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Accelerating Crop Development with Improved Haploid Fertility 

Breakthrough for Accelerated Development of Crops of the Future

Indigenous Farmers are Leading a “New Green Revolution” Focused on Hemp 

James DeDecker, Director, Michigan State University – Upper Peninsula Research and Extension Center Mary Donner, Little Traverse Bay Bands of Odawa Indians – Ziibimijwang Farm Executive Director and Tribal Citizen

Cattle Industry Consortium Funds Research Aimed at Reducing Enteric Methane Emissions 

Integrating Genomics, Milk Spectrometry & Microbial Manipulations to Mitigate Enteric Methane Emissions from Dairy Cattle 

Year Awarded  2023

FFAR award amount   $2,301,499

Total award amount   $3,301,496

Location   Madison, WI

Matching Funders   Innovation Center for U.S. Dairy, ADM, the Council on Dairy Cattle Breeding (CDCB), Elanco, Genus plc, JBS USA, the National Dairy Herd Information Association, Nestlé and the New Zealand Agricultural Greenhouse Gas Research Centre (NZAGRC)

Grantee Institution   University of Wisconsin–Madison

Cows and other ruminant animals produce enteric methane as part of their natural digestive process. This methane is the single largest source of direct greenhouse gases in the dairy sector. University of Wisconsin–Madison researchers are combining interventions addressing breeding, data on milk composition and rumen microbes to selectively breed U.S. dairy cattle with lower emissions.

Hydrogen Production and Hydrogen Utilization in the Rumen of Beef & Dairy Cattle: Key Rumen Microbiome Measurements to Understand Mechanisms Controlling Methanogenesis & Mitigating Enteric Methane Emissions 

Year Awarded  2023

FFAR award amount   $1,066,820

Total award amount   $3,221,254

Location   Champaign, IL

Matching Funders   Innovation Center for U.S. Dairy, ADM, the Council on Dairy Cattle Breeding (CDCB), Elanco, Genus plc, JBS USA, the National Dairy Herd Information Association, Nestlé, the New Zealand Agricultural Greenhouse Gas Research Centre (NZAGRC) and the University of Illinois Urbana-Champaign

Grantee Institution   University of Illinois Urbana-Champaign

Cows and other ruminant animals produce enteric methane as part of their natural digestive process. This methane is the single largest source of direct greenhouse gases in the beef and dairy sectors. University of Illinois Urbana-Champaign researchers are studying how diets and different additives affect hydrogen production, which is essential to producing enteric methane, and how changes in hydrogen affect the amount of enteric methane produced.

SHIC Wean-to-Harvest Biosecurity Program Funds Additional Research 

Evaluation of the Efficacy, Agronomic Fit & Environmental Fate of Biopesticides for Management of Economically Important Diseases & Arthropod Pests of Hemp 

Year Awarded  2023

FFAR award amount   $210,000

Total award amount   $420,000

Location   Geneva, NY

Matching Funders   BioWorks

Because federal laws restricted hemp cultivation and research until recently, commercial hemp production lacks best practices, including effectively and safely managing pests and diseases. Academic and industry partners are collaborating to identify biopesticides – biologically derived crop protection products – that can control hemp’s major pest and disease threats. Researchers are studying the effectiveness of biopesticides, their compatibility with other crop protection products and the ability of hemp plants to tolerate biopesticide applications.

Improving Layer Hen Welfare with Better Bone Health 

A holistic approach to improving keel bone health of breeders and commercial layer hens 

Year Awarded  2023

FFAR award amount   $1,499,686

Total award amount   $2,999,372

Location   Davis, CA

Program   Layer Hen Keel Bone Health Program

Matching Funders   Hy-Line International; Open Philanthropy

Grantee Institution   University of California Davis

This research is bringing an interdisciplinary approach to the complex, multi-faceted challenge of keel bone damage. The research team is aiming to decrease the occurrence of keel bone damage by examining the birds’ housing environments and assessing the key relation and role of genetics. The researchers are identifying genetic markers associated with keel bone damage in breeding flocks raised under different housing environments and improving genetic selection to promote resistance to keel bone fractures. They are also evaluating the effects of housing design interventions on the development, type and prevalence of keel bone damage. Finally, the researchers are exploring alternative housing designs and conducting economic analyses to determine the costs and gains from the proposed adjustments to breeding and housing designs.