Chemistry

In our modern world, the presence of radionuclides—unstable isotopes that emit radiation—has become an ever-increasing concern. These elements can enter our bodies through various means, including inhalation, ingestion, and even through open wounds. The health risks associated with these radioactive materials are significant, yet much of the research has primarily focused on their biological effects

Ice is a remarkable state of matter, enigmatic in its interactions with the environment. We often take for granted the roles ice and water play in our daily lives, yet the dynamics at play between them are crucial in myriad contexts, from climate science to culinary delights. Recently, groundbreaking research from Kobe University and the

Recent developments at the University of Manchester herald a potentially transformative era in the field of medicinal biochemistry. Researchers have unveiled a groundbreaking approach to the synthesis of peptide-based medicines, a class of therapeutic agents that hold promise for treating a variety of challenging conditions, including cancers. Peptides, which consist of short chains of amino

In our technologically driven world, the term “rare earth metals” conjures images of hard-to-find, exotic elements hiding in the earth’s crust. However, the truth is far more intriguing and layered. Rare earth metals, consisting of 17 unique elements, are not only abundant in nature but are also pivotal in embracing the innovations driving our digital

In the realm of material science, the perennial spotlight has shone on perovskites, heralded for their exceptional properties and adaptability. Yet looming in the shadows, anti-perovskites stand as equally formidable candidates. Despite their inverted electrical configuration resembling that of their perovskite counterparts, anti-perovskites exhibit unique phenomena that can be harnessed for advanced applications, notably in

In the quest for sustainable energy solutions, the research led by Prof. Chen Changlun at the Hefei Institutes of Physical Science demonstrates that innovation is paramount in the race against climate change. Their work on cobalt-doped nickel hydroxide bipolar electrodes signals a pivotal shift in the way we approach hydrogen production through two-step water electrolysis.

Picture a mesmerizing visual spectacle: pouring cream into a cup of black coffee leads to a captivating swirl of colors, resembling the tumultuous storms on Jupiter. Yet, the enchanting dance of these liquids is dismantled with a mere stir of a spoon, resulting in a monotonous, homogeneous blend. This captivating illustration goes beyond mere beauty—it

When engineers design materials for specific environments, they often rely on traditional alloys such as steel and aluminum. Steel, for instance, melts at a staggering 2,500 degrees Fahrenheit, while aluminum succumbs to corrosion when exposed to moisture and oxygen. These materials serve us well in everyday conditions; however, they falter when exposed to extreme environments

In an era where environmental degradation is a pressing concern, innovative approaches to remove pollutants, especially micropollutants like pesticides and trace chemicals, have become essential. These tiny contaminants pose significant risks to aquatic ecosystems and, ultimately, human health. One groundbreaking technique emerging in this domain is photocatalysis, a method that employs semiconducting nanomaterials and sunlight.

Green hydrogen stands at the forefront of a revolutionary shift in energy production and storage, heralding a future free from the carbon footprint that has long plagued fossil fuels. As the global community rallies around the ambitious objective of net-zero carbon emissions, particularly championed by the U.S. Department of Energy, the need for efficient and

In recent years, the conversation surrounding plastic pollution has taken a critical turn. Particularly, fluorinated polymers, commonly found in everyday items such as non-stick cookware and waterproof gear, have emerged under scrutiny due to their persistent nature in the environment. Dubbed “forever chemicals,” these substances do not degrade easily, leading to their accumulation in ecosystems

The journey from conception to market for a new drug is often likened to navigating a labyrinthine gauntlet, marked by years of rigorous testing and staggering financial investment. The daunting reality is that over 90% of pharmaceutical candidates fail during clinical trials. Even prior to this critical phase, many potential therapies are discarded due to

In a groundbreaking study, scientists have made significant strides in hydrogen production technology by developing a novel catalyst that mitigates the adverse effects of reverse current in alkaline water electrolysis (AWE) systems. The team, led by Professor Jeong Woo Han from Seoul National University, alongside esteemed researchers from POSTECH, including Professor Yong-Tae Kim, Dr. Sang-Mun

Materials are not static entities; they evolve and transform over time, exhibiting different behaviors under various stimuli. Understanding these changes is crucial for fields ranging from engineering to pharmaceuticals. Recent advancements in scientific instrumentation have introduced innovative methods to study material dynamics, notably the application of X-ray photon correlation spectroscopy (XPCS) paired with artificial intelligence

The alarming rise of drug-resistant bacteria has emerged as one of the most pressing challenges in public health today. Antimicrobial resistance (AMR) affects millions globally, rendering common infections potentially lethal and complicating treatment protocols for healthcare providers. This escalating crisis calls for innovative solutions that not only address existing limitations but also streamline the search