Power efficiency booster and power supply system including the power efficiency booster

Abstract

This invention provides a power efficiency booster and a power supply system including the power efficiency booster. The power efficiency booster comprises two soft iron bodies, two permanent magnets, a noble metal ceramic body, and two metal posts. The positive pole of one permanent magnet is attracted to one axial side of one of the soft iron bodies, and the negative pole of the other permanent magnet is attracted to one axial side of the other soft iron body. The noble metal ceramic body comprises a ceramic substrate and a noble metal layer electroplated on the outer surface of the ceramic substrate. The two axial sides of the noble metal ceramic body are respectively attracted to the other axial sides of the two soft iron bodies. The two metal posts are respectively connected to the two permanent magnets and connected to wires. The power efficiency booster is configured in pairs and connected in series to the positive and negative lines of the power supply device. Through the interaction of the noble metal ceramic body, the soft iron body, and the permanent magnets, a specific force field is formed inside or around the metal posts to guide the electrons passing through the metal posts, reducing collisions and thermal effects between electrons and atoms inside the wires, thereby achieving energy-saving effects such as reduced resistance, reduced losses, and significantly improved overall power output efficiency.

Claims

1. A power efficiency booster, suitable for series connection in a power supply line, comprising: Two soft iron bodies form a cylinder; Two permanent magnets form a cylinder, with the positive pole of one permanent magnet adsorbed to one axial side of the soft iron body, and the negative pole of the other permanent magnet adsorbed to one axial side of the soft iron body; a noble metal ceramic body includes a cylindrical ceramic substrate and a noble metal layer electroplated on the outer surface of the ceramic substrate, with the two axial sides of the noble metal ceramic body adsorbed to the other axial sides of the two soft iron bodies respectively; and two metal guide posts, respectively connected to the two permanent magnets, and connected with wires.

2. The power efficiency enhancer as claimed in claim 1, wherein the precious metal layer is selected from the group consisting of platinum (Pt), titanium (Ti), gold (Au), and combinations thereof.

3. The power efficiency enhancer as claimed in claim 1, wherein the soft iron system is made of soft magnets or silicon steel.

4. A power supply system, comprising: a power supply device for outputting direct current, the power supply device having a positive output terminal and a negative output terminal; a load terminal electrically connected to the power supply device to receive the direct current; and a first energy-saving device disposed between the power supply device and the load terminal; wherein... The first energy-saving device includes two power efficiency boosters as described in claim 1, which are connected in series in the positive line connected to the positive output terminal and the negative line connected to the negative output terminal, respectively.

5. The power supply system as described in claim 4, wherein the two power efficiency boosters are configured separately and independently.

6. The power supply system as described in claim 4 further includes: The second energy-saving device includes two additional power efficiency boosters as described in claim 1; wherein one of the first energy-saving devices and the second energy-saving device are connected in series on the positive line, and the other of the first energy-saving device and the second energy-saving device are connected in series on the negative line.

7. The power supply system as described in claim 4, wherein the power supply device includes an AC power input terminal and a DC power supply system circuit connected to the AC power input terminal.

8. The power supply system as described in claim 4, wherein the power supply device is a storage battery.

9. The power supply system as described in claim 4, wherein the load is a motor, a frequency converter system, or a dedicated frequency converter power supply system for a three-phase AC motor.

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