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Hypergravity boosts food production in moss species, Japanese study finds

Unless one is a trained fighter jet pilot, or a Formula 1 driver, humans tend not to do well at higher gravity, but tiny green moss plants seem to thrive under such conditions.

A team from Japan found that moss (Physcomitrium patens) exhibited increased photosynthesis under hypergravity conditions (six and 10 times Earth’s gravity) due to enhanced (CO2) diffusion from the atmosphere into the chloroplasts within the plant leaves.

The plants adapt to the increased gravity by increasing the size of their chloroplasts and the number of leafy shoots of the moss (gametophores). Researchers identified for the first time the gene factor responsible for this response. They named the factor ISSUNBOSHI1 or IBSH1, a namesake of an inch-high, warrior boy from a beloved Japanese fairytale.

Scientists discover amino acid switch that turns fat into a calorie-burning furnace

Cutting calories doesn’t just slim you down—it also reduces cysteine, an amino acid that flips fat cells from storage mode to fat-burning mode. Researchers found that lowering cysteine sparks the conversion of white fat into heat-producing brown fat, boosting metabolism and promoting weight loss in both humans and animal models.

James Dyson reveals the future of farming

How do you grow 2.5x more strawberries? James Dyson reveals how engineers designed and built a unique way to increase Dyson Farming’s strawberry output.

Strawberries available in the UK from:
@Ocado
@marksandspencer
@sainsburys

Discover more about Dyson Farming:
dysonfarming.com.
#Dyson #InsideDyson #DysonFarming

Post-prandial hyperlipidaemia impairs systemic vascular function and dynamic cerebral autoregulation in young and old male adults

Dietary fat is an important part of our diet. It provides us with a concentrated source of energy, transports vitamins and when stored in the body, protects our organs and helps keep us warm. The two main types of fat that we consume are saturated and unsaturated (monounsaturated and polyunsaturated), which are differentiated by their chemical composition.

But these fats have different effects on our body. For example, it is well established that eating a meal that is high in saturated fat, such as that self-indulgent Friday night takeaway pizza, can be bad for our blood vessels and heart health. And these effects are not simply confined to the heart.

The brain has limited energy stores, which means it is heavily reliant on a continuous supply of blood delivering oxygen and glucose to maintain normal function.

One of the ways the body maintains this supply is through a process known as “dynamic cerebral autoregulation”. This process ensures that blood flow to the brain remains stable despite everyday changes in blood pressure, such as standing up and exercising. It’s like having shock absorbers that help keep our brains cool under pressure.

But when this process is impaired, those swings in blood pressure become harder to manage. That can mean brief episodes of too little or too much blood reaching the brain. Over time, this increases the risk of developing conditions like stroke and dementia.


Ultra-short RNA insertions offer scalable, cost-effective gene silencing for agriculture

A team of researchers from the Spanish National Research Council has made a significant advance in plant biotechnology by developing a new method for silencing genes. The novel technique uses ultra-short ribonucleic acid (RNA) sequences carried by genetically modified viruses to achieve genetic silencing, allowing the customization of plant traits. The work, published in the Plant Biotechnology Journal, opens up new avenues for crop improvement, functional genomics, and sustainable agriculture.

Viral vector technology involves modifying viruses, removing the genetic material that causes disease, to turn them into vehicles that carry the RNA sequence to be introduced into an organism. This technique, when applied to plants, has already proven effective under experimental conditions in inducing flowering and accelerating the development of improved crop varieties, modifying plant architecture to facilitate adaptation to mechanization, improving drought tolerance, and producing metabolites beneficial to human health, among other applications.

Now, the method developed by the CSIC, together with the Valencian University Institute for Research on the Conservation and Improvement of Agrodiversity (COMAV) and the Italian Department of Applications and Innovation in Supercomputing (Cineca), represents an optimization of technological platforms to accelerate the development and validation of agricultural applications based on viral vectors.

Scientists just cracked the code to editing entire chromosomes flawlessly

A group of Chinese scientists has created powerful new tools that allow them to edit large chunks of DNA with incredible accuracy—and without leaving any trace. Using a mix of advanced protein design, AI, and clever genetic tweaks, they’ve overcome major limitations in older gene editing methods. These tools can flip, remove, or insert massive pieces of genetic code in both plants and animals. To prove it works, they engineered rice that’s resistant to herbicides by flipping a huge section of its DNA—something that was nearly impossible before.

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