Human Remote Sensing / Spectral Imaging - Remote Biometrics

Thermal Sensing - Biometric Identification

Long-Wave Infrared (LWIR) (LIDAR)

Sensing of Human Gait (cf. walking) -

Doppler RADAR 

 

 

 

Medical or Physiological Monitoring (Sensing) - Physiological Spectral Imaging

Physiological Monitoring (Sensing) includes Remote Physiological Monitoring (Sensing) performed with non-contact remote techniques which use physiological monitoring RADAR and LIDAR systems.

 

Remote Cardiorespiratory Monitoring (Sensing) with RADAR and LIDAR

(Remote Cardiac Biometrics with LIDAR)

 

Doppler RADAR

Chip Transceiver (Emitter and Receiver)

(Droitcour A.D. dissertation - Stanford)

 

 

FMCW RADAR

Horn antenna - Katabi MIT lab "EQ-Radio"

RADAR approach combined with algorithms for emotion detection

 

 

FMCW / Homodyne

RADAR

Parabolic antenna (dish) - RADAR cardiogram at 15 ft - Remote Vital Sign Monitor (RVSM) for Atlanta Olympics(1996) 

 

 

Doppler Laser/LIDAR

MIT Tech Review: "The Pentagon has a laser that can identify people from a distance—by their heartbeat".

(Remote cardiac biometrics)

 

 

Neural Monitoring (Neural Sensing) 

 

Remote neural monitoring

Remote neural monitoring with microwaves/

radiowaves (RF)  Microwave/RF EEG

EEG

Electroencephalography

 

 

MEG - SQUID

Magnetoencephalo-graphy with SQUID magnetometers

("Superconducting magnetometers")

MEG - optical

Magnetoencephalography with optical/atomic magnetometers

(SERF magnetometers)

 fNIRS

functional Near-Infrared Spectroscopy Imaging

 

 

structural MRI

structural Magnetic Resonance Imaging

 

 

(U)LF str. MRI

Low-field (LF) and ultra low-field (ULF) structural MRI

 fMRI

functional Magnetic Resonance Imaging

EPR/ESR

Electron Paramagnetic Resonance (EPR)/ Electron Spin Resonance (ESR)

PEDRI/OMRI

Proton Electron Double Resonance Imaging (PEDRI)/ Overhauser Magnetic Resonance Imaging (OMRI)

MRCDI-MREIT

Magnetic Resonance Current Density Imaging (MRCDI)

Magnetic Resonance Electrical Impedance Tomography (MREIT)

 

 

Magnetic Resonance - Magnetic Resonance Imaging (MRI)

Synopsis (link)

 

Magnetic Resonance: A magnetic field splits spin energetic levels and induces spin precession. Energy transitions under conditions of Magnetic Resonance.

MRI: Polarization

A magnetic field induces spin polarization and a net magnetization

MRI: Detection

An RF tips the magnetization with energy absorption. During magnetization decay a signal (FID) is emitted.

MRI: Polarization enhancement techniques

(in progress)

MRI: Detection RF pulse design

Inducing a Steady State Magnetization providing a continuously emitted signal from the subject