Fluidic technologies are integral to numerous sectors, including healthcare, pharmaceuticals, and environmental management. The need for sophisticated methods to capture, control, and release various liquids accurately remains a significant obstacle within these fields. Addressing this challenge, researchers at The Polytechnic University of Hong Kong (PolyU) have developed an innovative solution known as Connected Polyhedral Frames
Chemistry
In a groundbreaking advancement, researchers from Dartmouth College have engineered a self-powered pump capable of utilizing natural light and chemical reactions to effectively target and eliminate specific water pollutants. The findings, detailed in the journal Science, illustrate the potential of this innovative technology to revolutionize water treatment and environmental conservation efforts. As water flows into
Ammonia, a compound essential for the agricultural sector, particularly in nitrogen-based fertilizers, has seen industrial production techniques evolve over the last century. Despite significant advancements, researchers have grappled with inefficiencies and low yields inherent in traditional ammonia synthesis methods. The conventional process, largely centered around the Haber-Bosch method, requires atmospheric nitrogen and hydrogen to combine—facilitated
As the global demand for renewable energy sources continues to rise, harnessing solar power has emerged as a pivotal strategy for achieving a sustainable energy future. At the forefront of this innovation are optoelectronic devices, particularly solar cells, which uniquely convert sunlight into usable electricity. Recent advancements by researchers at Osaka University have shed light
Piezoelectric materials play an integral role in various technological applications such as ultrasound imaging and sonar systems. These materials harness mechanical stress to generate electrical charges or vice versa, making them essential for devices that rely on the generation and transmission of sound waves. The performance of piezoelectric materials is significantly enhanced through a process
Advancements in medical science often pivot on the ability to innovate materials that can mimic the complexity and function of human tissues. Within this arena, a collaborative effort led by researchers from the University of Colorado Boulder, along with peers from the University of Pennsylvania, has made remarkable strides. They have introduced a groundbreaking technique
The realm of material science has seen groundbreaking advancements with the introduction of multi-principal element alloys (MPEAs). Unlike traditional alloys which predominantly feature one or two principal components, MPEAs are designed using several primary elements in comparable atomic concentrations. This approach, first introduced in 2004, has garnered attention for its potential to create materials with
Polymers, often described analogously to trains made up of individual cars, are vital compounds that play an essential role in various industries. Just as trains rely on the secure attachment between cars, polymers rely on strong chemical bonds between monomers—small repeating units that form the backbone of the polymer structure. The properties and functionalities of
In light of increasing water scarcity around the world, researchers are in a race to devise effective methods for water purification. A landmark study from NYU Abu Dhabi (NYUAD) presents a groundbreaking advancement in this field through the development of dual-faced covalent organic framework (COF) membranes. Utilizing microwave-assisted synthesis, the researchers have crafted a methodology
For decades, voids and pores within materials have been viewed as detrimental defects, often leading to the belief that their elimination is crucial for optimal mechanical performance. This longstanding perspective has been deeply embedded in material science and manufacturing. However, recent findings from a team led by Prof. Jin Haijun at the Institute of Metal
The continuous pursuit of improving energy storage technologies has led to a significant focus on solid-state electrolytes, which represent a promising alternative to traditional liquid electrolytes used in conventional batteries. Research by materials scientists at the University of Illinois Urbana-Champaign sheds light on how the structural properties of peptides can enhance the performance of solid-state
In the realm of materials science, the intricate relationship between microstructure and material properties is pivotal. Understanding how various microstructural characteristics can affect the performance of materials is crucial for the advancement of next-generation structural and functional materials. This imperative task, however, is fraught with complexity. Traditional methods often fall short in their capability to
Recent advancements in the field of molecular and coordination chemistry have opened new avenues for redox chemistry, a process crucial in various scientific domains, including materials science and electrocatalysis. Led by Professor Ingo Krossing and his team at the University of Freiburg, this research pushes the limits of oxidation potential in positively charged ions. Traditionally,
The chemical industry is pivotal in producing a myriad of compounds that significantly contribute to various sectors, including pharmaceuticals, agriculture, and materials science. However, the traditional methodologies employed for synthesizing organic molecules heavily rely on organic solvents, leading to considerable environmental harm. As much as 80% of the waste generated in chemical processes is attributed
Recent advancements in synthetic immunology have unveiled a pioneering chemical process that offers unprecedented capabilities in producing modified peptides integrated with boronic acids. This innovative technique, conceived by a team from the prestigious Heidelberg University—comprising the Institute of Organic Chemistry and the Institute of Pharmacy and Molecular Biotechnology—opens significant avenues for immunotherapy. The synthesis of