Articles tagged with Food Crops
A recent breakthrough in plant growth has increased crop yields by 40% by creating a shortcut for a glitch that plagues most food crops. This technology, part of the Realizing Increased Photosynthetic Efficiency (RIPE) project, aims to improve photosynthesis and boost worldwide food productivity.
The Realizing Increased Photosynthetic Efficiency (RIPE) project has received an additional $13 million to accelerate its progress in redesigning photosynthesis. The funding will be used to test model predictions in key crops and translate yield-boosting technologies more quickly, aiming to achieve a 50 percent yield increase.
The Realizing Increased Photosynthetic Efficiency (RIPE) project aims to develop sustainable yield increases through engineered photosynthesis. With a five-year, $45 million grant from the Bill & Melinda Gates Foundation and others, RIPE seeks to provide new means to eradicate world hunger and malnutrition by 2030.
Michigan State University will lead a $10 million U.S. Department of Energy grant to explore ways to boost camelina oilseed's yield. The team aims to achieve up to a 300-percent increase per acre in oil production by studying the plant's metabolic and gene expression networks.
A long-term experiment found that plant mixtures with high diversity alleviated flooding effects on crops, while monocultures were more vulnerable. Soil properties improved in diverse mixtures, allowing for faster water drainage and higher oxygen levels.
Cassava is a crucial crop for 110% growth in global food demand, with potential for yield improvement through boosting sunlight conversion. Researchers are urging more research to address climate change and sustain yields.
Researchers are one step away from starvation due to increased global food demand and climate change. They are developing a method to engineer crops that can increase photosynthesis under high CO2 and temperature conditions.
The University of Maryland School of Public Health will lead a $10 million grant from the USDA to develop innovative, safe and sustainable ways to irrigate food crops in variable climates. The CONSERVE Center of Excellence aims to identify alternative water sources and new treatment technologies for contaminant-free irrigation.
Small farmers, often women, are preserving traditional crop varieties and landraces, providing vital resources for their livelihoods. Peri-urban and marginal locations are key areas where this preservation is occurring, with urban markets driving demand for local foodstuffs.
Scientists have developed tools to observe nitrogen uptake in real-time, improving understanding of the process and potentially increasing crop yields. The technology allows for the study of transport proteins involved in nitrogen absorption, enabling the development of more efficient agricultural practices.
A recent study under realistic field conditions found reassuringly low levels of pharmaceuticals and personal care products (PPCPs) in crops grown with treated wastewater for irrigation. Leafy vegetables absorbed the highest amounts of PPCPs, including a medication for epilepsy; triclosan, an anti-bacterial ingredient; and caffeine.
Dozens of fires detected in southeastern Africa, primarily in Mozambique and Malawi, indicating intentional burning by farmers. The fires, mainly during the main growing season, have been linked to agricultural practices to enhance crop yields and manage land.
A study published in Nature Communications found that 24-39% of harvested areas experienced stagnation or decline in maize, rice, wheat, and soybean yields between 1961 and 2008. The findings highlight the need to shift focus from meat and biofuel production to food security, particularly for staple crops like wheat and rice.
The University of Illinois has received a five-year, $25-million grant to boost the efficiency of key food crops like rice and cassava through improved photosynthesis. This project aims to increase crop productivity while reducing water and nitrogen usage, addressing the challenge of global food security.
Researchers discovered that two nanomaterials, cerium oxide and zinc oxide, can profoundly alter soil-based food crop quality and yield. The study found that zinc oxide nanoparticles increased the level of zinc in plant tissues, while cerium oxide reduced nitrogen fixation, compromising soil fertility.
A recent literature review analyzed nearly 100 scientific articles on the effects of nanoparticles on edible plants. The study found that nanoparticle uptake and build-up vary depending on plant type, nanoparticle size, and chemical composition, highlighting a need for further research in nanoecotoxicology.
Research finds increased toxic compounds and decreased protein content in plants grown under high CO2 and drought conditions. Cassava yields may also be affected, highlighting the need for new crop cultivars to address future climate change.
Researchers found that MXC alters estrogen-regulated gene Hoxa10 in the reproductive tract, reducing embryo implantation ability. Exposure to MXC has been shown to induce abnormalities in female reproductive tract development and function.