Self powered mili, micro, and nano electronic chips

• US 20110018357A1
• Filed: 07/20/2010
• Published: 01/27/2011
• Est. Priority Date: 07/24/2009
• Status: Abandoned Application

• Current Assignee: Eric Jay, Eric John Yarger, Rex Dale Yarger
• Original Assignee: Eric Jay, Eric John Yarger, Rex Dale Yarger
• Inventors: Yarger, Eric John, Yarger, Rex Dale, Jay, Eric
• Application Number:
  US12/804,330
• Publication Number:
  US 20110018357A1
• Time in Patent Office: Days
• US Class Current: 307/104
• CPC Class Codes: B82Y 30/00 Nanotechnology for materials or surface science, e.g. nanocomposites
• CPC Class Codes: H02J 50/001 Energy harvesting or scavenging
• CPC Class Codes: H02J 50/10 using inductive coupling
• CPC Class Codes: H02J 50/20 using microwaves or radio frequency waves

Abstract

Self powered mico, mili, and nano electronic chips having one or more methods of self-power production. Comprising a series of carbon nanotubes with attached magnetic bacteria for creating vibration with the existing Radio Frequency (RF) fields of the oscillators included in the electronic device or ambient RF fields across coils. As well as a layer of Ni—Mn—Ga magnetoplastic layer which is deformed by magnetic flux lines to cause current flow thorough coils of wire. This configuration creates a power generator on the chipset comprising of magnetic fields and a coil configured to focus the magnetic field in the electrical conductive elements of the coil.

Claims

1. A self charging self-storage electronic chipset that produces its own power through Radio Frequency (RF) power harvesting that includes, but is not limited to, one electrical conductive coil wire over which a carbon nanotube with magnetic bacteria have been attached which will resonate in the presence of RF fields causing voltage and current to be generated in the electrical conductive coil wire with said power being stored on a layer of carbon nanotube storage media, which will be used to power the chip and or other chips.

2. A chipset as set forth in claim 1 which includes, but is not limited to, multiple lengths of carbon nanotube generators with attached magnetosomes used to take advantage of multiple frequencies

3. An electronic chipset as set forth in claim 1 which includes, but is not limited to, multiple thickness carbon nanotubes with attached magnetosomes used to take advantage of multiple frequencies.

4. An electronic chipset as set forth in claim 1 which uses any type of resonating material which will vibrate at specific frequencies. The material could include but not limited to quartz crystals, mica crystals, stainless steel spring wire, or carbon steel spring wire with attached magnetosomes magnets.

5. An electronic chipset as set forth in claim 1 that contains a storage layer to include, but is not limited to, carbon nanotubes used to store the power generated by the RF field

6. An electronic chipset as set forth in claim 1 that contains a storage layer to include, but is not limited to, Bismuth Lanthanum Neodymium Titunate (BLNT) used to store the power generated by the RF field

7. An electronic chipset as set forth in claim 1 that includes internal connections from the storage media described in claim 2 that provides for power generated by the chip to be used for the designed electronics on the chip and used to connect the power generated by the chip to the storage media

8. An electronic chip set as set forth in claim 1 that includes external connections from the generation scheme that can be connected to the storage media set forth in claim 2 or to, but not limited to, other external chips or devices that require power for operation

9. An electronic chipset as set forth in claim 1 that uses a crystal oscillator layer used to cause vibration to occur in the carbon nanotubes with the attached magnetic bacteria

10. An electronic chipset as set forth in claim 1 that uses an electronic oscillator layer used to cause vibration to occur in the carbon nanotubes with the attached magnetic bacteria

11. An electronic chipset as set forth in claim 1 that uses a mechanical oscillator layer used to cause vibration to occur in the carbon nanotubes with the attached magnetic bacteria

12. An electronic chipset as set forth in claim 1 that includes but is not limited to a single copper coil foil wire used to generate the voltage and current for self-powering electronics

13. An electronic chipset as set forth in claim 1 that includes, but is not limited to, multiple layers of copper coil foil wire used to generate the voltage and current for self-powering electronics

15. An electronic chipset as set forth in claim 13 that contains a storage layer to include, but is not limited to, carbon nanotubes used to store the power generated by the RF field.

16. An electronic chipset as set forth in claim 13 which uses any type of resonating material which will vibrate at specific frequencies. The material could include but not limited to quartz crystals, mica crystals, stainless steel spring wire, or carbon steel spring wire.

17. An electronic chipset as set forth in claim 13 that contains a storage layer to include, but is not limited to, carbon nanotubes used to store the power generated by the RF field

18. An electronic chipset as set forth in claim 13 that contains a storage layer to include, but is not limited to, Bismuth Lanthanum Neodymium Titunate (BLNT) used to store the power generated by the RF field

19. A chipset as set forth in claim 13 which includes, but is not limited to, multiple lengths of carbon nanotube generators with attached magnetosomes used to take advantage of multiple frequencies

20. An electronic chipset the includes silicone pillars as set forth in claim 13 with an attached electrical conductive coil mesh.

14. A self charging self-storage electronic chipset that produces its own power through Radio Frequency (RF) power harvesting that includes, but is not limited to, one Ni—

Mn—

Ga magnetoplastic crystal magnetic conductive crystal over which a carbon nanotube with magnetic bacteria have been attached which will resonate in the presence of RF fields causing voltage and current to be generated in the Ni—

Mn—

Ga magnetoplastic crystal with said power being stored on a layer of carbon nanotube storage media, which will be used to power the chip and or other chips.