Category Technology/Electronics

2D discrete time crystals realized on a quantum computer for the first time

quantum processor
Credit: Unsplash/CC0 Public Domain

Physical systems become inherently more complicated and difficult to produce in a lab as the number of dimensions they exist in increases—even more so in quantum systems. While discrete time crystals (DTCs) had been previously demonstrated in one dimension, two-dimensional DTCs were known to exist only theoretically. But now, a new study, published in Nature Communications, has demonstrated the existence of a DTC in a two-dimensional system using a 144-qubit quantum processor.

What is a discrete time crystal?
Like regular crystalline materials, DTCs exhibit a kind of periodicity...

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Origami-inspired ring lets users ‘feel’ virtual worlds

A ring that lets users 'feel' virtual worlds
A wearable haptic force-feedback ring with a three-axis force-sensing skin. A) We developed a wearable haptic ring, OriRing, which weighs only 18 g and generates forces of up to 6.5 N. The design incorporates a folding-based prismatic joint, a three-axis force-sensing skin, inkjet-printed bending sensors, SPAs and 3D printed ring frames. B) Force-sensing skin consists of an upper layer with soft pyramid microstructures, a lower layer with four resistive pixels and a spacer separating the two layers. This design enables the detection of both normal and shear forces. C) With its multimodal sensing and actuation capabilities, OriRing renders the size and stiffness of virtual objects through kinaesthetic and proprioceptive feedback...
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Analog hardware may solve Internet of Things’ speed bumps and bottlenecks

Event-based sensing system based on a piezoelectric haptic sensor array, event-triggered circuitry and a memristive SoC and a comparison with conventional frame-based digital sensing system. Credit: Nature Sensors (2026). DOI: 10.1038/s44460-025-00013-z

The ubiquity of smart devices—not just phones and watches, but lights, refrigerators, doorbells and more, all constantly recording and transmitting data—is creating massive volumes of digital information that drain energy and slow data transmission speeds. With the rising use of artificial intelligence in industries ranging from health care and finance to transportation and manufacturing, addressing the issue is becoming more pressing.

A research team led by the University of Massachusetts Amherst aims to address the problem wi...

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New smart chip reduces consumption and computing time, advancing high-performance computing

A 'smart' chip that reduces both consumption and computing time marks a breakthrough in high-performance computing at Politecnico di Milano
A close up of the chip integrated into the chip carrier. Credit: Politecnico di Milano

Osaka Metropolitan University scientists have created a molecule that naturally forms p/n junctions, structures that are vital for converting sunlight into electricity. Their findings offer a promising shortcut to producing more efficient organic thin-film solar cells. Their study is published in Angewandte Chemie International Edition.

How organic solar cells work
Solar cells convert sunlight directly into electricity. Within each cell, two semiconductors—p-type and n-type—form a p/n junction, where the photovoltaic effect performs the conversion.

Organic thin-film solar cells use carbon-based semiconductors instead of the traditional silicon, making them lightweight, flexible, and economic...

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