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Unleashing Atomic Power: Record-Breaking 10.4kW Uranium Beam Reveals New Isotopes

At the Facility for Rare Isotope Beams, a major advancement has been achieved with the successful acceleration of a high-power uranium beam, achieving an unprecedented 10.4 kilowatts of continuous beam power.

This achievement not only highlights the difficulty in handling uranium but underscores its importance in generating a diverse range of isotopes for scientific study. The high-power beam led to the discovery of three new isotopes within the first eight hours of its operation, marking a significant breakthrough in nuclear science and expanding our understanding of the nuclear landscape.

Breakthrough in Isotope Research.

New world record for wireless data is 9000 times faster than 5G

Researchers have set a new world record for wireless data transmission, achieving speeds of 938 gigabits per second – roughly 9,000 times faster than current 5G phone networks in the UK.

The breakthrough offers a glimpse at a new era of communications through next-generation 6G technology, which is expected to be deployed commercially within the next decade.

A team from University College London (UCL) achieved the breakthrough by combining both radio and optical technologies for the first time in order to overcome the bottleneck caused by frequency congestion.

US develops lightest crack-free alloy that can withstand 2,400°F heat

ORNL’s breakthrough boosts 3D-printed turbine blades, reducing carbon emissions.


Researchers have made significant efforts to enable additively manufactured turbine blades to better handle extreme temperatures. They have developed and 3D printed the lightest crack-free alloy capable of operating without melting at temperatures above 2,400 degrees Fahrenheit.

The milestone was achieved by researchers at Oak Ridge National Laboratory (ORNL) and the National Energy Technology Laboratory (NETL).

The alloy is expected to enable additively manufactured turbine blades to effectively handle extreme temperatures and reduce the carbon footprint of gas turbine engines such as those used in airplanes.

Underwater Walking of the Honey Badger Legged Robot | MAB Robotics

Watch as the Honey Badger legged robot from MAB Robotics demonstrates its underwater locomotion capabilities. Designed for extreme environments, this innovative robot showcases robust movement across submerged terrain, pushing the boundaries of legged robotics. Perfect for inspection and maintenance in flooded or challenging areas, the Honey Badger is a leap forward in autonomous robotics.

For more contact us or visit:
https://www.mabrobotics.pl/

Revolutionizing Fine-Tuned Small Language Model Deployments: Introducing Predibase’s Next-Gen Inference Engine

Predibase announces the Predibase Inference Engine, their new infrastructure offering designed to be the best platform for serving fine-tuned small language models (SLMs). The Predibase Inference Engine dramatically improves SLM deployments by making them faster, easily scalable, and more cost-effective for enterprises grappling with the complexities of productionizing AI. Built on Predibase’s innovations–Turbo LoRA and LoRA eXchange (LoRAX)–the Predibase Inference Engine is designed from the ground up to offer a best-in-class experience for serving fine-tuned SLMs.

The need for such an innovation is clear. As AI becomes more entrenched in the fabric of enterprise operations, the challenges associated with deploying and scaling SLMs have grown increasingly daunting. Homegrown infrastructure is often ill-equipped to handle the dynamic demands of high-volume AI workloads, leading to inflated costs, diminished performance, and operational bottlenecks. The Predibase Inference Engine addresses these challenges head-on, offering a tailor-made solution for enterprise AI deployments.

Join Predibase webinar on October 29th to learn more about the Predibase Inference Engine!

Janus-like metasurface technology shows different optical responses according to the direction of light

Metasurface technology is an advanced optical technology that is thinner, lighter, and more capable of precisely controlling light through nanometer-sized artificial structures than conventional technologies. KAIST researchers have overcome the limitations of existing metasurface technologies and successfully designed a Janus metasurface capable of perfectly controlling asymmetric light transmission. By applying this technology, they have also proposed an innovative method to significantly enhance security by only decoding information under specific conditions.

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