TW202341816A - Circuit configuration method for improving the efficacy of antibacterial lamps and voltage boost circuit - Google Patents

Abstract

A circuit configuration method for improving the efficacy of antibacterial lamps and a power conversion circuit are provided. The power conversion circuit includes a primary side, a first secondary side, and a second secondary side. The first secondary side and the primary side are capable of performing electromagnetic induction, so as to produce a first high voltage. The first secondary side includes a first connection terminal and a first ground terminal. The second secondary side is electrically coupled to the first ground terminal. The second secondary side and the primary side are capable of performing electromagnetic induction, so as to produce a second high voltage. The second high voltage is not equal to the first high voltage. The second secondary side includes a second connection terminal, and the second connection terminal and the first connection terminal can be used to connect a load, so as to provide a high voltage with a small load voltage difference.

Description

Circuit configuration method and voltage boost circuit to improve antibacterial lamp efficacy

The present invention relates to a method and a circuit, and in particular, to a circuit configuration method and a voltage boosting circuit for improving the efficacy of an antibacterial lamp.

One of the common light-emitting devices on the market uses light-emitting diodes (LEDs) as light sources. Wherein, the aforementioned light-emitting device is configured by connecting a plurality of light-emitting diodes in series to form a light-emitting diode string, and the positive and negative ends of the aforementioned light-emitting diode string are connected to the power supply circuit to achieve lighting. purpose.

However, when a light-emitting device is connected to an existing power supply circuit, the voltage received (or used) by each light-emitting diode will depend on the number of light-emitting diodes connected in series. Usually the voltage is between 3 and 300 volts ( That is, the total number of series-connected light-emitting diodes is 100), which makes the total series-connected operating voltage not high. Indirectly, when the light-emitting device requires a "high-voltage electric field" (for example, using a high-voltage electric field to excite silver nanoparticles to produce silver ions), the light-emitting diode will not be able to achieve the effect of the "high-voltage electric field."

Therefore, the inventor believed that the above-mentioned defects could be improved, so he devoted himself to research and applied scientific principles, and finally proposed an invention that is reasonably designed and effectively improves the above-mentioned defects.

The technical problem to be solved by the present invention is "how to provide a light-emitting diode that originally operates at low voltage and has the characteristics of high-voltage operation." In view of the shortcomings of the existing technology, it provides a circuit configuration method and a voltage boosting circuit to improve the efficacy of the antibacterial lamp.

An embodiment of the present invention also discloses a circuit configuration method for improving the efficacy of an antibacterial lamp, which includes the following steps: providing an AC voltage to a rectifier circuit and a boost circuit; using the rectifier circuit to rectify the AC voltage into a DC voltage, and Provide a first voltage level; use the boost circuit to increase the DC voltage to a second voltage level; combine the first voltage level and the second voltage level to form a high voltage level to provide A driving circuit drives an antibacterial lamp.

An embodiment of the present invention also discloses a voltage boost circuit, including: a primary side; a first secondary side, the primary side is electromagnetically induced to form a first high voltage, and the first secondary side includes a first connection terminal and a first ground terminal; and a second secondary side, electrically coupled to the first ground terminal, the second secondary side electromagnetically induces the primary side to form a second high voltage, the The second high voltage is not equal to the first high voltage, the second secondary side includes a second connection terminal, and the second connection terminal and the first connection terminal can be used to connect a load.

In summary, the circuit configuration method and voltage boosting circuit disclosed in the embodiments of the present invention for improving the efficacy of an antibacterial lamp can be electrically coupled to the second secondary through the first ground terminal on the first secondary side. side, and the first secondary side and the second secondary side can electromagnetically induce the primary side to respectively form a high voltage" and "the first secondary side and the second secondary side "The design can be used to connect the load" so that the voltage boosting circuit can provide a high voltage with a small voltage difference between the loads to enhance the antibacterial efficacy of the antibacterial lamp.

In order to further understand the features and technical content of the present invention, please refer to the following detailed description and drawings of the present invention. However, the drawings provided are only for reference and illustration and are not used to limit the present invention.

The following is a specific embodiment to illustrate the implementation of the "circuit configuration method and voltage boosting circuit for improving antibacterial lamp efficacy" disclosed in the present invention. Those skilled in the art can understand the advantages and advantages of the present invention from the content disclosed in this specification. Effect. The present invention can be implemented or applied through other different specific embodiments, and various details in this specification can also be modified and changed based on different viewpoints and applications without departing from the concept of the present invention. In addition, the drawings of the present invention are only simple schematic illustrations and are not depictions based on actual dimensions, as is stated in advance. The following embodiments will further describe the relevant technical content of the present invention in detail, but the disclosed content is not intended to limit the scope of the present invention.

It should be understood that although terms such as “first”, “second” and “third” may be used herein to describe various elements or signals, these elements or signals should not be limited by these terms. These terms are primarily used to distinguish one component from another component or one signal from another signal. In addition, the term "or" used in this article shall include any one or combination of more of the associated listed items depending on the actual situation.

In addition, in the following description, if it is pointed out that please refer to a specific figure or as shown in a specific figure, it is only used to emphasize that in the subsequent description, most of the relevant content described appears in the specific figure. , but this does not limit the subsequent description to only refer to the specific drawings.

[First Embodiment]

Referring to FIG. 1 , this embodiment provides a circuit configuration method for improving the efficacy of an antibacterial lamp. The circuit configuration method provided by this embodiment is applied to an antibacterial lamp 200 (as shown in FIGS. 2 and 3 ). Among them, the antibacterial lamp 200 referred to in the present invention is a lamp that "excites the nano-coating (such as silver ions) through the high-voltage electric field generated by the light-emitting diode to achieve the antibacterial effect", and the aforementioned antibacterial lamp 200 is based on current experimental data. , when the voltage provided by the light-emitting diode of the antibacterial lamp 200 is higher, the antibacterial effect of stimulating the nanocoating is better. The circuit configuration method includes step S101 and step S107. It should be noted that any one of the above steps can be omitted or replaced with reasonable changes according to the designer's needs.

Step S101: Provide an AC voltage to a rectifier circuit and a boost circuit.

Step S103: Use the rectifier circuit to rectify the AC voltage into a DC voltage and provide a first voltage level.

Step S105: Use the boost circuit to increase the DC voltage to a second voltage level.

Step S107: Combine the first voltage level and the second voltage level to form a high voltage level to provide a driving circuit to drive an antibacterial lamp.

Accordingly, as shown in FIGS. 2 and 3 , the series of light-emitting diodes 210 (that is, multiple light-emitting diodes 201 connected in series) of the antibacterial lamp 200 can generate a high-voltage electric field in a very small number, thereby further passing through The high-voltage electric field excites the nanocoating 220 of the antibacterial lamp 200 to generate antibacterial ions (for example, silver ions).

In other words, for two antibacterial lamps that "can provide the same high-voltage electric field", the antibacterial lamp using the circuit configuration method provided by the present invention can have a smaller number of light-emitting diodes than the other antibacterial lamp. When a high-voltage electric field is reached, the efficiency of the antibacterial lamp using the circuit configuration method is improved.

Preferably, the circuit configuration method for improving the efficacy of the antibacterial lamp can also include the step of using an IC control module 5 to control the first voltage level combined with the second voltage level (for example: Figure 6 and Figure shown in 8). Accordingly, the user can control the combination relationship between the first voltage level and the second voltage level through the IC control module 5, thereby further controlling the generation of the high voltage level (ie, controlling all The antibacterial lamp 200 excites the nanocoating 220).

In addition, it should be noted that although the circuit configuration method converts alternating current into direct current, in practice, direct current can also be directly provided for subsequent steps. Therefore, those skilled in the art can directly input direct current according to the situation.

[Second Embodiment]

Referring to FIG. 4 , this embodiment provides a voltage boosting circuit 100 . The voltage boosting circuit 100 adopts the inventive spirit of the circuit configuration method for improving the efficacy of the antibacterial lamp in the first embodiment. The voltage boosting circuit 100 includes a rectifier module 1, a primary side 2 electrically coupled to the rectifier module 1, a first secondary side 3, and an electrically coupled first secondary side 3 A second secondary side 4.

The rectifier module 1 is a full-wave rectifier in this embodiment, and the rectifier module 1 can be electrically coupled to an AC power source to rectify it into a DC power source, but the invention is not limited thereto. For example, the voltage boosting circuit 100 can also replace the rectifier module 1 with a half-wave rectifier or a voltage doubler rectifier, and be used to power-couple the AC power supply.

The primary side 2 is a single component in this embodiment, and the primary side 2 can obtain the DC power supply through the rectifier module 1, which means that the primary side 2 is a single winding in this embodiment. (or coil) cooperates with an iron core as a magnetic circuit. Of course, in other not-shown embodiments of the present invention, the power source obtained by the primary side 2 may be the AC power source, which means that the voltage boosting circuit 100 may omit the rectifier module 1 as appropriate.

The first secondary side 3 is disposed on one side of the primary side 2 in this embodiment, and the first secondary side 3 electromagnetically induces the primary side 2 to form a first high voltage V1, meaning That is, the winding of the first secondary side 3 is adjacent to but not in contact with the winding of the primary side 2 . In practical applications, the circuit of the first secondary side 3 has components such as diodes and capacitors (ie, a rectifier circuit), and can generate electromagnetic induction with the primary side 2 .

Looking at it in more detail, the first secondary side 3 includes a first connection end and a first ground end. The first connection end can be used to connect the load (ie, the antibacterial lamp 200 One of the connection terminals (for example, the positive terminal) of the string of light-emitting diodes 210 ), the first ground terminal is electrically coupled to the second secondary side 4 . That is to say, the connection position between the first connection terminal and the load Load is node P1, and the connection position between the first ground terminal and the second secondary side 4 is node P2.

The second secondary side 4 is disposed on one side of the primary side 2 in this embodiment, and the second secondary side 4 electromagnetically induces the primary side 2 to form a second high voltage V2, meaning That is, the winding of the second secondary side 4 is adjacent to but not in contact with the winding of the primary side 2 . In practical applications, the circuit of the second secondary side 4 has components such as diodes and capacitors (ie, LC circuit), and the second secondary side 4 and the first secondary side 3 are At the same time, electromagnetic induction occurs with the primary side 2 . Wherein, the number of turns of the second secondary side 4 is not equal to the number of turns of the first secondary side 3, so that the value of the second high voltage V2 is not equal to the value of the first high voltage V1 .

Furthermore, the second secondary side 4 includes a second connection terminal and a second ground terminal, and the second connection terminal can be used to connect another connection terminal of the load (for example, the negative terminal). ), the second ground terminal is the ground potential reference point of the system. That is to say, the connection position between the second connection terminal and the load Load is node P3, and the potential reference point position between the second ground terminal and the ground of the system is node P4.

Accordingly, the voltage boost circuit 100 uses the above technical features to enable the energy obtained by the load to be a high voltage with a small voltage difference. For ease of understanding, an example will be given below for description, but the present invention is not limited thereto.

Assume that the load is a light-emitting device. The light-emitting device is composed of multiple light-emitting diodes connected in series, and there is a need to "excit nanosilver through a high-voltage electric field of 1,200 volts to form silver ions for sterilization." . Therefore, the turns ratio between the primary side 2 and the first secondary side 3 is designed to boost the voltage to 100 volts (that is, the voltage of the node P1 is 100 volts). The turns ratio of the second secondary side 4 will be designed to boost the voltage to 1100 volts (that is, the voltage of the node P3 is 1100 volts), so when the first secondary side 3 is connected to the second The total voltage of the power supply when the stages 4 are connected in series with each other will be 1200 volts.

When the positive terminal and the negative terminal of the light-emitting device are respectively connected to the first secondary side 3 and the second secondary side 4 through the nodes P1 and P3, the reference voltage of the grounded light-emitting device will is a high potential of 1100 volts, and the total voltage of the power source obtained by the light-emitting device is 1200 volts, which means that the voltage boost circuit 100 provides the power source of the light-emitting device with a high voltage with a voltage difference of 100 volts. Accordingly, the plurality of light-emitting diodes of the light-emitting device each receive a power supply voltage from the positive terminal to the negative terminal between 1200 volts and 1100 volts, thereby achieving the effect of a high-voltage electric field.

[Third Embodiment]

As shown in Figure 5, it is a third embodiment of the present invention. The voltage boost circuit 100 of this embodiment is similar to the voltage boost circuit 100 of the second embodiment. The similarities between the two embodiments will not be described again. The main difference between the voltage boosting circuit 100' of this embodiment and the second embodiment is that the primary side 2 is not a single component in this embodiment.

Specifically, the primary side 2' in this embodiment includes a first sub-primary side 21 and a second sub-primary side 22 that are electrically coupled to the rectifier module 1, which means that the primary side 2 'Has two windings.

In practical applications, the first sub-primary side 21 is disposed on one side of the first secondary side 3, and the first sub-primary side 21 and the first secondary side 3 generate electromagnetic induction, so The second sub-primary side 22 is disposed on one side of the second secondary side 4 , and the second sub-primary side 22 and the second secondary side 4 generate electromagnetic induction. That is to say, the winding of the first sub-primary side 21 is adjacent to but not in contact with the winding of the first secondary side 3, and the winding of the second sub-primary side 22 is adjacent to but not in contact with the second secondary side 3. Winding of stage side 4.

In practice, the number of turns of the first sub-primary side 21 is matched with the number of turns of the first secondary side 3 , and the number of turns of the second sub-primary side 22 is matched with the number of turns of the second secondary side 4 The number of turns, so the number of turns of the first sub-primary side 21 and the second sub-primary side 22 can be designed to be the same or different according to the designer's needs.

It should be additionally noted that based on the inventive spirit of the first to third embodiments, in other practical applications, the antibacterial lamp 200 may use the voltage boost circuit as shown in FIG. 6, FIG. 8, and FIG. 10. 100A, 100B, 100C, and such voltage boost circuits 100A, 100B, 100C can control the first voltage level and the second voltage level to combine with each other to generate a high voltage level through an IC control module 5, thereby achieving the second implementation For example, the effect of the third embodiment. Among them, the boost circuit Z in Figure 6, Figure 8, and Figure 10 is a circuit used to boost the voltage, and can be composed of the primary side, the first primary side of the second embodiment and the third embodiment. The primary side and the second secondary side are implemented, but the invention is not limited thereto.

In addition, Figure 7 is a schematic diagram of the substrate and string of light-emitting diodes when the antibacterial lamp adopts the voltage boost circuit 100A. Figure 9 is a schematic diagram of the substrate and string of light-emitting diodes when the antibacterial lamp adopts the voltage boost circuit 100B. Schematic diagram of the body. It can be seen from Figures 7 and 9 that the string of light-emitting diodes 210 in Figure 7 can be directly boosted to provide high-voltage electric field and lighting functions, while the string of light-emitting diodes in Figure 9 can only Illumination is provided, and the high-voltage electric field is provided through the string of light-emitting diodes 210 and the component C (which can also be a line) boosted by the boost circuit Z next to it.

[Technical effects of the embodiments of the present invention]

To sum up, the voltage boost circuit disclosed in the embodiment of the present invention can be electrically coupled to the second secondary side through the first ground terminal of the first secondary side, and the first secondary side The primary side and the second secondary side can electromagnetically induce the primary side to form high voltages respectively, and the first secondary side and the second secondary side can be used to connect the load. Designed so that the voltage boost circuit can provide a high voltage with a small voltage difference between the loads.

The contents disclosed above are only preferred and feasible embodiments of the present invention, and do not limit the scope of the patent application of the present invention. Therefore, all equivalent technical changes made by using the description and drawings of the present invention are included in the application of the present invention. within the scope of the patent.

100, 100’, 100A, 100B, 100C: voltage boost circuit 1: Rectifier module 2. 2’: Primary side 21: First sub-primary side 22: Second sub-primary side 3: First secondary side 4: Second secondary side 5:IC control module V1: the first high voltage V2: The second highest voltage Load: load P1, P2, P3, P4: nodes 200: Antibacterial lamp 210:String of LEDs 201:Light emitting diode 220:Nano coating C: Line Z: Boost circuit S101～S107: steps

FIG. 1 is a flow chart of a circuit configuration method for improving the efficacy of an antibacterial lamp according to the first embodiment of the present invention.

FIG. 2 is a schematic diagram of an antibacterial lamp applied to the circuit configuration method of the first embodiment of the present invention.

Figure 3 is another schematic diagram of an antibacterial lamp applied to the circuit configuration method of the first embodiment of the present invention.

FIG. 4 is a schematic circuit diagram of a voltage boost circuit according to a second embodiment of the present invention.

FIG. 5 is a schematic circuit diagram of a voltage boost circuit according to the third embodiment of the present invention.

FIG. 6 is a circuit schematic diagram of another aspect of the voltage boosting circuit according to the third embodiment of the present invention.

Figure 7 is a schematic diagram when the aspect shown in Figure 6 is applied to the antibacterial lamp.

FIG. 8 is a circuit schematic diagram of another aspect of the voltage boost circuit according to the third embodiment of the present invention.

Figure 9 is a schematic diagram when the aspect shown in Figure 8 is applied to an antibacterial lamp.

FIG. 10 is a schematic circuit diagram of another aspect of the voltage boosting circuit according to the third embodiment of the present invention.

S101~S107: Steps

Claims (6)

A circuit configuration method for improving the efficacy of antibacterial lamps, including the following steps: Provide an AC voltage to the rectifier circuit and a boost circuit; Using the rectifier circuit to rectify the AC voltage into a DC voltage and provide a first voltage level; Using the boost circuit to increase the DC voltage to a second voltage level; The first voltage level and the second voltage level are combined into a high voltage level to provide a driving circuit to drive an antibacterial lamp. The circuit configuration method for improving the efficacy of an antibacterial lamp as claimed in claim 1, wherein an IC control module is used to control the combination of the first voltage level and the second voltage level. A voltage boost circuit used to provide an antibacterial lamp, the voltage boost circuit includes: a primary side; a first secondary side that electromagnetically induces the primary side to form a first high voltage, the first secondary side including a first connection terminal and a first ground terminal; and A second secondary side is electrically coupled to the first ground terminal. The second secondary side electromagnetically induces the primary side to form a second high voltage. The second high voltage is not equal to the first ground terminal. A high voltage, the second secondary side includes a second connection terminal, and the second connection terminal and the first connection terminal can be used to connect a load. The voltage boost circuit of claim 3, wherein the voltage boost circuit includes a rectifier module electrically coupled to the primary side, and the rectifier module is electrically coupled to an AC power source to output a DC power to the primary side. The voltage boost circuit of claim 4, wherein the primary side includes a first sub-primary side and a second sub-primary side electrically coupled to the rectifier module, and the first sub-primary side is configured on one side of the first secondary side, and the first sub-primary side and the first secondary side generate electromagnetic induction; the second sub-primary side is arranged on a side of the second secondary side side, and the second sub-primary side and the second secondary side generate electromagnetic induction. The voltage boosting circuit of claim 3, wherein the primary side is a single component, the first secondary side and the second secondary side are disposed on one side of the primary side, and electromagnetic induction is carried out simultaneously the primary side.

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