UTA researcher joins National Academy of Inventors
Business Announcement
Updates every hour. Last Updated: 11-Dec-2025 19:12 ET (12-Dec-2025 00:12 GMT/UTC)
The National Academy of Inventors has named University of Texas at Arlington researcher Muthu B.J. Wijesundara as a 2025 fellow.
The energy that plants capture from sunlight through photosynthesis provides the source of nearly all of humanity’s food. Yet the process of photosynthesis has inefficiencies that limit crop productivity, especially in a rapidly changing world. A new review by University of Illinois scientists and collaborators reflects on how improving photosynthesis can bring us closer to food security. The review, which was published in Cell, was coauthored by plant biology professors Stephen Long, Amy Marshall-Colon, and Lisa Ainsworth. With chemical and biomolecular engineering professor Diwakar Shukla and colleagues at eight partner institutions, they evaluated biological strategies to improve the efficiency of photosynthesis, the process by which plants convert sunlight to sugar in crop plants.
UC San Diego scientists have identified the enzyme that shatters cancer genomes and helps them evolve to resist treatment, solving a longstanding mystery in the molecular biology of cancer.
Long before flowers dazzled pollinators with brilliant colors and sweet scents, ancient plants used another feature to signal insects: heat. The findings, based on an analysis of the biology and relationship between modern cycad plants and the rare beetle species that pollinate them, offer new insights into what shaped the earliest eras of plant-animal co-evolution. Plants have evolved a remarkable array of strategies to attract pollinators, including not only color and scent, but also the production of heat. Thermogenic plants generate heat through intense cellular respiration. It’s thought that in some cases, this heat, via infrared radiation, may serve as a direct signal to pollinating insects. However, the ecological and functional role of plant thermogenesis remains speculative. Cycads, the oldest lineage of animal-pollinated seed plants, account for over half of all thermogenic species and rely on specialized beetle pollinators. Fossil evidence indicates that cycad-beetle interactions date back at least 200 million years, making them an ideal system to investigate whether the production of thermal infrared radiation functions as a sensory cue for pollinators and to explore early plant-pollinator evolution.
Wendy Valencia-Montoya and colleagues used a suite of methods, combining field observations from across the Americas with molecular biology, electrophysiology, protein structural studies, and controlled behavioral experiments, to understand cycad thermogenesis and how it relates to beetle pollinators. Valencia-Montoya et al. found that mitochondrial adaptation and circadian genes drive rhythmic heat production in the plant’s reproductive structures, causing cycads to emit a single daily burst of heat production starting in the afternoon and peaking in the early evening. This infrared radiation alone is sufficient to attract beetle pollinators. The authors also show that pollinator beetles have specialized infrared-sensing organs in their antennae, which contain extremely thermosensitive receptors whose structural variants across species align with the specific thermal output of the plants they pollinate. This suggests co-evolution between plant thermogenesis and beetle sensory systems. Evolutionary comparisons further show that infrared signaling predates the rise of widespread color-based pollination cues. “Infrared is most easily detectable at night, largely limiting cycads to pollination by night-flying beetles,” write Beverly Glover and Alex Webb in a related Perspective. “Perhaps by evolving a signal only detectable by a single receptor carried by a nocturnal insect group, the insect-pollinated cycads limited their speciation opportunities – the moon dance between cycads and beetles may have destined the cycads for limited evolutionary radiation.”
Podcast: A segment of Science's weekly podcast, related to this research, will be available on the Science.org podcast landing page [http://www.science.org/podcasts] after the embargo lifts. Reporters are free to make use of the segments for broadcast purposes and/or quote from them – with appropriate attribution (i.e., cite "Science podcast"). Please note that the file itself should not be posted to any other Web site.
Scientists have uncovered a surprising new way plants fight disease by teaming up with beneficial fungi that literally remodel the battleground inside their roots. The study, published in Cell Reports, shows that arbuscular mycorrhizal (AM) fungi can remodel the plant’s cellular membrane at pathogen infection sites, making it harder for root rot pathogens to gain a foothold.