Researchers successfully created nitrides, a previously considered impossible material, using a direct synthesis method under ultra-high pressure. The development of these materials could lead to improved cutting tools and innovative applications in electronics.
Researchers have successfully controlled excitonic effects in two-dimensional van der Waals heterostructures, a crucial step towards creating electronics with more controlled properties. The breakthrough allows for the creation of unique new materials for solar panels and electronics.
Silver nanoparticles have been found to be highly toxic to Danio fish embryos, with flat particles being more toxic than spherical ones. The research suggests that the toxicity of nanosilver is due to the presence of nanoparticles themselves, not just silver ions.
Researchers have proposed a non-contact method to assess internal stress in composite materials, allowing for early detection of damage and improving operational safety. The new technology uses amorphous soft magnetic circuits to detect stress without physical contact.
Researchers at NUST MISIS developed a theory explaining how latent state formation occurs in layered tantalum disulfide, leading to ultra-fast memory capabilities. The material's nano-structural mosaics and charged vacancies contribute to its switching and memory effects.
Scientists have created a universal qubit design that can be used to build a quantum computer. The new superconductor qubit is based on a continuous superconducting nano-wire and has proven to be no worse than traditional designs in initial experiments.
Scientists at NUST MISIS have developed composites that can efficiently remove heat from electronic devices, potentially replacing traditional materials like fiberglass. The new material has high thermal conductivity and mechanical properties, making it suitable for use in smartphones and other electronics.
Researchers have created new metal alloy rods with laquosuperelasticity, capable of restoring shape against large deformation, and high corrosion resistance. These alloys offer promise as biomaterials for bone implants and potential solutions to scoliosis treatment
Researchers have created BN/Ag hybrid nanomaterials that demonstrate effectiveness as catalysts, antibacterial agents, and drug delivery systems for treating oncological diseases. The hybrids show high potential for cancer therapy and water disinfection, offering a new approach to combatting these threats.
Researchers created biodegradable bandages with antibacterial properties, accelerating tissue regeneration twice as quickly as usual. The bandages also prevent scarring and promote normal skin covering tissue regeneration.
Researchers have created a composite material with the best piezoelectric properties today, overcoming lead content and weight limitations. The material's polymer component offers advantages in manufacturing and application, making it suitable for high-pressure sensing applications.
Scientists at NUST MISIS have developed a new rapid-test that can accurately diagnose acute myocardial infarction and identify sepsis in just 10 minutes. The test uses immunochromatography principles and detects disease markers in blood, allowing for early treatment intervention.
Researchers have developed a quantum metamaterial composed of twin qubits, which can be used as a control element in superconducting electronic devices. The material exhibits unique properties that disappear when separated into its components, making it a promising candidate for future applications.
Researchers developed a therapeutic complex based on multi-layer polymer nano-structures of superoxide dismutase (SOD) to effectively rehabilitate patients after acute spinal injuries, strokes, and heart attacks. The substance can neutralize free radicals and reduce swelling, promoting faster recovery.
Researchers have successfully observed the inner structure of photonic crystals, a key material for controlling light beams, using ptychography. This breakthrough enables the creation of microprocessors for optical computers without destroying the crystal.