Arduino Brain Simulator

In 2010 an article appeared on Wikipedia about Synthetic Telepathy. The article was taken down after several hours because of it's controversial nature. The article goes into depth about a field of espionage that employs a technology known as "silent sound" or "Synthetic telepathy". Synthetic telepathy (also known as techlepathy or psychotronics) is a term used to describe the process in brain-computer interfaces by which human thought (as electromagnetic radiation) is intercepted, processed by computer and a return signal generated that is perceptible by the human brain. Sounds like the stuff of Sci Fi movies but I have been subjected to this for at least 10 years. I think it is both satellite based and ground based. Cell phone towers are capable of this.
Another technology similar to this is Sub Vocal Speech Recognition. It is sometimes referred to as S Quad. It was used by the US Military in the first Gulf war. ITV News did an article titled "Military Use Of Mind Control Weapons". It can be found on my website www.philipnute.wordpress.com.
Electromyography (EMG) uses electronics to pick up electric signals given off by muscles. This too could be satellite or cell phone tower based. Any electromagnetic radiation coming from a living organism can be picked up by electronics. All forms of life on earth give off numerous signals. NASA has been experimenting for years on Sub Vocal Speech. Articles can be found on the internet. NASA's work is based on the research of Lawrence Pinneo and Charles Jorgenson. This is an idea to combat these technology's.
Any radio jamming is aimed at the receiver. In this case it would be the satellite or cell phone tower. The idea is to broadcast a similar wave form at the same power levels so the receiver can't tell the correct signal from the fake. If the fake signal is extremely close to the actual transmitter, in this case a person, the receiver is defeated. The idea is to take an Arduino microcontroller (MCU) board and program it to broadcast multiple fake signals. The signals are placed on an antenna that looks like necklace. The Arduino is carried around in your pocket. The signals could also be part of the circuit. That is an extension of the actual etch of the printed circuit board (PCB).
During the first Gulf War the US Army used what has become known as SSSS or S Quad. Silent Sound Spread Spectrum. (ITV News Bulletin "Military Use Of Mind Control Weapons") The article says the technology picks up numerous signals and makes a composite of an individual. Over time the computer 'learns' the specific pattern of the person. So any jamming equipment would need to generate a lot of signals. Both EEG (electroencephalography) and EMG.
The picture above is 3 Arduino's I own. (left to right) An Arduino Uno R3, Arduino Mega 2560 and Arduino Due. Their computing power increases with the MCU it has. The least powerful is the Uno R3 and the most powerful is the Due. The Due has upwards of 50 programmable pins that can output a digital signal. All Arduino boards use Atmel MCU's. You would have to connect a D/A converter (digital to analog) to the output pins and come up with software that simulates EMR given off by the human body. All Arduinos also have analog input pins. You could hook up a pulse sensor to monitor your pulse and use it to alter the brain signals accordingly. Or you could use temperature.
The picture above is my Uno R3 with a Kuman 3.5 inch touch screen running a program that displays a simple string. The software to program the Arduino is free and can be downloaded from www.arduino.cc. The Arduino Integrated Development Environment (IDE) comes with programs that will run on Arduino. Picking it apart is a good way to learn how to do it. The 'libraries' folder has files that can be associated with Notepad, a free program that comes with Windows, and you can 'copy and paste' the code into your own programs. Atmel also has an IDE that is free. Atmel Studio 7.0 can be downloaded from the Atmel website.

 
EEG Signals From Different States

 
Complete EEG During Alpha State
Sub vocal speech might be more difficult to mimic. I have yet to find a picture of the signals involved, or what muscles. They make throat microphones that people use while driving. The mic attaches to your throat but I don't know if it picks up 'silent sound'. You might need an electrode. Audacity is a open source music program that I believe can be used with a microphone and a computer. Maybe it can also be used with an electrode. It produces a visual output as well as other things.
Numerous signals mean numerous antennas or in-circuit wires. Standard computer ribbon cables come with as many as 100 wires. (I think) But 100 might be too wide and less might not be enough. It is possible to mix more than one signal. Any audio mixer would work. A 24 wire cable with 2 signals each is 48. If the cell phone tower or satellite is picking up all your emissions and creating a composite of you as a person multiple signals might confuse the computer.
All Arduino's use Atmel MCU's. The UNO R3 uses a 328. The UNO also has a I2C bus that can be accessed through two of the digital input/output pins. SCL and SDA. (clock and data) I2C is an industry standard. You can hook up as many as 127 devices. I have been trying to get an MCP4725 digital to analog converter to work on this bus. I want to get it to output a sine wave of about 50 HZ. Adafruit (dot) com has working software thats free. (see picture below)
The MCP4725 can be bought mounted on a small PCB to experiment with like the small blue boards in the picture. It also comes as a quad digital to analog so if you wanted eight signals for the ribbon cable you would only have to hook up two PCB's. The quad chip is the MCP4728.
The problem with sine waves is they do not mimic an EEG. An EEG is a transient wave. It is not uniform. It changes constantly. An EEG is an electronic readout of brain waves. They vary from about 5 HZ to around 45 HZ. When a person is sleeping the waves are about 5 to 10 HZ. This is called an Alpha state. When you are awake but at rest they vary from about 10 HZ to around 20 HZ. If you are awake but active they can go from 20 HZ to 30 HZ. When agitated they can go as high as 45 HZ. A circuit is needed to chop up the sine waves a little then change the frequency as you go from sleep to agitated. I have a couple suggestions.
The schematic above is a noise generator that uses avalanche noise. Avalanche noise looks very similar to an EEG wave only it has a very wide frequency range. If you removed the speaker from this circuit and filtered it for everything above 50 HZ you could feed it into an analog input on the UNO R3 and use it somehow to alter the sine waves. Another suggestion would be to feed back one of the sine waves and alter the software. To vary the frequency for a person activity level a heart monitor transducer could be fed into an analog input. The picture below is a heart monitor made for Arduino.
To mask sub vocal speech you might need to add a signal that mimics your voice and add it to the ribbon cable. The picture above is a small voice recorder that uses a small EEPROM. An EEPROM is non volatile memory like a USB thumb drive. This PCB will record about 20 seconds of voice and store it in the IC. This IC is an ICD 1820PY. This comes with a microphone and connector for a speaker. Instead of a speaker you could connect it to the ribbon cable to transmit the EMR. There is also a connector to access the IC's digital functions. Maybe you could hook it up to the UNO R3 and repeat the voice over and over.
Above is a picture of my UNO mounted on a proto board. The MCP4725 is the red PCB on the right. I soldered the same connectors on the proto board as are on the UNO and jump what I need to them. Power is coming out of the left, signal on the right.
There are 2 ways to attach the necklace to the device. As an antenna or as a part of the circuit.
Any wire has 2 ends. When using a piece of wire as an antenna you attach only one end to the circuit. The other end extends out as far as it can reach. It has been proven mathematically there is current all along the wire. When receiving the length of the wire doesn't really matter, though the longer and thicker it is the more sensitive it will be. When transmitting you run into something called the Standing Wave Ratio. (SWR) SWR is a measure of the antenna's efficiency. Power efficiency. The lower the SWR the more power you are transmitting. If you had an SWR of 1 and you were trying to broadcast 50,000 Watts you would be actually broadcasting 50,000 Watts. SWR's of 1 are not common. The best way to minimize the SWR is to have the antenna be at least as long as 1 wave length of whatever frequency you wanted to broadcast. Low frequencies are very long and high frequencies are very short. If you wanted to broadcast 50 HZ, like me, you might need hundreds of feet of wire. (I'm not sure exactly what it is) This is obviously impractical for what I'm trying to do, but I'm not sure if I could transmit enough with a short piece. A high SWR does not mean nothing is being transmitted.
The other option is to make the necklace part of the circuit. Connect both ends to the device. The output connector would carry all outputs from the MCP4728's and the voice recorder, 9 in all, and then extend around the neck and come back to the device through another connector. The other connector has load resistors connected to ground so current flows. EMR radiates as it does in any other part of the circuit. You can control the power with the load resistors.
I think it would be a good idea to put a diode before each output on the necklace. I say this because I think 'they' can access anything that acts like an antenna. My main computer has a aluminum case and no on board WiFi or Bluetooth. It is not attached to the internet at this time but I'm pretty sure 'they' can change things on the fly. The only way I think this is possible is to use any USB wire not in use as an antenna. When I turn my computer off the USB ports remain energized. I know because the LED on my mouse stays on.