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Repost Who was James Clerk Maxwell? The greatest physicist you've probably never heard of. News published September 29, 2021 “Maxwell realized that this would be a wave — a wave of electromagnetism. He set about calculating the speed of these electromagnetic waves, using the strengths of the forces of electricity and magnetism, and out popped … the speed of light. By introducing the concept of the field to the analysis of electricity and magnetism, Maxwell discovered that light — in all its forms, from the infrared, to radio waves, to the colors of the rainbow — was really waves of electromagnetic radiation. With one set of equations, one brilliant leap of intuition and insight, Maxwell united three great realms of physics: electricity, magnetism and optics. No wonder Einstein admired him.” https://www.space.com/who-was-james-clerk-maxwell-physicist #Photonic_Integrated_Circuits #Optics #Maxwell

Repost Measuring the Magnetism of Light September 24, 2010 Two research teams used a ring-like probe to directly characterize the magnetic field of infrared light in a small cavity. Light is a wave of both electric and magnetic fields, but when these waves strike matter, the weaker effect of the magnetic component has been nearly impossible to detect directly. Now two groups have independently demonstrated that a tiny, metallic probe will interact strongly with the magnetic field of light waves trapped in a sort of semiconductor “box.” As described in a pair of papers in the 17 September Physical Review Letters, a similar set-up could be used either to measure the high frequency magnetic properties of individual nano-scale objects, or to map the magnetic field inside so-called metamaterials that can control light in new ways. When light interacts with matter, the dominant action is often a “shaking” up and down of electrons in response to the electric field. This interaction is typically 10,000 times larger than the “swirling” action from a light wave’s magnetic field. The case is different in metamaterials, which contain small components like metal rings that are often tailored to have an enhanced response to magnetic fields. Thanks to this sensitivity, light traveling through a metamaterial can bend in unusual ways, making feasible such devices as super-lenses and invisibility cloaks. https://physics.aps.org/story/v26/st13 #Thz_Band #Meta_Materials #LiFi #Free_Space_Optics #Optogenetics #Biophotonics

Archived PDF Photon emissions from human brain and cell culture exposed to distally rotating magnetic fields shared by separate light-stimulated brains and cells 2011 https://citeseerx.ist.psu.edu/document?repid=rep1&type=pdf&doi=331131eea24a5510ca52086d09001d4ff707258c #Dr_Robert_O_Becker #Dr_Jack_Kruse #Biophotinics

Photon emissions from human brain and cell culture exposed to distally rotating magnetic fields shared by separate light-stimulated brains and cells 2011 ABSTRACT Light flashes delivered to one aggregate of cells evoked increased photon emission in another aggregate of cells maintained in the dark in another room if both aggregates shared the same temporospatial configuration of changing rate, circular magnetic fields. During the presentation of the same shared circumcerebral magnetic fields increases in photon emission occurred beside the heads of human volunteers if others in another room saw light flashes. Both cellular and human photon emissions during the light flashes did not occur when the shared magnetic fields were not present. The summed energy emissions from the dark location during light stimulation to others was about 10 W/m' and calculated to be in the order of 10-2°J per cell which is coupled to membrane function. These results support accumulating data that under specific conditions changes in photon emissions may reflect intercellular and interbrain communications with potential quantum-like properties. https://citeseerx.ist.psu.edu/document?repid=rep1&type=pdf&doi=331131eea24a5510ca52086d09001d4ff707258c #Dr_Robert_O_Becker #Dr_Jack_Kruse #Biophotinics

An advance for photonics in two ways How is this work an advance for photonics? First, plasmonics. "Plasmonics is great because it allows us to confine photons at spatial scales orders of magnitude smaller than the diffraction limit (the lower bound for photon confinement in free space), so it shows promise for making optical devices very compact," says Laplace. Second, signal processing and manipulation in photonics. "Signal manipulation in photonics relies on nonlinear optical phenomena, such as the conversion of light from one color to another," says Laplace. "In photonic time crystals, these phenomena arise on the time scale of the light's temporal period itself—it's a completely new regime of parameters for photonics. Photonic time crystals should allow nonlinear optical processes to be achieved much faster and will dramatically increase the rates for signal processing/optical computing."” “Direct potential applications of this work? They'll pertain to the THz frequency range-frequencies located at the intersection between electronic and photonic technologies. "This range is underdeveloped compared to electrical and photonic technologies— the famous THz gap-and its development is timely," he says. "We foresee the development of amplifiers, frequency converters, ultrafast modulators, and maybe new types of lasers within this range."” https://www.laserfocusworld.com/optics/article/55397841/can-an-all-optical-photonic-time-crystal-advance-unlock-the-terahertz-frequency-range #Phontonic_Integrated_Circuits #Optical_Computing #SLM #Plasmonics #Meta_Materials

“How does their method work? "If we shine a strong multicycle THz pulse onto our metamaterial and probe the resulting optical properties with another THz pulse, we can observe the system's optical properties oscillate in time (due to the drive)," Laplace explains. These oscillations are so strong and fast it completely redefines the optical properties of the system. "It means we can harness them to convert the frequencies of photons fast and efficiently," he says. "The time-averaged optical properties of the structure are also modified, which represents a new way to engineer optical properties—not by designing a structure in equilibrium as is usually done, but with a temporal approach."” https://www.laserfocusworld.com/optics/article/55397841/can-an-all-optical-photonic-time-crystal-advance-unlock-the-terahertz-frequency-range #Phontonic_Integrated_Circuits #Optical_Computing #SLM #Plasmonics #Meta_Materials

Plasmonic metamaterial platform “The team's platform for their photonic crystal is a plasmonic metamaterial—an artificially constructed array of cavities for THz photons—that harnesses surface plasmons, which are collective excitations of electrons at the surface of a semiconducting material.” https://www.laserfocusworld.com/optics/article/55397841/can-an-all-optical-photonic-time-crystal-advance-unlock-the-terahertz-frequency-range #Phontonic_Integrated_Circuits #Optical_Computing #SLM #Plasmonics #Meta_Materials

“A THz electromagnetic wave induces strong, fast temporal modulations that result in a photonic time crystal—a.k.a. a crystal lattice in time for photons.” https://www.laserfocusworld.com/optics/article/55397841/can-an-all-optical-photonic-time-crystal-advance-unlock-the-terahertz-frequency-range #Phontonic_Integrated_Circuits #Optical_Computing #SLM #Plasmonics #Meta_Materials

Through the Earth https://t.me/Mms7SgfNuZw0ZWQ5/117952 https://t.me/Mms7SgfNuZw0ZWQ5/122690

A Physical Framework to Study the Effect of Magnetic Fields on the Spike-Time Coding 2024 ABSTRACT: A temporal neural code reliant on the pattern of spike times rather than spike rates offers a feasible mechanism for encoding information from weak periodic external stimuli, such as static or extremely low-frequency electromagnetic fields. Our model focuses on the influence of magnetic fields on neurotransmitter dynamics near the neuron membrane. Neurotransmitter binding to specific receptor sites on membrane proteins can regulate biochemical reactions. The duration a neurotransmitter spends in the bonded state serves as a metric for the magnetic field's capacity as a chemical regulator. By initiating a physical analysis of ligand-receptor binding, utilizing the alpha function for synaptic con-ductance, and employing a modified version of Bell's law, we quantified the impact of magnetic fields on the bond half-life time and, conse-quently, on postsynaptic spike timing. Introduction The existence of biological effects resulting from non-thermal exposure to static or extremely low frequency (ELF) magnetic fields is undeniable; however, it remains a topic of ongoing debate. Investigating the impact of electromagnetic (EM) fields on neuronal activity poses significant challenges. The biological effects triggered by electric or magnetic fields can be examined independently or in conjunction by applying an EM field. Numerous variables come into play, including the broad spectrum of frequencies, varying field strengths, signal wave-form, signal duration, field application duration and the shape of the signal. Additionally, the development of experimental models presents considerable diversity, encompassing in vitro or in vivo studies involving animals or human volunteers. This diversity significantly complicates efforts to consolidate results into one or a few unified models. Experimental data have progressively converged to identify the cell membrane as the primary target structure for the interaction of ELF electromagnetic fields with living organisms. The cell membrane's capacity to amplify biological signals has been elucidated through various physical models incorporating non-linear mechanisms. KEYWORDS: Magnetic fields, bond half-life time, bell model, alpha function synaptic conductance, spike-time coding https://upcommons.upc.edu/server/api/core/bitstreams/3ffba1f7-3044-4747-986b-fe84f9da8a6f/content #ELF #Cyber_Electromagnetic_Warfare #Dr_Robert_O_Becker

Neural Networks CSCI 601-471/671 (NLP: Self-Supervised Models) https://self-supervised.cs.jhu.edu/sp2024/files/slides/03-4-5.feedforward-nets.pdf #Neural_Networks #Calculus

Sympathetic and parasympathetic nervous systems. https://www.blackwellpublishing.com/content/hewstonepsychology/slides/Ch3slides.ppt #Dr_Robert_O_Becker

Sympathetic and parasympathetic nervous systems. https://www.blackwellpublishing.com/content/hewstonepsychology/slides/Ch3slides.ppt #Dr_Robert_O_Becker

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Neurotechnologies as weapons in national intelligence and defense – An overview James Giordano, PhD*1-3 and Rachel Wurzman, PhD(c)4 Abstract Advances in neuroscience and neurotechnology have necessitated discussions on the ways that such developments could be used as weapons in contexts of national security, intelligence, and defense. This paper defines the concept of neuroweapons, and elucidates operational issues associated with their use to aid informational and strategic intelligence, such as brain-machine interfaces to improve efficiency in data analysis. As well, exploration of neuropharmacologic, neuromicrobiological, and neurotoxic agents are discussed relevant to their utility in combat scenarios. The limitations of emerging neurotechnologies as weapons are addressed, as both regards practical and operational frameworks, and implications relevant to formulation of ethico-legal guidelines and governance of research, development and potential use. https://blog.fdik.org/2018-09/GiordanoWurzman_2011_2_1.pdf #Giordano #WBAN #IEEE #Cyber_Electromagnetic_Warfare

NEUROTECHNOLOGY IN NATIONAL SECURITY AND DEFENSE Practical Considerations, Neuroethical Concerns “This volume captures the growing interest in the ethical, legal, and social aspects of neurotechnology in national security and defense uses through the writings of some of the best-informed and most provocative commentators in the field. Professor Giordano’s ongoing work as a neuroscientist and neuroethicist, and his engagement with a number of international groups addressing the key issues important to the potential use and risks of misuse of neurotechnology to effect international relations, national security, and defense incentives, agendas, and operations, places him in good stead to steward this volume and provides keen insights to the field and brings together this group of scholars whose work focuses upon the timely and provocative topics it generates. This volume provides views and voices from multiple disciplines and perspectives, and as such, makes it an important addition to the literature.” #Giordano #Cyber_Electromagnetic_Warfare #WBAN #IEEE