Groundbreaking research uncovers a previously unknown mechanism by which BRCA2-deficient cancer cells accumulate uracil in single-stranded DNA. This discovery reveals a critical vulnerability that could be exploited for targeted cancer therapies.
A new AI framework called EMcopilot is revolutionizing electron microscopy analysis by generating its own training data. The system achieves accuracy comparable to human experts while detecting nanoparticles in challenging low-contrast regions that often escape manual detection.
Researchers have discovered a “volcano-shaped” relationship between pore size and performance in electrified water purification membranes. This breakthrough could revolutionize how we treat industrial wastewater while recovering valuable chemicals.
Revolutionizing EMI Protection Through Porous Silver Nanostructures In the rapidly evolving world of electronic devices, electromagnetic interference (EMI) shielding has…
Revolutionizing DNA Computing with Base Stacking Strategies Recent research published in Nature Communications introduces a groundbreaking approach to DNA computing…
A novel flexible thin-film temperature sensor incorporating multi-walled carbon nanotubes and Peano-structured electrodes demonstrates exceptional stability under mechanical stress. The innovative design maintains consistent thermal measurement capabilities even during significant bending and stretching, according to recent research findings.
Researchers have reportedly developed a breakthrough flexible temperature sensor that maintains high sensitivity while withstanding significant deformation, according to recent findings published in Microsystems & Nanoengineering. Sources indicate the innovation solves a longstanding paradoxical challenge in flexible electronics where increased flexibility typically compromises measurement accuracy and stability.
Introduction to VO₂ Phase Transitions and Interface Engineering Vanadium dioxide (VO₂) represents one of the most intriguing materials in condensed…
Introduction to Promising Curcumin Analogs In the ongoing battle against multidrug-resistant cancer, researchers have identified two promising curcumin analogs—PGV-5 and…
The Platinum Advantage in Cancer Therapeutics In the relentless battle against cancer, multidrug resistance (MDR) remains one of the most…
A groundbreaking study has uncovered a previously unknown cellular recycling pathway that uses optineurin as an adaptor protein. This discovery reveals how cells selectively degrade proteins from the Golgi apparatus using specialized ubiquitin chains.
Researchers have identified a previously unknown mechanism for protein degradation within cells, according to a recent scientific report. The study reveals that optineurin functions as an adaptor protein in Golgi membrane-associated degradation (GOMED), providing new insights into how cells manage protein waste. This discovery represents what sources indicate is the third known mechanism of ubiquitin-mediated proteolysis, alongside the well-established proteasome and autophagy pathways.
