The MEMQuD project investigates quantum effects in memristive devices, which could lead to breakthroughs in AI, cryptography, and computation. Researchers analyze fundamentals and applications of quantized conductivity phenomena at room temperature.
Scientists used a nanodiamond-based quantum sensor to measure temperature changes in neurons. The study, published in Advanced Science Journal, found that the sensor's readings correlated with increased neuron firing activity.
A team of scientists has successfully created a neutron interferometer using two separate crystals, enabling new possibilities for quantum measurements. This breakthrough opens up the possibility of expanding the size of the system while maintaining precision.
Researchers demonstrate that ultrasound treatment opens the blood-brain barrier exclusively under the ultrasound beam, suggesting a promising solution for targeted drug delivery to the central nervous system. The use of a biocompatible polyolefin plate allows for reversible disruption of the barrier.
The study shows that constructor-based irreversibility is compatible with quantum theory's time-reversible laws. Researchers used high-precision single-photon qubits to demonstrate this, confirming their theoretical predictions and numerical simulations.
Researchers at INRIM demonstrate a novel method for enhancing long-distance quantum key distribution by leveraging coherent laser interferometry, single-photon technologies, and quantum metrology. This breakthrough enables lower error rates and increased message length, paving the way for more efficient QKD protocols.
Researchers from Politecnico di Torino and INRIM have developed a quantum conformance test that uses entangled light sources to accurately detect conforming or defective products. The test reduces classification errors and improves monitoring efficiency, showing promising prospects for practical applications.