Lifeboat Foundation

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They’re insidious. They’re lethal, and they’re here to take your life. They’re the hallmarks of aging!

Safeguarding passwords, credit card numbers or cryptographic keys in computer programs will require less computational work in the future. Researchers at the Max Planck Institute for Software Systems in Kaiserslautern and Saarbrücken have come up with a new technology called ERIM to isolate software components from each other. This allows sensitive data to be protected from hackers when the data is processed by online services, for example. The new method has three to five times less computational overhead than the previous best isolation technology, making it more practical for online services to use the technology. This was reason enough for USENIX, a US-American computing systems association, and Facebook to award their 2019 Internet Defense Prize to the researchers.

Computer programs are like a fortress. Just as a fortress is protected by thick walls, moats and iron gates, firewalls and other security technologies prevent cyber criminals from maliciously exploiting software apps. And just as one poorly guarded gate or a supposedly secret escape tunnel may allow besiegers to capture a castle, all hackers need is a small security gap to gain access to all components of a software. In the worst case, they can then get their hands on the data that grants them access to user accounts or even allow them to make credit card payments. For example, the Heartbleed bug in the widely used OpenSSL encryption software made user names and passwords of various online services and programs vulnerable to hackers.

The future of technology relies, to a great extent, on new materials, but the work of developing those materials begins years before any specific application for them is known. Stephen Wilson, a professor of materials in UC Santa Barbara’s College of Engineering, works in that “long before” realm, seeking to create new materials that exhibit desirable new states.

In the paper “Field-tunable quantum disordered ground state in the triangular-lattice antiferromagnet NaYbO₂,” published in the journal Nature Physics, Wilson and colleagues Leon Balents, of the campus’s Kavli Institute for Theoretical Physics, and Mark Sherwin, a professor in the Department of Physics, describe their discovery of a long-sought “quantum spin liquid state” in the material NaYbO₂ (sodium ytterbium oxide). The study was led by materials student Mitchell Bordelon and also involved physics students Chunxiao Liu, Marzieh Kavand and Yuanqi Lyu, and undergraduate chemistry student Lorenzo Posthuma, as well as collaborators at Boston College and at the U.S. National Institute of Standards and Technology.

At the atomic level, electrons in one material’s lattice structure behave differently, both individually and collectively, from those in another material. Specifically, the “spin,” or the electron’s intrinsic magnetic moment (akin to an innate bar magnet) and its tendency to communicate and coordinate with the magnetic moments of nearby electrons differs by material. Various types of spin systems and collective patterns of ordering of these moments are known to occur, and materials scientists are ever seeking new ones, including those that have been hypothesized but not yet shown to exist.

The greatest space program spinoff? Human collaboration.

NASA didn’t set out to confirm the feasibility of a seemingly impossible fuel-less thruster design, but it seems they did exactly that.

An Egyptain teenager has patented a next-generation propulsion system that could send spacecraft to other solar systems—without using a single drop of fuel. While it is not quite warp-drive technology, young physicist Aisha Mustafa’s system is based on quantum physics and could see mankind boldly go where no man has gone before.

This proves that anti gravity devices existed even back in 1975.

The wonders of magnetism and the linear motor are captured in this 1975 presentation by Professor Eric Laithwaite (1921−1997) former Professor of Heavy Electrical Engineering at Imperial College London.

For more: http://www2.imperial.ac.uk/blog/videoarchive

The present essay is the third of a group of four communications originally intended for publication in Infinite Energy at Dr. Eugene Mallove’s invitation, and dedicated to the scientific, technological and political problems presented by exotic flight and lift systems in particular those relating to possible control of gravity. We examine the main lines of research into the nature of gravity over the past 6 decades, with a focus on Einstein’s General Relativity and General Theory of Gravitation, quantum-mechanical models of the graviton, Geometrodynamics and the ZPE theories, Van Flandern’s model of gravity, which are contrasted to Aspden’s theory of a dynamic Aetherometric Theory of Synchronicity, Vol. II AS3-II.9.

In the mid-1800’s to the early 1900’s Tesla file for more than 110 patents in varying technologies. From his magnifying transmitter, than uses an air coil or vortex to generate massive voltages, to wireless transmissions of power which Tesla used to prove transmission of data, power, and even lighting a layer of the strata as early as 1900. For this reason many consider Nikola Tesla to be one of the most brilliant scientists the world have ever seen.

Tesla’s dynamic theory of gravity explains the relation between gravity and electromagnetics in the same field. This was due to the presence of aether, also known as ether, which is a space-filling medium that is necessary for the propagation of forces either through electromagnetic or gravitational in nature. In plain English, Aether is the medium necessary for any exchange on these levels. Also, Aether was removed from theory in modern physics and was replaced with more abstract models. In looking at Tesla’s ideas and results; it appears that modern physics is wrong.

In the late 1800’s Tesla presented his Dynamic Theory of Gravity, which was a model over matter, Aether, and energy. Tesla’s version of this medium is closer to the gas theory and has extreme elasticity and a very high permeability. He also felt that Aether was much more common and filled all of the space.