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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

Another nice paper in Nature Materials, with neutron data from OPAL (in Australia) and Oak Ridge (in the USA), using the PELICAN, Corelli and CNCS instruments, respectively. Led by the Southern University of Science and Technology and the Great Bay University in China, with additional co-authors in Italy. In ordered magnets, the elementary excitations are spin waves (magnons), which obey Bose–Einstein statistics. Similarly to Cooper pairs in superconductors, magnons can be paired into bound states under attractive interactions. The Zeeman coupling to a magnetic field is able to tune the particle density through a quantum critical point, beyond which a ‘hidden order’ is predicted to exist. Here we report direct observation of the Bose–Einstein condensation of the two-magnon bound state in Na2BaNi(PO4)2. Comprehensive thermodynamic measurements confirmed the two-dimensional Bose–Einstein condensation quantum critical point at the saturation field. Inelastic neutron scattering experiments were performed to establish the microscopic model. An exact solution revealed stable two-magnon bound states that were further confirmed by electron spin resonance and nuclear magnetic resonance experiments, demonstrating that the quantum critical point is due to the pair condensation, and the phase below the saturation field is likely the long-sought-after spin nematic phase. https://lnkd.in/gAfy3DwD #neutronscattering #magnetism #physics #science

“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.

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

MAGNETIC FUSION CONFINEMENT WITH "STELLARATORS" (Magnetic Fusion Confinement with "Stellarators") As "stellarator" configurations are challenging to build, most fusion experiments today are tokamaks (a short form for a Russian expression that translates as ‘toroidal chamber with magnetic coils’). About 60 tokamaks and 10 stellarators are currently operating. Both reactor types have certain advantages. While tokamaks are better at keeping plasmas hot, stellarators are better at keeping them stable. Despite the tokamak’s current prevalence, it is still possible that stellarators could one day become the preferred option for a prospective fusion energy plant. Researchers have made great strides in magnetic confinement fusion and can now achieve plasmas of very high temperatures with ease. They have developed powerful magnets to handle plasmas and novel materials that can withstand the challenging conditions in the reactor vessels. Advances in experimentation, theory, modelling and simulation have led to a deeper understanding of the behaviour of plasmas, and devices like ITER will be central to proving the scientific and technical viability of fusion energy production. Twisting the magnets can also produce the helical shape without the need for a transformer — this kind of configuration is called a stellarator. (Image: Max Planck Institute for Plasma Physics, Germany)

Fusion energy is imperative to a cleaner planet. Some great notes and points on the topic.

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

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