Worldwide, farmers are being challenged with a variety of issues, including growing populations, a changing climate and soil degradation, among many others. To combat these challenges, researchers are looking for solutions and have begun to focus their work on the viability of sustainable agriculture practices, like cover crops.
Researchers have discovered that the green color of soybean pods is due to chlorophyll, which plays a crucial role in the plant’s photosynthetic process. The study found that pod and seed photosynthesis contribute significantly to soybean yield, challenging conventional notions about the importance of leaves. This finding offers new insights for optimizing plant productivity and increasing food production.
New knowledge of ancient grain may enable breeding for climate change adaptation. An international team of researchers has unlocked a large-scale genomic analysis of Setaria or foxtail millet, an important cereal crop. The study advances our understanding of the domestication and evolution of foxtail millet, as well as the genetic basis for important agricultural traits.
Corn leaves on the lowest rung of a plant’s stem spend much of the day shrouded in shade. A gust of wind can crack the window to photosynthesis, and growth, for those leaves, but they typically can’t adjust in time to seize the moment. Research is identifying genes that could open the way to breeding plants better at capitalizing on yield-boosting sunlight.
In a comprehensive review of breeding salinity tolerance in plants, researchers argue that the main reason research advances have not been translated into commercial salt-tolerant crop varieties for farmers is that this has not been a priority for plant breeders. However, with increasing impacts of climate change due to sea-level rise and storm surges forcing seawater further inland, the need to increase crop salinity tolerance is becoming more urgent, and so priorities will change.
Plants show enormous variety in traits relevant to breeding, such as plant height, yield and resistance to pests. One of the greatest challenges in modern plant research is to identify the differences in genetic information that are responsible for this variation. A research team has now developed a method to identify precisely these special differences in genetic information. Using the example of maize, they demonstrate the great potential of their method and present regions in the maize genome that may help to increase yields and resistance to pests during breeding.
Tomatoes, bananas, cabbages, melons, pumpkins and cucumbers… are just some of the 150 crops of commercial interest that are victims of Fusarium oxysporum, one of the most important pathogens in the world due to the millions of dollars in losses it is responsible for and its ability to attack different types of plants. Although it can go unnoticed in the soil for more than 30 years, when it detects the roots of a host plant, it grows towards them, colonizing its vascular system and causing crops to wilt.
Wikifarmer and the Global Plant Council organized a joint webinar that brought together leading speakers in the field of new breeding technologies and gene-edited crops. With a focus on geographical specificities, each expert shared their unique perspectives and expertise, aiming to inspire advancements in the agricultural industry and pave the way for sustainable and productive crops in the future.
A new study analyzed DNA from ancient local winegrape seeds discovered at archaeological excavations in the Negev.
Alfalfa (Medicago sativa) is a legume grown in many parts of the world as a source of animal fodder. It is prized in the forage industry for its high protein content and biomass yield. Recently, alfalfa protein has found applications in aquaculture, pet food industry and human diet. Furthermore, it is seen as an environmentally beneficial crop, with positive impacts on biodiversity and soil nitrogen conservation.
