The definition of RADAR is RAdio Detection And Ranging & RAdio Direction And Ranging and has the capability to ‘SWEEP SEARCH’, to ‘LOCATE’ and to 'LOCK-ON' to specifically chosen dielectric property they are looking for, whether through-walls or underground. When the microwave RF ‘POWER DENSITY’ is increased, is what hurts, burns and vibrates, that selected body part.
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https://drive.google.com/file/d/1M0BlfVrB3X0oY9HXEs0uCJAHL9_h02Dl/view
2002 -- Background – LLNL's micropower-impulse RADAR (MIR) presents a new paradigm in RADAR technology. MIR uses $10 commercially off the shelf (COTS) parts, to outperform conventional RADAR and sensor equipment costing as much as $40,000. Both the RADAR transmitter and receiver are contained in a package measuring just two square inches. (TALK ABOUT HAND-HELD !!!!!!!! )
Description – The technology is an outgrowth of the world's fastest solid-state digitizer, which was designed to measure sub-nanosecond events generated by fusion experiments on the Laboratory's Nova laser. MIR is based on the radiation of short voltage impulses that are reflected off nearby objects and detected by MIR's extremely high-speed sampling receiver.
Prototype units emit one million impulses per second and then detect their echoes within ranges of 20 feet or further with the addition of synthetic beam forming antennas.
The micro–RADAR can be preset to detect stationary objects within a precisely defined range as well as any motion within that area. MIR can penetrate materials such as rubber, plastic, wood, concrete, glass, ice and mud.
Overview of MIR Technology – Advantages – (1) Unique, patented technology (2) Compact (3) Inexpensive (4) Wideband pulsed RADAR (5) Low power
Potential Applications – The technology already has been licensed for electronic studfinders, automotive safety products and industrial automation. Discussions with hundreds of interested companies indicate there are many products that will be improved and reduced in price by MIR. Below is a partial listing of the many other fields-of-use that are available for licensing. (1) Residential, commercial and industrial automation (2) Security and energy conservation (3) Fluid level sensing (4) Transportation (5) Medical (6) RADAR imaging (6) Material evaluation (7) Tools (8) Voice recognition equipment (9) Communication (10) Underground detection (11) Military, including buried mine and ordnance detection
LLNL Lawrence Livermore National Laboratory • 7000 East Avenue • Livermore, CA 94550 Operated by Lawrence Livermore National Security, LLC, for the Department of Energy's National Nuclear Security Administration. NNSA U.S. DOE LLNS
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Measuring these radiofrequencies might be difficult, as illustrated in these articles, especially if the RF is pulsed in the pico second, nanosecond or sub-nanosecond range, called MicroPower Impulse RADAR or MIR.
These articles are older, but the links on the technology sheds light on how difficult it is to measure this stuff. The technology is open source and the high-power RF device can be made from easily accessible, cheap parts.
If the Through-The-Wall-Surveillance (TTWS) sensor, high-power microwave (HPM) RADAR device uses pulsed ultrawide band (UWB) radiofrequencies, also known as 'baseband' or 'carrier-free' or 'impulse' radio beam; it is inherently difficult to measure, extremely difficult to intercept, has great immunity to interference (or jamming), but has a high precision characteristic. These beamed RF frequencies are also known as MicroPower Impulse RADAR (MIR). Here is an article from Lawrence Livermore National Laboratories on some of the capabilities and the stealthiness of the technology: https://ipo.llnl.gov/technologies/instruments-sensors-and-electronics/micropower-impulse-radar-mir
Electro-magnetic pulse (EMP) is when radiofrequencies think every wire is an antenna, that is why and how all our appliances and communication devices get over heated and break-down. It is intended to deplete us financially.
posted by Helena Csorba rfhurtslife@gmail.com