Researchers have discovered that nuclear pore complexes are not rigid gateways but instead undergo dynamic reorganization to selectively control what enters and exits the nucleus. This finding has significant implications for diseases and potential therapies.
Scientists discovered a novel way to fuse lipid vesicles without pre-treatment or harsh conditions using the diphtheria toxin's T domain. This breakthrough enables targeted membrane fusion at neutral pH for applications in lab-on-a-chip technologies, biosensors, and synthetic biology.
Researchers successfully couple two Andreev qubits mediated by a microwave resonator, enabling long-range exchange of quantum information. The study demonstrates the potential of Andreev pair qubits as compact and scalable solid-state qubits for reliable quantum computing.
Researchers have developed a new method to determine the exchange energy of 2D materials, which reveals the stability of their ferromagnetic properties. The study shows that molybdenum disulfide exhibits highly stable ferromagnetism, only about 10 times smaller than in iron.
A team of researchers has developed a highly efficient production method for extracellular vesicles, which can be used as next-generation therapeutics. The new method yields up to 100 times more particles per cell and hour than conventional methods, making it suitable for applications such as cancer treatment and vaccination.
Graphene structures exhibit unexpected speed-dependent friction when moved across a platinum surface, affecting the mechanical properties of the material. The frictional forces increase with the speed of the AFM tip due to elastic deformation at the ridges of Moiré superstructures.
Researchers have coupled different types of electron-hole pairs in molybdenum disulfide, merging their properties to create novel particles. This breakthrough enables the production of individual photons with adjustable properties, paving the way for quantum communication applications.
Scientists at Swiss Nanoscience Institute successfully cooled a vibrating membrane to near-absolute zero using coherent feedback with atomic spins. The technique enables control of macroscopic systems over long distances, crucial for future quantum applications.
Researchers have successfully connected ultrathin semiconductors with superconducting contacts for the first time, enabling new quantum phenomena and potential applications in electronics. The study uses monolayer molybdenum disulfide with superconducting contacts to exhibit unique electronic properties.
Researchers successfully manipulated graphene's electronic properties by applying uniform mechanical stress, enabling the development of new electronic components and sensors. The results demonstrate a direct correlation between atomic distance and electronic states in graphene.
Researchers have identified a new category of compounds called pyrazinacenes that can be reversibly oxidized and reduced. These compounds consist of connected rings of carbon, nitrogen, and hydrogen atoms and have the potential to support photoredox-based reactions in chemical synthesis.
Researchers developed a concept for a new storage medium based on antiferromagnetic materials, which can store binary values (0 or 1) through controlled manipulation of domain walls. The proposed method could potentially replace conventional ferromagnetic systems with faster and more energy-efficient data processing.
Physicists have produced kagome graphene, a carbon-nitrogen compound with unusual electrical properties, including semiconducting behavior that can be switched on and off. The material's unique structure and strong electron interactions could lead to the development of sustainable electronic components.
Researchers have developed a sensitive testing system that can detect resistance in bacteria using tiny cantilevers. This method allows for the detection of not only entire resistance genes but also individual point mutations within minutes, paving the way for faster diagnosis and more effective treatment.
Scientists at the Swiss Nanoscience Institute create miniature polymeric reaction containers, mimicking cellular compartments to study enzymatic reactions. The 'cell on a chip' technology provides precise control over enzyme combinations and transport, facilitating research into metabolic diseases and drug reactions.
Physicists develop minuscule superconducting quantum interference device (SQUID) able to detect extremely weak magnetic fields, with potential applications in medicine and research. The device features a complex six-layer stack of individual two-dimensional materials.
Researchers have developed a technique to flatten graphene sheets, reducing microscopic distortions that scatter electrons. This process increases electron mobility, leading to improved sample quality and potentially faster electronic devices.
Researchers from Oxford, Basel, and Lancaster develop an algorithm that uses machine learning to automate the process of characterizing quantum dots. By reducing measuring time and number of measurements, this approach enables efficient characterization of large arrays of quantum devices.