➀ Researchers from Helmholtz-Zentrum Berlin and Hebrew University developed a novel spectroscopic micro-ellipsometry (SME) technique to measure conductivity and optical responses of individual MXene flakes, revealing their intrinsic properties;

➁ The non-invasive, high-resolution method overcomes limitations of conventional approaches, providing nanoscale structural and electronic insights critical for optimizing MXene-based devices;

➂ The breakthrough advances applications in energy storage, flexible electronics, and clean energy technologies by enabling precise material characterization at the single-flake level.

➀ Researchers from the University of Connecticut and Eascra Biotech are producing innovative nanomaterials in space to improve treatments for osteoarthritis and cancer.

➁ Janus base nanomaterials (JBNs) are developed to regenerate cartilage and could be used in precision cancer treatment.

➂ The ISS National Lab is used to test the production of JBNs in space, where gravity-driven forces are reduced, leading to better uniformity and patient outcomes.

➀ Researchers at Argonne National Laboratory have discovered how to use light to control the symmetry of quantum dots, leading to new materials with tailored properties;

➁ The study demonstrates that light can alter the arrangement of atoms in quantum dots, changing their electronic properties;

➂ The findings open up new possibilities for designing materials with unique properties, potentially revolutionizing fields like electronics and medical imaging.

➀ The article introduces a dual-mode film made from nano-engineered scattering fibers derived from upcycled chip bags, designed for sustainable thermal management.

➁ The film absorbs solar energy in cold conditions and reflects it in warm ones, improving building energy efficiency.

➂ The film is constructed with a biopolymer base and silica nanoparticles, and its scalability and environmental responsibility are highlighted.

➀ Researchers at the University of Birmingham have developed a novel technique for rapidly and scalably creating homogeneous nanostructures directly from block polymers.

➁ This innovative method enables the high-throughput synthesis of precise polymer nanoparticles, reducing processing time from a week to just a few minutes.

➂ The process combines seed preparation with living crystallization-driven self-assembly (CDSA), facilitating consistent seed micelle production.

➀ Scientists have developed copper oxide nanoparticles that can be coated onto implanted medical devices to reduce the risk of infection after operations.

➁ The research showed that both dip and spray coating techniques were effective at demonstrating antimicrobial activity and protecting against a range of clinically relevant bacteria.

➂ The coating remains non-toxic to human cells, and copper has emerged as a viable alternative to silver, which is susceptible to oxidation.

➀ Researchers at Rice University and collaborators have developed a new carbon material called monolayer amorphous carbon (MAC) that is eight times tougher than graphene;

➁ MAC is a two-dimensional, single-atom-thick material with a composite structure of crystalline and amorphous regions, offering increased toughness;

➂ This study opens up new possibilities for advanced material design and has significant implications for applications like wearable technology and advanced sensors.