Nano Sensors and Emitters in CMNS Solid State Reactor Systems for Advanced Control

  • My thinking here is that advanced control requires sensors and emitters on the nano scale and specifically includes terrahertz radiation, a new technology and developing industry that is filling in the "Terrahertz Gap".


    Is this essential for higher output densities? That's the essence of this threads query.


    Here is a good resource for study and multidisciplinary research.

    The (AMPG)

    Atomic and Molecular Physics Group

    AMPG_RearchInterest

    Quote

    • This topic is focused on the study of intense, ultrafast laser pulses interacting with atoms, molecules, solids, and plasmas. Atoms and molecules in strong field have induced abundant physical phenomena, such as above threshold ionization (ATI), non-sequential double ionization (NSDI), high-order harmonic generation (HHG) and attosecond physics. The extremely non-perturbative and extremely non-linear characterization, beyond the suitable scope of classical pertubative theory, has aroused great enthusiasm among researchers looking for new theory. Meanwhile, using femtosecond laser pulse, high resolution measurements on temporal (attosecond) and spatial (sub-angstrom) can be performed by generating tabletop coherent extremely-ultraviolet source, with which we can real-time measure atomic and molecular structure and even manipulate them.
    • Terahertz (THz) radiation is a category of electromagnetic radiation in a frequency interval from 0.1 to 10 THz, which occupies a large portion of the electromagnetic spectrum between the infrared and microwave bands. For the shortage of mature generation and detection methods, the THz band remains unexplored compared to the relatively well-developed science and technology in the microwave and optical frequencies. Thus it is of great chance and challenge in filling up this “THz Gap”. Our main goal is to become the leading platform for THz science and engineering, dedicated to the following: research and development of new materials and their electromagnetic characterization for THz applications; exploration of new applications in the areas of telecommunication and electromagnetic sensing, THz security and defense applications; research on generation and of new intense THz source; THz time-domain spectra system (TDS) and coherently THz image and manipulation. Recently, we proposed attosecond synchronization of THz wave and harmonics, arbitrary polarized THz wave detection, difference frequency generation of THz radiation in GaSe crystal and so on, showing the progress and potential in THz generation, detection and application.

    Note


    A few recent advanced CMNS energy tech patents include terrahertz frequencies leading me to wonder:


    • How might terrahertz frequencies be used to sense and control the nano environment of CMNS systems?
    • Might terrahertz frequencies assist in formation of self organizing plasma?
    • What role might specific terrahertz frequency pulses play in system harmonics, lattice vibrations or, when needed, system dampening of such?

    Other Nano Sensors and Emitters are of interest as well. Theory and research, breakthroughs in this field as it pertains to CMNS nano cold hot fusion fission and LENR Energy systems and patent disclosures are posted and discussed on this thread. Primarily dry cell systems yet wet cell nano sensor and emitter tech may certainly be relevant.

  • Gregory Byron Goble

    Changed the title of the thread from “Nano Sensors and Emitters in CMNS Solid State Reactor Systems for Advanced ControlMO” to “Nano Sensors and Emitters in CMNS Solid State Reactor Systems for Advanced Control”.

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