Susceptance - Mode Inductor

• US 20120139663A1
• Filed: 12/06/2010
• Published: 06/07/2012
• Est. Priority Date: 12/06/2010
• Status: Active Grant

• Current Assignee: Chieh-Sen Tu, Fu-Tzu Hsu
• Original Assignee: Chieh-Sen Tu, Fu-Tzu Hsu
• Inventors: HSU, Fu-Tzu
• Granted Patent: US 8,422,194 B2
• Time in Patent Office: Days
• US Class Current: 333/175
• CPC Class Codes: H01F 2003/103 Magnetic circuits with permanent magnets
• CPC Class Codes: H01M 12/06 with one metallic and one gaseous electrode
• CPC Class Codes: H01M 16/006 of fuel cells with rechargeable batteries
• CPC Class Codes: H02J 7/00 Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries
• CPC Class Codes: Y02E 60/10 Energy storage using batteries
• CPC Class Codes: Y02E 60/50 Fuel cells

Abstract

A Susceptance-Mode Inductor with infinite order resonance cavity which includes an inductor section is formed by a physical inductor coil wound about a permanent magnetic materials, with both ends of the coil connecting to a electric damper and a capacitor of the infinite order resonance cavity; thereby that power is coupled into the incoming end of the infinite order resonance cavity through a radio frequency (RF) radiation electric field and the outgoing end thereof is electrically connected to a set of resonance power storage section, or alternatively the incoming end is connected to electric charge and the outgoing end is connected to the load; accordingly, the resonance of the infinite order resonance cavity, thus allowing to convert the current or electron flow at the magnetic field end into charge output by means of Lorenz force.

Claims

1. A Susceptance-Mode Inductor with infinite order resonance cavity which is an electric connection of an infinite order resonance cavity composed of an inductor section and at least one electric damper and a capacitor;

the inductor section is formed by a physical inductor coil wound about a permanent magnetic core, which coil being connected to the electric damper and the capacitor;

thereby a power is coupled into an incoming end of the infinite order resonance cavity through an RF radiation electric field and an outgoing end thereof is electrically connected to a resonance power storage section made of a group of dielectric materials;

accordingly, a resonance of the infinite order resonance cavity, a damping effect and a charging/discharging action of the inductor section in the infinite order resonance cavity use the permanent magnetic core to prevent a magnet field from contracting thus allowing to convert a current at the electric field end into an electron flow output by means of Lorenz force such that charges be accumulated on the surface of the set of resonance power storage section and polarization effect be momentarily created to convert a charge into the voltage for storage;

hence, an issue of maximum power transfer is resolved and the effects of fast charge speed, low temperature as well as energy multiplication are achieved.

2. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 1, wherein the electric connection between the inductor section and the infinite order resonance cavity is implemented by inducing multiple threads of fine copper wires wound about the permanent magnetic core such that the current is magnified through the permanent magnetic core into infinite bundles of electron flows for emission

3. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 1, wherein the inductor section is a polarized resistive inductor section, and the set of resonance power storage section is built by a non-polarized resistive super capacitor connected in parallel with a polarized susceptive super capacitor, thereby allowing the polarized resistive inductor section to be able to convert the current into the electron flow, enabling charge accumulation on the surface of the non-polarized resistive super capacitor and, by means of the transient polarization effect in the polarized susceptive super capacitor, converting the charge into the voltage for storage so as to create the voltage charging.

4. A Susceptance-Mode Inductor with infinite order resonance cavity in which the infinite order resonance cavity is composed of an inductor section and at least one electric damper and a capacitor;

the inductor section is formed by a physical inductor coil wound about a permanent magnetic core, which coil being connected to the electric damper and the capacitor;

thereby that power is coupled out from the incoming end of the infinite order resonance cavity through a set of resonance power storage section and the outgoing end thereof is electrically connected to the load;

thus the resonance of the infinite order resonance cavity, the damping effect and the resonance between the inductor section and the set of resonance power storage section allow to convert the high density charge outputted from the resonance power storage section into the electron flow to the load as the charge flowing through the inductor section thereby enabling extreme discharging without temperature.

5. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 4, wherein the electric connection between the inductor section and the infinite order resonance cavity is implemented by inducing multiple threads of fine copper wires wound about the permanent magnetic core such that the passing-by charges are converted into infinite bundles of electron flows for emission.

6. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 4, wherein the inductor section is a non-polarized susceptive inductor section and the set of resonance power storage section is a polarized susceptive super capacitor such that the high density charge outputted by the polarized susceptive super capacitor can be converted into the electron flow to the load by Lorenz force as the charge flowing through the non-polarized susceptive inductor section.

7. A Susceptance-Mode Inductor with infinite order resonance cavity which comprises a first inductor section and a second inductor section;

a first infinite order resonance cavity is formed by the first inductor section and at least one first electric damper and a first capacitor, and the first inductor section is composed of a first physical inductor coil wound about a first permanent magnetic core, which coil being electrically connected to the first electric damper and the first capacitor;

a second infinite order resonance cavity is formed by the second inductor section and at least one second electric damper and a second capacitor, and the second inductor section is composed of a second physical inductor coil wound about a second permanent magnetic core, which coil being electrically connected to the second electric damper and the second capacitor;

thereby that power is coupled into the incoming end of the first infinite order resonance cavity through an RF radiation electric field and the outgoing end thereof is electrically connected to the second infinite order resonance cavity and connected in parallel with a resonance power storage section made of a group of dielectric materials, and also that power is coupled out from the incoming end of the second infinite order resonance cavity through the set of resonance power storage section and the outgoing end thereof is the input end of the load;

accordingly, the resonance of the first infinite order resonance cavity, the damping effect and the charging/discharging action of the first inductor section can use the first permanent magnetic core to prevent the magnet field from contracting thus allowing to convert the current at the electric field end into the electron flow output by means of Lorenz force such that charges can be accumulated on the surface of the set of resonance power storage section and polarization effect can be momentarily created so as to convert the charge into the voltage for storage;

meanwhile, the resonance of the second infinite order resonance cavity, the damping effect and the resonance between the second inductor section and the set of resonance power storage section allow to convert the high density charge outputted from the resonance power storage section into the electron flow to the load as the charge flowing through the second inductor section;

accordingly, the voltage charging through the high frequency response formed by the set of resonance power storage section enables the effects of fast charge speed, low temperature and energy multiplication, and the extreme discharging and the simultaneous charging/discharging are allowable as well.

8. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 7, wherein the electric connection between the first inductor section and the first infinite order resonance cavity is implemented by inducing multiple threads of fine copper wires wound about the first permanent magnetic core such that the current is magnified through the first permanent magnetic core into infinite bundles of electron flows for emission

9. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 7, wherein the electric connection between the second inductor section and the second infinite order resonance cavity is implemented by inducing multiple threads of fine copper wires wound about the second permanent magnetic core such that the passing-by charges are converted into infinite bundles of electron flows for emission.

10. The Susceptance-Mode Inductor with infinite order resonance cavity according to claim 7, wherein the first inductor section is a polarized resistive inductor section, the second inductor section is a non-polarized susceptive inductor section, and the set of resonance power storage section is built by a non-polarized resistive super capacitor connected in parallel with a polarized susceptive super capacitor, thereby allowing the polarized resistive first inductor section to be able to convert the current into the electron flow, enabling charge accumulation on the surface of the non-polarized resistive super capacitor and, by means of the transient polarization effect in the polarized susceptive super capacitor, converting the charge into the voltage for storage;

and also the high density charge outputted by the polarized susceptive super capacitor is converted into the electron flow to the load by Lorenz force as the charge flowing through the non-polarized susceptive second inductor section.