Light quantum carrier energy charging method

Abstract

The invention discloses a light quantum carrier energy charging method, which comprises the following steps of: (1) preparing a core material, namely preparing materials required in a core storage functional material in the preparation process of an energy carrier and materials required in the preparation of a surface light guide material; and (2) material preparation: metering the prepared materials according to the weight parts to obtain a core storage function material and a surface photoconductive material. According to the light quantum carrier energy charging method, the rotating disc is arranged in the energy loading area, and the rotating disc has the functions of rotation and revolution, so that the energy carriers can receive energy emitted by a plurality of emitters at the same time when rotating along with the rotating disc, and energy charging work of the plurality of energy carriers can be carried out at the same time; therefore, a plurality of carriers charged with energy can be conveniently placed at the same time subsequently, and the effect of efficiently treating the water body in the water area is achieved.

Description

Technical Field

[0001] The present invention relates to the field of photon energy charging technology, and in particular to a photon carrier energy charging method. Background Art

[0002] Photon carrier is a special energy storage material, whose core function is to absorb light wave energy of a specific frequency and store it in the structure of the material. This material is usually composed of core storage functional materials and surface photoconductive materials. It is mainly used in photon water treatment technology. It excites and stores energy through specific light wave frequencies, and then releases photon energy waves in the water body to achieve the effect of purifying water bodies and bottom mud. Since the core function of photon carriers is to absorb and store light wave energy of a specific frequency, and release this energy in the form of photon energy waves when needed. The charging process is to load photon energy into the carrier material so that it can store enough energy for subsequent water treatment processes, so it is necessary to charge the photons. Through charging, photon carriers can excite electrons and store them in their internal structures (such as graphene carbon layer pores). After these stored electrons are placed in the water body, they release photon energy waves by vibration oxygenation, drive water molecules to vibrate, expand the contact area between water molecules and air, and thus increase the dissolved oxygen in the water body. This not only helps to purify the water, but also promotes the reproduction of local beneficial microorganisms, decomposes pollutants, and improves sediments. When the photon carriers on the existing market are charging, only one energy carrier can be charged inside a single energy loading area. However, when treating water inside the water area, it is generally necessary to place multiple energy carriers at equal intervals inside the water area. Therefore, it is necessary to prepare multiple energy placement areas to charge multiple carriers, and it is impossible to place multiple carriers at the same time, which will affect the energy carrier's treatment efficiency of water sources inside the water area. After the photon carrier is charged, water treatment is performed, which has the following advantages;

[0003] Efficient purification: The new path of vibration oxygenation reduces the damage to the normal macromolecular organic matter in the water ecology, and the purification effect is significant. At the same time, it increases the dissolved oxygen in the water, promotes the reproduction of local beneficial microorganisms, and decomposes pollutants.

[0004] Green and environmentally friendly: no excessive chemical additives are required during the preparation process, low cost, and high cost performance. Easy maintenance: simple construction, small amount of work, easy maintenance, and with the improvement of the self-purification capacity of the water body, the maintenance cost gradually decreases.

[0005] Wide application: Suitable for various scenarios such as river and lake water pollution control, black and odorous water body control, blue algae control, water source water quality protection, etc., and is not affected by sunlight, season, or region.

[0006] High safety: safe and non-toxic, and will not cause secondary pollution to water bodies. Summary of the invention

[0007] The purpose of the present invention is to provide a photon carrier charging method so as to solve the problem that when the photon carriers on the market today are charging, only one energy carrier can be charged inside a single energy loading area. However, when water treatment is performed inside a water area, it is generally necessary to place multiple energy carriers at equal intervals inside the water area. Therefore, it is necessary to prepare multiple energy placement areas to charge multiple carriers, and it is impossible to place multiple carriers at the same time, which will affect the problem of the energy carrier's treatment efficiency of water sources inside the water area.

[0008] To achieve the above object, the present invention provides the following technical solution: a method for charging a photon carrier, comprising the following steps:

[0009] (i) Core material preparation: prepare the materials needed for the core storage functional materials and the materials needed for the surface photoconductive materials in the process of preparing the energy carrier;

[0010] (ii) Material preparation: the prepared materials are weighed according to weight to obtain the core storage functional material and the surface light-conducting material;

[0011] (III) Preparation of the carrier: The prepared core storage functional material and the surface photoconductive material are ball-milled and activated by a ball mill, and after standing for 30 minutes, they are placed in a sintering machine for sintering treatment, and finally the photon water treatment energy carrier is obtained;

[0012] (IV) Setting of energy loading area: Place the prepared energy carrier material into the energy loading area. The energy loading area is the middle area of ​​a closed space with a width of not less than 3.6m and a length of not less than 6m. The middle area is not less than 2m*2m. Multiple energy-charging transmitters are installed above and around the placement area. The distance from the energy transmitter to the energy carrier material for photon water treatment is 2m.

[0013] (V) Multiple charging: Turn on the energy transmitter inside the energy loading area to charge the energy carrier material multiple times to obtain the charged photon carrier, so that the light waves of a specific frequency irradiate the energy carrier material, excite electrons and store them in the pores of the carbon layer;

[0014] (VI) Activation treatment: Before placing the energy carrier material into the water body, the magnetic field inside the carrier material is activated, and the stored electrons are induced by the magnetic field to move regularly to generate light quantum energy waves;

[0015] (VII) Placement and treatment: Place multiple charged and activated energy carrier materials into the water to be treated, strengthen the light quantum energy wave through the resonance field, increase the dissolved oxygen in the water, promote the reproduction of local beneficial microorganisms, decompose pollutants, and improve the pollution condition of the water and sediment.

[0016] Preferably, a plastic plate retaining wall with a shielding function is provided inside the network transformer base selected in the step (i).

[0017] Preferably, the core storage functional material in step (ii) is prepared by mixing and treating graphene, clay A, fly ash, tourmaline, dielectric materials (such as negative ion powder, lithium niobate, etc.), and activators (such as zinc phosphate, platinum dichloride, strontium hydroxide, etc.), and the surface optical conductive material is prepared by mixing and treating optical fiber (such as silicon dioxide), crystalline silicon, and clay B.

[0018] Preferably, in the step (ii), the weight proportions of the core storage functional material are 30-40 parts of graphene, 70-85 parts of clay A, 10-20 parts of fly ash, 5-10 parts of tourmaline, 15-30 parts of dielectric material, 1-5 parts of activator and solvent C, and the weight proportions of the surface photoconductive material are 10-20 parts of silicon dioxide, 0-20 parts of crystalline silicon and 0-100 parts of clay B.

[0019] Preferably, in the process of ball milling in the step (iii), it is necessary to control the ball mill to activate at a speed of 70 to 80 r / min for 20 to 30 minutes, and then let it stand for 20 to 30 minutes. After standing, the core storage functional material needs to be pressed into a block. After that, the surface photoconductive material is dissolved in solvent D, coated on the block, and allowed to stand for 60 to 120 minutes. The coated block is placed in a calciner, first heated to 90 to 100°C, then heated to 300 to 350°C at a rate of 50°C / h, kept at a constant temperature for 2 to 3 hours, and then heated to 450 to 600°C at a rate of 50°C / h, calcined at a constant temperature for 1 to 1.5 hours, and finally cooled to room temperature at a rate not exceeding 80°C / h to obtain an energy carrier material for photon water treatment.

[0020] Preferably, in step (iv), a corresponding rotating disk can be provided in the middle of the energy loading area, and multiple energy carriers can be charged simultaneously by placing the energy carrier on the rotating disk and allowing the rotating disk to revolve and rotate.

[0021] Preferably, the energy emitters in step (v) are halogen light source emitters with an emission frequency of 900 MHz to 1800 MHz, and more than three groups of energy emitters are evenly spaced at the top and around the energy loading area.

[0022] Preferably, the number of multiple charging in step (V) is eight times, and the time of each charging is 2 hours, and the interval time of each charging is 2 hours, to obtain the charged energy carrier material.

[0023] Compared with the prior art, the beneficial effects of the present invention are: a method for charging a photon carrier;

[0024] A rotating disk is arranged inside the energy loading area, and the rotating disk has the functions of self-rotation and revolution. Through revolution, it can drive the various energy carriers outside it to perform revolution. When performing revolution, since a self-rotating rotating seat is arranged at the bottom of the energy carrier, it can also rotate the energy carrier, so that the energy carrier can simultaneously receive energy emitted by multiple transmitters when the rotating disk rotates, so as to achieve the charging of multiple energy carriers at the same time, which is convenient for the subsequent simultaneous placement of multiple charged carriers, thereby achieving the effect of improving the efficient management of water bodies in the water area; more than 3 groups of energy transmitters are evenly spaced at the top and around the energy loading area to avoid local overload: single-angle charging may cause the local energy of the photon carrier to be too high, while multi-angle charging can evenly distribute the energy to various parts of the carrier, avoiding the potential risks brought by local overload and energy concentration. Improve energy stability: Uniform energy distribution helps the photon carrier release energy more stably in subsequent use and reduce energy fluctuations, thereby improving its performance and reliability in various applications. Construct a resonance field: Multiple charged photon carrier materials can construct a resonance field to strengthen the photon energy wave. In fields such as water treatment, this resonance field can more effectively drive the vibration of water molecules, expand the contact area between water molecules and air, increase the dissolved oxygen rate, and transport dissolved oxygen to all parts of the water body, including the bottom mud. Enhance vibration effect: Photon carriers charged at multiple angles perform better in vibration. For example, in water treatment, its vibration can better decompose pollutants and promote the reproduction of beneficial microorganisms, thereby more effectively improving the water environment. Adapt to complex environments: In actual applications, environmental conditions are often complex and changeable. Multi-angle charging enables photon carriers to effectively absorb energy in different directions and angles, thereby better adapting to various complex environmental conditions. Flexibly adjust the charging strategy: According to the characteristics of photon carriers and actual application requirements, the angles, powers and charging times of various energy transmitters can be flexibly adjusted to achieve the best charging effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a flow chart of the present invention. DETAILED DESCRIPTION

[0026] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0027] Embodiment 1:

[0028] A method for charging a photon carrier:

[0029] (i) Core material preparation: prepare the materials needed for the core storage functional materials and the materials needed for the surface photoconductive materials in the process of preparing the energy carrier;

[0030] (ii) Material preparation: the prepared materials are weighed according to weight to obtain the core storage functional material and the surface light-conducting material;

[0031] (III) Preparation of the carrier: The prepared core storage functional material and the surface photoconductive material are ball-milled and activated by a ball mill, and after standing for 30 minutes, they are placed in a sintering machine for sintering treatment, and finally the photon water treatment energy carrier is obtained;

[0032] (IV) Setting of energy loading area: Place the prepared energy carrier material into the energy loading area. The energy loading area is the middle area of ​​a closed space with a width of 4m and a length of 8m. The middle area is not less than 1m*1m. Multiple energy-charging transmitters are installed above and around the placement area. The distance from the energy transmitter to the energy carrier material for photon water treatment is 2m.

[0033] (V) Multiple charging: Turn on the energy transmitter inside the energy loading area to charge the energy carrier material multiple times to obtain the charged photon carrier, so that the light waves of a specific frequency irradiate the energy carrier material, excite electrons and store them in the pores of the carbon layer;

[0034] (VI) Activation treatment: Before placing the energy carrier material into the water body, the magnetic field inside the carrier material is activated, and the stored electrons are induced by the magnetic field to move regularly to generate light quantum energy waves;

[0035] (VII) Placement and treatment: Place multiple charged and activated energy carrier materials into the water to be treated, strengthen the light quantum energy wave through the resonance field, increase the dissolved oxygen in the water, promote the reproduction of local beneficial microorganisms, decompose pollutants, and improve the pollution condition of the water and sediment.

[0036] In the step (ii), the core storage functional material is prepared by mixing and treating graphene, clay A, fly ash, tourmaline, dielectric materials (such as negative ion powder, lithium niobate, etc.), and activators (such as zinc phosphate, platinum dichloride, strontium hydroxide, etc.), and the surface optical conductive material is prepared by mixing and treating optical fiber (such as silicon dioxide), crystalline silicon, and clay B.

[0037] In the step (ii), the weight proportions of the core storage functional material are as follows: 30-40 parts of graphene, 70 parts of clay A, 10 parts of fly ash, 5 parts of tourmaline, 15 parts of dielectric material, 1 part of activator and solvent C are mixed and stirred; the weight proportions of the surface photoconductive material are as follows: 10 parts of silicon dioxide, 1 part of crystalline silicon and 10 parts of clay B are mixed.

[0038] In the process of ball milling in the step (iii), it is necessary to control the ball mill to activate at a speed of 70r / min for 20 minutes, and then let it stand for 20 minutes. After standing, the core storage functional material needs to be pressed into a block. After that, the surface photoconductive material is dissolved in solvent D, coated on the block, and let it stand for 60 minutes. The coated block is placed in a calciner, first heated to 90°C, then heated to 300°C at a rate of 50°C / h, kept at a constant temperature for 2 hours, and then heated to 450°C at a rate of 50°C / h, calcined at a constant temperature for 1 hour, and finally cooled to room temperature at a rate not exceeding 80°C / h to obtain an energy carrier material for photon water treatment.

[0039] In the step (iv), a corresponding rotating disk can be arranged in the middle of the energy loading area. By placing the energy carrier on the rotating disk and letting the rotating disk revolve and rotate, multiple energy carriers can be charged simultaneously.

[0040] In the step (V), the energy emitters are halogen light source emitters with an emission frequency of 900 MHz to 1800 MHz, and three groups of energy emitters are evenly spaced at the top and around the energy loading area.

[0041] The number of multiple charging in the step (five) is eight times, and the time of each charging is 2 hours, and the interval between each charging is 2 hours, so as to obtain the charged energy carrier material.

[0042] Embodiment 2:

[0043] A method for charging a photon carrier:

[0044] (i) Core material preparation: prepare the materials needed for the core storage functional materials and the materials needed for the surface photoconductive materials in the process of preparing the energy carrier;

[0045] (ii) Material preparation: the prepared materials are weighed according to weight to obtain the core storage functional material and the surface light-conducting material;

[0046] (III) Preparation of the carrier: The prepared core storage functional material and the surface photoconductive material are ball-milled and activated by a ball mill, and after standing for 30 minutes, they are placed in a sintering machine for sintering treatment, and finally the photon water treatment energy carrier is obtained;

[0047] (IV) Setting of energy loading area: Place the prepared energy carrier material into the energy loading area, which is a middle area of ​​a closed space with a width of 5m and a length of not less than 10m. The middle area is not less than 1.8m*1.8m. Install multiple energy-charging transmitters above and around the placement area. The distance from the energy transmitter to the energy carrier material for photon water treatment is 2m.

[0048] (V) Multiple charging: Turn on the energy transmitter inside the energy loading area to charge the energy carrier material multiple times to obtain the charged photon carrier, so that the light waves of a specific frequency irradiate the energy carrier material, excite electrons and store them in the pores of the carbon layer;

[0049] (VI) Activation treatment: Before placing the energy carrier material into the water body, the magnetic field inside the carrier material is activated, and the stored electrons are induced by the magnetic field to move regularly to generate light quantum energy waves;

[0050] (VII) Placement and treatment: Place multiple charged and activated energy carrier materials into the water to be treated, strengthen the light quantum energy wave through the resonance field, increase the dissolved oxygen in the water, promote the reproduction of local beneficial microorganisms, decompose pollutants, and improve the pollution condition of the water and sediment.

[0051] In the step (ii), the core storage functional material is prepared by mixing and treating graphene, clay A, fly ash, tourmaline, dielectric materials (such as negative ion powder, lithium niobate, etc.), and activators (such as zinc phosphate, platinum dichloride, strontium hydroxide, etc.), and the surface optical conductive material is prepared by mixing and treating optical fiber (such as silicon dioxide), crystalline silicon, and clay B.

[0052] In the step (ii), the weight proportions of the core storage functional material are as follows: 40 parts of graphene, 85 parts of clay A, 20 parts of fly ash, 10 parts of tourmaline, 30 parts of dielectric material, 5 parts of activator and solvent C are mixed and stirred; the weight proportions of the surface photoconductive material are as follows: 20 parts of silicon dioxide, 20 parts of crystalline silicon and 100 parts of clay B are mixed.

[0053] In the process of ball milling in the step (iii), the ball mill needs to be controlled to activate the ball milling at a speed of 80r / min for 30 minutes, and then stand for 30 minutes. After standing, the core storage functional material needs to be pressed into a block. After that, the surface photoconductive material is dissolved in solvent D, coated on the block, and stood for 120 minutes. The coated block is placed in a calciner, first heated to 100°C, then heated to 350°C at a rate of 50°C / h, kept at a constant temperature for 3 hours, and then heated to 600°C at a rate of 50°C / h, calcined at a constant temperature for 1.5 hours, and finally cooled to room temperature at a rate not exceeding 80°C / h to obtain an energy carrier material for photon water treatment.

[0054] In the step (iv), a corresponding rotating disk can be provided in the middle of the energy loading area. By placing the energy carrier on the rotating disk and allowing the rotating disk to perform orbital and rotational operations, multiple energy carriers can be charged simultaneously.

[0055] In the step (V), the energy emitters are halogen light source emitters with an emission frequency of 900 MHz to 1800 MHz, and four groups of energy emitters are evenly spaced at the top and around the energy loading area.

[0056] The number of multiple charging in the step (five) is eight times, and the time of each charging is 2 hours, and the interval between each charging is 2 hours, so as to obtain the charged energy carrier material.

[0057] It should also be noted that the terms "include", "comprises" or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, commodity or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, commodity or device. In the absence of more restrictions, the elements defined by the sentence "comprises a ..." do not exclude the existence of other identical elements in the process, method, commodity or device including the elements.

[0058] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A method for charging a photon carrier, characterized in that: The following steps are involved: (i) Core material preparation: prepare the materials needed for the core storage functional materials and the materials needed for the surface photoconductive materials in the process of preparing the energy carrier; (ii) Material preparation: the prepared materials are weighed according to weight to obtain the core storage functional material and the surface light-conducting material; (III) Preparation of the carrier: The prepared core storage functional material and the surface photoconductive material are ball-milled and activated by a ball mill, and after standing for 30 minutes, they are placed in a sintering machine for sintering treatment, and finally the photon water treatment energy carrier is obtained; (IV) Setting of energy loading area: Place the prepared energy carrier material into the energy loading area. The energy loading area is the middle area of ​​a closed space with a width of not less than 3.6m and a length of not less than 6m. The middle area is not less than 2m*2m. Multiple energy-charging transmitters are installed above and around the placement area. The distance from the energy transmitter to the energy carrier material for photon water treatment is 2m. (V) Multiple charging: Turn on the energy transmitter inside the energy loading area to charge the energy carrier material multiple times to obtain the charged photon carrier, so that the light waves of a specific frequency irradiate the energy carrier material, excite electrons and store them in the pores of the carbon layer; (VI) Activation treatment: Before placing the energy carrier material into the water body, the magnetic field inside the carrier material is activated, and the stored electrons are induced by the magnetic field to move regularly to generate light quantum energy waves; (VII) Placement and treatment: Place multiple charged and activated energy carrier materials into the water to be treated, strengthen the light quantum energy wave through the resonance field, increase the dissolved oxygen in the water, promote the reproduction of local beneficial microorganisms, decompose pollutants, and improve the pollution condition of the water and sediment.

2. A method for charging a photon carrier according to claim 1, characterized in that: In the step (ii), the core storage functional material is prepared by mixing and treating graphene, clay A, fly ash, tourmaline, dielectric materials (such as negative ion powder, lithium niobate, etc.), and activators (such as zinc phosphate, platinum dichloride, strontium hydroxide, etc.), and the surface optical conductive material is prepared by mixing and treating optical fiber (such as silicon dioxide), crystalline silicon, and clay B.

3. A method for charging a photon carrier according to claim 1, characterized in that: In the step (ii), the weight proportions of the core storage functional material are as follows: 30-40 parts of graphene, 70-85 parts of clay A, 10-20 parts of fly ash, 5-10 parts of tourmaline, 15-30 parts of dielectric material, 1-5 parts of activator and solvent C are mixed and stirred; the weight proportions of the surface photoconductive material are as follows: 10-20 parts of silicon dioxide, 0-20 parts of crystalline silicon and 0-100 parts of clay B are mixed.

4. A method for charging a photon carrier according to claim 1, characterized in that: In the process of ball milling in the step (iii), the ball mill needs to be controlled to activate the ball mill at a speed of 70 to 80 r / min for 20 to 30 minutes, and then stand for 20 to 30 minutes. After standing, the core storage functional material needs to be pressed into a block. After that, the surface photoconductive material is dissolved in solvent D, coated on the block, and stood for 60 to 120 minutes. The coated block is placed in a calciner, first heated to 90 to 100°C, then heated to 300 to 350°C at a rate of 50°C / h, kept at a constant temperature for 2 to 3 hours, and then heated to 450 to 600°C at a rate of 50°C / h, calcined at a constant temperature for 1 to 1.5 hours, and finally cooled to room temperature at a rate not exceeding 80°C / h to obtain an energy carrier material for photon water treatment.

5. A method for charging a photon carrier according to claim 1, characterized in that: In the step (iv), a corresponding rotating disk can be provided in the middle of the energy loading area. By placing the energy carrier on the rotating disk and allowing the rotating disk to perform orbital and rotational operations, multiple energy carriers can be charged simultaneously.

6. A method for charging a photon carrier according to claim 1, characterized in that: In the step (five), the energy emitters are halogen light source emitters with an emission frequency of 900 MHz to 1800 MHz, and more than three groups of energy emitters are evenly spaced at the top and around the energy loading area.

7. A method for charging a photon carrier according to claim 1, characterized in that: The number of multiple charging in the step (five) is eight times, and the time of each charging is 2 hours, and the interval between each charging is 2 hours, so as to obtain the charged energy carrier material.

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