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

This research presents a new computational method, combining artificial intelligence and optimisation techniques, that significantly improves the efficiency of collateral optimisation for complex financial agreements, delivering substantial cost savings and enhanced risk management for multi-asset portfolios

Researchers demonstrate that carefully controlled changes to the phase of ordinary light within a modified interferometer can perform complex mathematical operations, such as division and powers, by manipulating light’s wave-like properties rather than relying on traditional electronic circuits

Scientists have created diamond sensors capable of detecting magnetism at pressures exceeding 240 GPa, demonstrating superconductivity in titanium at a record 180 GPa and opening new avenues for investigating materials under extreme conditions relevant to planetary cores and high-temperature superconductivity

Researchers have created a comprehensive mathematical language using double categories to reveal how adaptivity and contextuality, fundamental properties of computation, limit the kinds of problems machines can solve, demonstrating that non-contextual systems are restricted to simple logical operations

Researchers successfully modelled the electronic properties of plutonium compounds using up to nineteen qubits on a quantum computer, achieving results that closely match established classical calculations and opening new avenues for understanding and improving materials based on actinide elements

Researchers enhance the security and efficiency of quantum key distribution by embedding information in a lower-dimensional space within a higher-dimensional system, achieving improved key rates and resilience to noise in practical communication channels.

Scientists demonstrate that a quantum computer can accurately simulate the complex behaviour of electrons in a material, revealing previously unseen properties and exceeding the capabilities of conventional computers in this field

Researchers successfully employ machine learning to predict quantum processing unit job completion times, offering a pathway to improved resource management and scheduling in advanced computing systems.

Researchers demonstrate a practical quantum key distribution system that combines the benefits of single photons and conventional laser pulses, achieving nearly perfect agreement between theoretical predictions and experimental results and establishing a clear efficiency threshold for superior security

Researchers illuminate the behaviour of complex systems by explaining how the Lindblad equation models their evolution, revealing the underlying principles of energy dissipation and measurement processes.