Abstract: A non-invasive remote diagnostic system includes a central processing unit (CPU) adapted to feed an image of a patient such as a digital photograph to be displayed to an operator by a first computer monitor. A second computer monitor is displaying a realistic outline of a target area of diagnostic interest such as an outline of a human organ or a particular portion thereof. These two monitors together with a CPU are adapted to induce a state of heightened consciousness and intuition of a system operator. A detecting/evaluating unit is sensing non-invasively the operator's biofeedback response while the operator is exposed to the images. The biofeedback response is converted to an electrical signal and is fed back into the CPU to compare against a predetermined database of similar signals obtained from volunteers with known diseases. The biofeedback signal allows a non-invasive remote diagnosis of a patient's state of health.

Abstract: A biofeedback diagnostic system includes a triggering sensor and a central processing and telemetry unit having a block for producing a series of various type stimuli to a patient and an operator of the system. Two biofeedback loops are formed: central unit-patient-triggering sensor, and central unit-patient-operator. The triggering sensor remotely acquires the patient's brainwaves feedback to the stimuli and sends a digital signal back to the central unit. To improve the patient's intuitive response, an optoelectronic element is placed of the patient's forehead and illuminated with a laser light at a frequency of the patient's brainwaves theta-rhythm. To isolate the torsion component of the laser light, a cavity resonator is employed with a volumetric chamber having a size being some multiple of the transmission frequency of about 1.45 GHz.