
Quantum sensors for next-gen brain-computer interfaces
Recently, Professor Surjo R. Soekadar outlined current and upcoming applications of brain-computer interfaces.
Recently, Professor Surjo R. Soekadar outlined current and upcoming applications of brain-computer interfaces.
The quantum sensing abilities of nanodiamonds can be used to improve the sensitivity of paper-based diagnostic tests, potentially allowing for earlier detection of diseases such as HIV.
Researchers have reported the first measurements of the ultra-low-friction behavior of a material known as magnetene.
Single-crystal flake devices are so thin and defect-free, they might outperform existing components in quantum computers.
Researchers mimic the animal kingdom’s most basic signs of intelligence in quantum material.
A new method designs nanomaterials with less than 10-nanometer precision. It could pave the way for faster, more energy-efficient electronics.
Chemists have developed two new classes of materials in the field of nanomaterials: nano spheres and diamond slivers made of silicon and germanium.
Quantum sensing outpaces modern sensing processes by applying quantum mechanics to design and engineering.
In a major scientific leap, researchers have created a quantum microscope that can reveal biological structures that would otherwise be impossible to see.
A new class of quantum dots opens a range of practical applications, including medical imaging and diagnostics and quantum communication.
Researchers have found a way to use quantum-entangled photons to encode information in a hologram.
Researchers have shown that graphene quantum dots – a form of graphene with applications in both diagnostics and therapy – are biodegradable by two enzymes found in the human body.
Researchers at have revealed how high-frequency sound waves can be used to build new materials, make smart nanoparticles and even deliver drugs to the lungs for painless, needle-free vaccinations.
Scientists have cracked the conundrum of how to use inks to 3D-print advanced electronic devices with useful properties, such as an ability to convert light into electricity.
Graphene has a vast variety of practical applications in the creation of new materials. But what exactly is graphene and what makes it so special?
Researchers have developed a high-power, portable version of a device called a quantum cascade laser, which can generate terahertz radiation outside of a laboratory setting.
A new algorithm that fast forwards simulations could bring greater use ability to current and near-term quantum computers.
Researchers have developed ultrasensitive sensors that can detect microwaves with the highest theoretically possible sensitivity.
The development of new medical technologies based on cutting-edge discoveries has accelerated during the coronavirus pandemic.
Scientists are harnessing the mind-bending potential of quantum computers to help us understand genetic diseases – even before quantum computers are a thing.
Researchers are pushing the boundaries of evolution to create bespoke, miniaturised surgical robots, uniquely matched to individual patient anatomy.
By speaking the brain’s language, the material is a portal between electronics and the brain.
Graphene electrodes could enable higher quality imaging of brain cell activity.