Researchers demonstrate that harnessing quantum entanglement to control the order of energy exchanges in a heat engine boosts its efficiency beyond the limits of conventional designs, and they experimentally verify this improvement using a quantum computer.

Researchers have developed a new adapter technique for large language models that significantly boosts performance across diverse tasks while maintaining or even reducing processing time, overcoming a common efficiency bottleneck associated with adapting these models for specific applications.

Researchers have developed a new decoding method that combines classical computer algorithms with a physics-inspired computational architecture, significantly improving its ability to solve complex optimisation problems modelled on magnetic materials.

Researchers demonstrate that advanced computer vision techniques, originally developed for image processing, accurately estimate sea ice movement from satellite images with sub-kilometer precision, offering a significant improvement over traditional methods and enabling detailed monitoring of Arctic conditions.

Researchers have developed a new computer simulation technique, based on principles from quantum physics, that efficiently calculates the probabilities in complex light experiments, offering improvements in speed and memory usage compared to existing methods.

This research achieves a significant advance in diagnosing age-related macular degeneration by developing a new image analysis framework that more accurately identifies and segments different types of eye lesions in routine clinical photographs, surpassing previous performance in a major international challenge.

Researchers have developed new algorithms for precisely characterizing quantum states, detectors, and processes by analysing multiple copies simultaneously, achieving greater accuracy and efficiency than previous methods through a focus on purity information

Researchers have developed a new technique for creating realistic 3D scenes from multiple images that simultaneously optimises both the scene’s geometry and camera positions, eliminating the need for separate, error-prone calibration steps and achieving superior reconstruction quality.

Scientists developed a new technique using advanced image processing to accurately reconstruct detailed movement paths from single blurred images, significantly improving both image restoration and capturing techniques like coded exposure photography.

Researchers demonstrate that precisely controlled oscillations of quantum vortices within coupled superfluid rings offer a pathway to sensitive inertial measurements and advanced atomtronic devices.

Researchers at Lviv Polytechnic are key contributors to Lapa LLM- Ukraine’s new national large language model- ensuring uniquely nuanced Ukrainian language processing. This development establishes a foundation for technological independence and strengthens Ukraine’s position in the rapidly evolving field of artificial intelligence.

Researchers have established a comprehensive framework, including quantifiable metrics and application-specific certifications, to objectively compare and optimise noise suppression techniques for quantum computers, demonstrating that precise hardware characterisation is the key to effective mitigation strategies.

Researchers have developed a new computational technique that efficiently generates samples from complex energy landscapes, achieving significantly faster and more accurate results than existing methods for problems in fields like materials science and machine learning

Researchers have developed a new image processing technique that significantly accelerates qubit measurement in neutral atom computers, enabling faster and more reliable quantum error correction by reconstructing clear signals from rapid, low-light detections.

Scientists successfully recreate oscillating predator-prey dynamics using a programmable array of atoms, demonstrating stable, system-wide cycles and offering a new platform for studying ecological principles in a controlled environment

Researchers have developed a new method to verify complex quantum states using readily available measurement techniques, requiring significantly fewer settings than traditional methods and paving the way for more efficient quantum information processing in various experimental platforms

Researchers demonstrate that measurable signatures of quantum strangeness, specifically a property called Wigner negativity, reliably indicate the presence of complex, multi-particle entanglement, offering a practical way to verify this crucial quantum resource in various experimental systems

A new leakage-detection framework, called gladiator, significantly improves the speed and accuracy of quantum error correction by precisely identifying and addressing qubit leakage, reducing unnecessary processing and boosting the performance of quantum computations.

Researchers demonstrate that carefully designed control pulses can overcome imperfections in quantum computer construction, achieving exceptionally high accuracy, above 99.

This research demonstrates that incorporating string-like structures into models of black holes produces unique gravitational effects, including altered particle orbits and distinct patterns of light bending, offering potential observational tests to differentiate between competing theories of gravity

Purdue University’s Birck Nanotechnology Center is celebrating 20 years of groundbreaking semiconductor research- solidifying its position as a global leader in microelectronics. The facility’s continued focus on education, innovation, and collaboration is driving advancements from laboratory research to industry-compatible manufacturing.

Researchers have dramatically accelerated complex computations essential for green energy production, reducing the runtime from an impractical 22 years to just one day through innovations across the entire fault-tolerant computing system

Researchers successfully implemented a complex quantum calculation on a system of up to 80 qubits, utilising a new measurement technique that significantly reduces the experimental resources needed to determine the system’s lowest energy state and accurately characterise its properties

Scientists have developed a new method for detecting wave-like dark matter, utilising entangled superconducting cavities to achieve a significantly faster scan rate and improved sensitivity compared to existing techniques

Researchers have created a new method to control complex quantum systems, known as qudits, using a minimal number of steps, potentially speeding up calculations and reducing errors in future quantum computers