Granted Patent B2

US 10,269,493 · App. 15/168,042 · Granted Apr 23, 2019

Inventor: David Frank (Highland Beach, FL)

H01G4/30H01G4/0085H01G4/1227H01G4/38

Abstract

Claims (18)

1. A method of fabrication of a Dense Energy Ultra Cell (DEUC) energy storage device selected from the set of: a DEUC Element, a DEUC Stack, a DEUC Cell Module, and a DEUC Module Array, the method comprising:

a. preparation of an electrode material spray deposition solution by creating an electrically conducting spray deposition solution using nickel nano particles that are deposited using a spray solution;

b. synthesis of a calcium copper titanate oxide (CCTO) and/or a modified stoichiometric formula of calcium copper titanate oxide (CCTO-X) nanoparticles suspended in a matrix material;

c. spray deposition of synthesizing dielectric nanoparticles of CCTO and/or CCTO-X to deposit an energy storage layer;

d. forming an insulator spray deposition solution comprising insulating nano particles suspended in a liquid form;

e. forming at least one DEUC multilayer thin film by applying an electrode layer spray deposition solution, an energy storage layer spray deposition solution, and an insulating layer spray deposition solution, as alternating layers where the electrode layers are offset, left and right to form positive and negative electrode arrays;

f. sintering at least one unified DEUC multilayer thin film by curing a unified multilayer thin film, burning off binder(s) and additives from the layers in the at least one DEUC multilayer thin film, and annealing and heat treating the at least one unified DEUC multilayer thin film in a sintering process at a temperature in the range of between 800 degrees Celsius and at up to 1200 degrees Celsius to create a multilayer ceramic DEUC Element; and

g. packaging a DEUC Element by using one or more DEUC stacks, where left and right electrode layers in a unified DEUC multilayer thin film stack are connected to terminals to form a DEUC Element.

2. The method of claim 1 , wherein one or more DEUC Elements are applied in a stack and connected in one or more either series circuits or parallel circuits to create a DEUC Stack.

3. The method of claim 2 , wherein one or more DEUC Stacks are combined and interconnected in series and/or parallel circuit(s) to form a DEUC Cell.

4. The method of claim 3 , wherein one or more DEUC Cells are combined and interconnected in series and/or parallel circuit(s) to form a DEUC Module.

5. The method of claim 4 , wherein one or more DEUC Modules are combined and interconnected in series and/or parallel circuit(s) to form a DEUC Module Array.

6. The method of claim 1 wherein the DEUC energy storage device is designed and fabricated to store and provide electrical power to at least one product selected from the following set of products:

a micro device and an integrated circuit; an electric vehicle; an aircraft; a boat; a ship; an unmanned aerial, terrestrial or water vehicle; an electronic cigarette; a mobile computing device; a laptop computer; a tablet computer; a mobile phone; a wireless communication device; a mobile sensor system; an energy storage for an electric power grid; a power backup; an energy storage for a solar, wind, or other alternative energy generation system; and an uninterruptible power supply.

7. The method of claim 1 , wherein shock insulating material is applied to at least one DEUC energy storage device selected from the set of: a DEUC Element, a DEUC Stack, a DEUC Cell Module, and DEUC Module Array.

8. The method of claim 1 , wherein a shield is applied to at least one DEUC energy storage device selected from the set of: a DEUC Element, a DEUC Stack, a DEUC Cell Module, and DEUC Module Array, to protect the DEUC energy storage device from an electrical or magnetic field.

9. The method of claim 1 , further comprising:

applying an insulating shell to the synthesized dielectric nano particles of CCTO and/or CCTO-X, thereby creating core shell particles.

Assignments (1)

Continuity (23)