Counter-Surveillance Counter-Mind Control

This is a collection of counter-surveillance, counter-mind control ideas I have worked on over the years. They include noise and pulse generators, Faraday Cages and filters and possible methods for destroying satellites.

Aside from the known ways to ease drop on someone, microphones, cameras etc, there are at least three new techniques used to oppress people they don't tell anyone about. Synthetic telepathy, the microwave hearing effect and neural implants. Synthetic telepathy, as mentioned above, is the ability to read a person's mind by picking up the tiny electromagnetic signals produced by the brain and interpreting them with electronics. The microwave hearing effect was discovered during WWII by radar operators when they experienced a clicking noise in the ears when near the equipment. It can be used to put voices in someones ear and drive them crazy. It's like a telephone system thats both completely wireless and has no phones. It's sometimes called 'electronic brain link'. Someone named Flanagan invented what he called the 'neurophone' in the 1950's. It might be similar. I don't know. Microwaves are radiated from cell phone towers and the towers are everywhere all across the country. They sell people phones, but they're not really needed anymore. The development of neural implants can be traced to the CIA's MK-Ultra mind control program that began in the 1950's. The CIA's Dr Jose Manual DelGado designed the 'Stimoceiver' and demonstrated it in a bull ring in Spain. There are videos of this on youtube.com.

The Russian Sputnik was the first satellite in orbit. The first commercially usable communication satellite system was INTELSAT. It was fully operational by the mid 1960's. It was operated by the United States Federal Government until it was sold to a private company sometime after the year 2000. There are now many commercial satellite systems. The CIA began putting spy satellites into orbit in the 1960's. They currently operate the Key Hole Hexagon series. (KH Hexagon) Satellites use 'remote sensing' to spy on and analyze the earth. Remote sensing is a science in itself. It has been developed by NASA. Satellites are capable of picking the tiny voltages emitted by the human brain from 500 mile above the earth. At the end of this document I present some ideas for disabling satellites.

Jamming is a technology as old as radio. Jamming is aimed at the receiver not the transmitter. The idea is to prevent the receiver from picking up the signal. A couple of methods can be used. Over power the transmitted signal with a higher wattage signal similar to the one trying to be received or just broadcast noise of many frequencies and of very high wattage. A satellite can be considered a receiver if it is trying to pick up your brain transmissions. Carrying around a device that transmits noise at frequencies the same as

your brain at higher power levels could stop synthetic telepathy. The power levels of your brain can be easily overcome by a device with a 9 volt battery. It might be possible to program an Android device to do this.

Noise Generator

A possible way to defeat the sensors that pick up the emissions of the human brain would be to generate a lot of garbage electro-magnetic waves around the people and make it difficult for the sensors to pick up the EMI given off by the people. The people would have to always remain near the generator. The generator would need to generate a higher power level than a human which is not difficult given the tiny voltages of the brain.

Theory of Operation. To generate noise, or useless signals, in a wide range of frequencies to force receiving surveillance equipment to apply filters in the same range as the desired signals. For instance, I recently bought the book "The Computer and the Brain" by John von Neumann. He states that the human brain works by electrical, mechanical, and chemical processes. The speed of these processes ranges from 3 to 300 feet per second. There are multiple electrical signals with different parameters. I don't know exactly what they are so for the sake of argument lets say the frequencies can be calculated from the 3 to 300 feet per second figure. If you can generate noise, or useless signals, over that entire range you can force the surveillance to apply filters to remove the noise and thus at the same time the signals they want. If the surveillance is so sophisticated they can remove the noise and still read the desired signals, if you force them to do this to a million people you eat up their computing power. They would need a computer the size of Utah.

Specific Ideas:1. Spark GeneratorsSpark generators were one of the first Morse Code machines. They were invented by Nikola Tesla before the end of the 19th century. The Titanic carried a spark radio. As radio progressed they were outlawed because they interfered with the entire radio spectrum. A Jacobs Ladder is a type of spark generator. At high voltages they can interrupt everything. I mounted a standard spark plug from an internal combustion engine in a piece of metal to simulate an engine. To create the spark I used a standard ignition coil with a Velleman kit. The Velleman kit (K2543) comes with everything needed, but it has to be assembled.

2. Mechanical GeneratorsElectric motors are notorious for generating noise that interfere with sensitive electronics. All motors have a rotor that must move and be energized at the same time. This is accomplished with a conducting brush that keeps contact with the rotor. The idea is to rotate a metal brush on metal and conduct electricity through it to create noise. Then amplify the noise and put it on an antenna.

3. Electronic GeneratorI began experimenting with Texas Instruments MSP430 line of microcontrollers. The Launchpad comes preprogrammed with a software routine that pulses an LED. I theorize you could simply take that pulse, amplify it and put it on an antenna and it might create enough disturbance for one person. It could be made small enough to hang around a person's neck. The MSP could also be programmed to generate random digital signals out of almost any output. You could generate many random signals mix them together and create digital noise. The outputs could be programmed for different frequencies. Another electronic idea is to build a white noise generator, chop up the signal somehow and amplify that. Different metals have different conducting properties. It might be possible to make your own component to chop up signals by passing the current through different metals. You could pass the signal through a piece of pig iron and see if it makes a lot of noise.

4. It might be possible to record the noise made by a spark transmitter, make a computer file out of it, then rebroadcast (transmit) it through a cell phone or iPod. It’s effectiveness might be limited to the microwave spectrum because of the size of the antenna.

5. Bluetooth is a technology that allows Personal Area Networks using microwaves. You can transmit and receive signals up to 150 ft away. Anyone can develop applications for Bluetooth. Development kits can be bought online at supply houses such as Mouser or Digi-Key. Android is an open source platform for cell phones and MP3 players. Anyone can develop applications for an Android based device. The software is free. Google “Android Software Development Kit”. Many Android devices have an antenna that can be programed. It could be used to broadcast noise or some other jamming signal.

The first idea uses avalanche noise. (see schematic below) Avalanche noise is produced by the pn junction of a diode, transistor, or Zener diode. In the schematic below Q1 has no connection to the collector. A tiny amount of current will flow through the emitter base as Avalanche and be amplified by Q2. This circuit then amplifies it again with Q3 and turns it in to a digital stream with the 74LS14. This is optional. It can be kept as analog and placed on an antenna.

It's not normal to combine electronic signals, but it can be done if you don't care about the final signal. The noise from one diode isn't very intense but it spans a wide range of frequencies. If you wanted to make it more difficult to filter you could mix multiple signals into one. (see below)

A mixer is a type of circuit that accomplishes this. If you don't really care about the integrity of the final signal you could just use diodes. (see below) The next picture is an audio mixer, it can put 3 microphones on 1 speaker.

This technique could be applied to digital signals as well. You could program a micro-controller unit (MCU) to output multiple random digital signals and combine them for digital noise.

If you wanted to jam the electrical signals of the human brain you could make a pocket sized circuit and use a necklace as an antenna. (see below) This is a piece of Viking weave I made from sterling silver and I put an electrical connector on the end. Or you could run the signal through a long connection on the PCB without an antenna. Doing this with very high frequency digital signals could jam a personal area network (PAN) device or Bluetooth device.

You could design multiple sine wave signals at different frequencies and combine them. Or sawtooth or triangle.

There are companies that make sine wave generators in the microwave range. You could convert the sine wave to digital and combine multiple frequencies. Some sine wave generators are voltage controlled oscillators. (see top picture) The frequency depends on a voltage applied to an input. If you applied a sine wave to the input it sweeps through a specified range of frequencies. You could jam the entire microwave spectrum. (see below)

Different metals conduct electricity differently. Some metals are really bad conductors of electricity. The best are gold, silver, copper and aluminum. As a technician I have seen what a cold solder joint can do to signals. Cold solder can happen when the lead of

the component and etch on the PCB doesn't get heated high enough when the solder is applied. I don't know if this would work. It might be possible to come up with an alloy that creates noise when a wide range of frequencies is applied. You could insert the metal at the end of the mixing process and put it on the antenna or you could make the antenna out of the metal alloy.

The picture below is a possible test set-up for testing different types of wire as antenna's. Get a piece of PVC pipe in as small a diameter as possible. Mount it in a piece of wood and string the wire through. Hold it in place with a piece of tape. Connect it to a terminal block at the bottom. Connect the circuit to that. The next picture is some wire. The wire on the right is jewelry binding wire and the other is something I picked up at a dollar store.

This is an addendum to the Personal Area Network Jamming Device. The top picture is a piece of metal I can test to see what kind of noise it produces. I don't know exactly what it's made of, I think it's some kind of jewelry base metal, this is for demonstration purposes only. I wrapped 3 pieces of copper wire around it. I want to make a mechanical connection only so as not to introduce any other kind of metal as in electrical solder. To finish it I will cover it with glue. I am using Gorilla Glue. The wire I used is too big to fit into the PCB (next picture). I goofed. The connected circuit will attach to the 2 ends and the noise will be drawn from the center. Technically it's the same point electrically (????) but the 2 ends will attach to a node that has other components and won't be completely isolated. The 3rd picture is the component after the glue dried.

The next picture is a schematic. The component is in series with a resistor from power to ground. Some sort of oscillator is connected between the resistor and component. The output is connected to a capacitor to remove any DC voltage. The noise is then amplified and split into more than one signal. The separated signals are conditioned further. One could be phase shifted, another could be inverted etc. Then those signals are recombined in a mixer to make really intense noise.

I think it was John von Neumann who said "Anyone who designs a truly random digital circuit is committing a sin". This is what he may have meant. The human body produces hundreds or maybe even thousands of different electric signals of different frequencies, voltage levels and duration. To reconstruct a persons thoughts or sub-vocal speech you would have to sort through all those signals without making a physical connection. You would have to pick up all the signals with an antenna and use a computer to pick out the ones you need. To do that you need to convert analog signals to digital information. A/D converters would be installed after the antenna. Computer software would be used to sort by frequency, voltage, power, etc. If you came up with an analog noise signal that covered the entire range of what the human body emits and it was totally random the computer A/D converters would produce a totally random sequence of digital information. They would have to apply an analog filter that would also filter out what they are looking for. I have a book titled "Modern Communication Jamming: Principles and Techniques" by Richard A. Poisel. In it he describes how most electric noise can be reduced to some sort of mathematical equation. Anything but completely random noise can be 'filtered' with software if it has a mathematical equation. Truly random noise would not have a equation.

The top picture is a schematic of a test circuit I built. It's just a 20MHZ oscillator. (see middle picture) It gets amplified and buffered then put into a connector so I can try to break up the sine wave by inserting different types of metal between the wave and the load resistor. (3rd picture is test PCB) I placed a diode in the connector to further protect the circuit. The 4th picture is a working model. The antenna goes around my neck. I placed a piece of copper after the antenna in the circuit and in series with the load to act as a sort of 'in circuit' antenna. (the piece of copper plate) The idea is the opposite of what all engineers do. That is, to minimize the interference given off by the device. I want the device to give off as much EMI as possible. Antennas usually have to be tuned to whatever frequency they're designed for. Since I want to broadcast the entire frequency spectrum I think an 'in circuit' antenna is best. The human brain, and body in general, produces many different signals that need to be jammed. You also need to jam all microwave frequencies because of neural implants. It is very difficult to get one antenna to do that. The final signal is the output of a mixer of the many signals I come up with to jam whatever I need to. It also can include noise that spans the entire spectrum. This would be very difficult for one antenna. I read somewhere if you want to sink a spike of current to ground quickly give it surface area. So I used a piece of plate.

Another idea for a noise generator is a spark transmitter. A spark transmitter was used on the Titanic. Spark transmitter's were later outlawed because they interfered with the entire radio frequency spectrum. It generated a powerful spark and was used exclusively with Morse code. The spark transmitter was invented by Nikola Tesla. The purpose for shutting down the entire spectrum is to defeat synthetic telepathy, the microwave hearing effect and communication with any people who have neural implants in the area. It also

slows down police and military response. In a popular uprising shutting down the radio spectrum would help to level the playing field. Modern military tactics are heavily dependent on radios and technology in general. If the greatest military power known to man were forced to fight for every inch of ground without radios and technology the cost in human life would be so great no one would sign up.

The schematic below is a spark transmitter. It has a power source some basic components and an antenna. This schematic doesn't show a Morse code key.

My idea for building a low power version involves an ordinary lawn mower spark plug mounted in a piece of metal run by a Velleman 2543 Electronic Transistor Ignition for Cars and an autotransformer I bought from Amazon. See second picture below. It might be possible to substitute the spark plug with a vacuum tube. Breaking the vacuum would enhance the noise.

This is another idea for a transient noise wave. I don't know if it works. It involves

putting 3 transistors in series and driving each one with a different frequency sine wave.

Take the output from one of the transistors. Or there might be some way to put them in

parallel.

High Wattage Pulse Generator

Purpose - To disable in place neural implants and/or RFID chips placed under the scalp by destroying micro-miniature electronic components with a high wattage pulse of electromagnetic energy directed at the head. This process is in addition to TASERing someone in the head or using ECT (electro-convulsive therapy) or breaking an RFID chip with a hammer.

Theory of Operation - The size of the antenna with aluminum reflector is about 10 to 12 inches high and 3 inches wide at opening. The person with implant or RFID chip sits about 12 inches away from antenna in direction of pulse (see drawing). The device runs on ordinary household 120 AC from a wall outlet. The 120 AC is stepped up by a step-up transformer. That voltage is fed to a full wave bridge rectifier and then made into DC voltage by regulating capacitor and resistor. When switch 1 is thrown point-A immediately goes to maximum DC since capacitor is a dead short to DC voltage. Capacitor then charges to maximum DC voltage and point-A goes to zero voltage. The time for point-A to go from zero voltage to maximum voltage and back is determined by the equation T=RC. Since a high surge of current is desired, using a small value resistor makes for a very quick and powerful pulse of energy. If maximum DC voltage were 1000 volts a surge of 3000 Watts could be made with a resistor of 333 Ohms. A time of 1/2 a second could be made with a 1.5mF capacitor. High wattage components for this application might be hard to find, but they do make capacitors for AC motors that are commercially available. They could be bought at grainger.com.

Explanation of Addendum - I don't know if this would work or even if it is necessary. Since like polarity's repel and opposite polarity's attract, it might be possible to increase the force of the pulse by energizing the aluminum reflector with the same pulse as the antenna but at a lower voltage.

Problems - The schematic is over simplified. I am just trying to pass on an idea. A massive surge of current would probably draw down the DC voltage and seriously reduce wattage. A high power regulator would be needed. The capacitor would need to be discharged after each use to reset.

Second Addendum Added Dec 7 2016 - This addendum is an attempt to fix some of the issues brought up in the 'Problems' section above. The original design will pull down the DC voltage as the pulse rises. The overall wattage will be affected. This design adds an array of super-capacitors as a power source for the pulse. Super-capacitors are designed to hold a large amount of energy at high ratings such a 3500 volts. The definition of a capacitor is that it stores energy in an electric field. It can act something like a battery. It can be charged then discharged. The idea is to replace the AC supply and regulator with a an array of super-capacitors. The capacitors are charged through a resistor. When the capacitors are fully charged an indicator circuit lights. The resistor and AC supply circuit can then be removed by throwing a switch. When ready, another switch is thrown to discharge the capacitors into the antenna circuit. After discharge the antenna circuit is switched out and the capacitors charged again.

Faraday Cages

A Faraday cage is an enclosure, room or entire building (like the NSA building at Ft

Meade), encased in metal and then grounded to earth. It prevents electromagnetic waves

from entering or leaving. The NSA building is copper, but aluminum has the best reflective

property’s of any metal. Aluminum flashing can be bought at any construction supply

(Home Depot, Lowes). Attach it to one side of some plywood panels and place the panels on

the floor of the attic. There are companies that sell and install metal roofs. This might defeat

satellite surveillance but not cell phone towers. If a satellite can pick up EMI at 10,000 miles

cell phone towers can do the same. Cell phone systems are on the ground and would be

capable of snooping through the walls not the roof. To defeat this, the whole house would

have to covered with aluminum. They used to sell aluminum siding, I don’t know if they still

do.

It might be possible to eavesdrop on a dwelling through the grounding rod. Which is

to say any dwelling. This, in fact, could neutralize the Faraday Cage. This is only a guess. In

the event it is true, this idea might help. Introduce noise onto the grounding rod or cage

intentionally. This idea is mechanical. Attach a small metal rod to a motor. Rig the assembly

to continuously tap on the grounding rod.

Neural implants probably operate on microwaves given the small size. Getting an implant out of someone is tricky. You would have to stop the implant from communicating, get them to a facility that is fully protected from surveillance and they might have to stay there a while. EMI shielding could help cut off communication. They make EMI absorbent material that looks something the rubber used in a SCUBA diving wet suit. A person could be covered from head to toe with this and brought to a facility that is a Faraday cage. A Faraday cage is an entire building encased in copper and grounded to earth. This would be a Faraday cage walking into a Faraday cage. A Faraday cage is an enclosure, room or entire building (like the NSA building at Ft Meade), encased in metal and then grounded to earth. It prevents electromagnetic waves from entering or leaving. The earth is an electrically neutral body. Any voltage, whether plus or minus, will discharge a current if given a path to earth. You cannot develop a voltage across neutral. Neutral is neutral. So if an entire building is a piece of metal and connected to earth all radiated electromagnetic waves will discharge to ground. Turning every building in the country into a Faraday cage isn't practical but some steps can be taken. It is possible to purchase enough aluminum flashing to cover the floor of the attic for about $600. You could lay down the aluminum and then put some 1/4 inch plywood on top. It wouldn't add too much weight and the attic is still usable. There are thousands of corrugated metal industrial buildings in this country that could be easily converted into a Faraday cage.

A Faraday cage can protect from radiated intrusion, both transmitted and received, but it doesn't help with conducted surveillance. Any wire entering or leaving a building and connected to a utility (electric, cable, phone) is a highway for someone to snoop. Any house has thousands of feet of wire. A large building has miles and it can all be used for transferring data. Broadband Over Powerlines (BPL) is a technology that uses the AC wiring in a building for delivering the same data as the coax cable. Telephone wiring could also be used without a person's knowledge. It used to be that when a device was off it was off. But now almost everything plugged in is drawing current even when not in use. I used to think this was done just to pad the electric bill but it may also have a more sinister purpose. Anything plugged into a wall outlet in your house could be snooping. The wiring itself could be a problem. As a rule the bigger the antenna, the more sensitive it is. So the wiring in your house could be a very sensitive antenna capable of picking up your personal emissions. There are at least 2 ways to defeat some of these problems. Filtering and injecting noise onto the wires.

This is some observations about Faraday Cages and VLF. Very Low Frequency emissions can penetrate a lot. Its possible a Faraday Cage won't stop VLF. This is some potential solutions. Encasing a house in sheet would be better than mesh. In the event VLF penetrates sheet it might be possible to 'float' the cage, by not connecting it to Earth ground. Instead the entire cage will act like the secondary of a transformer and a current will be induced into it. To move and dissipate that current it needs a load. The first idea is to connect a couple very high wattage resistors in the cellar. The other idea is to connect the cage to Earth ground through a capacitor or resistor or both to help dissipate the current. (see picture)

Filters

Any wire entering a building is a potential highway for surveillance. Any electronic device in the building could be sending data over the wire to another building nearby or another room inside the building. The 3 known wires are the AC service, the telephone service and the cable service. If your building is a Faraday cage spying by transmitting out of the building won't work so this would be an alternate method. Someone could outfit a coffee pot with a device that has synthetic telepathy and then use the AC wiring to move the data a couple houses down the street. The electric company used to send someone from house to house to read the meter. Today it is done wirelessly so the technology for spying already exists. Broadband Over Powerlines (BOP) could also a problem. The telephone and cable service could carry it much further.

Electronic manufacturers make filters for all kinds of applications. They can be used to defeat some of the problems. An understanding of what they are originally designed for is necessary to use them and I will try to boil it down to a few sentences. Most of them are designed to remove unwanted noise from lines and equipment so that it runs properly and meets FCC standards. Noise is categorized as common-mode or differential-mode. Common-mode is defined as any signal that can be measured from hot to earth ground or neutral to earth ground. You cannot develop a voltage at earth ground since it is zero at all times. But both the hot lead and the neutral lead can vary above or below. The longer the run of wire the more likely it will pick up some type of unwanted signal (noise). Common-mode could also be described as any voltage picked up as radiation from an outside source. Differential-mode is noise from an actual device.Filtering for both is necessary but differential is more important since we are trying to stop the devices from communicating. Common-mode 'data' would be a problem if there were two long runs of wire and one had data but was filtered and was very close to a wire that is not filtered and that wire was 'picking' it up as radiated. This is less likely but possible. Filtering for differential mode is in fact 'in-circuit' and is what we are actually trying to do.

There are two basic types of filters, active and passive. Active filters use components like op-amps and transistors and some require a power source for those components. Passive filters use only resistors, capacitors and inductors. These components don't need a separate power supply but act upon the voltage itself as if it were part of the circuit. Other distinctions are they can be designed for AC or DC applications or high voltage or low voltage. I spent a lot of time reading a TE Connectivity (Corcom) catalog trying to understand the various types. One thing I discovered is that any filter used for medical applications only is usually only for differential mode. In-circuit. There must be something in building codes or the National Electric code or in the way they build medical facilities that eliminates the need for common-mode filters. Some medical filters

have common-mode components but very few. If a manufacturer doesn't specifically say a device is for differential-mode you can tell by looking at the schematic. If the components connect from hot to neutral it is for differential-mode. If they connect from hot or neutral to earth ground it is for common-mode.

Advanced electronics like DVD players, radios etc are a bigger problem because they have advanced IC's. There are two types of these that could have two solutions. Some of these devices have a plug that goes right into the wall and others have a small DC power supply or AC step down transformer that can be separated from the actual device. The former requires the filtering of the AC at the plug and the latter can be filtered between the device and separate power supply. With the separate power supply lower voltage AC or DC filters can be inserted before the device. Manufacturers make pre-assembled low voltage DC filters that can go between.

A spectrum analyzer is a device that is useful for both detecting the problem and troubleshooting your solution. It displays a 2 dimensional graph of all frequencies in a domain. A domain is where the measurement is taken, wireless or conducted, radiated or additive. Spectrum analyzers use to be very expensive and a separate piece of equipment. Since the advance of digital electronics even the cheapest oscilloscope comes with some sort of spectrum capability. They can analyze both radiated (wireless) energy and conducted (in-circuit). Placing oscilloscope probes into live AC circuits is dangerous for both the operator and the equipment and I don't recommend it. I recently purchased an Extech AC line separator that goes between an AC outlet and a piece of equipment so measurements can be taken with a clamp meter and no live wires are involved. There is also a clamp scope probe by Hantek. Hantek CC650 AC/DC current clamp. I recommend this instead of inserting anything into live AC circuits. Wi-Spy is a stand alone wireless spectrum analyzer.

To inject noise onto the wiring you could use X10 technology. X10 technology wasdeveloped in the 1980's. It uses the AC wiring inside your home as a way to send data. X10 can be purchased from a website called smarthome.com. I purchased a controller and took it apart to see how it works. See picture above. The controller sends data over the AC wiring to individual plug-in units that turn on or turn off a device when they receive the signal from the controller. Each plug-in device has a code that is programmed by two rotary switch's. Each plug-in device can go into any outlet and turn on or off whatever is plugged into it. The controller itself is a feedback loop. It plugs into any outlet. The AC goes through a small in-house device, then to a transformer to step down the 120 volts. The stepped down voltage goes to the PCB that has the control circuitry. The control circuitry then outputs back into the in-house device and back ontothe AC wiring. I think you could replace the control circuitry with some sort of noise generator and render useless all the AC wiring in your home.

The telephone wiring could also be a problem whether your phone service is provided by a telephone company or the cable company. Our phones go through the coax cable. The best that can be hoped for is to stop high speed data. The human voice goes between 200 HZ and about 30 KHZ, so you can filter out everything above that. It doesn't stop all snooping but it could slow it down. The above picture is of a Westek Z 100 telephone filter. It is placed in series in one telephone extension line. If you have 5 extensions, you would need five filters. It will not handle the wattage of all 5 at once. This filter is advertised as removing everything up to 200 MHZ.

The coax cable is also a potential problem but it makes no sense to try to filter high speed data since thats what its designed for. You could shut it off completely when not in use but disconnecting the BNC every time will take its toll on the connector. The picture above is an High Isolation A B Switch. You could connect the input to it, then the output to either A or B then leave the other unused. When you want it disconnected you throw the switch. My house uses the coax cable for the TV, telephone and internet. If I put one in the main feed I could shut off everything with one switch. To better manage all the wires it is advisable to organize and locate everything in one place. I have spent nearly a year doing this to my house.

This is an idea for helping a lot of people with implants all at once. During the G-7 riots in Pittsburgh the police used an LRAD (Long Range Acoustic Device) mounted on a truck to disperse crowds. It uses a highly concentrated beam of ultra-sound to irritate a person so they will flee. The idea is to modify that to send a high wattage pulse of EMI at a random group of people. Anyone with an implant who is close enough will be disconnected. It might also destroy their cell phones or other devices.

The fact that all this technology exists will probably help to define the way the human race lives in the future. If the people at the bottom ever gain a measure of control they will have to deal with it. I think there will be at least two types of areas. Secured areas and unsecured areas. Secured areas will overcome the problems and unsecured won't. Secured areas will be the countryside and the unsecured the urban cities. Secured areas will have no electric grid. Central generating plants will service only unsecured areas. In secured areas no wires will exist between buildings. All buildings will be completely self-contained. If a factory needs more power than can be generated by photo voltaic or fuel cells it would have it's own generator. All communication will take place on 2 or 3 microwave frequencies and operate on a relay type system with no central switching building. All other frequencies will be jammed with noise.

This is some suggestions for building a house that is off the grid and secure from surveillance. Do not place any wires permanently in the walls. The fact that the wiring is like a web that surrounds you in your home helps it act as an antenna. Build a chase somewhere in the middle of the house for all wiring. The chase would go from the top floor to the bottom. All wiring would be removable and accessible. They sell shielded AC wire like coax cable. Place all wiring inside metal Romex conduit and ground the Romex to earth. Next to the chase on every floor would be a set of shelves with inverters and batteries that would connect to the wiring in the chase. If you wanted a light or computer in a room you would take a battery from the shelf and use it until it needs recharging. Some dedicated circuits would be used for the stove, refrigerator, furnace and maybe a TV. They should be shielded wire in Romex. To begin fighting all this surveillance you have to be 'under the RADAR' so to speak. Building a laboratory under ground could help but also line the entire room with copper sheet or mesh. The earth itself could help impede EMI. The cellar of any home could be retro-fitted.

If you are a victim of this surveillance you already know the internet is censored and they can and do deny communications to anyone they don't like. I think there has to be a control room somewhere and some Nazi slug pushing a button. They must be accessing land line phone services wirelessly. The same for cable TV and cell phone. There is at least one building in every town that is dedicated to communication equipment. Making Faraday Cages out of these buildings would help enormously.

Destroying Satellites

1. Satellites run on solar voltaic arrays. It might be possible to destroy the solar cells with a high power LASER based on the ground.2. Satellites are useless if you can’t communicate with them. Establish a connection then turn up the power and try to destroy the circuitry associated with the antenna.3. In space even the smallest piece of metal can do serious damage. NASA calls it 'space junk'. They track 10's of thousands of pieces and move satellites if necessary. They can travel at 10,000 miles an hour for decades before they fall to earth. If it hits something it destroys it. This idea will launch a rocket with a bomb like a shotgun full of buckshot. You would only have to get it near a satellite and it would destroy it. If it misses the 'buckshot' will travel for decades.

Software Defined Radio

The invention of the personal computer has given rise to a new technology, Software Defined Radio (SDR). SDR can be a lot of things but for the sake of this manuscript I'll call it the hobbyist's synthetic telepathy machine. If I'm correct about how synthetic telepathy works SDR is a transistor radio sized version. It's basically an analog to digital (A/D) converter that gets fed to a USB driver then sent to a personal computer where it can be demodulated, or generally operated on, by the computer. Most SDR's are a little more complicated but for about $500 you can own one. For a little more money you could buy a very sensitive horn antenna, point it at your head, feed the signals into your PC and reconstruct the signals (thoughts) with software.

While developing your own synthetic telepathy machine is important using it for test equipment is just as important. A basic electronic technicians bench consists of the following: a Digital Multi-Meter (DMM) capable of measuring voltage (AC and DC) current (AC and DC) resistance, frequency and capacitance, a function generator capable of sourcing AC signals of all types (triangle, square, etc) an oscilloscope for looking at signals and a powerful DC supply. It's not needed for the DC supply but could be used for everything else. A function generator would need a D/A, not A/D but many SDR's can both receive and transmit. If you wanted to look at and manipulate signals in the microwave range you would need all this.

Test equipment can be very expensive. The wider the frequency response the more expensive it gets. You could spend hundreds of thousands of dollars for equipment that measured everything from DC to 10 GHZ if they would sell it to you which they probably won't. Some of the better SDR's are capable of that for about $1000. (Ettus Research) There is a open source group called HPSDR (High Performance Software Defined Radio) that makes a backplane for about $100. It's a series of edge card connectors with a DC power plug and a USB interface. You could buy various A/D, D/A converters from different manufacturers and hack away at all manner of things.