Detection system
System and method for detecting the presence at a distance of materials utilizing the atomic structure and characteristics of the elements in the chemicals comprising the material.
1. An apparatus for detecting the presence of a material at a distance, comprising:
a. a transmitter circuit configured to generate electromagnetic radiation through a transmitter antenna having a frequency based on the material to be detected;
b. a directional shield arranged around the transmitter antenna, the directional shield having an opening to provide directionality to the transmitted electromagnetic radiation; and
c. a receiver circuit configured to generate a signal to an operator in response to the material being detected through a receiver antenna with the opening of the directional shield arranged toward the material to provide a line of bearing to the material,
d. wherein the frequency of the transmitted electromagnetic radiation is determined based on a defining characteristic of a constituent part of the material, the defining characteristic selected from at least one of:
i. the number of protons in the constituent part of the material;
ii. the number of neutrons in the constituent part of the material;
iii. the atomic mass of the constituent part of the material; and
iv. combinations thereof.
2. The apparatus of claim 1 , wherein the frequency of the transmitted electromagnetic radiation is determined based on a sum of the number of protons and atomic mass of the constituent part of the material.
3. The apparatus of claim 1 , wherein the constituent part is an atom of a particular element in the periodic table.
4. The apparatus of claim 1 , wherein the constituent part is a compound having a discrete atomic structure.
5. The apparatus of claim 1 , wherein the frequency is equal to the defining characteristic.
6. The apparatus of claim 1 , wherein the frequency is equal to the defining characteristic increased by one or more orders of magnitude.
7. The apparatus of claim 1 , wherein the receiver antenna is arranged adjacent to the transmitter antenna and configured to produce a voltage into the receiver circuit for providing the signal in response to detecting the material.
8. The apparatus of claim 1 , wherein the transmitter circuit includes a pulse generator, a NPN transistor, a transformer, a bridge rectifier, and a silicon controlled rectifier, wherein an output of the pulse generator is coupled to the NPN transistor, an output of the NPN transistor is coupled to the transformer, an output of the transformer is coupled to the bridge rectifier, an output of the bridge rectifier is coupled to the transmitter antenna, an output of the transmitter antenna is coupled to the silicon controlled rectifier, and an output of the silicon controlled rectifier is coupled to the bridge rectifier.
9. The apparatus of claim 8 , wherein the silicon controlled rectifier is coupled to the receiver circuit.
10. The apparatus of claim 1 , wherein the receiver circuit includes a NPN transistor, a PNP transistor, and a pulse generator, wherein an output of the receiver antenna is coupled to the NPN transistor, an output of the NPN transistor is coupled to the PNP transistor, an output of the PNP transistor is coupled to the pulse generator, and an output of the pulse generator is coupled to a signal generator configured to provide the signal.
11. An apparatus for detecting the presence of a material at a distance, comprising:
a. a frame having a lower end arranged to be supported on ground and an upper end arranged to oriented substantially vertically relative to the lower end;
b. a transmitter unit including a transmitter circuit and a transmitter antenna, the transmitter antenna positioned in the lower end of the frame, the transmitter circuit configured to generate electromagnetic radiation through the transmitter antenna having a frequency based on the material to be detected;
c. a directional shield positioned in the lower end of the frame around the transmitter antenna, the directional shield having an opening to provide directionality to the transmitted electromagnetic radiation; and
d. a receiver unit including a receiver circuit and a receiver antenna, the receiver antenna positioned in the lower end of the frame adjacent to the transmitter antenna, the receiver circuit configured to generate a signal to an operator in response to the material being detected through the receiver antenna with the opening of the directional shield arranged toward the material to provide a line of bearing to the material,
e. wherein the frequency of the transmitted electromagnetic radiation is determined based on a defining characteristic of a constituent part of the material, the defining characteristic selected from at least one of:
i. the number of protons in the constituent part of the material;
ii. the number of neutrons in the constituent part of the material;
iii. the atomic mass of the constituent part of the material; and
iv. combinations thereof.
12. The apparatus of claim 11 , wherein the frequency of the transmitted electromagnetic radiation is determined based on a sum of the number of protons and atomic mass of the constituent part of the material.
13. The apparatus of claim 11 , wherein the constituent part is an atom of a particular element in the periodic table.
14. The apparatus of claim 11 , wherein the constituent part is a compound having a discrete atomic structure.
15. The apparatus of claim 11 , wherein the frequency is equal to the defining characteristic.
16. The apparatus of claim 11 , wherein the frequency is equal to the defining characteristic increased by one or more orders of magnitude.
17. The apparatus of claim 11 , wherein the receiver antenna is configured to produce a voltage into the receiver circuit for providing the signal in response to detecting the material.
18. The apparatus of claim 11 , wherein the transmitter circuit includes a pulse generator, a NPN transistor, a transformer, a bridge rectifier, and a silicon controlled rectifier, wherein an output of the pulse generator is coupled to the NPN transistor, an output of the NPN transistor is coupled to the transformer, an output of the transformer is coupled to the bridge rectifier, an output of the bridge rectifier is coupled to the transmitter antenna, an output of the transmitter antenna is coupled to the silicon controlled rectifier, and an output of the silicon controlled rectifier is coupled to the bridge rectifier.
19. The apparatus of claim 18 , wherein the silicon controlled rectifier is coupled to the receiver circuit.
20. The apparatus of claim 11 , wherein the receiver circuit includes a NPN transistor, a PNP transistor, and a pulse generator, wherein an output of the receiver antenna is coupled to the NPN transistor, an output of the NPN transistor is coupled to the PNP transistor, an output of the PNP transistor is coupled to the pulse generator, and an output of the pulse generator is coupled to a signal generator configured to provide the signal.
21. A method for detecting the presence of a material at a distance, comprising:
a. providing an apparatus, comprising
i. a transmitter circuit configured to generate electromagnetic radiation through a transmitter antenna having a frequency based on the material to be detected;
ii. a directional shield arranged around the transmitter antenna, the directional shield having an opening to provide directionality to the transmitted electromagnetic radiation; and
iii. a receiver circuit;
b. setting the frequency of the transmitted electromagnetic radiation based on a defining characteristic of a constituent part of the material, the defining characteristic selected from at least one of:
i. the number of protons in the constituent part of the material;
ii. the number of neutrons in the constituent part of the material;
iii. the atomic mass of the constituent part of the material; and
iv. combinations thereof;
c. transmitting the electromagnetic radiation at the set frequency;
d. detecting the material through a receiver antenna coupled to the receiver circuit in response to the opening of the directional shield being arranged toward the material to provide a line of bearing to the material; and
e. generating a signal to an operator in response to the material being detected.