Lifeboat Foundation

HEPS will transform scientific research by enabling high-energy X-ray probing at the nanoscale.

China is poised to unveil its cutting-edge High Energy Photon Source (HEPS) by year’s end, boasting some of the world’s most powerful synchrotron X-rays.

With a staggering investment of 4.8 billion yuan (approximately US$665 million), this facility marks a significant milestone for Asia, propelling China into the elite league of nations with fourth-generation synchrotron light sources.

Continue reading “World’s brightest X-rays: China set to unveil High-Energy Photon Source” »

The next step for fully integrated textile-based electronics to make their way from the lab to the wardrobe is figuring out how to power the garment gizmos without unfashionably toting around a solid battery. Researchers from Drexel University, the University of Pennsylvania, and Accenture Labs in California have taken a new approach to the challenge by building a full textile energy grid that can be wirelessly charged. In their recent study, the team reported that it can power textile devices, including a warming element and environmental sensors that transmit data in real-time.

SNMREC is initiating a pioneering feasibility study to establish an offshore ocean current test facility in Palm Beach County, marking a first-of-its-kind project that utilizes top marine energy expertise.

“The Moon’s South Pole is a completely different environment than where we landed during the Apollo missions,” said Dr. Sarah Noble. “It offers access to some of the Moon’s oldest terrain, as well as cold, shadowed regions that may contain water and other compounds.”

Where will NASA’s Artemis Program precisely land astronauts near the lunar south pole? This is what the famed space agency hopes to figure out as they recently narrowed the list of potential landing regions from 13 to 9, underscoring NASA’s ongoing urgency in selecting a final landing site prior to landing astronauts on the Moon with the Artemis III in the next few years, along with landing the first woman and person of color on the lunar surface, as well. The selected regions will provide scientific opportunities based on geology, terrain, and access to water ice, the latter of which can be used for fuel, drinking, creating oxygen through electrolysis, and much more.

NASA has identified the following potential landing regions not listed in priority: Peak near Cabeus B, Haworth, Malapert Massif, Mons Mouton Plateau, Mons Mouton, Nobile Rim 1, Nobile Rim 2, de Gerlache Rim 2, Slater Plain. Each landing region consists of several square miles with more precise landing sites being determined later.

Continue reading “Charting New Territory: The South Pole Landing Regions of Artemis III” »

The Australian Energy Market Operator has reported a significant increase in the capacity of new wind, solar and storage projects seeking a grid connection, with the total now exceeding 45 gigawatts for the first time.

AEMO’s latest connection scorecard and its Quarterly Energy Dynamics report for the September quarter says that the capacity of projects going through the connection process – from application to commissioning – has jumped by more than one third to 45.6 GW.

The biggest jump came in battery storage, which nearly doubled from the same period a year earlier to 14.7 GW, confirming that it remains the strongest part of Australia’s sometimes faltering green energy transition (the storage number for batteries varies from project to project and in some early development cases is not settled).

The acetate would then be used to feed plants that are grown hydroponically. The method could also be used to grow other food-producing organisms, since acetate is naturally used by mushrooms, yeast, and algae.

“The whole point of this new process to try to boost the efficiency of photosynthesis,” says senior author Feng Jiao, an electrochemist at Washington University in St. Louis. “Right now, we are at about 4% efficiency, which is already four times higher than for photosynthesis, and because everything is more efficient with this method, the CO₂ footprint associated with the production of food becomes much smaller.”

To genetically engineer acetate-eating plants, the researchers are taking advantage of a metabolic pathway that germinating plants use to break down food stored in their seeds. This pathway is switched off once plants become capable of photosynthesis, but switching it back on would enable them to use acetate as a source of energy and carbon.

A team of engineers and physicists affiliated with a host of institutions across Japan, working at the Japan Proton Accelerator Research Complex, has demonstrated acceleration of positive muons from thermal energy to 100 keV—the first time muons have been accelerated in a stable way. The group has published a paper describing their work on the arXiv preprint server.

The consumer-facing side of electric vehicles paints a limited picture of what’s happening in the broader automotive industry. But when you glance behind the scenes, things start appearing far clearer, to a point where it’s pretty evident that the future of road transport is battery-powered. A big part of what’s happening backstage is making those batteries right here, on American soil.

Korean battery maker LG Energy Solution announced recently that it reached an agreement with Ford to move production of the Ford Mustang Mach-E’s batteries from Poland to Michigan starting next year. Instead, the LGES Poland factory will prioritize producing batteries for Ford’s commercial vans sold in the U.K. and the European Union.

Here we propose a novel protected erasure qubit, the Floquet fluxonium molecule (FFM). The FFM qubit exhibits (i) extremely long predicted logical coherence times and relatively long erasure lifetimes, (ii) a simple superconducting circuit structure, and (iii) high-fidelity single-qubit gates, which are much faster than the coherence timescale. Based on a Floquet-driven pair of inductively coupled fluxonium circuits [13–15], the FFM is a multi-DOF superconducting circuit with engineered, highly coherent quasieigenstates.

Our key technical contribution is a novel form of Floquet protection in a multi-DOF qubit, which strongly suppresses phase-flip errors, removing them at first and second order in the flux noise. The combination of drive and multi-DOF allows the low-lying eigenstates to be disjoint and delocalized with a nonvanishing energy gap. The second-order sweet spot has no analogue in the single-DOF circuits that have been studied thus far [16–18]; in fact, in single-DOF circuits there is a generic trade-off between bit-and phase-flip errors arising from the inability to keep two eigenstates simultaneously disjoint and flux delocalized using accessible circuit QED Hamiltonians [19].

The higher-order phase-flip insensitivity allow the predicted coherence time of the FFM qubit to significantly outperform other multi-DOF circuits. These include the following: the dual-rail erasure transmon, with experimentally achieved logical lifetimes of approximately ms and erasure lifetimes of approximately [12]; the dual-rail cavity, with logical lifetimes predicted [10] (achieved [11]) at approximately ms (3 ms), limited by cavity and ancilla dephasing, and erasure lifetimes of approximately in both cases; and the cold echo qubit, with predicted logical lifetime of ms with erasure rates unreported [8]. Theoretically, we find the FFM exhibits long bit-flip coherence times of approximately 50 ms while suppressing phase flips even further, along with a 500-erasure lifetime.