TWI817868B - Hydrogen energy management system - Google Patents

Abstract

A hydrogen energy management system includes a management server, a hydrogen cylinder, a client software, and a cylinder exchange station. The management server collects a great amount of first judgment data and second judgment data. By analyzing the big data, time nodes and routes describing usual activities of a user can be learned. Further with time nodes and locations for exchanging the hydrogen cylinder, a detour and time that the user additionally spends to exchange the hydrogen cylinder can be analyzed. In the end, an optimized result can be obtained by analyzing the big data. This way, all users can exchange the hydrogen cylinder at suitable locations. At the same time, service providers can deploy the cylinder exchange station at reasonable construction costs, thus reducing initial investment costs in regions with insufficient hydrogen energy infrastructure and helping to increase the development speed of the green energy industry.

Description

Hydrogen energy management system

The invention relates to a construction and management mechanism for a hydrogen bottle exchange station, and in particular, to a hydrogen energy management system that can meet usage requirements and significantly reduce the construction cost of a hydrogen bottle exchange station.

According to reports, hydrogen energy is an important alternative to the existing petroleum system. It not only has high energy conversion efficiency, but also can achieve zero emission of waste gas. However, there are still many technical bottlenecks that have not been overcome at this stage, mainly the popularity of hydrogen bottle exchange stations. However, the cost of building a large number of hydrogen bottle exchange stations at one time is too high, making it difficult to attract funds to invest in infrastructure. Furthermore, the transportation cost of hydrogen cannot be reduced. Therefore, the excessive construction cost has formed a problem in the development of hydrogen. The threshold of energy, and the construction of complete infrastructure is the main thrust to reduce costs. Under this contradictory situation, our company actively develops hydrogen bottle exchange stations that can be constructed at low cost, and uses an effective management system to cooperate with big data. Analysis can significantly reduce the initial construction cost, and serve as a pioneer in the application of hydrogen energy. When the penetration rate of hydrogen energy increases, it will attract more capital investment. Therefore, how to establish a set of equipment that can be applied to infrastructure construction? Insufficient effective management system is the main technical problem that the present invention aims to overcome. In addition, considering the weight of the hydrogen bottle and the convenient operation during exchange, a more suitable method of replacing the hydrogen bottle will be further studied.

In view of this, the inventor has many years of experience in the manufacturing, development and design of related products. After detailed design and careful evaluation in view of the above goals, he finally arrived at a truly practical invention.

The technical problem to be solved by the present invention is to provide a hydrogen energy management system in view of the above-mentioned deficiencies in the existing technology.

A management server receives a plurality of first judgment data and a plurality of second judgment data through the network. The management server uses big data to analyze the above-mentioned first judgment data and the above-mentioned second judgment data, thereby establishing a set of hydrogen In the energy management mechanism, a hydrogen cylinder is formed with a gas nozzle, and a control box is protruding from the gas nozzle. The control box includes a gas cylinder certificate code, a microprocessor and a communication component, and a client software is loaded on In a mobile device of the user, and the mobile device has a GPS positioning system and a wireless network, the client software forms a short-distance connection communication with the communication element of the hydrogen cylinder through a communication protocol, and records the gas Bottle voucher code, the hydrogen bottle transmits the same time point when the gas nozzle starts circulation and the time point when the gas nozzle stops circulation to the client software, and then the GPS positioning system combines the map coordinates with the above time points to create a group The first judgment data, and the mobile device transmits the first judgment data to the management server through the wireless network, a hydrogen bottle exchange station includes a control host, an exchange station certificate code, at least one communication box and a Network device, the communication box forms a short-distance connection with the communication element of the hydrogen bottle through a communication protocol, and the hydrogen bottle exchange station records the gas bottle certificate code and the old and new hydrogen bottle exchanged with the client software At the time point, the control host uses the client software information, the gas cylinder certificate code, the exchange station certificate code and the time point to create a set of second judgment data, and the control host uses the network device to generate the second judgment data. 2. The judgment data is transmitted to the management server; among them, the hydrogen energy management mechanism hierarchically manages the fixed installation location, regular installation location and mobile installation location of the above-mentioned hydrogen bottle exchange station according to the usage habits and location distribution of each client software. stopping place, thereby reducing the construction and operating costs of the hydrogen bottle exchange station.

The management server receives a plurality of third judgment data through the network. The third judgment data is the time point when the client software receives the user's command to search for the nearby hydrogen bottle exchange station on the mobile device. GPS positioning, the management server uses big data to analyze the third judgment data and learns that many users need to find the time point and quantity distribution of the hydrogen bottle exchange station outside of their regular activity locations, thereby adjusting the hydrogen bottle exchange The location of the station.

The hydrogen energy management mechanism establishes a large-scale hydrogen bottle exchange station at the farthest fixed location. The farthest setting is based on the number of users in the entire area. When sufficient first judgment data and the second judgment data are collected, When judging the data, adjust the number and location of the large hydrogen bottle exchange stations based on the analysis results of the management server, and set up small hydrogen bottle exchange stations between the large hydrogen bottle exchange stations, and the small hydrogen bottle exchange stations Adopt regular setting locations. The so-called regular setting locations are defined as periodic placement of fixed locations.

The hydrogen energy management mechanism further includes a mobile hydrogen bottle exchange station. The mobile hydrogen bottle exchange station adopts a mobile stay location according to the reservation time of the client software. The so-called mobile stay location is defined as a specific period of stay at a fixed location.

The microprocessor of the control box is electrically connected to a battery unit, and the battery unit provides power for the control box, and the control host of the hydrogen bottle exchange station is connected to a charging unit, which retracts and releases the hydrogen bottle. When arriving at the hydrogen bottle exchange station, the charging unit wirelessly charges the battery unit.

The microprocessor of the control box is electrically connected to a pressure sensor and a temperature sensor. The pressure sensor detects the pressure change at the gas nozzle of the hydrogen bottle, and the temperature sensor detects the The temperature of the gas nozzle of the hydrogen bottle changes, and the microprocessor counts the filling times of the hydrogen bottle based on the pressure and temperature changes, thereby providing the client software with information on the production history data, filling times, and current pressure of the hydrogen bottle. value, current temperature value and residual hydrogen amount monitoring data, and when the number of filling times reaches the set number, the hydrogen bottle is placed into the hydrogen bottle exchange station for recycling.

The microprocessor of the control box is electrically connected to a gyroscope and a cutting device. When the gyroscope detects an obvious change in the placement angle of the hydrogen bottle, it sends a current signal to the microprocessor, and the microprocessor The device activates the cutting device and forcibly closes the air nozzle.

The hydrogen bottle exchange station is provided with a plurality of hydrogen bottle storage devices. The hydrogen bottle storage device includes a casing, a limit plate, at least one telescopic rod and a connecting plate. The limit plate is slidably installed at one end of the casing. , and the connecting plate is fixed on the other end of the housing, and the connecting plate is connected to the limiting plate with the telescopic rod. The limiting plate has an air nozzle hole on the outward side, and the air nozzle hole extends with a gap , and the gas nozzle hole and the gap are both connected to an inner chamber, and the hydrogen bottle passes through the gas nozzle hole with the gas nozzle, and the control box passes through the gap, and the hydrogen bottle is rotated to allow the control box to trigger the The hydrogen bottle storage device allows the telescopic rod to slide in conjunction with the limit plate to form the hydrogen bottle retracting and pushing out the hydrogen bottle storage device.

The inner chamber is provided with a first sensor adjacent to the notch, and a second sensor is provided away from the notch. When the first sensor is touched, the telescopic rod is controlled to extend, and the limit plate Far away from the connecting plate, and when the second sensor is touched, the telescopic rod is controlled to shorten, and the limiting plate is close to the connecting plate.

The hydrogen bottle exchange station further includes a control cabinet, which is juxtaposed on one side of the hydrogen bottle exchange station, and the control cabinet is electrically connected to the hydrogen bottle exchange station, and the control cabinet is equipped with There is at least one control panel and at least one payment unit. The control panel selects the available hydrogen bottle and pays a fee to the payment unit to unlock the selected hydrogen bottle.

The main purpose of the present invention is that the management server collects a large amount of the first judgment data and the second judgment data with each client software as a unit. Through the analysis of big data, it can be known that within the range of regular activity locations, The time nodes and routes of the user's frequent activities, combined with the time nodes and locations of the exchange of the hydrogen bottle, can be used to analyze the detours or extra route time the user needs to spend in order to replace the hydrogen bottle. In addition, through the data of a large number of users Use the data as a basis for further analysis to increase the accuracy of judgment, and finally use big data analysis to obtain optimized results, allowing all users to exchange the hydrogen bottles at suitable locations, and at the same time, service providers can also deploy at a reasonable construction cost The regional network of hydrogen bottle exchange stations can reduce initial investment costs in areas with insufficient hydrogen energy infrastructure, thereby increasing the investment willingness of service providers, thereby helping to increase the development speed of the green energy industry.

Other objects, advantages, and novel features of the present invention will become more apparent from the following detailed description and associated drawings.

In order to enable your review committee to have a further understanding and understanding of the purpose, characteristics and effects of the present invention, please cooperate with the following (simple explanation of the drawings) to elaborate as follows:

First, please view from Figure 1 to Figure 5, a hydrogen energy management system, which includes: a management server 10, a hydrogen bottle 20, a client software 30 and a hydrogen bottle exchange station 40, a management The server 10 receives a plurality of first judgment data 11 and a plurality of second judgment data 12 through the network, and the management server 10 analyzes the first judgment data 11 and the second judgment data 12 with big data, thereby Establish a hydrogen energy management mechanism 10A; a hydrogen cylinder 20 is formed with a gas nozzle 21, and a control box 22 is protruding from the gas nozzle 21. The control box 22 includes a gas cylinder certificate code 221 and a microprocessor 222 and a communication component 223, and the microprocessor 222 of the control box 22 is electrically connected to a battery unit 224, and the battery unit 224 provides power for the control box 22; a client software 30 is loaded on the user In a mobile device 31, the mobile device 31 has a GPS positioning system 32 and a wireless network 33. The client software 30 forms a short-distance connection communication with the communication element 223 of the hydrogen cylinder 20 through a communication protocol. The connection communication method can be Bluetooth or WiFi and other communication technologies. When the communication is established, the gas cylinder voucher code 221 is recorded to confirm that the hydrogen cylinder 20 is being used, and the hydrogen cylinder 20 will use the gas nozzle 21 at the same time. The starting circulation time point and the stop circulation time point of the air nozzle 21 are sent to the client software 30, and then the GPS positioning system 32 combines the map coordinates with the above-mentioned time points to create a set of the first judgment data 11. In other words, the first judgment data 11 is A judgment data 11 simultaneously marks the coordinates at the time when the hydrogen cylinder 20 starts or ends supplying hydrogen gas, and the mobile device 31 transmits the first judgment data 11 to the management server 10 through the wireless network 33. The hydrogen bottle exchange station 40 includes a control host 41, an exchange station certificate code 42, at least one communication box 43 and a network device 44. The communication box 43 forms a short distance with the communication element 223 of the hydrogen bottle 20 through a communication protocol. The connection communication method can be Bluetooth or WiFi and other communication technologies, and the control host 41 of the hydrogen bottle exchange station 40 is connected to a charging unit 45, and the hydrogen bottle 20 is retracted and released to the hydrogen bottle exchange station 40. When the charging unit 45 performs wireless charging on the battery unit 224, the hydrogen bottle exchange station 40 records the gas bottle voucher code 221 and the time point when the new and old hydrogen bottles 20 are exchanged with the client software 30, and then the The control host 41 uses the client software 30 information, the gas cylinder certificate code 221, the exchange station certificate code 42 and the time point to create a set of second judgment data 12, wherein the exchange station certificate code 42 is used to mark the hydrogen The position coordinates of the bottle exchange station 40, and the second judgment data 12 can know the cycle frequency of the user's replacement of the hydrogen bottle 20, and the residual gas volume the user is accustomed to when exchanging, and the control host 41 uses the network The device 44 transmits the second judgment data 12 to the management server 10 .

Continuing from Figure 1 to Figure 5, the management server 10 collects a large amount of the first judgment data 11 and the second judgment data 12 with each client software 30 as a unit. Through the analysis of big data, By knowing the time nodes and paths of the user's frequent activities within the range of regular activity locations, and then cooperating with the time nodes and locations of exchanging the hydrogen bottle 20, it is possible to analyze the detours or extra steps the user needs to make in order to replace the hydrogen bottle 20. The path time spent is further analyzed based on the usage data of a large number of users to increase the accuracy of judgment. Finally, big data analysis is used to obtain optimized results, so that all users can exchange the hydrogen bottle 20 at a suitable location. At the same time, service providers can also lay out the regional network of the hydrogen bottle exchange stations 40 at a reasonable construction cost, thereby reducing initial investment costs in areas with insufficient hydrogen energy infrastructure, thereby increasing the investment willingness of service providers so that they can have Helps to increase the development speed of the green energy industry. Furthermore, the hydrogen energy management mechanism 10A hierarchically manages the hydrogen bottle exchange stations 40 at fixed locations and regularly based on the usage habits and location distribution of each client software 30 . The installation location and the mobile stop location are as shown in Figures 6 and 7. The hydrogen energy management mechanism 10A establishes a large-scale hydrogen bottle exchange station 40A at the farthest fixed installation location. The farthest setting is based on the users in the entire area. Depending on the quantity, when enough first judgment data 11 and second judgment data 12 are collected, the quantity and location of the large-scale hydrogen bottle exchange station 40A are adjusted according to the analysis results of the management server 10, and the large-scale hydrogen bottle exchange station 40A is installed. A small hydrogen bottle exchange station 40B is set between the bottle exchange stations 40A, and the small hydrogen bottle exchange station 40B adopts a regular setting location. The so-called regular setting location is defined as a periodic placement at a fixed location, such as the exchange of the same small hydrogen bottle. Station 40B is placed at a fixed location on Sundays, Mondays, Tuesdays, and Wednesdays, and at another fixed location on Thursdays, Fridays, and Saturdays, so that a small hydrogen bottle exchange station 40B can serve two fixed locations and can move small hydrogen bottles. The bottle exchange station 40B replaces the replenishment of the hydrogen bottle 20, thereby reducing costs and saving manpower. In addition, the hydrogen energy management mechanism 10A further includes a mobile hydrogen bottle exchange station 40C. The mobile hydrogen bottle exchange station 40C is based on the client software. The reservation time of 30 adopts the mobile stay place. The so-called mobile stay place is defined as a stay at a fixed place for a specific period of time. For example, when an appropriate number of users in the same area make reservations to exchange the hydrogen bottle 20 at the same time, the mobile stay is at a fixed place according to the reservation time. This type of hydrogen bottle exchange station 40C, which can stay for half a day in a vehicle-mounted state, can provide sufficient exchange services in remote areas or areas with minimal users, and there is no need to spend a lot of money to build too many such stations when the penetration rate is insufficient. Hydrogen bottle exchange station 40, thereby reducing the construction and operation costs of the hydrogen bottle exchange station 40.

As shown in Figure 1 to Figure 5, the microprocessor 222 of the control box 22 is electrically connected to a pressure sensor 225 and a temperature sensor 226. The pressure sensor 225 detects the hydrogen cylinder. 20, the temperature sensor 226 detects the temperature change at the gas nozzle 21 of the hydrogen bottle 20, and the microprocessor 222 counts the filling times of the hydrogen bottle 20 based on the pressure and temperature changes. , thereby providing the client software 30 with the monitoring data of the production history data, filling times, current pressure value, current temperature value and residual hydrogen amount of the hydrogen cylinder 20, and through the above data, the usage status of the hydrogen cylinder 20 can be monitored. , the hydrogen bottle 20 with abnormal data will be recycled and repaired by the service provider after the exchange, thereby improving the safety of use. In addition, when the number of filling times of the hydrogen bottle 20 reaches the set number, the hydrogen bottle 20 will be placed in the hydrogen bottle exchange station. 40 is recycled to maintain the performance and quality of each hydrogen cylinder 20 . On the other hand, the microprocessor 222 of the control box 22 is electrically connected to a gyroscope 227 and a cutting device 228. The gyroscope 227 can generate spatial dimensional coordinates, so it is known whether the hydrogen bottle 20 is currently lying down or standing. and other states, and the cutting device 228 can be an electromagnetic ball valve, which can block the gas nozzle 21 when it is energized. When the gyroscope 227 detects that there is an obvious change in the placement angle of the hydrogen bottle 20, the microprocessor 222 sends a current signal, and the microprocessor 222 activates the cutting device 228 to forcibly close the gas nozzle 21. This is applicable to situations such as when the user exchanges the hydrogen bottle 20, or when the vehicle overturns or overturns. The gas nozzle 21 of the hydrogen bottle 20 is cut off to improve its safety in use.

Furthermore, the management server 10 receives a plurality of third judgment data 13 through the network. The third judgment data 13 is that the client software 30 receives the user's order on the mobile device 31 to search for the nearby hydrogen bottle exchange station. The time point and GPS positioning at the time of the command 40, this situation usually occurs when the user is on a business trip, traveling or arriving in an area that is not often visited, so the hydrogen bottle exchange station 40 that is often visited is not selected, so the analysis of the The third judgment data 13 will help to meet the demand for exchanging the hydrogen cylinder 20 under non-routine use. The management server 10 analyzes the third judgment data 13 with big data and learns that many users are outside their regular activity locations. It is additionally necessary to find the time point and quantity distribution of the hydrogen bottle exchange stations 40. The areas with higher demand may be important transportation hubs or popular attractions. Although the local demand in the above areas is not high, during certain periods or holidays, The demand is quite high, so the service quality of this demand can be improved through the third judgment data 13, thereby adjusting the location of the hydrogen bottle exchange station 40.

Please also continue from Figure 7 to Figure 11. The hydrogen bottle exchange station 40 is provided with a plurality of hydrogen bottle storage devices 46. The hydrogen bottle storage device 46 includes a housing 461, a limit plate 462, and at least one telescopic rod. 463 and a connecting plate 464. The limiting plate 462 is slidably mounted on one end of the housing 461, and the connecting plate 464 is fixed on the other end of the housing 461. The connecting plate 464 is connected to the limiting plate with the telescopic rod 463. 462, the limiting plate 464 has a valve hole 4621 on the outward side, and the valve hole 4621 extends with a gap 4622, and the valve hole 4621 and the gap 4622 are both connected. There is an inner chamber 4623, and the hydrogen bottle 20 passes the gas nozzle 21 through the gas nozzle hole 4621, and the control box 22 passes through the gap 4622. The hydrogen bottle 20 is rotated to allow the control box 22 to trigger the storage of the hydrogen bottle. The device 46 allows the telescopic rod 463 to slide in conjunction with the limit plate 462 to form the hydrogen bottle 20 to retract and push out the hydrogen bottle storage device 46, wherein the inner chamber 4623 is provided with a first sensor adjacent to the gap 4622. 465, and a second sensor 466 is provided away from the notch 4622. When the first sensor 465 is touched, the telescopic rod 463 is controlled to extend. The limit plate 462 is away from the connecting plate 464, and when the first sensor 465 is touched, The second sensor 466 controls the telescopic rod 463 to shorten, and the limit plate 462 is close to the connecting plate 464. When the control box 22 swings to another position in the inner chamber 4623 due to rotation, the third The two sensors 466 sense the control box 22, and then drive the telescopic rod 463 to contract, pulling the hydrogen bottle 20 to automatically place it into the housing 461, thereby achieving the function of automatically storing the hydrogen bottle 20, and when desired When taking the hydrogen bottle 20, rotate the hydrogen bottle 20 in the opposite direction, so that the control box 22 is close to the first sensor 465 to form a induction, and then drive the telescopic rod 463 to extend, so that the hydrogen bottle 20 can be pushed out easily. To sum up, through the simple operation of rotating the hydrogen bottle 20, the function of automatically inserting and pushing out the hydrogen bottle 20 can be achieved, which not only has the function of labor-saving operation, but also prevents improper operation or failure to install correctly. situation, in order to improve the practicality of the hydrogen bottle exchange station 40. The hydrogen bottle exchange station 40 further includes a control cabinet 47. The control cabinet 47 is arranged on one side of the hydrogen bottle exchange station 40, and the control cabinet 47 is electrically connected to the hydrogen bottle exchange station 40. In addition, the control cabinet 47 is provided with at least one control panel 471 and at least one payment unit 472. The control panel 471 selects the available hydrogen bottle 20, and pays a fee to the payment unit 472 to allow the selected hydrogen bottle 20 to be used. Unlocking provides a payment mechanism and provides a variety of machine combinations, and also facilitates the management of the hydrogen bottle exchange station 40.

The above is only one of the preferred embodiments of the present invention, and should not be used to limit the scope of the present invention; that is, all equivalent changes and modifications made according to the patent scope of the present invention should still belong to the present invention. within the scope covered by the patent.

[Invention]

10:Manage server

10A: Hydrogen energy management mechanism

11: First judgment data

12: Second judgment data

13: Third judgment data

20:Hydrogen cylinder

21: Air nozzle

22:Control box

221: Gas cylinder voucher code

222:Microprocessor

223:Communication components

224:Battery unit

225: Pressure sensor

226:Temperature sensor

227: Gyroscope

228: Cut-off device

30:Client software

31:Mobile device

32:GPS positioning system

33:Wireless network

40:Hydrogen bottle exchange station

40A: Hydrogen bottle exchange station

40B: Hydrogen bottle exchange station

40C: Hydrogen bottle exchange station

41:Control host

42: Exchange station voucher code

43:Communication box

44:Network device

45:Charging unit

46:Hydrogen bottle storage device

461: Shell

462:Limit plate

4621: Valve hole

4622: Gap

4623:Inner room

463:Telescopic rod

464:Link disk

465:First sensor

466: Second sensor

47:Control cabinet

471:Control Panel

472: Paid unit

Figure 1 is a schematic diagram of the connection relationship for collecting second judgment data according to the present invention. Figure 2 is a block diagram of components for collecting second judgment data according to the present invention. Figure 3 is a schematic diagram of the connection relationship for collecting the first judgment data according to the present invention. Figure 4 is a block diagram of components for collecting first judgment data according to the present invention. Figure 5 is a schematic diagram of map coordinates for collecting first judgment data according to the present invention. Figure 6 is a schematic diagram of the hydrogen energy management mechanism of the present invention. Figure 7 is a perspective view of the large-scale hydrogen bottle exchange station of the present invention. Figure 8 is a front view of the hydrogen bottle storage device of the present invention. Figure 9 is a schematic diagram (1) of the rotating hydrogen bottle action of the present invention. Figure 10 is a schematic diagram (2) of the rotating hydrogen bottle action of the present invention. Figure 11 is a schematic diagram of the contraction action of the telescopic rod of the present invention.

22:Control box

221: Gas cylinder voucher code

222:Microprocessor

223:Communication components

224:Battery unit

225: Pressure sensor

226:Temperature sensor

227: Gyroscope

228: Cut-off device

40:Hydrogen bottle exchange station

41:Control host

42: Exchange station voucher code

43:Communication box

44:Network device

45:Charging unit

Claims (10)

A hydrogen energy management system includes: a management server that receives a plurality of first judgment data and a plurality of second judgment data through the network, and the management server analyzes the above-mentioned first judgment data and the above-mentioned second judgment data using big data. 2. Determine the data to establish a hydrogen energy management mechanism; a hydrogen cylinder, which is formed with a gas nozzle, and a control box is protruding from the gas nozzle. The control box includes a gas cylinder voucher code, a microprocessor device and a communication component; a client software, which is loaded in a mobile device of the user, and the mobile device has a GPS positioning system and a wireless network, the client software communicates with the hydrogen cylinder through a communication protocol The communication component forms a short-distance line communication and records the gas cylinder voucher code. The hydrogen cylinder transmits the same time point when the gas nozzle starts flowing and the time when the gas nozzle stops flowing to the client software, and then the hydrogen cylinder transmits the same time point when the gas nozzle starts flowing and when the gas nozzle stops flowing. The GPS positioning system combines the map coordinates with the above-mentioned time point to create a set of first judgment data, and the mobile device transmits the first judgment data to the management server through the wireless network; and a hydrogen bottle exchange station, which It includes a control host, an exchange station certificate code, at least one communication box and a network device. The communication box forms a short-distance connection communication with the communication element of the hydrogen bottle through a communication protocol. The hydrogen bottle exchange station records the same The client software exchanges the gas cylinder voucher code and time point of the old and new hydrogen bottles, and then the control host creates a group of the client software information, the gas cylinder voucher code, the exchange station voucher code and the time point. The control host transmits the second judgment data to the management server using the network device; wherein, the hydrogen energy management mechanism is hierarchical based on the usage habits and location distribution of each client software. The above-mentioned hydrogen bottle exchange station is managed using fixed installation locations, regular installation locations and mobile stop locations, thereby reducing the construction and operation costs of the hydrogen bottle exchange station. The hydrogen energy management system as described in claim 1, wherein the management server receives a plurality of third judgment data through the network, and the third judgment data is when the client software receives a user's search for nearby items on the mobile device. Based on the time point and GPS positioning of the command of the hydrogen bottle exchange station, the management server used big data to analyze the third judgment data and learned that many users needed to find the hydrogen bottle exchange station in addition to their regular activity locations. Point and quantity distribution, thereby adjusting the location of the hydrogen bottle exchange station. The hydrogen energy management system as described in claim 2, wherein the hydrogen energy management mechanism establishes a large-scale hydrogen bottle exchange station at a fixed location with the farthest setting. The farthest setting is based on the number of users in the entire area. When When sufficient first judgment data and second judgment data are collected, the number and location of the large hydrogen bottle exchange stations are adjusted according to the analysis results of the management server, and small hydrogen bottle exchange stations are set up between the large hydrogen bottle exchange stations. The small hydrogen bottle exchange station adopts a regular setting location. The so-called regular setting location is defined as a periodic placement at a fixed location. The hydrogen energy management system as described in claim 3, wherein the hydrogen energy management mechanism further includes a mobile hydrogen bottle exchange station, and the mobile hydrogen bottle exchange station adopts a mobile stop location according to the reservation time of the client software, so-called A mobile stop is defined as a stay at a fixed location for a specific period of time. The hydrogen energy management system as described in claim 1, wherein the microprocessor of the control box is electrically connected to a battery unit, and the battery unit provides power for the control box, and the control of the hydrogen bottle exchange station The host is connected to a charging unit, and when the hydrogen bottle is stored and stored in the hydrogen bottle exchange station, the charging unit wirelessly charges the battery unit. The hydrogen energy management system of claim 1, wherein the microprocessor of the control box is electrically connected to a pressure sensor and a temperature sensor, and the pressure sensor detects the gas nozzle of the hydrogen bottle When the pressure changes, the temperature sensor detects the temperature change at the gas nozzle of the hydrogen bottle, and the microprocessor counts the filling times of the hydrogen bottle based on the pressure and temperature changes, thereby providing the client software with knowledge of the The hydrogen bottle's production history data, filling times, current pressure value, current temperature value and monitoring data of residual hydrogen amount are monitored. When the filling times reach the set number, the hydrogen bottle is placed in the hydrogen bottle exchange station for recycling. The hydrogen energy management system as described in claim 1, wherein the microprocessor of the control box is electrically connected to a gyroscope and a cutting device, and the gyroscope detects an obvious change in the placement angle of the hydrogen bottle, and the The microprocessor sends a current signal, and the microprocessor activates the cutting device to forcibly close the air nozzle. The hydrogen energy management system of claim 1, wherein the hydrogen bottle exchange station is provided with a plurality of hydrogen bottle storage devices, and the hydrogen bottle storage device includes a shell, a limit plate, at least one telescopic rod and a connecting plate , the limit plate is slidably mounted on one end of the casing, and the connecting plate is fixed on the other end of the casing, and the connecting plate is connected to the limit plate with the telescopic rod, and the limit plate has an opening on the outward side. There is a gas nozzle hole, and the gas nozzle hole extends with a gap, and the gas nozzle hole and the gap are connected with an inner chamber, and the hydrogen bottle passes through the gas nozzle hole with the gas nozzle, and the control box passes through the gas nozzle hole. Notch, rotate the hydrogen bottle to allow the control box to trigger the hydrogen bottle storage device, and allow the telescopic rod to slide in conjunction with the limit plate to form the hydrogen bottle to retract and push out the hydrogen bottle storage device. The hydrogen energy management system of claim 8, wherein the inner chamber is provided with a first sensor adjacent to the gap, and a second sensor is provided away from the gap. When the first sensor is triggered, When the second sensor is activated, the telescopic rod is controlled to extend, and the limit plate is away from the connecting plate. When the second sensor is touched, the telescopic rod is controlled to shorten, and the limit plate is close to the connecting plate. The hydrogen energy management system as described in claim 9, wherein the hydrogen bottle exchange station further includes a control cabinet, the control cabinet is juxtaposed on one side of the hydrogen bottle exchange station, and the control cabinet exchanges with the hydrogen bottle The stations are electrically connected, and the control cabinet is provided with at least one control panel and at least one payment unit. The control panel selects the available hydrogen bottle and pays a fee to the payment unit to unlock the selected hydrogen bottle. .

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