Remote neural monitoring and actuation
Microwave/radiowave monitoring: brain signal modulates carrier
Neural heterodyning
Remote EEG/ EEG cloning
fMRI, NMR (proton) /MRI
Remote fMRI and magnetic resonance current density imaging based on the proton signal
ESR (NMR for electron) &
double proton electron NMR
Remote magnetic resonance current density imaging based on the electron signal
& the combined proton - electron signal (Overhauser imaging)
NMR for ions
Remote magnetic resonance imaging based on the neural signaling ions Na+, K+, Cl -, Ca2+
Resonant energy transfer
Microwave/radiowave monitoring: brain signal modulates carrier (modulation of phase and amplitude)
Neural heterodyning:
Modulation of the carrier by brain signal with the purpose of transmission is a mixing process represented by the term heterodyning.
RNM (rat)
Remote neural monitoring
(remote EEG)
demonstated experimentally in the rat in 2014
Interference used in deep brain stimulation
Use of temporal interference for brain activation - Neurons follow the frequency of the interference pattern
RNM Malech patent retrofitted in weapons in 1970s
Remote neural monitoring (EEG)
and interference
patented for RADAR/conventional transmitters and retrofitted in weapons in the 1970s
Head as electromagnetic cavity resonator & DARPA scientist warning on cell towers
Warning of unlawful use of cell towers in the 450 MHz range - Head modelled as ~10cm sphere is a EM cavity resonator
RTL-dongle as spectrum analyzer to test 450 MHz hypothesis
An inexpensive RTL-SDR dongle and a specialized program by Clint McLean for spectrum analysis
Microwave Auditory Effect, Laser Auditory Effect and Directional Sound
Microwave Auditory Effect: the most generally accepted non-thermal effect of electromagnetic radiation
Microwave Auditory Effect
Principle: Head tissue thermoelastic expansion and pressure waves reaching the inner ear (cochlea)
From clicks heard by RADAR operators, to patents for sound modulation and the military term "V2K"
Laser Auditory Effect
Principles:
1. Photoacoustic effect
2. Laser-induced plasma effect
Implementations:
1. Sound modulation and mimicking human speech
2. Discomfort effect for deterrence
Directional Sound
Large sources or parametric arrays (loudspeakers)
Ultrasound heterodyning
Audio spotlight
LRAD
[Hypothesis] Remote neural monitoring based on magnetic resonance in the Earth's magnetic field and biocorrelation
Remote fMRI (BOLD contrast) and remote MR current density imaging (MRCDI) for monitoring electric activity based on the proton and electron resonance signal
Brain and body electromagnetism represent an electric/magnetic flux of small intensity which is difficult to measure remotely. However, upon a certain excitation event and specifically spin excitation in the frame of magnetic resonance, it is possible to generate a measurable electric/magnetic flux.
How do we compensate for the low static magnetic field strength of the Earth's magnetic field?
I. Surface NMR
Well NMR logging
Surface NMR in large scale is conducted in Earth's magnetic field for groundwater and oil detection
Well NMR logging in conducted in Earth's magnetic field or low magnetic fields (rock magnetization using probe)
II. Advances in low-field MRI and Earth's field MRI
Commercial scanners for brain low-field MRI and generic Earth's field NMR/MRI exist
Significant advances in ultra low-field MRI: 6.5 mT (vs 1.5 T of typical scanner) by using specific pulse sequences
IIa. Pulse sequence design
e.g. balanced Steady-State-Free-Precession (b-SSFP) sequences
Dynamic refocusing of spins after measurement
Can only work in homogeneous fields (advantage of low fields)
IIb. Undersampling (sparse sampling)
Only the best, most representative features are sampled
(Noise discarded by default)
IIc. Magnetic Resonance fingerprinting
MR fingerprints are matched using pattern recognition algorithms to predefined dictionary of predicted signal evolutions
Multiparametric analyses similar to genomic or proteomic analyses
III. Circularly polarized electromagnetic radiation
Improvement of signal-to-noise ratio, decrease of artifacts, reduction of excitation power
IV. Circularly polarized light in remote optical magnetometry (LGS)
Optical polarization: Excitation of a specific electron transition with circularly polarized light generates an electron reconfiguration which creates a charged atom pole thereby mediating atom polarization.
V. Hyperpolarization
Techniques to mediate polarization transfer between nuclear spins and from electron spins to nuclear spins.
Dynamic Nuclear Polarization (DNP), Spin exchange optical pumping etc.
VI. Combination of MRI with ESR
Polarization transfer from electrons
Overhauser Magnetic Resonance Imaging (OMRI) or Proton Electron Double Resonance Imaging (PEDRI)
VIIa. Quasi-static electric and magnetic fields
In the near field region of less than one wavelength, electric and magnetic fields are quasi-static
VIIb. EM waves below 14 MHz are quasi-static for the human body
RNM hypothesis:
A static magnetic field can be created at a specific location using an ELF wave etc. to enhance phenomena
VIII. Static and low frequency fields generate charges on body surface or environment
RNM hypothesis: Possibility to use proton and electron double resonance (cf. electron clouds) & Aharonov-Bohm detection
IX. Ionization by microwaves - charge generation on body surface or environment
RNM hypothesis:
(same as VIII)
RNM device reading electron changes
Gyrotron pulsed-power device surrounding subject in microwave and reading electron changes
Version imprimable