A research team has summarized the latest advances in protein engineering strategies aimed at enhancing enzyme stability under harsh industrial conditions.

A research paper by scientists at Duke University School of Medicine presented a novel sharp-edge acoustofluidic platform designed for rapid and effective sample preparation, coupled with sensitive detection of specific sEV populations based on their surface markers..

The research paper, published on Jul. 17, 2025 in the journal Cyborg and Bionic Systems.

In a significant advancement in sustainable chemistry, researchers are exploring cutting-edge developments in carbonaceous-supported catalysts for converting CO2 into cyclic carbonates. The study, titled "C4C Recent Developments: Carbonaceous-Supported Catalysts for CO2 Conversion into Cyclic Carbonates," is led by Prof. Nader Ghaffari Khaligh from the Nanotechnology and Catalysis Research Center at the Institute for Advanced Studies (IAS), Universiti Malaya in Kuala Lumpur, Malaysia. This research offers a detailed exploration of innovative catalysts that promise to transform CO2 into valuable chemicals, driving progress in sustainable chemistry.

Researchers have developed a manganese-based, cobalt-free lithium-excess layered cathode that significantly advances the performance of lithium-ion batteries. By employing an O₂-type honeycomb structure, the material demonstrates high reversible capacity, long cycling stability, and improved thermal safety. This design achieves ~284 mAh g⁻¹ with an energy density of 956 Wh kg⁻¹, while maintaining about 70% capacity after 500 cycles in full cells. Unlike traditional cathodes prone to oxygen loss and structural degradation, the new composition stabilizes the oxygen redox process and suppresses phase transitions. These findings mark a critical step toward sustainable, high-capacity, and long-lasting lithium-ion batteries for next-generation applications.

Converting carbon dioxide into fuels and chemicals using renewable energy is a promising route to reduce greenhouse gas emissions and recycle carbon. Yet the stability of CO₂ molecules makes their activation both energy-intensive and inefficient when relying on a single energy input. Recent research highlights the power of coupling multiple energy sources—such as light with heat, electricity with heat, or plasma with thermal energy—to generate synergistic effects that improve efficiency, selectivity, and stability. By integrating these complementary modes of energy, synergetic catalytic systems open opportunities to overcome barriers in CO₂ reduction and move closer to practical, scalable carbon recycling technologies.

Led by Professor Junya Wang at Huazhong University of Science and Technology, the team has pushed the envelope by introducing a method inspired by human visual “gaze” behavior. Instead of hardware upgrades, their solution dynamically adjusts the MEMS scanning trajectory so that, within a fixed sampling budget, more attention is directed toward regions of interest (ROIs).

Apples owe much of their health value to polyphenols—natural antioxidants that fight oxidative stress and chronic diseases. Yet centuries of domestication have quietly diminished these compounds in today’s sweeter, larger fruits. A research team has now traced this nutritional loss to a specific genetic mechanism. By integrating genome-wide association analysis with molecular experiments, they uncovered a powerful regulatory pair—MdDof2.4 and MdPAT10—that triggers the accumulation of procyanidins, the most abundant polyphenols in apples. The discovery reveals how a tiny promoter insertion reawakens a dormant metabolic pathway, opening a path toward breeding apples that are both delicious and rich in health-promoting compounds.