Lifeboat Foundation

Another example proving the importance of quantum is core to bio. Quantum is a core component in all things (bio, environmental, geo & minerals, vegetation, energy, etc.).

By Lance Schuttler, contributor for TheMindUnleashed.com

One strand of DNA from one single cell contains enough information to clone an entire organism. Obviously, understanding DNA allows us to understand much about life and the universe around us. A deeper understanding of the new science tell us that DNA beings not as a molecule, but as a wave form. Even more interestingly, this wave form exists as a pattern within time and space and is coded throughout the entire universe.

Continue reading “Scientific Experiments Show That DNA Begins as a Quantum Wave and Not as a Molecule” »

In 24 hours, it seems like all the biotech and futurism news is about telepathy. Guess we all read each other’s mind and posted our research and POVs. too funny.

Using quantum materials and technology will mean less invasive implants and no need for head gear in general. Suggest researchers do some due diligence with some of the various research labs and companies experimenting with things like graphene, liquid quantum materials, etc.

“Even though fMRI cannot read minds yet, we need to start deciding how and why we might want to use it, where screening might help, and where it might violate privacy,” Ms Gottwald, a PHD student at St John’s College at the University of Cambridge said. “Because the technology is advancing so rapidly, these kinds of questions are becoming more and more pressing.

Continue reading “Minority Report-Style Mind Reading Could Soon Be Reality” »

More on ORNL’s breakthrough on breaking qubits transmittal speeds to further mature quantum networking. BTW — Los Alamos (sister lab to ORNL) has had a quantum network since 2009.

Work from Oak Ridge National Laboratory could have implications for Internet and technology companies.

Wish these guys a lot of luck; however, they need to hurry up soon as China is already had a head start with QC.

As we saw during the 2016 US election, protecting traditional computer systems, which use zeros and ones, from hackers is not a perfect science. Now consider the complex world of quantum computing, where bits of information can simultaneously hold multiple states beyond zero and one, and the potential threats become even trickier to tackle. Even so, researchers at the University of Ottawa have uncovered clues that could help administrators protect quantum computing networks from external attacks.

“Our team has built the first high-dimensional quantum cloning machine capable of performing quantum hacking to intercept a secure quantum message,” said University of Ottawa Department of Physics professor Ebrahim Karimi, who holds the Canada Research Chair in Structured Light. “Once we were able to analyze the results, we discovered some very important clues to help protect quantum computing networks against potential hacking threats.”

Continue reading “Protecting quantum computing networks against hacking threats” »

Nice write up. What is interesting is that most folks still have not fully understood the magnitude of quantum and how as well as why we will see it as the fundamental ingredient to all things and will be key in our efforts around singularity.

When it comes to studying transportation systems, stock markets and the weather, quantum mechanics is probably the last thing to come to mind. However, scientists at Australia’s Griffith University and Singapore’s Nanyang Technological University have just performed a ‘proof of principle’ experiment showing that when it comes to simulating such complex processes in the macroscopic world quantum mechanics can provide an unexpected advantage.

Griffith’s Professor Geoff Pryde, who led the project, says that such processes could be simulated using a “quantum hard drive”, much smaller than the memory required for conventional simulations.

Continue reading “Quantum RAM: Modelling the big questions with the very small” »

Graphene is known as the world’s thinnest material due to its 2-D structure, in which each sheet is only one carbon atom thick, allowing each atom to engage in a chemical reaction from two sides. Graphene flakes can have a very large proportion of edge atoms, all of which have a particular chemical reactivity. In addition, chemically active voids created by missing atoms are a surface defect of graphene sheets. These structural defects and edges play a vital role in carbon chemistry and physics, as they alter the chemical reactivity of graphene. In fact, chemical reactions have repeatedly been shown to be favoured at these defect sites.

Interstellar molecular clouds are predominantly composed of hydrogen in molecular form (H2), but also contain a small percentage of dust particles mostly in the form of carbon nanostructures, called polyaromatic hydrocarbons (PAH). These clouds are often referred to as ‘star nurseries’ as their low temperature and high density allows gravity to locally condense matter in such a way that it initiates H fusion, the nuclear reaction at the heart of each star. Graphene-based materials, prepared from the exfoliation of graphite oxide, are used as a model of interstellar carbon dust as they contain a relatively large amount of atomic defects, either at their edges or on their surface. These defects are thought to sustain the Eley-Rideal chemical reaction, which recombines two H atoms into one H2 molecule.

The observation of interstellar clouds in inhospitable regions of space, including in the direct proximity of giant stars, poses the question of the origin of the stability of hydrogen in the molecular form (H2). This question stands because the clouds are constantly being washed out by intense radiation, hence cracking the hydrogen molecules into atoms. Astrochemists suggest that the chemical mechanism responsible for the recombination of atomic H into molecular H2 is catalysed by carbon flakes in interstellar clouds. Their theories are challenged by the need for a very efficient surface chemistry scenario to explain the observed equilibrium between dissociation and recombination. They had to introduce highly reactive sites into their models so that the capture of an atomic H nearby occurs without fail.

Continue reading “Neutrons reveal ‘quantum tunnelling’ on graphene enables the birth of stars” »

Latest update on the NPL Research on how to have cleaner Quantum Devices.

A paper, based on NPL collaborative research, has been published in the journal Physical Review Letters The work paves the way for the identification and elimination of small amounts of surface defects whose presence on the surfaces of solid state quantum devices is detrimental to their performance.

The research was the result of a fruitful collaboration between NPL’s Quantum Detection Group, the Quantum Device Physics Laboratory at Chalmers University of Technology and the Institute of Chemical Physics at the University of Latvia.

Artistic impression of noise in quantum circuits

Continue reading “Cleaning up quantum devices” »

I had to take a second review of this since I posted it, and right away I see something quite interesting that folks have overlooked for a while. Will keep you posted.

Scientists funded by the National Institutes of Health have built a new tool to monitor the way cells attach to an adjoining substrate under a microscope.

Analyzing adhesion events can help researchers to understand the way diseases spread, tissues grow, and stem cells differentiate into many specific cell types. The technique provides high-resolution images that can monitor the interactions of cells across longer time periods than previously possible.

Continue reading “Researchers Use Crystal Sensor to Study Crucial Cell Behavior” »

Nice read on QC cryptography.

Between Russian hackers and insecure email servers, this past election has proved that cyber security is going to be extremely important moving forward. But with the advent of quantum computers, it’s only going to become harder to keep data safe from those with the motive and the right tools. Fortunately, scientists believe they may have found a solution within the same principles that guide quantum computing: quantum encryption.

To fully understand the scope of what quantum computers can do, it’s important to realize that it might take current, non-quantum computers longer than the total age of the universe to crack certain encryptions. But, as grad student Chris Pugh explained in a recent interview with Wired, quantum computers might be able to crack the same codes in “a matter of hours or days”.

Continue reading “Quantum Encryption Just Took One More Step Toward Beating Hackers” »