GGrantIndex
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University Of California Irvine

Irvine, CA

Compare ↔
$1,053,434,270
Total funding
1,525
Grants

Funding over time

peak $141.4M · FY200525
$200M$150M$100M$50M$0
'05
'06
'07
'08
'09
'10
'11
'12
'13
'14
'15
'16
'17
'18
'19
'20
'21
'22
'23
'24
'25

Funding mix

By agency

NIH$534,929,642 · 857
DOE$258,422,456 · 181
DOD$165,573,638 · 285
NASA$93,740,371 · 197
USDA$1,479,757 · 5
AHRQ$0 · 1

By mechanism

$519,216,222 · 668
R01$365,877,751 · 359
U01$32,214,849 · 13
T32$14,918,217 · 15
P50$12,739,390 · 26
R21$11,371,545 · 46

Investigators at University Of California Irvine

InvestigatorsiAttributed = a PI's even-split share of each grant — a $1M grant with 2 PIs counts $500K each.
Exposure= the full size of every grant they're on ($1M each).

Largest grants

A RESEARCH PROGRAM IN ELEMENTARY PARTICLE PHYSICS$27,252,000
· FY2013 · Department of Energy
FRONT END ELECTRONICS DEVELOPMENT FOR SSC DETECTORS$26,374,111
· FY2008 · Department of Energy
A RESEARCH PROGRAM IN NEUTRINO PHYSICS, COSMIC RAYS, AND ELEMENTARY PARTICLES$10,242,431
· FY2009 · Department of Energy
Pacific-Southwest Ctr for Biodefense &Emerg Infect Dis*$9,980,000
U54 · FY2005 · AI
CENTER FOR CLOSING THE CARBON CYCLE (4C)$9,010,000
· FY2022 · Department of Energy
HUMANS EXPOSED TO THE SPACE RADIATION ENVIRONMENT ENCOUNTER A DIFFERENT TYPE OF RADIATION THAN THAT FOUND ON EARTH. HIGHLY ENERGETIC PARTICLES CAN TR$9,007,529
· FY2015 · National Aeronautics and Space Administration
ENSEMBLES OF PHOTOSYNTHETIC NANOREACTORS (EPN)$8,750,000
· FY2022 · Department of Energy
NEAR AND FAR-FIELD INTERFACES TO DNA-GUIDED NANOSTRUCTURES FROM RF TO LIGHTWAVE: EXPLOITING THE SPECTRUM$7,534,540
· FY2011 · Department of Defense
TAS::97 0130::TAS 'ADVANCED OPTICAL TECHNOLOGIES FOR DEFENSE TRAUMA AND CRITICAL CARE'$5,800,000
· FY2017 · Department of the Air Force
SCALABLE METHODS FOR THE ANALYSIS OF NETWORK-BASED DATA$5,381,300
· FY2008 · Department of Defense
SILENT SPATIALIZED COMMUNICATION AMONG DISPERSED FORCES$4,068,514
· FY2008 · Department of Defense
SOLID OXIDE ELECTROLYSIS CELLS (SOEC) INTEGRATED WITH DIRECT REDUCED IRON (DRI) PLANTS FOR PRODUCING GREEN STEEL$4,043,993
· FY2021 · Department of Energy
SUPER-KAMIOKANDE OPERATIONS$3,973,576
· FY2013 · Department of Energy
TAS::89 0222::TAS CAN MICROBIAL FUNCTIONAL TRAITS PREDICT THE RESPONSE AND RESILIENCE OF DECOMPOSITION TO GLOBAL CHANGE?$3,939,818
· FY2010 · Department of Energy
MEMS?NEMS S&T FUNDAMENTALS (YR1)$3,915,000
· FY2008 · Defense Advanced Research Projects Agency
TAS::89 0222::TAS; NEW; FUNDAMENTAL CHEMISTRY OF ACTINIDE COMPLEXES CONTAINING AN-N, AN-O, AND AN-S BOND; PI: WILLIAM EVANS$3,906,517
· FY2010 · Department of Energy
THE PROJECT AIMS TO DEVELOP AND DELIVER HIGHLY DURABLE AND MANUFACTURABLE FUEL CELL MEAS WITH LOW-PGM NOVEL CATHODE CATALYST LOADING, ENHANCED MASS ACTIVITY AT HIGH OPERATIONAL POTENTIALS, IMPROVED HIGH CURRENT DENSITY PERFORMANCE, AND EXTENDED OPERATIONAL LONGEVITY AT A REDUCED COS. THE PROPOSED PROGRAM’S LEVEL OF PERFORMANCE WILL MEET THE M2FCT 2025 END-OF-LIFE MEA TARGET: DEMONSTRATION OF 2.5 KW/GPGM POWER OUTPUT (1.07 A/CM2 CURRENT DENSITY AT 0.7 V; 749 MW/CM2 AT 0.7 V) AFTER RUNNING A HEAVY-DUTY AST EQUIVALENT TO 25,000 HOURS. THE DEVELOPMENT OF COMMERCIALLY VIABLE PT-ALLOY CATALYSTS AND ANALYSIS TECHNIQUES FOR EVALUATING AND RANKING THEM AS PROPOSED HERE ARE BASED ON FUNDAMENTAL PRINCIPLES AND DISCOVERIES THAT WERE CONCEIVED IN OUR LABORATORIES. MITIGATION OF DEGRADATION PROCESSES IS FEASIBLE ONLY BY MATERIALS DESIGN AT ATOMIC/MOLECULAR LEVEL, WHICH IS A SIGNATURE OF THIS PROJECT. TO ENHANCE THE PERFORMANCE AND DURABILITY OF THE CATHODE CATALYST TO MEET THE MEDIUM- AND HEAVY-DUTY TARGETS WE WILL AIM TO: (1) DRIVE NANOSCALE SURFACE STRUCTURES TO MIMIC THAT OF PT(111)-SKIN, (2) INDUCE ORDERING IN THE ALLOY TO LIMIT TM LOSS , (3) INTRODUCE AU TO ENABLE SELF-HEALING, (4) OPTIMIZE THE INTERFACE BETWEEN WATER, IONOMER, AND THE CATALYST WITH MOLECULAR INTERFACIAL ADDITIVES, (5) DEPLOY NANOPARTICLES ON ADVANCED CARBON SUPPORTS WITH SELECTIVE ANCHORS, AND (5) INTEGRATE NOVEL MATERIALS IN TO HIGHLY DURABLE MEAS. THE TECHNICAL INNOVATIONS PROPOSED HERE RELY ON CUTTING EDGE FUNDAMENTAL DISCOVERIES AT ATOMIC/MOLECULAR SCALE THAT WILL BE APPLIED TO THE DEVELOPMENT OF NOVEL CATALYSTS FOR HIGHLY DURABLE SELF-HEALING MEAS. THE OUTCOME WILL BE GROUNDBREAKING MEA PERFORMANCE WHICH WILL MEET OR EXCEED THE M2FCT AND DOE TECHNICAL TARGET. THE FINAL DELIVERABLE OF THE PROJECT WILL BE AT LEAST 6 MEAS FOR INDEPENDENT TESTING BY THE M2FCT CORE LAB CONSORTIUM. THE DELIVERED MEAS WILL MEET/EXCEED THE M2FCT 2025 END-OF-LIFE TARGET.$3,600,000
· FY2023 · Department of Energy
FAST-ION D-ALPHA DIAGNOSTIC FOR NSTX$3,249,009
· FY2009 · Department of Energy
ISEP: INTEGRATED SIMULATION OF ENERGETIC PARTICLES IN BURNING PLASMAS$3,159,925
· FY2017 · Department of Energy
ATTACK SURFACE REDUCTION FOR BINARY PROGRAMS$3,157,799
· FY2017 · Department of the Navy