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Matterless wormhole theory predicts a potential universal wormhole. Researcher James Goetz theorizes that extra-dimensional relativity indicates a possible omnicluster of matterless wormholes or in other words a universal wormhole. Amazing properties of the wormhole include no dimensions and zero distance to all points in the universe. Moreover, a hypothetical observer in the wormhole could observe a universal chronology despite the relativity of time. This modifies the theory of relativity.

The theory is part of Goetz’s introduction to the natural theology called semiclassical theism. Goetz proposes a model of God, time, and creation that fits with modern physics, such as relativity, quantum mechanics, quantum gravity, Big Bang cosmology, zero-energy universe and multiverse geometry. This is a theory of everything.

Apart from physics, the universal wormhole theory helps to explain the theology of divine omniscience and omnipresence. Also, semiclassical theism proposes that God is omnipresent in tenseless eternity and tensed creation.

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Actually, I know many scientists and techies who hang out with the average Joe or Jill to get their minds off of being 1 dimensional and as a result gives them the recharge they need for innovation and creativity.


Quantum physicists studying the edges of our understanding of the universe are reportedly very eager to hear what Frank down at the local reckons they should study next, following Treasurer Scott Morrison’s warning that research should pass the ‘pub test’.

Morrison warned against esoteric, pointless research that costs an abundance of public money and has only lead to major, world-changing breakthroughs in unexpected areas a few times. Instead, the Treasurer has advised that before engaging in any boring and elitist research that only people specifically studying the field would care about, scientists should head down to the pub and check in with Frank to see what he thinks.

“We’ve very excited about this prospect,” said one researcher. “I’m curious to see if Frank will want to push us towards completing the standard model of matter, you know, the search for the graviton — will he prefer it if we go in depth on dark matter and really try and crack that code — who knows, really! It’s all up to Frank.

Dean Radin, Ph.D. and Chief Scientist of IONS, the Institute for Noetic Sciences, recently introduced the results of a series of experiments that may provide the missing link between consciousness and matter, turning the tables on materialism and asserting consciousness as a fundamental component of reality itself. Using a variation of the famous double-slit experiment, he and his team hypothesized that the conscious intent of a human mind might be able to collapse a quantum wave function without direct interaction. Simply by concentrating they postulated, meditation might be able to affect and influence quantum particles – the smallest components of matter that form our physical universe. .

Initial experiments used participants 2 meters away from the device. Alternating between asking participants to concentrate on the apparatus, then removing their attention showed astounding results. Fearing that temperature differences or other variables might have influenced the test, they offered the experiment to participants online. Using several thousand robotic control sessions to ensure that a determination could be made for the factor of human consciousness, the results were likewise astounding, with initial trial results of greater than 5 sigma.

Dr. Radin’s video from the April 2016 conference introducing the results from this experiment is available online through the IONS channel. I highly recommend watching the video in its entirety to get a full understanding of the experiment results, research protocols, variables, controls and the results from other labs and researchers who have replicated these results.

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Excellent progress.


The rapid progress that has been sweeping the field of crystal growth and related device technology is opening doors. Perhaps nowhere is the effect of this evolution being felt more than in the development of ultra-small structures whose material properties can be controlled on the nanoscale. The reason for this development: because solid-state nano–structures possess unique optical and electronic properties, they have the potential to be the launching pad of a new generation of devices.

Within the field, researchers are particularly focused on the properties of spins confined within the nano-structures – with the ultimate goal being to use spin nano-systems to develop, for example, robust quantum bits (qubits) capable of storing vast amounts of information. Here, the EU -funded S^3NANO project has successfully developed qubits in a new, innovative form. According to project researchers, these qubits could serve as the information units of the quantum computers of the future.

S^3NANO, which has recently published its full key findings, was a collaborative effort of studies and researchers. It brought together existing studies on the development of new device concepts in the field of few spin solid-state nano-systems with a team of leading international researchers and institutions. Over the course of four years, this ‘few spin solid state nano-system network’ achieved numerous breakthroughs in the understanding and successful utilisation of nanoscale systems in future devices via research, exchange programmes and training sessions.

Researchers at Queen’s University Belfast and ETH Zurich, Switzerland, have created a new theoretical framework which could help physicists and device engineers design better optoelectronics, leading to less heat generation and power consumption in electronic devices which source, detect, and control light.

Speaking about the research, which enables scientists and engineers to quantify how transparent a 2D material is to an electrostatic field, Dr Elton Santos from the Atomistic Simulation Research Centre at Queen’s, said: “In our paper we have developed a theoretical framework that predicts and quantifies the degree of ‘transparency’ up to the limit of one-atom-thick, 2D materials, to an electrostatic field.

“Imagine we can change the transparency of a material just using an electric bias, e.g. get darker or brighter at will. What kind of implications would this have, for instance, in mobile phone technologies? This was the first question we asked ourselves. We realised that this would allow the microscopic control over the distribution of charged carriers in a bulk semiconductor (e.g. traditional Si microchips) in a nonlinear manner. This will help physicists and device engineers to design better quantum capacitors, an array of subatomic power storage components capable to keep high energy densities, for instance, in batteries, and vertical transistors, leading to next-generation optoelectronics with lower power consumption and dissipation of heat (cold devices), and better performance. In other words, smarter smart phones.”

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A collaboration of physicists and a mathematician has made a significant step toward unifying general relativity and quantum mechanics by explaining how spacetime emerges from quantum entanglement in a more fundamental theory. The paper announcing the discovery by Hirosi Ooguri, a Principal Investigator at the University of Tokyo’s Kavli IPMU, with Caltech mathematician Matilde Marcolli and graduate students Jennifer Lin and Bogdan Stoica, will be published in Physical Review Letters as an Editors’ Suggestion “for the potential interest in the results presented and on the success of the paper in communicating its message, in particular to readers from other fields.”

Physicists and mathematicians have long sought a Theory of Everything (ToE) that unifies and quantum mechanics. General relativity explains gravity and large-scale phenomena such as the dynamics of stars and galaxies in the universe, while quantum mechanics explains microscopic phenomena from the subatomic to molecular scales.

The holographic principle is widely regarded as an essential feature of a successful Theory of Everything. The holographic principle states that gravity in a three-dimensional volume can be described by quantum mechanics on a two-dimensional surface surrounding the volume. In particular, the three dimensions of the volume should emerge from the two dimensions of the surface. However, understanding the precise mechanics for the emergence of the volume from the surface has been elusive.

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