Chemistry

Halogen bonds play a crucial role in directing sequential dynamics in multi-functional crystals, leading to rapid photoinduced changes within supramolecular systems. Understanding the distinct nature of halogen bonds is essential for crystal engineering and the development of innovative photo-functional materials. However, the influence of halogen bonds on the rapid photoinduced changes within supramolecular systems remains

In a groundbreaking development reported in the Journal of the American Chemical Society, a team of researchers has introduced a new technology aimed at overcoming the limitations of current catalyst electrodes. This innovation has paved the way for the large-scale production of green hydrogen at a relatively low cost. Led by Professor Han Gi Chae

The waste-to-wealth movement has sparked interest in technology that can convert greenhouse gases into valuable materials. Among these technologies, the catalytic conversion of methane into methanol has shown promise. Methanol is a crucial industrial solvent and raw material for chemical synthesis. Traditionally, the process of converting methane to methanol has been energy and resource-intensive, relying

The University of Virginia School of Engineering and Applied Science has made a groundbreaking advancement in the field of carbon capture technology with the development of MOF-525. MOF-525 is a type of metal-organic framework that possesses unique properties that make it incredibly effective at extracting value from captured carbon dioxide. This material has the potential

Imagine the possibilities of a material that defies common sense when it comes to stretching and compressing. This is where auxetics come into play, offering unique properties that make them ideal for various applications ranging from sneaker insoles to bomb-resilient buildings and car bumpers. Despite their immense potential, auxetic products have been slow to hit

Prof. Bozhi Tian’s lab has been at the forefront of merging rigid electronics with the soft, delicate world of the human body for years. Their latest groundbreaking work introduces the concept of “living bioelectronics” – a fusion of living cells, gel, and electronics that seamlessly integrates with living tissue. This innovative prototype opens up a

UC Santa Barbara researchers have made significant strides in expanding the realm of chemical reactions by incorporating the use of light. Led by chemistry professor Yang Yang, in collaboration with experts from the University of Pittsburgh, a groundbreaking method utilizing photobiocatalysis has been established to produce non-canonical amino acids. These amino acids serve as crucial

Proteins are complex molecules that play crucial roles in various biological processes. In order for proteins to function effectively, they must have the correct three-dimensional structure. Traditional methods of comparing protein structures have focused solely on the position of atoms, neglecting important chemical information. However, a new groundbreaking technique called LoCoHD (Local Composition Hellinger Distance)

Protein structure prediction has long been a critical area of research for understanding human health and disease. Recent developments in quantum computing have opened up new possibilities for enhancing the accuracy and efficiency of predicting protein structures. A recent study by researchers from Cleveland Clinic and IBM has shed light on the potential of quantum

In the biorefining industry, there has been a longstanding belief that “You can make anything from lignin, except money.” Lignin, a bio-based compound abundant in wood biomass, has always posed challenges when it comes to commercialization. However, a new innovative approach by chemists from the Dalian Institute of Chemical Physics (DICP) of the Chinese Academy

The study of protein interactions within cells is crucial in understanding the complexity of multicellular organisms. Proteins play a vital role in carrying out specific functions within cells and coordinating with each other to form intricate molecular machinery. However, current methods often lack the cellular context in which these interactions take place. Researchers at The

The utilization of CO2 as a chemical raw material has the potential to revolutionize the way we produce essential products while simultaneously reducing emissions and our dependence on fossil fuels. A recent study published in Angewandte Chemie International Edition introduces a groundbreaking metal-free organic framework that could enable the electrocatalytic production of ethylene from CO2,

The intricacies of natural materials like bone, bird feathers, and wood have always fascinated scientists due to their intelligent approach to physical stress distribution despite their irregular architectures. However, understanding the relationship between stress modulation and their structures has proven to be quite elusive. A recent study led by University of Illinois Urbana-Champaign civil and

The world is currently facing a climate crisis, with carbon dioxide (CO2) emissions being a major contributor to global warming. However, researchers have found a potential solution to this problem in the form of a low-cost, tin-based catalyst that can convert CO2 into valuable chemicals such as ethanol, acetic acid, and formic acid. This breakthrough

The quest for more efficient and cost-effective solar panels has led researchers to explore new materials for photovoltaic applications. Traditional silicon-based solar technology is being challenged by materials such as perovskites, which offer lower costs and simpler manufacturing processes. However, finding the right perovskite materials with the optimal “band gap” has been a major hurdle