A recent study published in Nature Plants reveals that short double-stranded small interfering RNAs (siRNAs) are the primary messengers responsible for RNA interference in plants. These siRNAs can travel vast distances, enabling plants to modulate gene expression at a distance and adapt to their environment through phenotypic plasticity.
Computer simulations revealed that Venus' coronae topography depends on crust thickness and magma activity, classifying over 100 large coronae into active and inactive groups. The 'Ring of Fire' in Venus' southern hemisphere is a zone expelling high levels of rising plume material.
Researchers discovered that uromodulin forms long filaments that envelop pathogens, neutralizing them and preventing infection. The findings offer pointers for developing new treatments and drugs to prevent urinary tract infections without antibiotics.
Researchers at ETH Zurich have developed a new method to produce more efficient and precise diffraction gratings, which can be used to create miniaturized optical devices. These devices have potential applications in futuristic smartphone cameras, biosensors, and autonomous vision for robots and self-driving cars.
Researchers at ETH Zurich have developed a method to control the dispersity of polymer materials, allowing for the production of polymers with specific properties. This is achieved by using two catalysts with different effects, enabling chemists to adjust the dispersity precisely and produce uniform or highly dispersed polymers.
Silq allows programmers to utilize quantum computers' potential better than existing languages, with more compact and faster code. The language also automatically identifies and erases unnecessary values through uncomputation, improving the reliability of quantum calculations.
A team of researchers at ETH Zurich has made a groundbreaking discovery that silicon can be stronger and more deformable than previously thought. They found that by using a specific lithography method, silicon pillars could withstand much greater widths without breaking, offering new possibilities for the fabrication of micro-?electro-...
Researchers have created the first global map of rockfalls on the Moon, revealing that asteroid impacts are responsible for over 80% of observed rockfalls. The map, based on over two million images, shows that even ancient lunar surfaces continue to be affected by erosion through rockfall.
Researchers from ETH Zurich have deconstructed the complex mechanisms that control tissue repair and scar formation, focusing on a signal molecule called activin. The study reveals how activin affects cell interactions and extracellular matrix composition, promoting wound healing but also causing scarring.
Researchers have discovered that the symbiotic relationship between plants and rhizobia is more complex than previously thought, with plants actively trying to exploit the bacteria for nitrogen fixation. The study sheds light on how soya and clover harness bacterial nitrogen fixation, a process that could be applied to other crops.
Researchers at ETH Zurich create implant that uses electrical signals to stimulate insulin production in diabetic mice, offering potential breakthrough for real-time glycemic control. The system is designed to be connected to the internet and controlled via an app, paving the way for a more integrated approach to diabetes management.
Researchers found that bumblebee damage stimulates flower production in plants, accelerating their blooming. This phenomenon may help overcome challenges posed by climate change, which threatens to disrupt timing of mutualistic relationships between plants and insect pollinators.
Researchers developed an algorithm to predict coastal currents using dynamical systems theory and ocean data. This new tool promises to enhance search and rescue techniques at sea, potentially saving lives.
Researchers at ETH Zurich have developed a new method to distribute bioactive molecules in three-dimensional space, allowing them to guide the growth of nerve fibers and other biological processes. This innovation has potential benefits for medicine, including improving recovery from neural injuries.
Researchers discovered that sea-ice changes are the most probable cause for the cooling of surface waters in the Southern Ocean. Simulations show that stronger winds propelled sea ice into the open ocean, enhancing freshwater transport and creating a stratified seawater layer with reduced heat exchange.
ETH Zurich researchers have designed cost-effective oxygen concentrators to combat the COVID-19 pandemic. The devices use a novel membrane technology and can be replicated almost anywhere in the world using locally available materials.
The chemical industry can achieve net-zero CO2 emissions by using carbon capture and storage (CCS) or carbon capture and utilization (CCU), which require more energy. Biomass-based production is another option, but with intensive land use requirements.
Scientists successfully printed complex structures containing up to 27% cellulose particles, exhibiting mechanical properties similar to those of natural materials like wood. The developed process enables the creation of customized packaging, cartilage replacements, and potentially even sports car bodies.
A method combining vital signs and medical data predicts circulatory failure in ICU patients several hours in advance, enabling early intervention. The approach uses just 20 relevant variables to achieve 90% accuracy and cuts alarm systems by 90%. Further development is needed for clinical trial testing.
Researchers at ETH Zurich create a five-metre long microwave quantum link, demonstrating the feasibility of quantum local networks. The breakthrough could enable the development of powerful quantum computers by connecting smaller devices in a cluster.
The study reveals the modular design of ALG6, an enzyme responsible for forming lipid-linked oligosaccharides, enabling its adaptation to various substrates. The researchers also developed methods for synthesizing complex glycans in the lab, providing new insights into LLO biosynthesis.
The NASA InSight lander has recorded over 450 marsquakes on Mars, providing insights into the planet's internal structure and tectonic activity. The data reveals a stronger attenuation in the upper mantle compared to the lower mantle, indicating a more fractured crust.
The study achieved time-resolved measurement of a single magnetic memory event using a tunnel junction, revealing two stages: incubation and actual reversal. The researchers developed a strategy to minimize time fluctuations, reducing the total time for the reversal event to less than 0.3 nanoseconds.
A new list of chemicals available worldwide contains 350,000 entries, three times greater than 20 years ago, highlighting a need for international collaboration to track global chemical diversity. The list reveals inadequate descriptions and confidential business information on 70,000 and 50,000 entries, respectively.
The Christen Lab has successfully produced a fully artificial genome, the Caulobacter ethensis-2.0, with over 580 functional genes. This breakthrough demonstrates the promise of synthetic biology in producing designer genomes for industrial and health applications.
A global distribution map of fish genetic diversity has been created, revealing uneven distribution across marine and freshwater species. Temperature plays a key role in shaping genetic diversity among marine fish, while habitat complexity and changes over time are crucial for freshwater species.
An interdisciplinary study found that biodiversity increases yield and revenue in semi-natural grasslands. The researchers discovered that maintaining higher levels of plant diversity leads to improved forage quality and increased income from milk sales, comparable to the difference between extensively and intensively farmed land.
Researchers are now designing new proteins from scratch with specific functions using computational methods, enabling the creation of novel structures and properties. This breakthrough has significant implications for fields such as vaccine design, targeted drug delivery, and 'smart' therapeutics.
Joyce Tait discusses re-engineering biological components through computational modelling and bio-systems design technologies. She emphasizes the need for an equitable balance between promoting innovation and ensuring safety in synthetic biology.
Researchers at ETH Zurich developed a new substance that inhibits the growth of calcium phosphate crystals, preventing vascular calcification. The molecule is structurally related to IP6 and has been shown to be stable and effective in vitro and in disease models.
During droughts, mountain forests and grasslands at higher elevations release more water into the air than in normal growth periods. This is due to increased metabolism promoting water uptake by vegetation. As a result, evapotranspiration rates are above average, draining rivers and streams of half their usual volume.
Researchers at ETH Zurich developed a new QLED screen technology using ultra-thin nanoplatelets that emit light in one direction, increasing energy efficiency and reducing scattering losses. The technology produces high-intensity blue light with around two-fifths of the generated light reaching the observer's eye.
A new study finds that irrigation has a significant cooling effect during warm extremes in regions such as Southern Europe, North Africa, and South Asia. This effect partly offsets the warming caused by global greenhouse gas emissions, reducing the likelihood of hot extremes by a factor of 2-8 in some areas.
Researchers at ETH Zurich develop a new form of 18-carat gold that weighs about five to ten times less than traditional gold, with a density of just 1.7 g/cm3. The lightweight gold is created by embedding thin discs of gold nanocrystals in a matrix of protein fibres and polymer latex.
Researchers have developed a superhydrophobic material that repels blood and promotes fast clotting, making it ideal for use as a bandage. The material's antibacterial effect also reduces the risk of infection when changing bandages.
A group of scientists has conducted a new analysis that concludes the 'weather-is-not-climate' paradigm is no longer applicable. They found that daily weather data can reveal long-term warming trends, provided global spatial patterns are considered.
Scientists from ETH Zurich have successfully created a miniature copper statue of Michelangelo's famous sculpture using 3D printing technology. The technique allows for the creation of metal structures at the nanometer and micrometer scale, enabling the production of complex geometries with high precision.
Researchers have discovered a new model explaining why our planet has a higher concentration of stardust from red giant stars compared to other bodies in the solar system. The study, published in Nature Astronomy, suggests that the Earth's unique mix of elements was formed during its formation around the Sun.
Scientists create 'DNA of Things' technology, storing 3D-printing instructions and other data in everyday objects like plastic rabbits. The method uses DNA molecules, allowing for secure information transfer and hiding in everyday items like glasses or construction materials.
Researchers employed satellite imagery and statistical models to identify the socio-economic causes of soil erosion globally. They found that national borders reveal areas with unnaturally high erosion rates, highlighting the 'country effect' as a major driver of soil loss.
Using stereolithography, ETH Zurich researchers have created glass objects with intricate structures and pore sizes controlled by UV light intensity. The technique allows for the production of complex glass objects, such as those with different types of glass or combined materials.
Researchers at ETH Zurich have created a protective membrane made of cellulose that significantly reduces fibrotic tissue formation around cardiac pacemaker implants. The membrane's unique surface structure impedes protein deposition and cell adhesion, leading to reduced tissue growth and improved surgical outcomes.
A team of scientists at ETH Zurich has developed a novel electro-opto-mechanical switch that can assess surroundings quickly and recognize people and obstacles. The switch uses plasmonics technology, which enables fast and compact switching with low losses.
Researchers have developed a new method to observe changes in molecular chirality during chemical reactions in real time. They used femtosecond laser pulses with tailor-made polarization to follow the disappearance of chirality after bond breakage.
Scientists at ETH Zurich created quadrupole magnetic building blocks that can be assembled into any two-dimensional shape using attractive south and north poles. These modules have potential applications in soft robotics and could be used to create robots controlled by a magnetic field.
Researchers at ETH Zurich have created synthetic phages that can recognize and attack a broader range of bacterial strains, providing a potential solution for treating antibiotic-resistant infections. The synthesized phages share the same genome but have different receptor binding proteins, allowing them to target specific hosts.
Scientists at ETH Zurich have created a new family of bioresorbable magnesium alloys containing zinc and calcium, which can be resorbed by the human body. Analytical transmission electron microscopy revealed a previously unknown dealloying mechanism governing the dissolution of precipitates in the magnesium matrix.
Researchers found that different clay minerals interact with organic matter to varying degrees, affecting carbon sequestration. Smectite and kaolinite form stable complexes with organic substances, while mica and chlorite bind tightly with continental carbon.
Researchers at ETH Zurich have developed a compact spectrometer that can analyze infrared light in the same way as conventional spectrometers. The device uses special waveguides with an adjustable optical refractive index to disperse the spectrum of incident light, allowing for broad spectral analysis.
Researchers at ETH Zurich developed a neuroprosthetic system that allows leg amputees to feel sensations from the prosthesis, giving them a sense of control and confidence while walking. The system involves tiny electrodes implanted in the nerve, allowing the brain to perceive the prosthesis as an extension of the body.