The CIA and FBI are involved in a microwave torture program against thousands of U.S.
Citizens, called Targeted Individuals. There is a growing body of evidence that strongly
suggests the TI community is not dealing with ordinary microwaves.
This short ebook focuses on the scalar technologies that are being used to remotely attack
people all over the world.
Some of the main reasons, we can conclude that scalar wave weapons are being used:
1)
Many technical engineers that are Targeted Individuals have tried to build a working
Faraday cage to block the microwaves. The Vircator weapon shots are still penetrating the
cage.
2)
Targeted Individuals have documented the cell tower shots going thru many residential
buildings to reach a target, sometimes up to 2 or 3 miles distance. This is not possible with
ordinary microwaves at these frequencies. These are not ordinary microwaves.
3)
Underground tunnels are being used as a weapons platform. To penetrate hundreds of
feet of earth is impossible with ordinary microwaves.
4)
The beam stays focused and does not disperse or spread out, over long distances.
Typically, it is about 1⁄2 inch (1.25 cm) diameter. That is not an ordinary microwave, even
though the frequencies have been measured repeatedly in the 3 to 4 GHz range.
5)
Targeted Individuals have tried going underwater or inside deep tunnels, and have
reported they do not escape the tracking and attacks. These is not ordinary microwaves.
6)
According to the manual, “NATO HANDBOOK ON THE MEDICAL ASPECTS OF NBC
DEFENSIVE OPERATIONS,” during a nuclear weapon explosion, 2 feet of concrete or 4 feet
of water will protect you from the xrays and gamma rays. These are the most powerfulenergy waves known. A targeted friend of mine with V2K, went into a deep swimming pool at
more than 8 feet underwater – and the V2K and microwave weapon attacks continued.
Another targeted friend has been in a deep underground cave, where the V2K and attacks
continued, in spite of the fact that Xrays and gamma rays are completely blocked. These
cannot be ordinary microwaves.
Citizens, called Targeted Individuals. There is a growing body of evidence that strongly
suggests the TI community is not dealing with ordinary microwaves.
This short ebook focuses on the scalar technologies that are being used to remotely attack
people all over the world.
Some of the main reasons, we can conclude that scalar wave weapons are being used:
1)
Many technical engineers that are Targeted Individuals have tried to build a working
Faraday cage to block the microwaves. The Vircator weapon shots are still penetrating the
cage.
2)
Targeted Individuals have documented the cell tower shots going thru many residential
buildings to reach a target, sometimes up to 2 or 3 miles distance. This is not possible with
ordinary microwaves at these frequencies. These are not ordinary microwaves.
3)
Underground tunnels are being used as a weapons platform. To penetrate hundreds of
feet of earth is impossible with ordinary microwaves.
4)
The beam stays focused and does not disperse or spread out, over long distances.
Typically, it is about 1⁄2 inch (1.25 cm) diameter. That is not an ordinary microwave, even
though the frequencies have been measured repeatedly in the 3 to 4 GHz range.
5)
Targeted Individuals have tried going underwater or inside deep tunnels, and have
reported they do not escape the tracking and attacks. These is not ordinary microwaves.
6)
According to the manual, “NATO HANDBOOK ON THE MEDICAL ASPECTS OF NBC
DEFENSIVE OPERATIONS,” during a nuclear weapon explosion, 2 feet of concrete or 4 feet
of water will protect you from the xrays and gamma rays. These are the most powerfulenergy waves known. A targeted friend of mine with V2K, went into a deep swimming pool at
more than 8 feet underwater – and the V2K and microwave weapon attacks continued.
Another targeted friend has been in a deep underground cave, where the V2K and attacks
continued, in spite of the fact that Xrays and gamma rays are completely blocked. These
cannot be ordinary microwaves.
A PFN consists of a series of high-voltage energy-storage capacitors and inductors. These components are interconnected as a "ladder network" that behaves similarly to a length of transmission line. For this reason, a PFN is sometimes called an "artificial, or synthetic, transmission line". Electrical energy is initially stored within the charged capacitors of the PFN by a high-voltage DC power supply. When the PFN is discharged, the capacitors discharge in sequence, producing an approximately rectangular pulse. The pulse is conducted to the load through a transmission line. The PFN must be impedance-matched to the load to prevent the energy reflecting back toward the PFN.
Transmission-line PFNs
Simple charged transmission-line pulse generator
A length of transmission line can be used as a pulse-forming network.[1][2] This can give substantially flat-topped pulses at the inconvenience of using of a large length of cable.
In a simple charged transmission-line pulse generator (animation, right) a length of transmission line such as a coaxial cable is connected through a switch to a matched load RL at one end, and at the other end to a DC voltage source V through a resistor RS, which is large compared to the characteristic impedance Z0 of the line.[1] When the power supply is connected, it slowly charges up the capacitance of the line through RS. When the switch is closed, a voltage equal to V/2 is applied to the load, the charge stored in the line begins to discharge through the load with a current of V/2Z0, and a voltage step travels up the line toward the source.[2] The source end of the line is approximately an open circuit due to the high RS,[1] so the step is reflected uninverted and travels back down the line toward the load. The result is that a pulse of voltage is applied to the load with a duration equal to 2D/c, where D is the length of the line, and c is the propagation velocity of the pulse in the line.[1] The propagation velocity in typical transmission lines is within 50% of the speed of light. For example, in most types of coaxial cable the propagation velocity is approximately 2/3 the speed of light, or 20 cm/ns.
High-power PFNs generally use specialized transmission lines consisting of pipes filled with oil or deionized water as a dielectric to handle the high power dissipation.[2]
A disadvantage of simple PFN pulse generators is that because the transmission line must be matched to the load resistance RL to prevent reflections, the voltage stored on the line is divided equally between the load resistance and the characteristic impedance of the line, so the voltage pulse applied to the load is only one-half the power-supply voltage.[1][2]
Simple charged transmission-line pulse generator
A length of transmission line can be used as a pulse-forming network.[1][2] This can give substantially flat-topped pulses at the inconvenience of using of a large length of cable.
In a simple charged transmission-line pulse generator (animation, right) a length of transmission line such as a coaxial cable is connected through a switch to a matched load RL at one end, and at the other end to a DC voltage source V through a resistor RS, which is large compared to the characteristic impedance Z0 of the line.[1] When the power supply is connected, it slowly charges up the capacitance of the line through RS. When the switch is closed, a voltage equal to V/2 is applied to the load, the charge stored in the line begins to discharge through the load with a current of V/2Z0, and a voltage step travels up the line toward the source.[2] The source end of the line is approximately an open circuit due to the high RS,[1] so the step is reflected uninverted and travels back down the line toward the load. The result is that a pulse of voltage is applied to the load with a duration equal to 2D/c, where D is the length of the line, and c is the propagation velocity of the pulse in the line.[1] The propagation velocity in typical transmission lines is within 50% of the speed of light. For example, in most types of coaxial cable the propagation velocity is approximately 2/3 the speed of light, or 20 cm/ns.
High-power PFNs generally use specialized transmission lines consisting of pipes filled with oil or deionized water as a dielectric to handle the high power dissipation.[2]
A disadvantage of simple PFN pulse generators is that because the transmission line must be matched to the load resistance RL to prevent reflections, the voltage stored on the line is divided equally between the load resistance and the characteristic impedance of the line, so the voltage pulse applied to the load is only one-half the power-supply voltage.[1][2]
