Lifeboat Foundation

To show how bad the chip shortage is, Nvidia just spent about $10 billion in bribes (prepayments) to get TSMC to build some chips for it!

Why it matters: Securing enough manufacturing capacity is going to be critical to the success of Nvidia’s RTX 4,000 GPUs, which are expected to land as soon as this summer. The RTX 3,000 series were regarded by gamers as paper launches, but the company is said to have paid through the nose so that wouldn’t be the case for its upcoming GPUs.

Continue reading “Nvidia reportedly spent $10 billion for a chunk of TSMC’s 5nm manufacturing capacity” »

This is a 5-book set on the ultimate nature of reality, consciousness, physics of time, computational physics, philosophy of mind, foundations of quantum physics, technological singularity, transhumanism, impending phase transition of humanity, simulation hypothesis, economic theory, extended Gaia theory, transcendental metaphysics and God, all of which is combined into one elegant Theory of Everything.

If you’re eager to familiarize with probably the most advanced ontological framework to date or if you’re already familiar with the Syntellect Hypothesis which, with this series, is now presented to you as the full-fledged Cybernetic Theory of Mind, then this series will surely present to you some newly-introduced and updated material if compared with the originally published version and can be read as a stand-alone work just like any book of the series: https://www.amazon.com/dp/B08R2K7ZK2?tag=lifeboatfound-20

*Watch the Playlist of Trailers for all five eBooks: https://www.youtube.com/playlist?list=PLBh8LYfDZBTvd_rr8D3WlSZdwRRqQSYVX

Continue reading “Now that the final book in The Cybernetic Theory of Mind series is released, the entire eBook series is available on Amazon all in one place!” »

A year into his tenure as Intel CEO, Pat Gelsinger says his effort to reclaim chip technology leadership is on track.

Some say that Moore’s Regulation, which tracks the exponential progress electronics during the last six a long time has stalled, and technological stagnation threatens. Mark Rosker, director of DARPA’s Microsystems Know-how Workplace (MTO), sees issues very in another way. In a new interview with Samuele Lilliu, he explains how the expansion described by Moore’s Regulation has been sustained by waves of innovation from DARPA and the way the following stage, what he calls the Fourth Wave, might be carried ahead by applied sciences his workplace is now creating.

The best model of Moore’s Regulation says that the variety of transistors on a silicon chip roughly doubles each two years. This was an commentary made by Gordon Moore – who later co-founded Intel – in 1965, and it proved to be remarkably correct. Yearly since then, an increasing number of highly effective computer systems and, later, laptops and smartphones have appeared in the marketplace. Low-cost chips have now grow to be important for vehicles, televisions, cameras and different units, which beforehand functioned with out electronics. They’re important throughout the financial system.

Continue reading “DARPA Goals To Preserve Moore’s Regulation Going — Right here’s How” »

Chip crisis? What chip crisis?

AMD has finally lifted the lid on its Ryzen 6,000 series mobile chips and the core 6nm design is far more than just an optical shrink. The resulting “massive increase in yield” means far more CPUs spilling out of TSMCs foundry, which can only help an industry in a chip supply crisis.

These Zen 3+ CPUs are going to be making their way to gaming laptops soon, and promise great things for notebooks this year. Intel’s Alder Lake mobile CPUs are also going to be dropping at the same time, plus we’ve got Nvidia’s mobile 3,070 Ti and 3,080 Ti to look forward to as well. If you’ve been putting off getting a new mobile gaming machine, then your patience should pay off nicely.

Continue reading “AMD’s ‘fundamental’ 6nm Ryzen upgrade promises ‘massive increase in yield’” »

Researchers have created a device that enables them to electronically steer and focus a beam of terahertz electromagnetic energy with extreme precision. This opens the door to high-resolution, real-time imaging devices that are hundredths the size of other radar systems and more robust than other optical systems.

Terahertz waves, located on the electromagnetic spectrum between microwaves and infrared light, exist in a “no man’s land” where neither classic electronics nor optical devices can effectively manipulate their energy. But these high-frequency radio waves have many unique properties, like the ability to pass through certain solid materials without the health effects of X-rays. They may also enable higher-speed communications, or vision systems that can see through foggy or dusty environments.

The Terahertz Integrated Electronics Group at MIT, led by Associate Professor Ruonan Han, seeks to bridge this so-called terahertz gap. These researchers have now demonstrated the most precise, electronically steerable, terahertz antenna array, which contains the largest number of antennas. The antenna array, called a “reflectarray,” operates like a controllable mirror with its direction of reflection guided by a computer.

We construct quantum algorithms to compute physical observables of nonlinear PDEs with M initial data. Based on an exact mapping between nonlinear and linear PDEs using the level set method, these new quantum algorithms for nonlinear Hamilton-Jacobi and scalar hyperbolic PDEs can be performed with a computational cost that is independent of M, for arbitrary nonlinearity. Depending on the details of the initial data, it can also display up to exponential advantage in both the dimension of the PDE and the error in computing its observables. For general nonlinear PDEs, quantum advantage with respect to M is possible in the large M limit.

Scientists at the University of Plymouth are in the early stages of developing tech that would allow humans to control quantum computers with their thoughts.

We’ve just taken another step closer to time crystals that can be used for practical applications.

New experimental work has yielded a room-temperature time crystal in a system that is not isolated from its ambient surroundings.

This, the researchers say, paves the way for chip-scale time crystals that can be used in real-world settings, away from expensive laboratory equipment required to keep them running.