Every year, millions of people are affected by invasive fungal infections, with Candida species being a significant cause of such infections. As the demand for effective therapies continues to rise due to increasing drug resistance, researchers are exploring new avenues to combat these deadly infections. A research team led by Dr. Sascha Brunke from the
Chemistry
In a groundbreaking new study published in Science, researchers from Imperial College London and Google DeepMind have presented a novel approach to modeling the states of molecules using neural networks. This innovative technique has the potential to revolutionize the field of computational chemistry and advance the development of new materials and chemical syntheses. One of
Protein folding is a crucial process in cellular biology, ensuring that proteins adopt their correct three-dimensional structures to function properly. With the help of cryo-electron tomography (cryo-ET), researchers are now able to gain unprecedented insights into how proteins fold within cells. A recent study conducted by the MPI of Biochemistry in Martinsried and the University
Picture a world where your milk carton can communicate with your smartphone, letting you know if it has gone bad without the need to open the fridge. This futuristic concept could soon become a reality, thanks to a groundbreaking technology known as printed electronics. Printed electronics involve electronic circuits that are thin, flexible, and can
Polymers have long been understood as materials consisting of long chains of molecules that determine their properties. Traditionally, external forces were believed to have a destructive impact on polymers, such as stretching leading to chain breakage. However, recent research has shown that external forces can actually have constructive effects on polymers, altering their properties and
Plastics have long been a staple in modern manufacturing, but their detrimental environmental impact has spurred a global search for eco-friendly alternatives. At The University of Warwick, researchers have been at the forefront of this movement, making significant advancements in the quest for sustainable materials to replace conventional plastics. In response to escalating environmental concerns,
When thinking about the Victorian era, most people envision elegance, refinement, and beauty. However, beneath the colorful cloth bindings of books from that time period lies a hidden danger. The dyes used to create these vibrant hues may actually pose a health risk to those who come into contact with them. Recent research has shed
In recent years, the concept of golden milk has taken the culinary world by storm. Initially rooted in traditional Indian culture as haldi doodh, this beverage has now transformed into a trendy, health-conscious option found in cafes worldwide. Combining milk, turmeric, and spices, golden milk offers a caffeine-free alternative that appeals to those seeking unique
The traditional methods of synthesizing solid-state materials have long been plagued by issues such as time consumption, energy inefficiency, and the generation of harmful byproducts. These processes have greatly contributed to environmental degradation and have limited the scalability of material production. However, James Tour’s lab at Rice University has developed a groundbreaking method known as
Polyurethane foam is a versatile material that is used in a wide range of products, from mattresses to insulation in refrigerators and buildings. However, the disposal of polyurethane foam poses significant environmental and climate challenges due to its composition and the methods used to recycle it. Fortunately, researchers at Aarhus University have made a groundbreaking
Electron transfer is a critical process that plays a vital role in various fields, including chemical reactions, electronic devices, and living organisms. In the realm of organic optoelectronic devices, such as organic light emitting diodes (OLEDs) and organic photovoltaics, understanding and enhancing electron transfer efficiency is crucial for improving device performance and functionality. One key
Nitrogenases play a crucial role in providing bioavailable nitrogen in the form of ammonia to all forms of life on Earth. In addition to converting N2 into NH3, some nitrogenases have the capability to directly convert CO2 into hydrocarbon chains, making them an exciting prospect for biotechnological advancements. A recent study led by researchers in
The Big Yellow Sulfur Pile in Vancouver, Canada stands as a striking landmark that represents the vast amounts of elemental sulfur produced through petroleum refining. In 2013, a breakthrough method called inverse vulcanization was developed by Prof. Pyun’s group from the University of Arizona, enabling the synthesis of a sulfur-rich polymer (SRP) with over 50
In a groundbreaking study published in Nature Communications, researchers from the Interface Science Department at the Fritz Haber Institute have introduced a new advancement in the fight against climate change. The study, titled “Reversible metal cluster formation on Nitrogen-doped carbon controlling electrocatalyst particle size with subnanometer accuracy,” explores a novel method for understanding the mechanisms
The Earth’s atmosphere is rich in nitrogen, crucial for the production of ammonia – a necessary component in agriculture. Traditionally, the conversion of dinitrogen gas (N2) to ammonia (NH3) has been energy-intensive and environmentally harmful. However, scientists have been exploring the use of sunlight as an alternative energy source for this process, which could significantly