Network (EPPIC-Net) | NINDS | UNIVERSITY OF CALIFORNIA, SAN DIEGO | WALLACE, MARK S | San Diego, CA | 2019 |
NOFO Title: HEAL Initiative: Early Phase Pain Investigation Clinical Network - Specialized Clinical Centers (U24 Clinical Trial Not Allowed)
NOFO Number: RFA-NS-19-036 Summary: The California Clinical and Translational Pain Research Consortium (CCTPRC) consists of four University of California academic medical centers with considerable experience in pain management clinical trials, phenotyping, and biomarker validation. The network will leverage solid existing Clinical and Translational Science Award (CTSA) resources to make clinical trial execution efficient and rapid. The hub will be located at the University of California, San Diego, with spokes located on the other three campuses to provide maximum flexibility, ready to accommodate studies in a variety of pain conditions and provide successful recruitment and high-quality data collection. |