Tuesday, November 23, 2021

Noncommutative Metamaterial Propulsion: Asymmetric quantum energy

 Exotic Metamaterials from Noncommutative Theory

 metamaterial properties are obtained as the presence of negative index refraction under a generalized susceptibility depending on NCG. These results show that a class of optical metamaterials can be modeled based on NCG depending on noncommutative parameters.

 Metamaterials Mimicking Dynamic Spacetime, D-brane and Noncommutativity in String Theory

we develop a general procedure to use nonlinear metamaterials to mimic D-brane and noncommutativity in string theory.

Momentum space toroidal moment in a photonic metamaterial 

https://globalncgseminar.org/talks/non-commutative-geometry-and-materials-science/ 

Plasma meets metamaterials: Three ways to advance space micropropulsion systems 

. Further, our findings reveal that the harmonic waves are affected by the Bohm potential. The interaction between electromagnetic waves and plasma metamaterials with streaming electrons leads to a gradually fluctuating magnetic field because of the non-stationary ponderomotive force of high-frequency electromagnetic waves.  

 Meta-material based nuclear structure applications in beamed thrust and space energy harvesting

 Recent progress and perspectives of space electric propulsion systems based on smart nanomaterials

 A tunable double negative device consisting of a plasma array and a negative-permeability metamaterial

Metasurface Laser Lightsails 

 Nanophotonic design principles can enable self-stabilizing optical manipulation, levitation and propulsion of ultralight macroscopic-sized (i.e., mm, cm, or even meter-scale) metasurface ‘lightsails’ via radiation pressure from a high power density pump laser source.

 Solid Propellant Performance Enhancement Through Synergistic Effect of the Functionalized Carbon-Based Nano-Additives Properties Modification by the Electrostatic Field

  existing technologies have proven difficult to scale. The field of active metamaterials may be able to help.

 Thin Diffractive Optics for In-Space Propulsion and Attitude Control Via Radiation Pressure 

  the nanocardboard plates levitate due to light-induced thermal transpiration through microchannels within the plates, enabled by their extremely low mass and thermal conductivity.

 Induced magnetic field by the interaction between electromagnetic waves and a plasma metamaterial: quantum effect

Circumnavigating the sun with diffractive solar sails 

 Photonic materials for interstellar solar sailing 

 Quantum Gravity as a Quantum Warp Field: Toward Engineering a Realistic Quantum Warp Drive

Wherein [18], it was shown that quantum fluctuations within the LIGO interferometer, specifically the quantum noise generated by the photons in the LIGO’s laser, causes the 40 kg mirrors to jiggle. Noting that both these quantum energy fluctuations are external to the mirror’s ESQFs. That is, in reference to FIG. 2.1, these external quantum energy fluctuations jiggled (asymmetrically or on one side of) the ESQFs outer radius  about the mirrors.

 The contraction and expansion of spacetime is carried out through the asymmetry of an energy shell of quantum energy, which is naturally produced about all object.

Here we propose that an asymmetric ESQFs about an object can accelerate an object and that this is the bases of all acceleration methods, as was proposed in the CAM [12].

 Measurements of Radiation Pressure on Diffractive Films

 American Development of UAP Technology: A Fait Accompli?

 Lateral displacement evaluation for a high-Temperature superconducting magnetic levitation experimental vehicle running over a banked curvilinear path

 Self-stabilizing curved metasurfaces as a sail for light-propelled spacecrafts 

 Gravitational-Magnetic-Electric Interaction in Controlling Relative Permittivity and Permeability

 Electricity from Air: An efficient way of Wireless Power Tapping

 Multi-scale photonic emissivity engineering for relativistic lightsail thermal regulation

 Optical energy harvesting in vibrate maglev graphite

 Electromagnetic-Alcubierre thruster

 Non-reciprocal phase transitions

 Thermophoretic Levitation of Solid Particles at Atmospheric Pressure

 Near-field radiation assisted smart skin for spacecraft thermal control

 Momentum exchange between light and nanostructured matter

 By incorporating a beam-steering metasurface into a microparticle, a new type of nanoscopic robot – a metavehicle – is invented. Its propulsion and steering are based on metasurface-induced optical momentum transfer and the metavehicle is shown to be driven in complex shapes even while transporting microscopic cargo.

 metasurfaces are capable of
providing stable propulsion due to optical momentum exchange

 Ilic, O. & Atwater, H. A. Self-stabilizing photonic levitation and propulsion of
nanostructured macroscopic objects. Nature Photonics 13, 289–295 (2019).

 Dynamics of plasma formation and gas heating in a focused-microwave discharge in nitrogen

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

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