KR20090027808A

KR20090027808A - Storing circuit with carbon battery and capacitor a, capacitor b

Info

Publication number: KR20090027808A
Application number: KR1020070092900A
Authority: KR
Inventors: 쯔네하루 노구치
Original assignee: 쯔네하루 노구치
Priority date: 2007-09-13
Filing date: 2007-09-13
Publication date: 2009-03-18

Abstract

A discharge circuit can charge the generating electrical energy to the high efficiency by absorbing the high current or the instantaneously energy with capacitor. The condensing circuit has the carbon battery, and the capacitor A and capacitor B. The capacitor A is charged with the charge energy. The capacitor B is opened from the load. It is charged from battery. When the generating electrical energy is greater than the load current, generally the capacitor A is fully charged. The battery is charged with dump energy. When the generating electrical energy is smaller than the load current, the capacitor A is charged. However, the capacity of the capacitor A decreases.

Description

Discharge circuit capable of responding to a wide range of energy inputs by using two batteries and capacitors {storing circuit with carbon battery and capacitor A, capacitor B}

The present invention is to charge the instantaneous generated energy (recycle energy, etc.) with good efficiency.

The inventor invented a discharge system that can cope with a wide range of inputs using a battery and two capacitors, thereby enabling efficient cost reduction in each field. Recently, many researchers have made a lot of efforts to make an efficient energy-saving discharge system, but the research itself is limited, the rapid progress in energy saving of the discharge system has not been found.

The present invention absorbs a large current or instantaneous energy as a capacitor as a capacitor for charging instantaneous generated energy (recycle energy, etc.) with good efficiency, and charges the surplus energy into a battery, thereby generating the generated energy with good efficiency. It is for the purpose of charging.

In order to solve the above problems, the present invention has devised a discharge system capable of responding to a wide range of energy inputs by using a battery and two capacitors together.

The present invention made in this manner is to enable a short time operation of the overload,

The present invention consists of a power storage circuit having a carbon battery, a capacitor A, and a capacitor B. In detail, as shown in FIGS. 2 and 3, the capacitor A and the capacitor B are connected to each other by a load, and the charging path is also shown. Separately, it is possible to extend the life of the battery by utilizing the large current charge response and the charge / discharge cycles that have the advantage of the capacitor, and by reducing the charge and discharge current of the battery. Possible circuits were constructed.

In addition, as shown in Figure 4 it was configured as a booster (BOOSTER) circuit that can supply a power of twice the standard set in a short time.

That is, by connecting the capacitors A and B to the load as shown in Fig. 4, it is possible to supply twice the current. Originally, capacitors are capable of instantaneous large current discharge, but more than twice as much current can be supplied. For example, in case of motor loads such as electric motorcycles, when instantaneous large currents are required on the uphill road, capacitor A, It is possible to output simultaneously from B.

In order to show an embodiment of the present invention, a discharge system that can cope with a wide range of inputs by using the present invention battery and two capacitors together will be described.

In order to enable the short-time operation of the overload, in more detail, as shown in Figures 2 and 3, the capacitor A and the capacitor B is a circuit that is connected to each other by load, and also by separately charging path, It is composed of a circuit that can extend the life of the battery by making use of the large current charge response and the charge / discharge cycle which have the advantage of the capacitor, and by reducing the charge / discharge current of the battery and reducing the number of charges. .

That is, as shown in FIG. 2, the discharge energy is charged in the capacitor A, the surplus energy is charged in the battery, discharged as the capacitor A (load driving), the capacitor B is charged from the battery, and the capacitor A is discharged to the end voltage. This connection can be maintained until it goes down.

3, the discharge energy is charged in the capacitor B, and the surplus energy is charged in the battery.

Discharge (load drive) as the capacitor B, the capacitor A is charged from the battery, and maintains this connection until the capacitor B falls to the discharge end voltage.

That is, by connecting the capacitors A and B to the load as shown in Fig. 4, it is possible to supply twice the current. Originally, capacitors are capable of instantaneous large current discharge, but more than twice as much current can be supplied. It is possible to output simultaneously from B.

1 is a schematic circuit diagram of the present invention.

2 is a circuit diagram of the discharge charge path 1 of the present invention.

Figure 3 is a circuit diagram of the discharge charge path 1 of the present invention

4 is a connection diagram of a power booster of the present invention;

Claims

Capacitor circuit with carbon battery, capacitor A and capacitor B

The method of claim 1,

The charging energy is charged to the capacitor A in the circuit of Figure 2, the surplus energy is charged to the battery. At this time, the capacitor B is opened from the load, charged from the battery, and when the generated energy is greater than the load current, the capacitor A is usually full charged, the surplus energy is charged to the battery, and the generated energy is smaller than the load current. When capacitor A is charged, the capacity of capacitor A is also decreasing. When the voltage of the capacitor A falls to the discharge end voltage, it instantly switches to the circuit shown in Fig. 3, i.e., while the charged capacitor A is charged from the full charge capacitor B, the discharged capacitor A is charged from the battery. By switching the loads with each other, the capacitors A and B repeat charging, and in response to the sudden change in the charging energy and the discharge energy, the battery repeats the controlled charging and discharging. In particular, if the time period when the generated energy is greater than the load current is long, the storage circuit can reduce the charge / discharge recovery and discharge current of the battery and extend its life.

The method of claim 1,

The discharge energy is charged to the capacitor B, the surplus energy is charged to the battery, discharged (load-driven) as the capacitor B, and the capacitor A is charged from the battery, and the connection is maintained until the capacitor B falls to the discharge end voltage. Power storage circuit.