Project Grant 20236701344037
- This three-year, $1.8 million project grant from the National Science Foundation Division of Integrative Organismal Systems aims to develop rapid transformation and gene editing techniques in maize through the Biological Sciences program (CFDA 47.074). The University of Missouri System will work to establish a system for precisely inserting transgenes and editing genes at predetermined sites in the genome of maize. Researchers will create "landing pads" on five chromosomes of a...
- This $322,020 Project Grant award from the National Science Foundation's (NSF) Division of Integrative Organismal Systems will support collaborative research at the University of California, Davis (UC Davis) to develop improved methods for CRISPR/Cas9-based gene editing in maize. The key objectives are to generate maize lines expressing high levels of Cas9 nuclease and to engineer and optimize viral vectors to efficiently deliver guide RNAs for both somatic and heritable gene editing. This...
- This National Science Foundation (NSF) Project Grant, awarded under the Integrative Activities program (CFDA 47.083), will support collaborative research at Kansas State University to identify the genetic basis of plant regeneration, specifically focusing on maize. The $400,000 award will fund the project from September 1, 2023 to August 31, 2027. The primary goal is to better understand the genetic mechanisms controlling plant cell proliferation and growth, which are critical for successful...
- This $735,000 Project Grant award from the National Science Foundation's Biological Sciences program (CFDA 47.074) will support research at Cornell University to investigate the interactions of plant transcription factors that regulate the three-dimensional patterning of grass leaves. The research aims to gain a better understanding of the functional interactions between the LIG1 and WOX3 transcription factor genes, which are critical for determining leaf width, length, and angle in grasses like...
- This collaborative research project, funded by the National Science Foundation's Division of Integrative Organismal Systems under the Biological Sciences program (CFDA 47.074), awarded $451,139 to the University of South Carolina beginning July 1, 2025, and concluding June 30, 2028. The project develops innovative biotechnology utilizing transposable elements (TEs)—mobile DNA fragments that naturally reshuffle genome segments—to enable intragenic genome engineering. Rather than introducing...
- The National Science Foundation awarded a $307,400 Project Grant under its Biological Sciences program (CFDA 47.074) to the University of Missouri System to develop epigenetic editing tools for improving crop plants. The project aims to expand the capabilities of genome editing by enabling targeted changes in gene expression, rather than just DNA sequence, to generate novel traits in important crops like rice and tomato. Key objectives include adapting the epigenetic editing approach...
- The University of Wisconsin-Madison received a two-year, $264,000 Project Grant award from the US Department of Agriculture National Institute of Food and Agriculture under the Agriculture and Food Research Initiative competitive grants program. The grant will fund research into sweet corn sugar and starch composition through identification and analysis of genes that modify these traits, such as the Sugary Enhancer 1 gene. The university will produce and analyze the SE1 protein, identify other...
- The University of Missouri System received a $400,000 Project Grant from the National Science Foundation's Division of Integrative Organismal Systems under the Biological Sciences program (CFDA 47.074), effective September 1, 2025 through August 31, 2027. This research initiative focuses on elucidating the genetic and molecular basis of heterosis (hybrid vigor) through investigation of the Genomic Balance Hypothesis. The project will test whether increased and more balanced gene expression in...
- The National Science Foundation (NSF) Division of Integrative Organismal Systems awarded a $277,978 Project Grant under the Biological Sciences program (CFDA 47.074) to the University of California, Berkeley. The 3-year grant, beginning on Sep 1, 2023, aims to develop new tools and resources to enable more efficient gene editing in maize, the world's most produced crop. Specifically, the project will generate maize lines that constitutively express the Cas9 gene editing enzyme and engineer...
- Federal Project Grant Award Summary The National Science Foundation (NSF) Division of Integrative Organismal Systems awarded $876,250 to the University of California, Berkeley under the Biological Sciences program (CFDA 47.074) for collaborative research on epigenetic editing technologies for crop improvement. The award, effective October 1, 2025, through April 30, 2028, supports the development and advancement of epigenetic editing methods—techniques that modify gene expression without altering...
** AWARDS ISSUED PRIOR TO JANUARY 20, 2025, WERE FUNDED UNDER PREVIOUS ADMINISTRATIONS AND MAY NOT REFLECT THE PRIORITIES AND POLICIES OF THE CURRENT ADMINISTRATION.** MANY CROPS, INCLUDING MAIZE, SORGHUM, AND MANY MILLETS, OCCUR IN A SUB-FAMILY OF GRASSES CALLED THE PANICOIDEAE. ALL PANICOIDS SHARE A FLORAL TRAIT THAT CONSTRAINS THEIR POTENTIAL PRODUCTIVITY. GRASS FLOWERS OCCUR IN STRUCTURES CALLED SPIKELETS. PANICOIDEAE SPIKELETS CONTAIN TWO FLOWERS, BUT USUALLY ONLY ONE FLOWER (THE UPPER FLOWER) IS FERTILE AND PRODUCES A GRAIN AFTER POLLINATION. THIS IS BECAUSE THE FLORAL ORGANS (CALLED CARPELS) THAT GO ON TO FORM THE GRAIN ARE SUPPRESSED IN LOWER FLOWERS, LEADING TO STERILE FLOWERS. THUS, POTENTIAL CROP PRODUCTIVITY IS CONSTRAINED BY CARPEL SUPPRESSION. IN THIS ERA OF GENOME ENGINEERING, CARPEL SUPPRESSION GENES COULD BE TRANSFORMATIVE TARGETS FOR GENOME EDITING AND YIELD IMPROVEMENT. HOWEVER, ONLY A FEW GENES ARE KNOWN TO REGULATE CARPEL SUPPRESSION IN MAIZE AND ITS RELATIVES. FURTHERMORE, HOW THESE GENES INTERACT IN PATHWAYS, AND WHETHER THESE GENES HAVE CONSERVED FUNCTIONS IN MANY GRASS SPECIES REMAINS UNKNOWN. HERE, WE WILL (1) EXPAND THE LIST OF GENES WITH KNOWN ROLES IN CARPEL SUPPRESSION, (2) DETERMINE HOW CARPEL SUPPRESSION GENES ARE ORDERED INTO GENETIC NETWORKS AND PATHWAYS IN MAIZE, AND (3) TEST THE HYPOTHESIS THAT A COMMON GENETIC MECHANISM REGULATES CARPEL SUPPRESSION IN THE PANICOIDEAE. TO ACHIEVE THESE OBJECTIVES, WE WILL USE STATE-OF-THE-ART METHODS IN GENETICS, GENOMICS, COMPUTER VISION, AND QUANTITATIVE PHENOTYPING.THIS PROJECT WILL PROVIDE FUNDAMENTAL KNOWLEDGE FOR ENSURING RESILIENT AND PROSPEROUS AGRICULTURAL SYSTEMS IN THE U.S. CARPEL SUPPRESSION GENES REPRESENT PROMISING TARGETS TO INCREASE YIELD IN MAIZE, AN IMPORTANT CROP IN THE U.S., AND IN ITS CLIMATE RESILIENT RELATIVES IN THE PANICOIDEAE. OUR RESULTS WILL REPRESENT AN IMPORTANT FIRST STEP IN DETERMINING THE GENETIC ARCHITECTURE OF CARPEL SUPPRESSION AND WILL ALLOW US TO EVALUATE THE POTENTIAL FOR THE GENES WE IDENTIFY TO AFFECT PRODUCTIVITY IN MAIZE AND THE MODEL PANICOID SETARIA VIRIDIS AT SMALL SCALES. GIVEN THE RELATIVE EASE OF GENOME EDITING IN MANY GRASSES, THE DISCOVERIES WE MAKE CAN BE TRANSLATED TO OTHER CROPS, TO BE RIGOROUSLY EVALUATED IN YIELD TRIALS. THERE IS A GROWING INTEREST WORLDWIDE IN CLIMATE- RESILIENT PANICOID CROPS, INCLUDING SORGHUM AND PROSO MILLET. HOWEVER, WHILE MANY MILLETS ARE DROUGHT, SALT AND HEAT TOLERANT, MOST ARE NOT HIGH-YIELDING, AND HAVE NOT BEEN SUBJECT TO THE INTENSIVE BREEDING THAT HAS SO DRAMATICALLY IMPROVED U.S. MAIZE YIELD IN THE 20TH CENTURY. SELECTIVE BREEDING, TOGETHER WITH TARGETED MODIFICATIONS TO KEY DEVELOPMENTAL GENES, SUCH AS CARPEL SUPPRESSION GENES, COULD DRAMATICALLY ACCELERATE YIELD IMPROVEMENTS. THUS, IDENTIFYING THE GENES THAT CONTROL PANICOID CROP PRODUCTIVITY COULD ACCELERATE THE PRODUCTION OF HIGH-YIELDING, CLIMATE-RESILIENT CROPS THAT WOULD ENHANCE THE LONG-TERM SUSTAINABILITY OF U.S. FOOD PRODUCTION SYSTEMS.
Mod # | Description | ReasonForModification | Federal Obligation | Date |
|---|---|---|---|---|
| Not listed | $0 | 3/6/26 | ||
| Not listed | $606.0k | 11/4/24 |