CN108258786A - A base station that can utilize natural energy - Google Patents

Abstract

The invention discloses a base station capable of utilizing natural energy, which comprises a water-hydrogen generator and a base station body; the base station body comprises a second shell, a third shell, a base station tower, a base station antenna, a base station transceiver station, a base station controller and a standby battery; the water-hydrogen generator comprises methanol-water reforming hydrogen production equipment, hydrogen generation equipment and second generation equipment; the methanol-water reforming hydrogen production equipment comprises a storage container, a raw material conveying device, a methanol-water conveying pipeline, a reforming device, a separating device, a hydrogen conveying pipeline and a control circuit board. The base station can work by utilizing the electric energy generated by reforming the methanol water to prepare hydrogen, can supply power to the communication base station in places without power grids, improves the convenience of the base station arrangement, and reduces the pollution to the environment. Meanwhile, natural energy can be effectively utilized to generate electricity, redundant electric energy can be stored in a methanol mode, and electricity can be generated through methanol at the peak of power supply. The invention is more beneficial to fully utilizing energy, saving energy and protecting environment.

Description

A base station that can utilize natural energy

technical field

The invention belongs to the technical field of generators, and relates to a generator, in particular to a base station capable of utilizing natural energy.

Background technique

The power supply introduction method of the existing base station mostly adopts three-phase or single-phase AC mains power supply introduction. However, in some areas (such as many remote road sections), due to the difficulty of high-voltage power supply coverage, no power supply resources, and very limited wind and solar resources, the problem of base station power supply has not been solved. This problem directly affects the delivery rate of base station construction and seriously affects Customer service indicators. Due to the problem of power supply, it caused problems such as shelving.

In addition, existing water-hydrogen generators (such as Chinese patent CN201410311217.4, reformer and manufacturing process of methanol water hydrogen production equipment; Chinese patent CN201410622203.4, a generator based on methanol water hydrogen production system and its Power generation method) has the following problems. The reforming chamber is provided with a heating gasification pipeline for heating and gasifying methanol water raw materials. The heating gasification pipeline is usually arranged outside the reforming chamber, and the heating gasification pipeline is prone to peeling and detachment The situation will affect the service life of the pipeline.

In view of this, there is an urgent need to design a new base station power supply method so as to overcome the above-mentioned defects of the existing base station power supply method.

Contents of the invention

The technical problem to be solved by the present invention is to provide a base station that can utilize natural energy, which can use the electric energy generated by methanol water reforming to produce hydrogen, and can provide power for communication base stations in places where there is no power grid, so as to improve the convenience of base station layout. Energy saving, no polluting gas emission, reducing environmental pollution.

In order to solve the problems of the technologies described above, the present invention adopts the following technical solutions:

A base station capable of utilizing natural energy, including a water-hydrogen generator, a base station body, and a second power generation device, the second power generation device is used to generate electricity using natural energy; the second power generation device includes wind power generation equipment, solar power generation equipment at least one of;

The base station body includes a base station tower, a base station antenna, a base station transceiver station, a base station controller, and a backup battery; the base station tower is provided with a base station antenna, and the base station transceiver station is connected to the base station antenna and the base station controller respectively;

The water hydrogen generator and the second power generation equipment are respectively connected to the base transceiver station, the base station controller, and the backup battery through cables, and the backup battery is respectively connected to the base transceiver station, the base station controller, and the base station antenna;

The water hydrogen generator includes a methanol-water hydrogen production device, a hydrogen fuel cell, an air pump, and a control circuit board; the methanol-water hydrogen production device includes a delivery pump, a heat exchanger, a reformer, and a membrane separator;

The methanol water storage container is provided with a first temperature sensor and a liquid level sensor, a second temperature sensor and a first flow sensor are provided in the heat exchanger, a third temperature sensor is provided in the reformer, and the gas flow inlet of the hydrogen fuel cell is , The air outlet is respectively equipped with a pressure sensor and a solenoid valve;

The control circuit board is respectively connected to the delivery pump, the second temperature sensor in the heat exchanger, the first flow sensor, the third temperature sensor in the reformer, the pressure sensor of the hydrogen fuel cell and the solenoid valve, and controls the operation of each component. Work;

Liquid methanol water raw material is stored in the methanol water storage container; the delivery pump is used to pump the methanol water raw material in the methanol water storage container to the reforming chamber of the reformer through the delivery pipeline; the heat exchanger Installed on the delivery pipeline of the methanol water raw material, the methanol water raw material is in the heat exchanger, and exchanges heat with the high-temperature hydrogen output from the reformer, the temperature of the methanol water raw material rises, and the temperature of the hydrogen gas decreases; the methanol water raw material is processed in the reforming chamber The hydrogen-containing gas is produced by reforming the hydrogen production reaction, and the hydrogen gas is obtained through the membrane separator; the air pump is connected to the hydrogen fuel cell, and the air is pumped into the hydrogen fuel cell; hydrogen and oxygen in the air undergo redox reactions through the hydrogen fuel cell to generate electricity .

The beneficial effects of the present invention are: the base station that can utilize natural energy proposed by the present invention can work with the electric energy generated by methanol water reforming to produce hydrogen, and can supply power for communication base stations in places where there is no power grid, which improves the convenience of base station layout and saves energy. Energy, no polluting gas emissions, reducing environmental pollution. At the same time, natural energy can be effectively used to generate electricity, and excess electricity can be stored in the form of methanol, which can be used to generate electricity during power supply peaks. The invention is more conducive to fully utilizing energy, energy saving and environmental protection.

Description of drawings

Fig. 1 is a schematic diagram of the composition of a base station powered by a water-hydrogen generator according to the present invention.

Fig. 2 is a composition schematic diagram of the water hydrogen generator of the present invention.

Fig. 3 is a schematic structural diagram of methanol water reforming hydrogen production equipment.

Figure 4 is a schematic diagram of the appearance of methanol water reforming hydrogen production equipment.

Figure 5 is a schematic diagram of the composition of methanol water reforming hydrogen production equipment.

Detailed ways

Preferred embodiments of the present invention will be described in detail below in conjunction with the accompanying drawings.

Embodiment one

Please refer to Fig. 1, the present invention discloses a base station that can utilize natural energy, including a water-hydrogen generator, a base station body, and a second power generation device, the second power generation device is used to generate power using natural energy; the second power generation The equipment includes at least one of wind power generation equipment and solar power generation equipment.

The base station body includes a second housing 306, a third housing 307, a base station tower 301, a base station antenna 302, a base transceiver station 303, a base station controller 304, and a backup battery 305; the base station tower 301 is provided with a base station antenna 302, and the base transceiver station Station 303 is connected to base station antenna 302 and base station controller 304 respectively.

The water hydrogen generator and the second power generation equipment are respectively connected to the base transceiver station 303, the base station controller 304, the base station antenna 302, and the backup battery 305 through cables; the backup battery 305 is connected to the base transceiver station 303 and the base station controller 304 respectively; The base transceiver station 303 and the base station controller 304 are arranged in the second casing 306 , and the backup battery 305 is arranged in the third casing 307 .

The basic composition of water-hydrogen generators can be basically realized by those skilled in the art according to the relevant patents of the applicant (such as three authorized invention patents: Chinese patent CN201210339912.2, a system and method for preparing hydrogen from methanol water ; Chinese patent CN201310578035.9, instant hydrogen production power generation system and method; Chinese patent CN201310520538.0, a kind of instant hydrogen production power generation system and method), but in order to reflect the full disclosure of the present invention, here is also a brief introduction, and at the same time Improve it partially.

Please refer to Figure 2, the water hydrogen generator includes: methanol water reforming hydrogen production equipment 1, hydrogen power generation equipment 2, methanol preparation equipment 3, wind power generation equipment 4, solar power generation equipment 5, power storage unit 6, charging control unit 7. Electrolyzed water hydrogen production equipment 8, main control unit 9, monitoring terminal 10 (may also include other power generation units, such as biogas power generation units, etc.).

The main control unit 9 is respectively connected to methanol water reforming hydrogen production equipment 1, hydrogen power generation equipment 2, methanol preparation equipment 3, wind power generation equipment 4, solar power generation equipment 5, power storage unit 6, charging control unit 7, electrolyzed water system Hydrogen equipment 8, monitoring terminal 10, control methanol water reforming hydrogen production equipment 1, hydrogen power generation equipment 2, methanol preparation equipment 3, wind power generation equipment 4, solar power generation equipment 5, charging control unit 7, electrolytic water hydrogen production equipment 8 work, and send relevant information of the equipment to the monitoring terminal 10.

The methanol-water reforming hydrogen production equipment 1 is connected to the hydrogen power generation equipment 2 and the methanol production equipment 3 , and the hydrogen power generation equipment 2 is connected to the methanol production equipment 3 ;

The wind power generation equipment 4, the solar power generation equipment 5, and the hydrogen power generation equipment 2 are respectively connected to the electrical equipment 11, and can directly supply power to the electrical equipment 11; the electrical equipment 11 includes the methanol water reforming hydrogen production equipment 1, and the hydrogen power generation equipment 2 , and power-demanding equipment outside the system. The wind power generation equipment 4 , solar power generation equipment 5 , and hydrogen power generation equipment 2 are respectively connected to a charging control unit 7 to charge the power storage unit 6 through the charging control unit.

The main control unit 9 is also used to obtain the power consumption status of the electrical equipment 11, thereby obtaining real-time electricity demand data; at the same time, the main control unit 9 obtains the real-time data of the wind power generation equipment 4, the solar power generation equipment 5, and the hydrogen power generation equipment 2. power generation data.

The main control unit 9 performs corresponding control according to real-time power demand data and real-time power generation data; when the power generation data is greater than the power demand data, the charging control unit is controlled to charge the power storage unit with excess electric energy; when the power generation data is less than When the power demand data is used, the power storage unit is started to supply power to the electric equipment.

In this embodiment, the main control unit includes a power supply dispatching subunit, which is used to monitor the power consumption of the electric equipment, and when the rated output power of the hydrogen power generation equipment is greater than the power consumption of the electric equipment, control the hydrogen power generation equipment to independently To supply power to electrical equipment; when it is detected that the power consumption increases and the rate of change is greater than the set threshold, control the hydrogen power generation equipment and the power storage unit to jointly supply power to the electrical equipment; when the hydrogen power generation equipment fails, control the power storage unit to use Power supply for electrical equipment; the power supply scheduling subunit is also used to judge whether the power storage unit is short of electricity when it is judged that the rated output power of the hydrogen generating equipment is greater than the power consumption of the electric equipment, and if it is short of electricity, use hydrogen The additional electric energy output by the power generation equipment charges the electric storage unit.

The electrolyzed water hydrogen production equipment 8 is used to utilize the remaining electric energy obtained by the wind power generation equipment 4 and the solar power generation equipment 5 to produce hydrogen and oxygen by electrolyzing water; the hydrogen produced is transported to the methanol production equipment 3 for preparation Methanol is produced; the produced oxygen is stored and delivered to the fuel cell system (a part of the hydrogen power generation device 2 ) when needed.

Please refer to Figure 5, the methanol water reforming hydrogen production equipment 1 includes a storage container 130, a raw material delivery device 101, a methanol water delivery pipeline 102, a reforming unit 103, a separation unit 104, a hydrogen delivery pipeline 105, and a carbon dioxide collection pipe Road 106, residual air discharge pipeline 107, starting device 108, control circuit board 109. The control circuit board 109 is respectively connected to the raw material conveying device 101 , the reforming device 103 and the separating device 104 to control the operation of each device.

The raw material delivery device 101 is respectively connected to the storage container 130 and the reformer 103 through the methanol water delivery pipeline 102 , and the raw material delivery device 101 transports the methanol water raw material in the storage container 130 to the reformer 103 .

The reforming device 103 is connected to a separation device 104, and the separation device 104 is respectively connected to a hydrogen delivery pipeline 105, a carbon dioxide collection pipeline 106, and a residual gas discharge pipeline 107; the separation device includes a membrane separation device.

The reforming device includes a heat exchanger, a gasification chamber, a reforming chamber, and a separation chamber. The membrane separation device is arranged in the separation chamber, and the separation chamber is arranged in the upper part of the reforming chamber. The methanol water raw material enters the gasification chamber for vaporization after exchanging heat in the heat exchanger; the vaporized methanol vapor and water vapor enter the reforming chamber, where a catalyst is installed in the reforming chamber, and the temperature of the lower and middle parts of the reforming chamber is 300°C to 420°C , the temperature of the upper part of the reforming chamber is 400°C to 570°C; the reforming chamber and the separation chamber are connected through a connecting pipeline, all or part of the connecting pipeline is arranged on the upper part of the reforming chamber, and can pass through the upper part of the reforming chamber The high temperature continues to heat the gas output from the reforming chamber; the connecting pipeline acts as a buffer between the reforming chamber and the separation chamber, so that the temperature of the gas output from the reforming chamber is the same or close to the temperature of the separation chamber; the separation The temperature in the chamber is set at 350°C to 570°C, and hydrogen is obtained from the gas-producing end of the membrane separation device in the separation chamber.

In this embodiment, the storage container 130 may be provided with a first temperature sensor and a liquid level sensor, a second temperature sensor and a first flow sensor are provided in the heat exchanger, a third temperature sensor is provided in the reforming chamber, and the hydrogen fuel The air inlet and air outlet of the battery are respectively provided with a pressure sensor and a solenoid valve. The control circuit board is respectively connected to the delivery pump (raw material delivery device 101), the second temperature sensor in the heat exchanger, the first flow sensor, the third temperature sensor in the reformer, the pressure sensor and the solenoid valve of the hydrogen fuel cell , and control the work of each component.

Liquid methanol water raw material is stored in the methanol water storage container; the delivery pump is used to pump the methanol water raw material in the methanol water storage container to the reforming chamber of the reformer through the delivery pipeline; the heat exchanger Installed on the delivery pipeline of the methanol water raw material, the methanol water raw material is in the heat exchanger, and exchanges heat with the high-temperature hydrogen output from the reformer, the temperature of the methanol water raw material rises, and the temperature of the hydrogen gas decreases; the methanol water raw material is processed in the reforming chamber The hydrogen-containing gas is produced by reforming the hydrogen production reaction, and the hydrogen gas is obtained through the membrane separator; the air pump is connected to the hydrogen fuel cell, and the air is pumped into the hydrogen fuel cell; hydrogen and oxygen in the air undergo redox reactions through the hydrogen fuel cell to generate electricity .

Please refer to FIG. 3 and FIG. 4 , the reformer 103 includes a heat exchanger, a heating gasification pipeline 1038 , and a reforming chamber 1037 , and the membrane separation device is arranged at the upper part of the reforming chamber 1037 . The heat exchanger includes a methanol water preheating pipeline, and the heat exchanger is installed on the delivery pipeline of the methanol water raw material (this section of the delivery pipeline can be used as a methanol water preheating pipeline), and the methanol water raw material is in the heat exchanger Exchange heat with the high-temperature hydrogen output from the reformer, the temperature of the methanol water raw material increases, and the temperature of the hydrogen decreases. The methanol water raw material enters the heating gasification pipeline 1038 for gasification after exchanging heat in the heat exchanger; the gasified methanol vapor and water vapor enter the reforming chamber, and the reforming chamber is equipped with a catalyst.

The entirety of the reformer 103 is roughly a hollow cylinder 1031 , and a gas outlet 1032 is provided on the upper part of the hollow cylinder 1031 . One end of the reformer 103 is equipped with a starting device 108, the starting device 108 includes a cup holder 1033, and the cup holder 1033 is equipped with a methanol water preheating pipeline, a heating gasification pipeline, an ignition device and a temperature detection device; The raw material input pipeline inputs methanol and water raw materials, and the raw material input pipeline is connected with the heating gasification pipeline. After the methanol and water raw materials enter the heating gasification pipeline through the raw material input pipeline, they are output from the end of the heating gasification pipeline; the ignition The position of the device corresponds to the end of the heating gasification pipeline, and is used to ignite the methanol and water raw materials output from the heating gasification pipeline. The methanol and water raw materials are ignited by the ignition device and then burned, and the heating gasification pipeline is heating, so that the methanol and water raw materials in the heating gasification pipeline are gasified to rapidly increase the combustion intensity, and then heat the reformer; the temperature detection device is used to detect the temperature beside the heating gasification pipeline; After the whole unit is started to produce hydrogen, part of the hydrogen or/and residual gas produced by the reformer is burned to maintain the operation of the reformer.

An air inlet cover is installed on the bottom side of the cup holder 1033, and the air inlet cover is provided with an air duct through which outside air can enter the reforming device; the raw material input pipeline is provided with a solenoid valve, In order to control the opening or closing of the raw material input pipeline, and at the same time control the flow of the raw material input pipeline. After the hydrogen production equipment is started, the hydrogen production equipment provides the energy required for operation through the hydrogen produced by the hydrogen production device; at this time, the starting device can be turned off. Since part of the hydrogen or/and residual gas produced by the hydrogen production device is burned to maintain the operation of the hydrogen production equipment, the dependence on external energy sources can be reduced, and the self-adaptive ability is strong.

As shown in Figure 3, the reforming chamber 1037 includes a hollow cylindrical shell, and a catalyst 1039 is arranged in the hollow cylindrical shell; part or all of the heating and gasification pipeline 1038 is arranged in the hollow cylindrical shell and wrapped by the catalyst 1039, effectively Protect the heating gasification pipeline. Through this improvement, the present invention can better preheat the methanol-water liquid, avoid peeling and detachment of the heating gasification pipeline, and effectively prolong the service life of the pipeline.

In addition, in order to effectively utilize the heat of the residual gas, the methanol water preheating pipeline can exchange heat with the residual gas discharge pipeline. A part of the methanol water preheating pipeline is a threaded pipeline, and the threaded pipeline is used to transport methanol water raw materials; the threaded pipeline wraps the residual gas discharge pipeline of the reforming unit; the residual gas discharge pipeline passes through The temperature decreases after the threaded pipeline, and the temperature increases after the threaded pipeline passes through the residual gas discharge pipeline; one end of the threaded pipeline is provided with an input port, and the other end is provided with two output ports, and each output port is provided with a valve; One output port is connected to other parts of the methanol water delivery pipeline, and the other output port is connected to the input port through the circulation pipeline; a temperature sensor is set at the output port close to the threaded pipeline, and the temperature sensor is connected to the preheating controller; preheating The controller adjusts the switch of the two valves and the opening of the valve according to the temperature data of the temperature sensor and the raw material demand of the reforming equipment.

The hydrogen power generation equipment includes a fuel cell system 208 and a buffer power supply 206, and the fuel cell system 208 is connected to the buffer power supply 206; the buffer power supply 206 is a lithium battery or a supercapacitor.

Embodiment two

【Power generation monitoring】

The difference between this embodiment and Embodiment 1 is that in this embodiment, the hydrogen power generation equipment further includes a hydrogen transmission monitoring module, a power generation monitoring module, a power demand monitoring module, a power judgment module, a power switching module, a charging control module, Excess power delivery module.

The hydrogen delivery monitoring module is used to monitor the amount of hydrogen delivered by the methanol-water reforming hydrogen production equipment. The power generation monitoring module is used to monitor the real-time power produced by the fuel cell system using the hydrogen delivered by the methanol water reforming hydrogen production equipment. The power demand monitoring module is used to monitor real-time power demand. The electricity quantity judging module is used to compare the data obtained by the power generation monitoring module and the electricity demand monitoring module, judge the relationship between the real-time generated electricity and the real-time electricity demand, and feed back the comparison result to the power switching module , The excess power transmission module. The power switching module is used to control the buffer power supply to supply power to the electrical equipment with useful power demand when the real-time generated power obtained by the power judging module is less than the real-time power demand. The excess power transmission module is used to charge the excess power for the buffer power supply when the real-time power obtained by the power judging module is greater than the real-time power demand, or/and transfer part of the power to the methanol-water reforming hydrogen production equipment to provide electric energy for the power-demanding device of the methanol-water reforming hydrogen production equipment; the power-demanding device of the methanol-water reforming hydrogen production equipment includes an electric heater for heating the reforming chamber, a control circuit board, and various sensors .

The fuel cell system is connected to a low-temperature waste heat generator set, and the low-temperature waste heat generator set utilizes the heat energy of the fuel cell system, the temperature of the waste gas of the methanol water reforming hydrogen production equipment, and the combustion of the waste gas to generate electricity.

The low-temperature waste heat generator set is connected to the generator set switch control unit, and the generator set switch control unit is connected to several temperature sensors. When the data sensed by each temperature sensor meets the setting requirements, the low-temperature waste heat generator set is controlled to be turned on; when the data sensed by each temperature sensor When the set requirements are met, the low-temperature waste heat generating set is controlled to shut down.

The hydrogen power generation equipment also includes a control parameter recording module, a historical database, a historical data acquisition module, a real-time control parameter acquisition module, a data comparison module, and an adaptive module.

The control parameter recording module is used to record the control parameters into the historical database. The control parameters include the identification of the electrical equipment in operation, the average power of each electrical equipment in operation within a set period, environmental parameter data, and power generation Data, hydrogen supply, methanol water feedstock delivery. The historical database is used to store historical data of control parameters. The historical data obtaining module is used to obtain historical control parameters from a historical database. The real-time control parameter acquisition module is used to acquire real-time control parameters. The data comparison module is used to compare the real-time control parameters obtained by the real-time control parameter acquisition module with the historical control parameters obtained by the historical data acquisition module, focusing on comparing the identification of electrical equipment in work and the electricity consumption in each work. The average power and environmental parameter data of the equipment within the set period; obtain the historical control parameters with the highest similarity to the real-time control parameters. The self-adaptive module is used to store the methanol-water raw material according to the historical control parameters with the highest similarity obtained by the data comparison module, and use it as a reference for the amount of hydrogen produced in the initial start-up state.

Embodiment Three

【Methanol water collection】

The difference between this embodiment and Embodiment 1 is that in this embodiment, the methanol water reforming hydrogen production equipment further includes: a methanol water collection device, a methanol concentration sensor, a concentration adjustment device, and a high-concentration methanol water container.

The fuel cell system includes a water collection device, a first heat exchange device, and an air compression device. The methanol preparation equipment includes a carbon dioxide delivery interface and a hydrogen delivery interface, the carbon dioxide delivery interface is connected to the carbon dioxide collection pipeline of the methanol water reforming hydrogen production equipment, and the hydrogen delivery interface is connected to the hydrogen delivery pipe of the methanol water reforming hydrogen production equipment road. The methanol water reforming hydrogen production equipment transports part of the produced hydrogen to the fuel cell system, and partly maintains the operation of the methanol water reforming hydrogen production equipment through combustion; transports the collected carbon dioxide to the methanol production equipment, and discharges the residual gas It is used to maintain the operation of methanol water reforming hydrogen production equipment through combustion. The fuel cell system transmits part of the generated electric energy to methanol-water reforming hydrogen production equipment and methanol preparation equipment, and the water collected by the fuel cell system is transported to methanol-water reforming hydrogen production equipment; the heat discharged by the fuel cell system passes through the first exchange The heating device is used to preheat the methanol water raw material of the methanol water reforming hydrogen production equipment.

The methanol preparation equipment produces methanol aqueous solution, which is sent to the methanol water reforming hydrogen production equipment. The methanol water collection device is connected to methanol production equipment, and is used to collect the methanol aqueous solution produced by the methanol production equipment. The methanol concentration sensor is arranged in the methanol water collecting device for sensing the concentration of methanol in the methanol aqueous solution. The concentration blending device includes a blending container, a first blending valve body, a second blending valve body, a third blending valve body, a stirring mechanism, and a blending control unit. The first blending valve body and the second blending valve body are respectively provided with valve bodies control mechanism. The methanol water collection device, water collection device, and high-concentration methanol water container are respectively connected to the blending container through their respective pipelines and delivery pumps, and the stirring mechanism is arranged in the blending container.

The methanol water collection device is provided with a first distribution valve body, the water collection device is provided with a second distribution valve body, and the high-concentration methanol water container is provided with a third distribution valve body; the distribution control unit calculates the methanol aqueous solution or/or Proportioning with water or/and high-concentration methanol aqueous solution, controlling the switch of the methanol-water collection device, water collection device, and high-concentration methanol-water container corresponding to the blending valve body, so that the concentration of methanol in the methanol aqueous solution blended in the blending container reaches the set value. Value.

Embodiment Four

[Automatic injection of raw materials]

The difference between this embodiment and Embodiment 1 is that in this embodiment, the base station also includes a main storage container, and the main storage container includes a first liquid level identification unit, a valve, a delivery pump body, and a connecting pipeline; the first liquid level The identification unit is used to identify the liquid level of the main storage container, and the connecting pipeline is equipped with a valve and a delivery pump body;

The storage container is provided with a second liquid level identification mechanism to identify the liquid level of the storage container; when the liquid level in the storage container is lower than the set value, the delivery pump body transports the methanol water raw material from the main storage container to the storage container .

Embodiment five

【Voice Recognition Control】

The difference between this embodiment and Embodiment 1 is that in this embodiment, the water-hydrogen generator further includes a voice database, a voice recognition module, a voice command execution module, a voice self-learning module, and a voice database update module.

The voice database is used to store voice data and execution commands corresponding to each voice data; the voice recognition module is used to compare the acquired voice data with the voice data in the voice database, if there is a matching voice data, and the comparison result is fed back to the voice command execution module; the voice command execution module is used to execute the corresponding command according to the recognition result of the voice recognition module; It sets specific voice comparison data; the voice comparison data is obtained through the self-study of the user's pronunciation habits through the voice self-learning module; the voice database update module is used to set the voice self-learning module for the set user The specific voice comparison data is updated to the voice database, so that the user is set in the voice database to have a specific voice comparison database.

Specifically, the voice self-learning module is used to obtain the user's first voice data, judge whether the first voice data has a record, if there is no record, initialize its voice value sequence; if there is a record, then obtain the first voice data voice value sequence; at least one data is recorded in the voice value sequence, the data represents the voice value of certain voice data and another voice data, when the voice value reaches the set threshold, it means that certain voice data is similar to another voice data, think that both correspond to the same voice command;

If the voice recognition module fails to find the corresponding voice data in the voice database, or the user feedbacks that the voice recognition module recognizes an error; if the user sends out the second voice data within the set time and is successfully recognized by the voice recognition module, or the user uses other means Send the control command, the voice data corresponding to the control command is the second voice data; then the voice value corresponding to the second voice data of the first voice data is increased by the set value, and then, it is judged whether the voice value reaches the set threshold; if it reaches If the threshold is set, then in the voice comparison database corresponding to the user, the first voice data is added to the voice data corresponding to the control command corresponding to the second voice data, and the comparison priority of the first voice data is higher than that of the second voice data. The data is preferentially compared in the subsequent comparison process.

Embodiment six

【Gesture Recognition Control】

The difference between this embodiment and Embodiment 1 is that in this embodiment, the water-hydrogen generator further includes a gesture database, a gesture recognition module, a gesture command execution module, a gesture self-learning module, and a gesture database update module. The gesture database is used to store gesture data and execution commands corresponding to each gesture data. The gesture recognition module is used to compare the acquired gesture data with the gesture data in the gesture database, and if there is matching gesture data in the gesture database, the comparison result is fed back to the gesture command execution module. The gesture command execution module is used to execute corresponding commands according to the recognition result of the gesture recognition module. The gesture self-learning module is used to set specific gesture comparison data for the user according to the user's gesture habits; the gesture comparison data is obtained through self-learning by the gesture self-learning module according to the user's gesture habits. The gesture database update module is used to update the specific gesture comparison data set by the gesture self-learning module for the set user into the gesture database, so that the set user in the gesture database has a specific gesture comparison database.

Specifically, the gesture self-learning module is used to obtain the user's first gesture data, determine whether the first gesture data has a record, if there is no record, initialize its gesture value sequence; if there is a record, then acquire the first gesture data The gesture value sequence; at least one data is recorded in the gesture value sequence, which represents the gesture value of a certain gesture data and another gesture data. When the gesture value reaches the set threshold, it means that a certain gesture data is similar to another gesture data. Both are considered to correspond to the same gesture command. If the gesture recognition module fails to find the corresponding gesture data in the gesture database, or the user feedbacks that the gesture recognition module recognizes errors; if the user sends out the second gesture data within the set time, the gesture recognition module recognizes it successfully, or the user passes other The control command is sent through the channel, and the gesture data corresponding to the control command is the second gesture data; then the gesture value corresponding to the second gesture data of the first gesture data is increased by the set value, and then it is judged whether the gesture value reaches the set threshold ; If the set threshold is reached, in the gesture comparison database corresponding to the user, the first gesture data is added to the gesture data corresponding to the control command corresponding to the second gesture data, and the comparison priority of the first gesture data Data larger than the second gesture data will be compared first in the subsequent comparison process.

Embodiment seven

【Electricity Forecast】

The difference between this embodiment and Embodiment 1 is that in this embodiment, the hydro-hydrogen generator further includes a power consumption prediction module and a hydrogen buffer storage container. The electricity consumption prediction module is used to predict the electricity consumption within a set time according to historical data or/and electricity consumption habits of different users.

The power consumption prediction module includes a power consumption history database, a user living habit database, a user location information acquisition unit, a user identification unit, a user habit analysis unit, an electrical equipment habit analysis unit, and a power consumption prediction unit.

The power consumption history database is used to store the power consumption of each power consumption device within a set time, record which user opens each power consumption device, which user(s) uses it, and which user closes it; the user turns on/off the power consumption The user's living habits data and user's real-time location information within the set time of the device.

The user's living habits database is used to record the user's living habits data stored in the portable electronic terminal carried by the user at any time; the portable electronic terminal includes a main control chip, a myoelectric sensor, and a wireless communication module, and the main control chip is connected to the myoelectric sensor, The wireless communication module; the myoelectric sensor records the user's real-time myoelectric data.

The user location information obtaining unit is used to obtain real-time location information of the user.

Each electric device is equipped with a user identification unit, which is used to identify the user who opens and closes the electric device when the electric device is turned on or off, and at the same time identifies the electric device every set time Which user or users are used; the user identification unit is a face recognition device.

The user habit analysis unit is used to obtain the opening and closing time of each electric device based on the electricity consumption of each user for each electric device recorded in the electricity consumption history database, combined with the user's living habit data recorded in the user's living habit database. According to the electricity consumption history database, the user habit analysis unit judges whether the user will turn on the second electricity consumption device within the set time after each time the user turns on the first electricity consumption equipment, or whether to turn on the second electricity consumption equipment The probability exceeds the set threshold; if so, the set data is sent to the power consumption prediction unit; the power consumption prediction unit judges that the power consumption is within the set time when the user identification unit recognizes that the user turns on the first electric device. The second electrical equipment is expected to be turned on; the user habit analysis unit is used to judge whether the usage of each electrical equipment and the change rule of the user's electromyographic data meet the set threshold, and if so, the usage of each electrical equipment The situation is associated with the user's myoelectric data change rule; if the same user's myoelectric data change rule occurs, it will be used as an advance prediction for the use of the electrical equipment and sent to the power consumption prediction unit; When the user's myoelectric data sensed by the electric sensor has a corresponding change rule, the usage of the corresponding electric device at the set time is predicted.

The electrical equipment habit analysis unit is used to obtain the related information of the switch of the electrical equipment according to the power consumption of each electrical equipment recorded in the electricity consumption history database, and obtain the law of opening and closing of each electrical equipment; The electrical equipment habit analysis unit judges whether each electrical equipment is turned on in a certain time interval according to the electricity consumption history database; if so, sends the setting data to the power consumption prediction unit; Prepare hydrogen storage in advance before the interval arrives.

The power consumption prediction unit is used to predict and set according to the data of the electricity consumption history database, the user's living habit database, the portable electronic terminal, the user location information acquisition unit, the user identification unit, the user habit analysis unit, and the electrical equipment habit analysis unit According to the power consumption situation within a certain period of time, if there is electricity consumption exceeding the set threshold within the predicted set time, control the methanol water reforming hydrogen production equipment to increase the hydrogen production capacity, and store part of the hydrogen in the hydrogen buffer storage container as electricity buffering;

The power consumption prediction unit is also provided with an electrical equipment selection panel for the user to select the electrical equipment to be turned on within a set time; after receiving the information fed back by the user, the prediction is made according to the user's choice.

The hydrogen buffer storage container is used to store part of the hydrogen generated by the methanol-water reforming hydrogen production equipment to prepare for subsequent hydrogen power generation equipment to generate electricity.

A hydrogen pressure sensor is arranged in the hydrogen buffer storage container to sense the air pressure in the hydrogen buffer storage container.

The methanol water reforming hydrogen production equipment includes a hydrogen delivery pump body and a hydrogen delivery controller. The hydrogen delivery controller controls the delivery power of the hydrogen delivery pump body according to the real-time air pressure data sensed by the hydrogen pressure sensor; The gas pressure in the storage vessel increases and decreases as the gas pressure in the hydrogen buffer storage vessel decreases.

The hydrogen buffer storage container is provided with a volume adjustment mechanism to adjust the volume of the hydrogen buffer storage container according to the pressure in the hydrogen buffer storage container; if the pressure in the hydrogen buffer storage container exceeds/lower than the set pressure, The volume adjustment mechanism increases/decreases the volume of the hydrogen buffer storage container by adjusting the position of the side wall.

The base transceiver station and the base station controller are respectively provided with a temperature sensor and a water-cooled heat dissipation device, and the water-cooled heat dissipation device includes a heat dissipation pipeline arranged in the base station transceiver station and the base station controller; the heat dissipation pipeline is connected to the storage container, and the heat dissipation pipeline is provided with The valve, the valve is connected to the valve controller; the valve controller is connected to the temperature sensor set by the base transceiver station and the base station controller, and controls the switch of the corresponding valve according to the temperature information sensed by the corresponding temperature sensor;

The base transceiver station, base station controller, and water-hydrogen generator send their respective information to the same control center for shared information and unified control.

Embodiment eight

The difference between this embodiment and Embodiment 1 is that in this embodiment, the reforming device further includes a quick-start device; the quick-start device provides start-up energy for the methanol-water reforming hydrogen production equipment. The quick starting device includes a first starting device and a second starting device. The first starting device includes a first heating mechanism and a first gasification pipeline, the inner diameter of the first gasification pipeline is 1-2mm, and the first gasification pipeline is tightly wound on the first heating mechanism; the One end of the first gasification pipeline is connected to the storage container, and methanol is sent into the first gasification pipeline through the raw material delivery device; the other end of the first gasification pipeline outputs the gasified methanol, which is then ignited and burned by the ignition mechanism or, the other end of the first gasification pipeline outputs gasified methanol, and the temperature of the output methanol reaches the autoignition point, and the methanol is directly self-ignited after being output from the first gasification pipeline. The second starting device includes a second gasification pipeline, the main body of the second gasification pipeline is arranged in the reforming chamber, and the methanol output from the first gasification pipeline or/and the second gasification pipeline is heavy Heating the second gasification pipeline while heating the whole room to gasify the methanol in the second gasification pipeline; the inner wall of the reforming chamber is provided with a heating pipeline, and a catalyst is placed in the heating pipeline; the quick start The device heats the reforming chamber by heating the heating pipeline; after the hydrogen production system is started, the hydrogen production system provides the energy required for operation through the hydrogen produced by the hydrogen production equipment.

The initial starting energy of the quick starting device can be several solar starting modules, and the solar starting modules include sequentially connected solar panels, solar power conversion circuits, and solar cells; the solar starting modules provide electric energy for the first heating mechanism; or, the The initial starting energy of the quick start device is a manual generator, and the manual generator stores the generated electric energy in the battery.

Embodiment nine

The difference between this embodiment and Embodiment 1 is that in this embodiment, the hydrogen production equipment includes an electromagnetic heating device (used to heat the reforming chamber and the separation chamber, and replace the combustion heating of methanol or hydrogen by electric heating); The hydrogen power generation equipment is connected to the hydrogen production equipment, and sends part of the direct current to the hydrogen production equipment; the hydrogen production equipment drives the electromagnetic heating device to heat the reforming chamber and the separation chamber through the direct current produced by itself; at the same time, it also sends out the direct current The equipment delivered to the system is used for the operation of each equipment, and at the same time, it is also used for the operation of the hydrogen power generation equipment itself.

The electromagnetic heating device includes a reforming cylinder forming a reforming chamber, a separation cylinder forming a separation chamber, a first heating coil arranged outside the reforming cylinder, a second heating coil outside the separation cylinder, the reforming cylinder, Separate the temperature sensor, pressure sensor, and electromagnetic controller in the cylinder; the electromagnetic controller controls the current of the first heating coil and the second heating coil according to the data sensed by the temperature sensor and pressure sensor, so that the reforming chamber and the separation chamber Instantly reaches the set temperature.

Embodiment ten

A base station powered by a water-hydrogen generator, comprising a water-hydrogen generator and a base station body; the base station body includes a base station tower, a base station antenna, a base transceiver station, and a base station controller; the base station tower is provided with a base station antenna, and the base transceiver stations are respectively connected Base station antenna, base station controller; the water-hydrogen generator is respectively connected to the base transceiver station, base station controller, and base station antenna through cables;

The water hydrogen generator includes a methanol-water hydrogen production device, a hydrogen fuel cell, an air pump, and a control circuit board; the methanol-water hydrogen production device includes a delivery pump, a heat exchanger, a reformer, and a membrane separator;

The methanol water storage container is provided with a first temperature sensor and a liquid level sensor, a second temperature sensor and a first flow sensor are provided in the heat exchanger, a third temperature sensor is provided in the reformer, and the gas flow inlet of the hydrogen fuel cell is , The air outlet is respectively equipped with a pressure sensor and a solenoid valve;

The control circuit board is respectively connected to the delivery pump, the second temperature sensor in the heat exchanger, the first flow sensor, the third temperature sensor in the reformer, the pressure sensor of the hydrogen fuel cell and the solenoid valve, and controls the operation of each component. Work;

Liquid methanol water raw material is stored in the methanol water storage container; the delivery pump is used to pump the methanol water raw material in the methanol water storage container to the reforming chamber of the reformer through the delivery pipeline; the heat exchanger Installed on the delivery pipeline of the methanol water raw material, the methanol water raw material is in the heat exchanger, and exchanges heat with the high-temperature hydrogen output from the reformer, the temperature of the methanol water raw material rises, and the temperature of the hydrogen gas decreases; the methanol water raw material is processed in the reforming chamber The hydrogen-containing gas is produced by reforming the hydrogen production reaction, and the hydrogen gas is obtained through the membrane separator; the air pump is connected to the hydrogen fuel cell, and the air is pumped into the hydrogen fuel cell; hydrogen and oxygen in the air undergo redox reactions through the hydrogen fuel cell to generate electricity .

To sum up, the base station that can utilize natural energy proposed by the present invention can work with the electric energy generated by methanol water reforming to produce hydrogen, and can supply power for communication base stations in places where there is no power grid, which improves the convenience of base station layout and saves energy. No polluting gas emissions, reducing environmental pollution. At the same time, natural energy can be effectively used to generate electricity, and excess electricity can be stored in the form of methanol, which can be used to generate electricity during power supply peaks. The invention is more conducive to fully utilizing energy, energy saving and environmental protection.

The description and application of the invention herein is illustrative and is not intended to limit the scope of the invention to the above-described embodiments. Variations and changes to the embodiments disclosed herein are possible, and substitutions and equivalents for various components of the embodiments are known to those of ordinary skill in the art. It should be clear to those skilled in the art that the present invention can be realized in other forms, structures, arrangements, proportions, and with other components, materials and components without departing from the spirit or essential characteristics of the present invention. Other modifications and changes may be made to the embodiments disclosed herein without departing from the scope and spirit of the invention.

Claims (6)

1. a kind of base station that can utilize natural energy resources, which is characterized in that set including water hydrogen generator, base station ontology, the second power generation Standby, second generating equipment is utilizing generating electricity by natural energy；Second generating equipment includes wind power plant, the sun At least one of energy generating equipment；

The base station ontology includes base station towers, antenna for base station, base transceiver station, base station controller, reserve battery；It is set on base station towers Antenna for base station is put, base transceiver station connects antenna for base station, base station controller respectively；

The water hydrogen generator, the second generating equipment connect base transceiver station, base station controller, standby electricity by cable respectively Pond, reserve battery connect base transceiver station, base station controller, antenna for base station respectively；

The water hydrogen generator includes methanol-water device for producing hydrogen, hydrogen fuel cell, air pump, control circuit board；Methanol-water hydrogen manufacturing Device includes delivery pump, heat exchanger, reformer, membrane separator；

The methanol-water storage container is equipped with the first temperature sensor, liquid level sensor, and being equipped with second temperature in heat exchanger senses Device, first flow sensor, reformer is interior to be equipped with third temperature sensor, air flow inlet, the air stream outlet point of hydrogen fuel cell It She Zhi not pressure sensor and solenoid valve；

The control circuit board connects delivery pump respectively, and second temperature sensor, first flow sensor in heat exchanger are reformed Third temperature sensor in device, the pressure sensor and solenoid valve of hydrogen fuel cell, and control the work of all parts；

The methanol-water raw material of liquid is stored in the methanol-water storage container；The delivery pump is used for methanol-water storage container In methanol-water raw material the reformer chamber of reformer is pumped to by conveyance conduit；The heat exchanger is installed on the defeated of methanol-water raw material It send on pipeline, methanol-water raw material exchanges heat in heat exchanger with the high-temperature hydrogen of reformer output, methanol-water material temperature liter Height, hydrogen temperature reduce；Methanol-water raw material carries out reformation hydrogen production reaction in reformer chamber and hydrogen-containing gas is made, and passes through membrane separator Obtain hydrogen；Air pump connects hydrogen fuel cell, pumps air into hydrogen fuel cell；Hydrogen passes through hydrogen with the oxygen in air Fuel cell occurs redox reaction and produces electricl energy.

2. the base station according to claim 1 that natural energy resources can be utilized, it is characterised in that：

The base transceiver station, base station controller are respectively equipped with temperature sensor, water-cooling heat radiating device, and water-cooling heat radiating device includes It is set to base transceiver station, the heat dissipation pipeline in base station controller；Heat dissipation pipeline connects storage container, and heat dissipation pipeline is equipped with valve Door, valve connecting valve controller；Valve positioner connection base transceiver station, the temperature sensor of base station controller setting, root According to the switch of the corresponding valve of temperature information control of corresponding temperature sensor sensing.

3. the base station according to claim 1 that natural energy resources can be utilized, it is characterised in that：

Respective information is sent to same control centre by the base transceiver station, base station controller, water hydrogen generator, shares letter Breath, is uniformly controlled.

4. the base station according to claim 1 that natural energy resources can be utilized, it is characterised in that：

The hydrogen fuel cell further includes hydrogen conveying monitoring module, generated energy monitoring modular, electricity demand monitoring modular, electricity and sentences Disconnected module, power supply handover module, charge control module, extra electricity conveyor module；

The hydrogen conveying monitoring module is monitoring the amounts of hydrogen of methanol-water reformation hydrogen production equipment conveying；

The generated energy monitoring modular is conveyed to monitor the fuel cell system using the methanol-water reformation hydrogen production equipment Hydrogen electricity obtained in real time；

The electricity demand monitoring modular is monitoring real-time power demand；

The electricity judgment module compares to the data for obtaining the generated energy monitoring modular with electricity demand monitoring modular It is right, judge electricity obtained in real time and the relationship of real-time power demand, and comparison result is fed back into power supply handover module, extra Electricity conveyor module；

The power supply handover module is to when electricity judgment module obtains that electricity obtained is less than real-time power demand in real time, control Buffered sources processed are the power supply for electrical equipment for having power demand；

The extra electricity conveyor module is more than real-time power demand to obtain electricity obtained in real time in electricity judgment module When, charging for buffered sources or/and part electricity is delivered to the methanol-water reformation hydrogen production extra electric energy sets It is standby, electric installation is needed to provide electric energy for the methanol-water reformation hydrogen production equipment；The methanol-water reformation hydrogen production equipment needs Denso Put electric heater and control circuit board, each sensor including being heated for reformer chamber；

The fuel cell system connects low-temperature cogeneration unit, and low-temperature cogeneration unit utilizes the heat of fuel cell system Energy, the residual air temperature of the methanol-water reformation hydrogen production equipment and residual air combustion power generation；

The low-temperature cogeneration unit connects generating set switch control unit, and the connection of generating set switch control unit is several Temperature sensor, when the data of each temperature sensor senses meet sets requirement, control low-temperature cogeneration unit is opened； When the data of each temperature sensor senses meet sets requirement, control low-temperature cogeneration unit is closed.

5. the base station according to claim 1 that natural energy resources can be utilized, it is characterised in that：

The hydrogen fuel cell further includes control parameter logging modle, historical data base, in real time historical data acquisition module, control Parameter acquisition module, data comparing module, adaptation module；

Recording control parameter into historical data base, control parameter is included in work the control parameter logging modle Electrical equipment in electrical equipment mark, each work is setting the mean power in the period, ambient parameter data, generated energy number According to, hydrogen supply, methanol-water feedstock transportation amount；

The historical data base to storing control parameter historical data；

The historical data acquisition module is to the acquisition history control parameter from historical data base；

The real-time control parameter acquisition module is obtaining real-time control parameter；

The data comparing module obtains to the real-time control parameter for obtaining real-time control parameter acquisition module with historical data The history control parameter that modulus block obtains is compared, emphatically the electrical equipment mark in comparison work, the electricity consumption in each work Equipment is setting the mean power in the period, ambient parameter data；It obtains and the highest history control of real-time control parameter similarity Parameter processed；

The adaptation module is to the highest history control parameter deposit of similarity that is obtained according to the data comparing module Methanol-water raw material, and in this, as the reference for being initially powered up hydrogen manufacturing amount under state.

6. the base station according to claim 1 that natural energy resources can be utilized, it is characterised in that：

The water hydrogen generator further includes electricity demand forecasting module, hydrogen buffering storage container；

The electricity demand forecasting module is to according in the consumption habit of historical data or/and different user prediction setting time Electricity consumption；

The electricity demand forecasting module includes electricity consumption historical data base, user's living habit database, customer position information and obtains Unit, user identification unit, user are accustomed to analytic unit, electrical equipment custom analytic unit, electricity demand forecasting unit；

The electricity consumption historical data base records each electricity consumption and sets to store the electricity consumption situation of each electrical equipment in setting time It is standby to be opened by which user, closed by which or which user's use, by which user；User beats opening/closing electrical equipment and sets User's living habit data, user's real-time position information in fixing time；

User's living habit database is practised to record the user for the portable electronic piece terminal storage that user carries at any time life Used data；The portable electronic piece terminal includes Master control chip, myoelectric sensor, wireless communication module, Master control chip difference Connect myoelectric sensor, wireless communication module；Myoelectric sensor records the real-time myoelectricity data of user；

The customer position information acquiring unit is obtaining the real-time position information of user；

Each electrical equipment is respectively provided with user identification unit, and the user identification unit is to when opening electrical equipment, closing Identification opens, closes the user of the electrical equipment during electrical equipment, at the same every setting time identify electrical equipment by which or Which user uses；The user identification unit is face recognition device；

The user is accustomed to analytic unit to the use according to each user that electricity consumption historical data base records to each electrical equipment Electric situation with reference to user's living habit data of user's living habit data-base recording, therefrom show that each electrical equipment is opened And the rule closed；The user is accustomed to analytic unit according to electricity consumption historical data base, judges that set user opens first every time The probability of the second electrical equipment of the second electrical equipment or opening whether can be opened after electrical equipment all in setting time is more than Given threshold；If so, setting data are sent to electricity demand forecasting unit；The electricity demand forecasting unit identifies single in user When member recognizes the user the first electrical equipment of opening, judge that the second electrical equipment is expected to be opened in setting time；Institute It states user and is accustomed to analytic unit to judge whether the service condition of each electrical equipment meets with user's myoelectricity data variation rule Given threshold, if satisfied, being then associated with the service condition of each electrical equipment with user's myoelectricity data variation rule；If occur identical The look-ahead that is used as the electrical equipment of user's myoelectricity data variation rule, and be sent to electricity demand forecasting unit；Institute Electricity demand forecasting unit is stated when the user's myoelectricity data for recognizing myoelectric sensor sensing have corresponding changing rule, prediction pair Using electric equipment setting time service condition；

The electrical equipment is accustomed to analytic unit to the electricity consumption feelings of each electrical equipment recorded according to electricity consumption historical data base Condition obtains the related information of wherein electrical equipment switch, therefrom obtains the rule that each electrical equipment unlatches and closes；Electricity consumption is set Standby custom analytic unit judges sometime section, each electrical equipment is no to be opened according to electricity consumption historical data base；If so, Setting data are then sent to electricity demand forecasting unit；The electricity demand forecasting unit does before time interval arrival and stores up in advance Hydrogen prepares；

The electricity demand forecasting unit to according to electricity consumption historical data base, user's living habit database, portable electronic piece terminal, Customer position information acquiring unit, user identification unit, user is accustomed to analytic unit, electrical equipment is accustomed to the data of analytic unit Predict the electricity consumption situation in setting time, if predict that the electric energy that given threshold is had more than in setting time needs consumption, control Methanol-water reformation hydrogen production equipment processed improves hydrogen manufacturing amount, and hydrogen partial is stored in hydrogen buffering storage container and is delayed as electricity consumption Punching；

The electricity demand forecasting unit is additionally provided with electrical equipment Selection Floater, with will be opened in setting time for selection by the user Electrical equipment；After the information for receiving user feedback, given a forecast judgement according to the selection of user；

The hydrogen buffering storage container is follow-up hydrogen fuel to store the hydrogen partial of methanol-water reformation hydrogen production equipment generation Cell power generation is prepared；

Hydrogen gas pressure sensor is equipped in the hydrogen buffering storage container, to sense the gas in hydrogen buffering storage container Pressure；

The methanol-water reformation hydrogen production equipment include hydrogen conveying the pump housing, hydrogen delivery controller, hydrogen delivery controller according to The transmission power of the real-time barometric information control hydrogen conveying pump housing of the hydrogen gas pressure sensor sensing；Transmission power is with hydrogen The increase of air pressure in gas buffer-stored container and increase, reduced with the reduction of air pressure in hydrogen buffering storage container；

The hydrogen buffering storage container is equipped with volume adjustment mechanism, to adjust the volume of hydrogen buffering storage container, according to Pressure size in hydrogen buffering storage container makes adjustments；If pressure in hydrogen buffering storage container is more than/less than setting pressure By force, volume adjustment mechanism increases/reduces the volume of hydrogen buffering storage container by adjusting the position of side wall.