Lifeboat Foundation

A laser pulse that sidesteps the inherent symmetry of light waves could manipulate quantum information, potentially bringing us closer to room temperature quantum computing.

The study, led by researchers at the University of Regensburg and the University of Michigan, could also accelerate conventional computing.

Quantum computing has the potential to accelerate solutions to problems that need to explore many variables at the same time, including drug discovery, weather prediction and encryption for cybersecurity. Conventional computer bits encode either a 1 or 0, but quantum bits, or qubits, can encode both at the same time. This essentially enables quantum computers to work through multiple scenarios simultaneously, rather than exploring them one after the other. However, these mixed states don’t last long, so the information processing must be faster than electronic circuits can muster.

Moving towards Artificial General Intelligence?

Contact:

The following are available for interview:

Continue reading “AGI Laboratory moving towards artificial general intelligence?” »

NASA has confirmed that its DART spacecraft has altered the trajectory of the asteroid that it crashed into two weeks ago, demonstrating the potential of this tool for planetary defense.

Researchers demonstrate room-temperature spin transfer across an interface between an iron-based ferromagnet and a semiconductor, opening a route to creating novel spintronic devices.

The patterns observed in a jet exiting a nozzle are directly related to the size of the nozzle’s opening and to the rate at which water flows.

A mechanism for preventing destructive instabilities in magnetically confined plasmas provides a new way for scientists to operate future nuclear-fusion reactors.

All magnetically confined plasmas naturally develop instabilities, regions where small perturbations grow rapidly [1]. Scientists have been looking for ways to prevent instabilities in a tokamak—a leading candidate for a fusion reactor—because the instabilities can cause substantial damage to the tokamak’s walls. Now Georg Harrer at the Vienna University of Technology and his colleagues have shown how these destructive instabilities can be avoided by adjusting the properties of the plasma and its confining magnetic field [2]. The researchers’ findings offer a fresh approach to running future fusion reactors.

A tokamak uses a powerful magnetic field to confine fusion fuel in the form of a plasma (a highly ionized gas) that is shaped like a ring donut. Instabilities that originate at the plasma edge (the “glaze” of the donut) are called edge-localized modes (ELMs) [3]. ELMs transport heat and particles along magnetic-field lines, moving them from the well-confined plasma core (the “filling” of the donut) to the divertor—a region of the tokamak’s walls. ELMs come in various sizes and frequencies (repetition rates). Their size, expressed as a percentage of the energy stored in the plasma core, strongly influences how much heat and how many particles will be deposited by each ELM in the divertor.

At the age of 14, I was diagnosed with a stage 4 hypermutated glioblastoma and a clinical trial saved my life. Now I’m 18 and cancer-free.

“I was amazed. Although they resemble rings in the image, the true 3D geometry of those semi-circular features is better described as a shell”

In a fresh image released by the Webb Telescope team on October 12, one can see 17 strangely perfect light rings around star binary WR 140 emanating into the darkness of deep space.

Genflow has announced that its adeno-associated virus (AAV) research and development programme in Estonia has received a non-dilutive grant award of €250,000 from the Applied Research Programme of Enterprise Estonia, an Estonian governmental institution designed to stimulate business growth in the country.

Longevity. Technology: Genflow’s research programme is focused on the development of an antiaging gene therapy platform designed to target nearly 100 million patients worldwide who suffer from Werner’s syndrome, non-alcoholic fatty liver disease (NAFLD) and non-alcoholic steatohepatitis, an advanced form of NAFLD, as well as other major clinical disorders.

This R&D is a collaborative project between Genflow and IVEX lab OÜ, an Estonian company specialising in the research and development of biotech therapeutics.