Degradable sensors reveal hidden soil secrets by being nibbled on by microbes
Peer-Reviewed Publication
Updates every hour. Last Updated: 28-Oct-2026 12:16 ET (28-Oct-2026 16:16 GMT/UTC)
The sensors, which are being developed by soil scientists at Lancaster University and researchers at the University of Colorado Boulder and the University of Manchester, track biological activity in soil by having a degradable substrate that is nibbled on by microbes.
The sensors offer the potential to reveal soil secrets including how they respond to climate events as well as their important role in storing carbon.
Ultrahot exoplanet, atmospheric differences: Researchers discovered clear differences in the atmosphere between the morning and evening sides of the ultrahot gas planet WASP-121 b using the James Webb Space Telescope (JWST).
Temperature and chemical variations: The evening side absorbs more infrared light due to higher temperatures caused by strong winds moving heat eastward, while water molecules decrease in the evening terminator due to high temperatures breaking them apart.
Planetary rotation and observation method: WASP-121 b’s synchronous rotation reveals different atmospheric regions during transit, allowing scientists to analyse changes in light absorption over time and longitude.
In lab settings, ultraviolet light deteriorates plastic so microbes can break it down further. But, in nature, plastic often persists in waterways for decades despite direct sunlight. While lab experiments often use purified water or unrealistic water chemistry, engineers found salts and other chemical constituents in natural waters suppress sunlight-driven degradation. Organic matter further slows down plastic degradation in freshwater and seawater.
Can networks of genes be stimulated using resonance? Researchers at the Niels Bohr Institute are investigating whether the protein p53, which activates a range of different genes, can be induced to communicate with the body’s cells “on command.” Perhaps resonance is the key to stimulating the body toward a new form of self-healing?
Researchers innovated artificial photosynthesis technology by optimizing the electrolyzer part of the system. This tweak enables the continuous production of solar fuel, even with fluctuations in sunlight intensity.
Managing the 1.7 billion tons of pig manure produced globally each year presents a dual challenge for agriculture: preventing air and water pollution while retaining valuable nutrients for fertilizer. Aerobic composting is a common solution, but the process releases significant amounts of ammonia (NH₃), an air pollutant, and nitrous oxide (N₂O), a potent greenhouse gas. Researchers at the Chinese Academy of Agricultural Sciences have developed an effective and scalable solution by creating an iron-modified biochar (FeBC) that simultaneously cuts these emissions and improves compost quality.
The research team, led by Qingwen Zhang, prepared the additive by infusing biochar derived from corn stover with an iron solution. This simple modification produced a material with a 4.6-fold increase in specific surface area and a richer array of surface functional groups compared to untreated biochar. In a controlled composting experiment with pig manure, the addition of 5% FeBC dramatically reduced cumulative NH₃ emissions by 46.7% and N₂O emissions by 41.7% relative to the unamended control. The iron-fortified biochar also outperformed standard biochar, demonstrating its superior ability to lock nitrogen into the compost.