Disclosure of Invention
In order to solve the above-mentioned shortcomings of the prior art, the present invention aims to provide a combined flash circuit of a magneto-capacitive battery, so as to overcome the shortcomings in the prior art.
In order to achieve the above object, the present invention provides a combined flash circuit of a magneto-capacitive battery, the combined flash circuit comprising an active balancing circuit, a dc conversion controller, a current controller, a magneto-capacitive battery power module, LEDS, a flash/flashlight/off switch, a xenon flash tube, a first transformer, a trigger plate, a rectifying diode, a flash switch trigger, an indicator light, a second transformer, a charge switch, a capacitor, an oscillator transistor and a battery; the active balancing circuit is positioned at the rightmost end of the whole circuit, the I end of the active balancing circuit is electrically connected with the I end of the direct current conversion controller and the I end of the magnetic capacitor battery power supply module, the II end of the active balancing circuit is electrically connected with the II end of the magnetic capacitor battery power supply module, the II end of the flash/flashlight/switching-off switch, the II end of the flash lamp switch trigger, the II end of the capacitor, the II end of the oscillator transistor and the negative electrode of the battery, the II end of the direct current conversion controller is electrically connected with the I end of the LEDS, the I end of the xenon flash tube, the I end of the first transformer and the I end of the rectifier diode, the I end of the current controller is electrically connected with the II end of the LEDS, the II end of the current controller is electrically connected with the III end of the flash/flashlight/switching-off switch, the I end of the flash/flashlight/switching-off switch is electrically connected with the II end of the xenon flash tube, the first transformer is electrically connected with the I end of the first transformer, the I end of the flash lamp is electrically connected with the I end of the flash tube, the first transformer is electrically connected with the III end of the flash tube, and the first transformer is electrically connected with the I end of the flash tube, the I end of the second transformer is electrically connected, the II end of the indicator lamp is electrically connected with the III end of the second transformer, the IV end of the second transformer, the I end of the capacitor and the III end of the oscillator transistor, the II end of the second transformer is electrically connected with the I end of the charging switch and the positive electrode of the battery, the V end of the second transformer is electrically connected with the I end of the oscillator transistor, and the VI end of the second transformer is electrically connected with the II end of the charging switch.
Preferably, the magneto-capacitive battery power supply module is formed by four energy storage elements in a modularized mode and is detachable.
Preferably, the energy ratio of the magnetic capacitive battery module is 20000wh/kg.
Preferably, the energy storage element is 49mm long and 34mm wide.
Preferably, the energy storage element is formed by connecting millions of nano capacitor bits in parallel, and each nano capacitor bit consists of a dielectric layer and magnetizing layers clamped on two sides of the dielectric layer.
Compared with the prior art, the invention has the beneficial effects that:
(1) The invention improves the working time of the standard I and secondary batteries in the lighting power supply of the digital media video recorder.
(2) The invention reduces the interval between flash pulses, thereby improving the performance of the digital media recorder in low light conditions.
(3) The invention reduces the weight of the equivalent system (with supercapacitor).
(4) The invention can provide higher power for the system with lower weight and volume;
(5) The magneto-capacitive battery power supply module has the advantages of small volume and large energy storage.
Detailed Description
For a further understanding of the structure, features, and other objects of the invention, reference should now be made in detail to the accompanying drawings of the preferred embodiments of the invention, which are illustrated in the accompanying drawings and are for purposes of illustrating the concepts of the invention and not for limiting the invention.
Firstly, as shown in fig. 1, fig. 1 is a circuit structure diagram of a novel magnetic capacitor battery combined flash circuit of the invention, wherein the combined flash circuit comprises an active balance circuit 1, a direct current conversion controller 2, a current controller 3, a magnetic capacitor battery power supply module 4, LEDs5, a flash/flash light/off switch 6, a xenon flash tube 7, a first transformer 8, a trigger plate 9, a rectifier diode 10, a flash lamp switch trigger 11, an indicator lamp 12, a second transformer 13, a charging switch 14, a capacitor 15, an oscillator transistor 16 and a battery 17, the active balance circuit 1 is positioned at the rightmost end of the whole circuit, the I end of the active balance circuit 1 is electrically connected with the I end of the direct current conversion controller 2, the I end of the magnetic capacitor battery power supply module 4, the II end of the active balance circuit 1 is electrically connected with the II end of the magnetic capacitor battery power supply module 4, the II end of the flash/off switch 6, the II end of the flash lamp switch trigger 11, the II end of the capacitor 15, the oscillator transistor 16, the I end of the flash light tube 7, the I end of the flash light tube 5, the I end of the LED 7 and the negative electrode 7 are electrically connected with the I end of the flash light controller 2, the I end of the rectifier diode 10 is electrically connected with the II end of the LED 5, the II end of the current controller 3 is electrically connected with the III end of the flash/flashlight/turn-off switch 6, the I end of the flash/flashlight/turn-off switch 6 is electrically connected with the II end of the xenon flash tube 7, the II end of the first transformer 8 is electrically connected with the I end of the flash lamp switch trigger 11, the III end of the first transformer 8 is electrically connected with the I end of the trigger plate 9, the II end of the rectifier diode 10 is electrically connected with the I end of the indicator lamp 12 and the I end of the second transformer 13, the II end of the indicator lamp 12 is electrically connected with the III end of the second transformer 13, the IV end of the second transformer 13, the I end of the capacitor 15 and the III end of the oscillator transistor 16, the II end of the second transformer 13 is electrically connected with the I end of the charging switch 14, the I end of the battery 17 and the V end of the oscillator transistor 16, the second transformer 13 is electrically connected with the I end of the positive electrode of the second transformer 13
And the terminal is electrically connected with the terminal II of the charging switch 14.
Working principle:
1) The magneto-capacitive battery power supply module 4, the xenon flash tube 7, the first transformer 8, the trigger plate 9, the rectifier diode 10, the flash switch trigger 11, the indicator lamp 12, the second transformer 13, the charging switch 14, the capacitor 15, the oscillator transistor 16 and the battery 17 jointly form a basic flash lamp circuit taking the magneto-capacitive battery as a main power supply, and the basic flash lamp circuit is provided with the xenon flash tube 7 and supports a traditional flash lamp. The circuit adopts a two-stage boosting structure, after a charging switch is triggered, the magneto-capacitive battery power supply module 4 provides high-current rapid capacitance energy storage, an external or framing indicator lamp is lightened by a primary boosting equivalent power supply through a transistor access, a second-stage boosting power supply drives the xenon flash tube 7 to flash after a shutter is triggered, and the charging time and the flash interval are reduced due to the power characteristic of the magneto-capacitive battery power supply module 4.
2) The active balance circuit 1, the direct current conversion controller 2, the current controller 3, the magneto-capacitive battery power supply module 4, the LEDs5, the flash/flashlight/cut-off switch 6 and the battery 17 jointly form a basic flash circuit (LED) taking the magneto-capacitive battery as a main power supply, the basic flash circuit supports flashlight or continuous illumination, the mode is suitable for video capture, the magneto-capacitive battery module is used as the main power supply, the flash/flashlight/cut-off switch 6, the active balance circuit 1, the direct current conversion controller 2 and the current controller 3 are used for realizing the flash or normal-light working state of the flash light emitting diode, and the magneto-capacitive battery power supply module 4 is used for realizing the overall weight reduction and the power improvement of the system.
Further, referring to fig. 2, fig. 2 is a block diagram of a magnetic capacitor battery power module according to the present invention. A magneto-capacitive battery, which is an energy storage technology. This technology increases the energy storage capacity by a factor of more than 10 hundred million times over conventional capacitors over the same volume and weight range. Utilizing this technology rather than the standard use will bring greater efficiency to this market. The present invention designs the magneto-capacitive battery power module 4 as a main power supply in a combined flash circuitry, shortening the time interval between flash pulses, while increasing the illumination duration in flashlight (continuous illumination) mode.
The magnetic capacitor battery power supply module 4 is a magnetic capacitor battery constructed based on the giant magnetic capacitor theory. Its capacitance is 1.0E6-1.0E17 times greater than that of a standard capacitor and dielectric material of the same size. Therefore, the energy ratio of the magnetic capacitor battery can reach over 20000wh/kg, which is over 100 times of that of the lithium ion secondary battery.
The magnetic capacitive battery power module 4 is an enabling component of the LEH due to its light weight and small size. By keeping the weight of the energy storage element low, while maintaining the required energy storage capacity, the weight of the energy storage container is small and can be easily installed on existing structures. Because it is removable, the user can easily swap out a fully charged module.
As shown in fig. 3, the principle of action of the magneto-capacitive cell
The microstructure of the magneto-capacitive cell is such that the nano-capacitance bit 18 is built up in the form of a sandwich of layers, which is a dielectric layer 19 sandwiched between 2 magnetization layers 20. And a standard magneto-capacitive cell is connected in parallel with millions of nano-capacitor sites 18 and is mass produced in a semiconductor thin film process.
The calculation formula of the magneto-capacitive battery is as follows:
The nano-capacitance bit can be increased by changing the material and the microstructure of the magneto-capacitive cell, so that the storage of electric energy of the microstructure can be increased.
Finally, the novel magnetic capacitance battery combined flash circuit has the following specific technical characteristics:
(1) The invention improves the working time of the standard I and secondary batteries in the lighting power supply of the digital media video recorder.
(2) The invention reduces the interval between flash pulses, thereby improving the performance of the digital media recorder in low light conditions.
(3) The invention reduces the weight of the equivalent system (with supercapacitor).
(4) The invention can provide more power for the system with lower weight and volume.
It should be noted that the foregoing summary and the detailed description are intended to demonstrate practical applications of the technical solution provided by the present invention, and should not be construed as limiting the scope of the present invention. Various modifications, equivalent alterations, or improvements will occur to those skilled in the art, and are within the spirit and principles of the invention. The scope of the invention is defined by the appended claims.