OpenStar Technologies’ Post

The quantum vacuum fluctuations, also known as the zero-point fluctuations of the electromagnetic field, is a well-established phenomenon that has been validated by many experiments proving their physical impact. One experimental confirmation is the Casimir effect, where two mirrors in vacuum experience a force due to the cavity between the plates that eliminates a percentage of the vacuum fluctuations modes producing an energy gradient that results in a force pushing the plates towards each other. The Swinger effect is another example, in which by applying to the vacuum an electromagnetic field above the Schwinger limit, electron-positron pairs experience sufficient separation to overcome the cyclical annihilation process and can be observed. For this reason the effect has been alluded to as creating particles out of the vacuum. Additionally, two photons can be combined to produce an electron-positron pair (the Breit-Wheeler effect), and this has been experimentally measured in 2021 at the Large Hadron Collider. More recently, the experimental validation of the dynamical Casimir effect, where two mirrors are oscillated at near relativistic speed to effectively pump the vacuum fluctuations and extract real photons out of it. allows direct observational evidence of the vacuum fluctuations, therefore removing all the remaining confusion about the origin of the Casimir effect. In our recent study entitled The origin of mass and the Nature of Gravity it is explained how the coherency of these vacuum fluctuations at the scale of the proton are responsible for the proton’s rest mass. Under a different picture, this work shows that the proton can be considered as a resonant cavity generating a Casimir force equivalent to an energy gradient by eliminating the short wavelength of vacuum fluctuations, such that when we sum over all the cavity resonant modes we obtain once again the mass of the proton, and demonstrating as well that the nuclear confining force analogous to the Casimir effect also arises from the quantum vacuum fluctuations dynamics of the zero-point field. Download the paper at the CERN preprint server to learn more - https://lnkd.in/eSKP8cuQ

The Hybrid Quantum-Magnetic Energy Storage and Propulsion System The HQME system, though theoretical, offers a vision of next-generation energy and propulsion technologies. With advancements in quantum physics, superconducting materials, and magnetic field control, this concept could redefine how humanity approaches energy storage, transport, and interstellar exploration. #QuantumEnergy #FutureOfPropulsion #EnergyInnovation #SustainableTechnology #QuantumMechanics

Life, might have come from a type of decay that is similar to electron capture (Electron capture occurs when there are too many protons in the nucleus, and there isn't enough energy to emit a positron. In this case, one of the orbital electrons is captured by a proton in the nucleus, this creates a neutron and a neutrino which is emitted), where the energy to capture mass reaches for mass extromolecularly. For instance Propiolic acid (HC₂CO₂H) in an environment filled with oxygen is magneticized, subsequent to the actuation of the postulated decay, to capture oxygen bound up in ideally proximated oxygen molecules, however the characteristic of the postulated decay is strong nucleonic imbalance, in ratio greater than that of electron capture ( characterized by molecular energy in function) resulting in a need for "renormalization" via "external" energy, however the proximally ideal molecule being magnetized to the distribution of the forces that is intrinsicated to the type of molecule in decay couldn't be a suitable acquisition in the broader sense- this molecule wanted molecules exactly like it, that are also in this actuated decay ( whatever conditions of the hadean eon that could specifically cause the rise of such a decay in a specific molecule or set of molecules, but precipitate conditions would have to be of large complex losses of mass over time from the system earth,of materials with a high neutronic density).In not capturing the optimal continua to decay, the energy that is acquired is used up again over time as a conformation period for the acquisition, and a consequent renormalization attempt that invariably fails, but in failing brings the entity to another grab for mass, and the cycle repeats and repeats, which over time alters the energy levels than can be reached by the entity to capture mass, thus the entity over time grades into higher levels of electromagnetic disorder.This decay would cause the initial electromagnetic purpose optimal continuation, over time, to create a quantum balance with the necessary conformation of external acquisitions, where eventually the quantum structuring of the original purpose, is subwritten into excited states only of the particles involved.Thinking about it I can see where we wouldn't be able to physically, as being based by this type of decay, to tell position and momentum simultaneously. I mean if we had to break it down to physiology, there has to be a consisting structive about our anatomy that is as literal as this. #innovation #management #humanresources #digitalmarketing #technology #creativity #future #futurism #entrepreneurship #careers #markets #startups #marketing #socialmedia #venturecapital #socialnetworking #leanstartups #branding #advertisingandmarketing #motivation #personaldevelopment #investing #jobinterviews #sustainability #personalbranding #education #customerrelations #productivity #sales #socialentrepreneurship #biology #DNA #RNA

This morning at DLL Solutions we are feeling a little more technical. The recent developments at the Princeton Plasma Physics Laboratory look to be a promising advancement in the field of fusion energy. The integration of electron cyclotron current drive (ECCD) methods with resonant magnetic perturbations (RMP) could mark a significant step towards stabilizing plasma and enhancing the feasibility of fusion as a reliable energy source. Such innovations are crucial for achieving sustainable and high-yield energy production, aligning with our commitment to advancing energy solutions. How do you see fusion in general influencing the future of energy production? Let us know by starting a conversation in the comments section. #FusionEnergy #Innovation #SustainableEnergy We felt like a pun today... Princeton Plasma Physics Laboratory is really sparking interest with their fusion advances—looks like they've found a way to keep their cool in a super hot situation! https://lnkd.in/ekvEY3Xz

Magnetic reconnection is a fundamental physical process in plasmas, through which the magnetic energy is converted into plasma kinetic energy and thermal energy rapidly.

“The Plasma Physics and Fusion Energy Pathfinder is focused on the use of remote HPC by experiments running at the DIII-D National Fusion Facility at General Atomics in San Diego, CA.” #fusion #fusionenergy #fusionforward #HPC #computing #workflow https://lnkd.in/g_4EFmVY

Magnetic reconnection is a fundamental physical process in plasmas, through which the magnetic energy is converted into plasma kinetic energy and thermal energy rapidly.

This week, from April 8th to 11th, our very own Product Manager, Peter Kittermaster, will be representing Innovative Physics at the Institute of Physics, Position Sensitive Neutron Detectors 2024 (PSND2024) conference, held at the Mathematical Institute, Oxford University, UK. Mark Your Calendars! Peter will be delivering a captivating presentation during session 9 on Wednesday, April 10th, at 2pm. He will be showcasing our work on the multi award winning “Development of SiC-based Neutron Detector Heads for High Radiation Environments”. If you're attending the conference, this is a presentation you definitely don't want to miss! Abstract: Silicon carbide (SiC) derived neutron detector assemblies have been designed to meet the demands of extreme radiation scenarios, e.g. Primary Containment Vessels (PCVs) of the Fukushima Daichi Nuclear Power Station. Neutron conversion is via a sputtered boron-10 (B10) layer printed on the top of the detectors. The thickness of the B10 layer and depletion layer of the sensor was optimised via Geant4 simulation. The optimisation balanced neutron capture efficiency while simultaneously minimising the self-attenuation of conversion products. The SiC diodes' intrinsic layer thickness minimises gamma interaction, thereby enhancing gamma rejection properties (1.2E-8). Each detector head assembly includes up to 280 sensors arranged in various geometries to improve the detection footprint. The modularity inherent to the design facilitates adaptability, providing a format suitable for a disparate range of neutron-gamma deployment scenarios. The accompanying preamplifier and amplifier circuits have been tailored for negligible noise interference. The readout amalgamates signals from the array of sensors, facilitating transmission via a singular elongated coaxial pathway. Experimental results show the neutron sensitivity (~10nv) in gamma fields exceeding sixty sieverts per hour. Can't make it to the presentation? No worries! Peter will be available throughout the conference for meetings and discussions. Drop us a message if you're interested in learning more about our latest technology or want to schedule a meeting with Peter. ℹ️ About PSND2024: The Position Sensitive Neutron Detector conference is the premier platform for scientists and engineers to exchange insights and advancements in neutron detector technologies and their applications. This year's conference will delve into a wide array of topics including scintillator, gas, and semiconductor detectors, along with their electronics and signal processing methodologies. With the continuous evolution of neutron scattering facilities and the demand for robust detectors, PSND2024 promises to be an enlightening event showcasing the latest progress and challenges in this dynamic field. Stay tuned for updates from Peter at PSND2024! ✨ #PSND2024 #NeutronDetectors #InnovativePhysics #CuttingEdgeTechnology #Neutron

We're pleased to announce we're partnering with the Australian Research Council Centre of Excellence for Engineered Quantum Systems to study how cosmic rays affect quartz crystal oscillators. Conducted in CELLAR at the Stawell Underground Physics Laboratory, the partnership will deepen our understanding of fundamental physics, drive innovation in quantum technologies, and help develop cryogenic quartz crystal oscillators for ultra-precision applications. Read the press release. >>> https://lnkd.in/gKW-WKZh #wenzel #australianresearchcouncil #equs #cellar #stawell #quanticnow #rf #oscillator #quantam #quantamcomputing #microwave #pressrelease

Improved neutron mirrors can increase the efficiency of material analysis in neutron sources such as the ESS, which... | Click below to read the full article at The Digital Insider.