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R18EB037607

Project Grant

Overview

Grant Description
DISPLACEMENT-GUIDED FOCUSED ULTRASOUND FOR PAIN MODULATION. - OVER THE PAST FEW YEARS, FOCUSED ULTRASOUND (FUS) HAS EMERGED AS A PROMISING NONINVASIVE APPROACH CAPABLE OF BOTH STIMULATING AND SUPPRESSING NEURONAL ACTIVITY. ULTRASOUND HAS SEVERAL ADVANTAGES OVER THE AFOREMENTIONED TECHNOLOGIES AS IT CAN PENETRATE THE BRAIN OVER SEVERAL CENTIMETERS THROUGH THE INTACT SCALP AND SKULL. GIVEN ITS ENTIRELY NONINVASIVE AND NONIONIZING NATURE, THE TECHNIQUE HAS BEEN SHOWN TO BE TRANSLATABLE TO HUMAN BRAIN STUDIES WITHOUT REQUIRING INTRODUCTION OF ELECTRODES OR OPTICAL FIBERS. SIMILARLY, FUS HAS BEEN APPLIED NONINVASIVELY ON PERIPHERAL NERVES PROVIDING SIMILAR ADVANTAGES. FUS WORKS BY MODULATING THE NEURONAL TISSUE REGION WHERE THE FUS BEAM IS FOCUSED AND COULD BE COMBINED WITH READOUTS THAT INFORM LEVEL OF ACTIVATION. SEVERAL STUDIES HAVE SHOWN THAT FUS CAN STIMULATE AND/OR SUPPRESS ELECTRICAL AND/OR HEMODYNAMIC ACTIVITY IN RODENTS, NON-HUMAN PRIMATES (NHP) AND HUMANS, INDUCE LIMB MOVEMENT, PUPIL DILATION AS WELL AS SUPPRESSION OF SOMATOSENSORY EVOKED POTENTIALS (SSEP) IN MICE EVOKE ANTI-SACCADES IN NHP AND SUPPRESS PAIN SENSATION IN HUMANS. IN SHARP CONTRAST WITH ITS PREMISE, HOWEVER, AND DESPITE THE MULTITUDE OF ADVANTAGES, FUS REMAINS SEVERELY LIMITED DUE TO THE LACK OF INTRA-ANIMAL REPRODUCIBILITY, LACK OF TARGETING AND MONITORING METHODOLOGIES DURING MODULATION AND ITS UNKNOWN UNDERLYING MECHANISM OR TARGETED REGION. THE TRUE POTENTIAL OF FUS REMAINS DIMINISHED IN ITS EXPEDITED ADOPTION AND THEREFORE RISKS FALTERING ON ITS PREMISE. TO THIS PURPOSE, OUR GROUP HAS DEVELOPED NOVEL ULTRASOUND-GUIDED (USGFUS) CAPABILITIES WITH FEASIBILITY SHOWN IN BOTH CNS AND PNS FUS MODULATION. IN THE PROPOSED STUDIES, WE AIM TO HARNESS THOSE METHODOLOGIES DEVELOPED TO TARGET REGIONS CRITICAL FOR PAIN TREATMENT. THE METHODOLOGIES PROPOSED COULD THUS CONSTITUTE BREAKTHROUGHS IN FUS MODULATION SINCE THEY ALLOW TO SELECTIVELY FOCUS (ON THE ORDER OF A FEW MILLIMETERS) AND APPLY IN SHALLOW AND DEEP-SEATED REGIONS WHILE INFORMING ON THE TYPE OF FUS MECHANISM IN REAL TIME.. IN THE PROPOSED R18 STUDY, WE AIM TO HARNESS THE FULL POTENTIAL OF OUR NOVEL MONITORING SYSTEM (MOTUS (MONITORING OF TRANSCRANIAL ULTRASOUND)) TO IMPROVE BOTH SAFETY AND EFFICACY OF FUS THAT CAN BE USED TO BOTH TARGET AND IMAGE RESPONSES TO BOTH CENTRAL (C-MOTUS) AND PERIPHERAL (C-MOTUS) NEUROMODULATION WITH FUS IN RODENTS AND PRIMATES. THE NOVEL ULTRASOUND-BASED METHODOLOGIES PROPOSED HEREIN WOULD CONSTITUTE BREAKTHROUGHS IN FUS MODULATION MONITORING AND ALLOW FOR THE FIRST TIME ACCURATELY TARGETING (ON THE ORDER OF A FEW MILLIMETERS) AND STEERING ACROSS BOTH SHALLOW AND DEEP-SEATED REGIONS (ON THE ORDER OF SEVERAL CENTIMETERS IN DEPTH) AS WELL AS MONITORING ACTIVITY.
Funding Goals
TO SUPPORT HYPOTHESIS-, DESIGN-, TECHNOLOGY-, OR DEVICE-DRIVEN RESEARCH RELATED TO THE DISCOVERY, DESIGN, DEVELOPMENT, VALIDATION, AND APPLICATION OF TECHNOLOGIES FOR BIOMEDICAL IMAGING AND BIOENGINEERING. THE PROGRAM INCLUDES BIOMATERIALS (BIOMIMETICS, BIOPROCESSING, ORGANOGENESIS, REHABILITATION, TISSUE ENGINEERING, IMPLANT SCIENCE, MATERIAL SCIENCE, INTERFACE SCIENCE, PHYSICS AND STRESS ENGINEERING, TECHNOLOGY ASSESSMENT OF MATERIALS/DEVICES), BIOSENSORS/BIOTRANSDUCERS (TECHNOLOGY DEVELOPMENT, TECHNOLOGY ASSESSMENT, DEVELOPMENT OF ALGORITHMS, TELEMETRY), NANOTECHNOLOGY (NANOSCIENCE, BIOMIMETICS, DRUG DELIVERY SYSTEMS, DRUG BIOAVAILABILITY, MICROARRAY/COMBINATORIAL TECHNOLOGY, GENETIC ENGINEERING, COMPUTER SCIENCE, TECHNOLOGY ASSESSMENT), BIOINFORMATICS (COMPUTER SCIENCE, INFORMATION SCIENCE, MATHEMATICS, BIOMECHANICS, COMPUTATIONAL MODELING AND SIMULATION, REMOTE DIAGNOSIS AND THERAPY), IMAGING DEVICE DEVELOPMENT, BIOMEDICAL IMAGING TECHNOLOGY DEVELOPMENT, IMAGE EXPLOITATION, CONTRAST AGENTS, INFORMATICS AND COMPUTER SCIENCES RELATED TO IMAGING, MOLECULAR AND CELLULAR IMAGING, BIOELECTRICS/BIOMAGNETICS, ORGAN AND WHOLE BODY IMAGING, SCREENING FOR DISEASES AND DISORDERS, AND IMAGING TECHNOLOGY ASSESSMENT AND SURGERY (TECHNIQUE DEVELOPMENT AND TECHNOLOGY DEVELOPMENT).
Place of Performance
New York United States
Geographic Scope
State-Wide
The Trustees Of Columbia University In The City Of New York was awarded Pain Modulation Breakthrough: Displacement-Guided Focused Ultrasound Project Grant R18EB037607 worth $3,220,027 from the National Institute of Neurological Disorders and Stroke in August 2025 with work to be completed primarily in New York United States. The grant has a duration of 3 years and was awarded through assistance program 93.279 Drug Abuse and Addiction Research Programs. The Project Grant was awarded through grant opportunity HEAL Initiative: Translational Development of Diagnostic and Therapeutic Devices (R18 Clinical Trial Not Allowed).

Status
(Ongoing)

Last Modified 9/5/25

Period of Performance
8/21/25
Start Date
7/31/28
End Date
2.0% Complete

Funding Split
$3.2M
Federal Obligation
$0.0
Non-Federal Obligation
$3.2M
Total Obligated
100.0% Federal Funding
0.0% Non-Federal Funding

Activity Timeline

Interactive chart of timeline of amendments to R18EB037607

Additional Detail

Award ID FAIN
R18EB037607
SAI Number
R18EB037607-3629524589
Award ID URI
SAI UNAVAILABLE
Awardee Classifications
Private Institution Of Higher Education
Awarding Office
75N800 NIH National Institute of Biomedical Imaging and Bioengineering
Funding Office
75NQ00 NIH National Institute of Neurological Disorders and Stroke
Awardee UEI
QHF5ZZ114M72
Awardee CAGE
3FHD3
Performance District
NY-90
Senators
Kirsten Gillibrand
Charles Schumer
Modified: 9/5/25