CN105576807B - Self-powered communication base station manages system - Google Patents

Self-powered communication base station manages system Download PDF

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Publication number
CN105576807B
CN105576807B CN201610117177.9A CN201610117177A CN105576807B CN 105576807 B CN105576807 B CN 105576807B CN 201610117177 A CN201610117177 A CN 201610117177A CN 105576807 B CN105576807 B CN 105576807B
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power generation
generator
sensor
current sensor
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CN105576807A (en
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夏从新
宋国祥
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Henan Normal University
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    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02JCIRCUIT ARRANGEMENTS OR SYSTEMS FOR SUPPLYING OR DISTRIBUTING ELECTRIC POWER; SYSTEMS FOR STORING ELECTRIC ENERGY
    • H02J7/00Circuit arrangements for charging or depolarising batteries or for supplying loads from batteries
    • H02J7/34Parallel operation in networks using both storage and other DC sources, e.g. providing buffering
    • H02J7/35Parallel operation in networks using both storage and other DC sources, e.g. providing buffering with light sensitive cells
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F03MACHINES OR ENGINES FOR LIQUIDS; WIND, SPRING, OR WEIGHT MOTORS; PRODUCING MECHANICAL POWER OR A REACTIVE PROPULSIVE THRUST, NOT OTHERWISE PROVIDED FOR
    • F03DWIND MOTORS
    • F03D9/00Adaptations of wind motors for special use; Combinations of wind motors with apparatus driven thereby; Wind motors specially adapted for installation in particular locations
    • F03D9/007Adaptations of wind motors for special use; Combinations of wind motors with apparatus driven thereby; Wind motors specially adapted for installation in particular locations the wind motor being combined with means for converting solar radiation into useful energy
    • HELECTRICITY
    • H02GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
    • H02JCIRCUIT ARRANGEMENTS OR SYSTEMS FOR SUPPLYING OR DISTRIBUTING ELECTRIC POWER; SYSTEMS FOR STORING ELECTRIC ENERGY
    • H02J9/00Circuit arrangements for emergency or stand-by power supply, e.g. for emergency lighting
    • H02J9/04Circuit arrangements for emergency or stand-by power supply, e.g. for emergency lighting in which the distribution system is disconnected from the normal source and connected to a standby source
    • H02J9/06Circuit arrangements for emergency or stand-by power supply, e.g. for emergency lighting in which the distribution system is disconnected from the normal source and connected to a standby source with automatic change-over, e.g. UPS systems
    • H02J9/08Circuit arrangements for emergency or stand-by power supply, e.g. for emergency lighting in which the distribution system is disconnected from the normal source and connected to a standby source with automatic change-over, e.g. UPS systems requiring starting of a prime-mover
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02BCLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
    • Y02B10/00Integration of renewable energy sources in buildings
    • Y02B10/70Hybrid systems, e.g. uninterruptible or back-up power supplies integrating renewable energies
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/70Wind energy
    • Y02E10/72Wind turbines with rotation axis in wind direction
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/70Wind energy
    • Y02E10/76Power conversion electric or electronic aspects
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E70/00Other energy conversion or management systems reducing GHG emissions
    • Y02E70/30Systems combining energy storage with energy generation of non-fossil origin

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  • Engineering & Computer Science (AREA)
  • Power Engineering (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Sustainable Energy (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Business, Economics & Management (AREA)
  • Emergency Management (AREA)
  • Arrangements For Transmission Of Measured Signals (AREA)
  • Charge And Discharge Circuits For Batteries Or The Like (AREA)

Abstract

本发明公开了一种自供电通讯基站管理系统,太阳能发电装置通过太阳能发电充电控制器与蓄电池电性连接,风力发电装置通过风力发电充电控制器与蓄电池电性连接,发电机发电装置通过发电机发电充电控制器与蓄电池电性连接,该蓄电池通过线路分别与发电机蓄电池的充电端、中央控制单元的电源端和通讯基站的电源端电性连接,发电机蓄电池用于为发电机的启动提供电源。本发明是基于太阳能发电、风力发电和发电机发电为基础的通讯基站电力管理系统,能够更好地分配和管理这三种电量之间的关系以及通讯基站故障的检测。

The invention discloses a self-powered communication base station management system. A solar power generation device is electrically connected to a storage battery through a solar power generation charging controller, a wind power generation device is electrically connected to a storage battery through a wind power generation charging controller, and a generator power generation device is connected through a generator. The power generation charging controller is electrically connected with the storage battery, which is electrically connected with the charging terminal of the generator battery, the power supply terminal of the central control unit and the power supply terminal of the communication base station respectively through lines, and the generator battery is used to provide power for starting the generator. power supply. The invention is a communication base station power management system based on solar power generation, wind power generation and generator power generation, which can better distribute and manage the relationship among the three kinds of power and detect the failure of the communication base station.

Description

自供电通讯基站管理系统Self-powered communication base station management system

技术领域technical field

本发明属于通讯基站发电供电装置技术领域,具体涉及一种自供电通讯基站管理系统。The invention belongs to the technical field of power generation and power supply devices for communication base stations, and in particular relates to a self-powered communication base station management system.

背景技术Background technique

当今社会人们已经离不开通讯设施,然而在通讯方面我们面临的最大的困难就是如何让这些通讯设施自由的使用。在一些偏远的地区信号总是很差,这些基站在供电方面存在很多的难题,存在供电难和基站的一些故障无法及时解决的难题。基于这些问题,有必要设计一种基于太阳能发电、风力发电和发电机发电为基础的电力管理系统,以更好地分配和管理这三种电量之间的关系以及通讯基站故障的检测。In today's society, people cannot live without communication facilities. However, the biggest difficulty we face in terms of communication is how to use these communication facilities freely. In some remote areas, the signal is always poor. These base stations have many problems in terms of power supply. There are difficulties in power supply and some failures of base stations that cannot be solved in time. Based on these problems, it is necessary to design a power management system based on solar power generation, wind power generation and generator power generation to better distribute and manage the relationship between these three types of power and to detect failures in communication base stations.

发明内容Contents of the invention

本发明解决的技术问题是提供了一种高效且环保的自供电通讯基站管理系统,该系统将太阳能发电、风力发电和发电机发电有效结合,以实现更好地为通讯基站供电并进行通讯基站故障的检测。The technical problem solved by the present invention is to provide an efficient and environmentally friendly self-powered communication base station management system, which effectively combines solar power generation, wind power generation and generator power generation to achieve better power supply for communication base stations fault detection.

本发明为解决上述技术问题采用如下技术方案,自供电通讯基站管理系统,其特征在于主要由中央控制单元、基站供电单元、发电充电单元、故障检测单元和远程通讯监控单元构成,其中中央控制单元为AT89c51单片机,基站供电单元包括蓄电池和发电机蓄电池,发电充电单元包括太阳能发电装置、太阳能发电充电控制器、风力发电装置、风力发电充电控制器、发电机发电装置和发电机发电充电控制器,故障检测单元包括油量传感器、角度传感器、光敏传感器、蓄电池电量检测装置、发电机蓄电池电量检测装置、太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器,远程通讯监控单元包括无线发射装置、无线接收装置、显示装置和报警装置,太阳能发电装置通过太阳能发电充电控制器与蓄电池电性连接,风力发电装置通过风力发电充电控制器与蓄电池电性连接,发电机发电装置通过发电机发电充电控制器与蓄电池电性连接,该蓄电池通过线路分别与发电机蓄电池的充电端、中央控制单元的电源端和通讯基站的电源端电性连接,发电机蓄电池用于为发电机的启动提供电源,太阳能发电装置的太阳能板上设有光敏传感器,该光敏传感器通过线路与中央控制单元电性连接,风力发电装置的扇叶上设有角度传感器,该角度传感器通过线路与中央控制单元电性连接,发电机发电装置的油箱上设有油量传感器,该油量传感器通过线路与中央控制单元电性连接,太阳能发电装置与太阳能发电充电控制器之间的线路上连接有太阳能发电电流传感器,该太阳能发电电流传感器通过线路与中央控制单元电性连接,风力发电装置与风力发电充电控制器之间的线路上连接有风力发电电流传感器,该风力发电电流传感器通过线路与中央控制单元电性连接,发电机发电装置与发电机发电充电控制器之间的线路上连接有发电机发电电流传感器,该发电机发电电流传感器通过线路与中央控制单元电性连接,蓄电池上设有蓄电池电量检测装置,该蓄电池电量检测装置通过线路与中央控制单元电性连接,发电机蓄电池上设有发电机蓄电池电量检测装置,该发电机蓄电池电量检测装置通过线路与中央控制单元电性连接,无线发射装置和无线接收装置通过GSM全球移动通信系统建立双向无线通信,无线发射装置通过线路与中央控制单元电性连接,无线接收装置通过线路分别与显示装置和报警装置电性连接。In order to solve the above technical problems, the present invention adopts the following technical solution. The self-powered communication base station management system is characterized in that it is mainly composed of a central control unit, a base station power supply unit, a power generation and charging unit, a fault detection unit and a remote communication monitoring unit, wherein the central control unit It is an AT89c51 single-chip microcomputer, the power supply unit of the base station includes a battery and a generator battery, and the power generation and charging unit includes a solar power generation device, a solar power generation charge controller, a wind power generation device, a wind power generation charge controller, a generator power generation device and a generator power generation charge controller, The fault detection unit includes oil quantity sensor, angle sensor, photosensitive sensor, battery power detection device, generator battery power detection device, solar power generation current sensor, wind power generation current sensor and generator power generation current sensor, and the remote communication monitoring unit includes wireless transmitter , wireless receiving device, display device and alarm device, the solar power generation device is electrically connected to the battery through the solar power charging controller, the wind power generation device is electrically connected to the battery through the wind power charging controller, and the generator power generation device is charged through the generator The controller is electrically connected to the battery, which is electrically connected to the charging terminal of the generator battery, the power supply terminal of the central control unit and the power supply terminal of the communication base station respectively through lines, and the generator battery is used to provide power for starting the generator. A photosensitive sensor is provided on the solar panel of the solar power generation device, and the photosensitive sensor is electrically connected to the central control unit through a line. An angle sensor is provided on the fan blade of the wind power generation device, and the angle sensor is electrically connected to the central control unit through a line. The fuel tank of the generator power generation device is equipped with an oil level sensor, which is electrically connected to the central control unit through a line, and a solar power generation current sensor is connected to the line between the solar power generation device and the solar power charge controller. The power generation current sensor is electrically connected to the central control unit through a line, and the wind power generation current sensor is connected to the line between the wind power generation device and the wind power generation charging controller, and the wind power generation current sensor is electrically connected to the central control unit through a line to generate electricity. A generator current sensor is connected to the line between the generator generator and the generator charge controller, and the generator current sensor is electrically connected to the central control unit through the line, and the battery is equipped with a battery power detection device. The power detection device is electrically connected to the central control unit through a line. The generator battery power detection device is installed on the generator battery. The generator battery power detection device is electrically connected to the central control unit through a line. The wireless transmitter and wireless receiver The two-way wireless communication is established through the GSM global mobile communication system, the wireless transmitting device is electrically connected with the central control unit through the line, and the wireless receiving device is electrically connected with the display device and the alarm device through the line respectively.

进一步优选,所述的太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器均都采用BA系列交流电流传感器,该太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器的V/OJT端口分别通过线路对应连接于AT89c51单片机的P2.5端口、P2.4端口和P2.3端口。Further preferably, the solar power generation current sensor, wind power generation current sensor and generator generation current sensor all use BA series AC current sensors, and the V/OJT of the solar power generation current sensor, wind power generation current sensor and generator generation current sensor The ports are respectively connected to the P2.5 port, P2.4 port and P2.3 port of the AT89c51 single-chip microcomputer through lines.

进一步优选,所述的角度传感器采用KMZ41电压输出式角度传感器,该角度传感器分别通过线路对应连接于AT89c51单片机的P0.5端口、EA端口、ALE端口和PSEN端口。Further preferably, the angle sensor is a KMZ41 voltage output angle sensor, which is respectively connected to the P0.5 port, EA port, ALE port and PSEN port of the AT89c51 single-chip microcomputer through lines.

进一步优选,所述的光敏传感器采用TSL2561光敏传感器,该光敏传感器的SDA端口和SCL端口分别通过线路对应连接于AT89c51单片机的P0.6端口和P0.7端口。Further preferably, the photosensitive sensor adopts a TSL2561 photosensitive sensor, and the SDA port and the SCL port of the photosensitive sensor are respectively connected to the P0.6 port and the P0.7 port of the AT89c51 microcontroller through lines.

进一步优选,所述的油量传感器为液位传感器,该液位传感器采用485通讯模块检测油箱中剩余的油量,485通讯模块通过ADC0809数模转换器进行数模转换,ADC0809数模转换器与通过线路与AT89c51单片机相连,其中ADC0809数模转换器的ECO端口、OUTPUTENABLE端口和COLOCK端口分别对应连接于AT89c51单片机的P1.7端口、P2.0端口和P2.1端口,ADC0809数模转换器的2-1端口、2-2端口、2-3端口、2-4端口、2-5端口、2-6端口和2-7端口分别对应连接于AT89c51单片机的P1.0端口、P1.1端口、P1.2端口、P1.3端口、P1.4端口、P1.5端口和P1.6端口。Further preferably, the oil quantity sensor is a liquid level sensor, and the liquid level sensor uses a 485 communication module to detect the remaining oil quantity in the fuel tank, and the 485 communication module performs digital-to-analog conversion through the ADC0809 digital-to-analog converter, and the ADC0809 digital-to-analog converter and It is connected to the AT89c51 single-chip microcomputer through the line, and the ECO port, OUTPUTENABLE port and COLOCK port of the ADC0809 digital-to-analog converter are respectively connected to the P1.7 port, P2.0 port and P2.1 port of the AT89c51 single-chip microcomputer, and the ADC0809 digital-to-analog converter 2-1 port, 2-2 port, 2-3 port, 2-4 port, 2-5 port, 2-6 port and 2-7 port correspond to P1.0 port and P1.1 port connected to AT89c51 MCU respectively , P1.2 port, P1.3 port, P1.4 port, P1.5 port and P1.6 port.

进一步优选,所述的蓄电池电量检测装置和发电机蓄电池电量检测装置分别用于检测蓄电池的电量和发电机蓄电池的电量,采用相同的电量检测模块,该电量检测模块的XIN端口、RESET端口、CS端口、SDO端口、XOUT端口和SDI端口分别通过线路对应连接于AT89c51单片机的P0.0端口、P0.1端口、P0.2端口、P0.3端口、P0.4端口和P0.5端口。Further preferably, the battery power detection device and the generator battery power detection device are respectively used to detect the power of the battery and the power of the generator battery, using the same power detection module, and the XIN port, RESET port, CS port of the power detection module Port, SDO port, XOUT port and SDI port are respectively connected to the P0.0 port, P0.1 port, P0.2 port, P0.3 port, P0.4 port and P0.5 port of the AT89c51 microcontroller through the line.

本发明是基于太阳能发电、风力发电和发电机发电为基础的通讯基站电力管理系统,能够更好地分配和管理这三种电量之间的关系以及通讯基站故障的检测。The invention is a communication base station power management system based on solar power generation, wind power generation and generator power generation, which can better distribute and manage the relationship among the three kinds of power and detect the failure of the communication base station.

附图说明Description of drawings

图1是本发明的结构示意图;Fig. 1 is a structural representation of the present invention;

图2是本发明的控制流程图;Fig. 2 is a control flowchart of the present invention;

图3是发明的控制线路图;Fig. 3 is the control circuit diagram of invention;

图4是本发明中电量检测模块的线路连接图;Fig. 4 is a circuit connection diagram of the power detection module in the present invention;

图5是本发明中油量传感器的线路连接图。Fig. 5 is a circuit connection diagram of the fuel quantity sensor in the present invention.

图中:1、太阳能发电装置,2、风力发电装置,3、发电机发电装置,4、通讯基站,5、蓄电池,6、发电机蓄电池,7、油量传感器,8、角度传感器,9、光敏传感器,10、太阳能发电电流传感器,11、风力发电电流传感器,12、发电机发电电流传感器,13、太阳能发电充电控制器,14、风力发电充电控制器,15、发电机发电充电控制器。In the figure: 1. Solar power generation device, 2. Wind power generation device, 3. Generator power generation device, 4. Communication base station, 5. Storage battery, 6. Generator storage battery, 7. Oil level sensor, 8. Angle sensor, 9. Photosensitive sensor, 10. Solar power generation current sensor, 11. Wind power generation current sensor, 12. Generator power generation current sensor, 13. Solar power generation charge controller, 14. Wind power generation charge controller, 15. Generator power generation charge controller.

具体实施方式Detailed ways

结合附图详细描述本发明的具体内容。自供电通讯基站管理系统,主要由中央控制单元、基站供电单元、发电充电单元、故障检测单元和远程通讯监控单元构成,其中中央控制单元为AT89c51单片机,基站供电单元包括蓄电池5和发电机蓄电池6,发电充电单元包括太阳能发电装置1、太阳能发电充电控制器13、风力发电装置2、风力发电充电控制器14、发电机发电装置3和发电机发电充电控制器15,故障检测单元包括油量传感器7、角度传感器8、光敏传感器9、蓄电池电量检测装置、发电机蓄电池电量检测装置、太阳能发电电流传感器10、风力发电电流传感器11和发电机发电电流传感器12,远程通讯监控单元包括无线发射装置、无线接收装置、显示装置和报警装置,太阳能发电装置1通过太阳能发电充电控制器13与蓄电池5电性连接,风力发电装置2通过风力发电充电控制器14与蓄电池5电性连接,发电机发电装置3通过发电机发电充电控制器15与蓄电池5电性连接,该蓄电池5通过线路分别与发电机蓄电池6的充电端、中央控制单元的电源端和通讯基站4的电源端电性连接,发电机蓄电池6用于为发电机的启动提供电源,太阳能发电装置1的太阳能板上设有光敏传感器9,该光敏传感器9通过线路与中央控制单元电性连接,风力发电装置2的扇叶上设有角度传感器8,该角度传感器8通过线路与中央控制单元电性连接,发电机发电装置3的油箱上设有油量传感器7,该油量传感器7通过线路与中央控制单元电性连接,太阳能发电装置1与太阳能发电充电控制器13之间的线路上连接有太阳能发电电流传感器13,该太阳能发电电流传感器13通过线路与中央控制单元电性连接,风力发电装置2与风力发电充电控制器14之间的线路上连接有风力发电电流传感器14,该风力发电电流传感器14通过线路与中央控制单元电性连接,发电机发电装置3与发电机发电充电控制器15之间的线路上连接有发电机发电电流传感器16,该发电机发电电流传感器16通过线路与中央控制单元电性连接,蓄电池5上设有蓄电池电量检测装置,该蓄电池电量检测装置通过线路与中央控制单元电性连接,发电机蓄电池6上设有发电机蓄电池电量检测装置,该发电机蓄电池电量检测装置通过线路与中央控制单元电性连接,无线发射装置和无线接收装置通过GSM全球移动通信系统建立双向无线通信,无线发射装置通过线路与中央控制单元电性连接,无线接收装置通过线路分别与显示装置和报警装置电性连接。The specific content of the present invention will be described in detail in conjunction with the accompanying drawings. Self-powered communication base station management system is mainly composed of central control unit, base station power supply unit, power generation and charging unit, fault detection unit and remote communication monitoring unit, in which the central control unit is AT89c51 single-chip microcomputer, and the base station power supply unit includes battery 5 and generator battery 6 , the power generation and charging unit includes a solar power generation device 1, a solar power generation charging controller 13, a wind power generation device 2, a wind power generation charging controller 14, a generator power generation device 3 and a generator power generation charging controller 15, and the fault detection unit includes an oil quantity sensor 7. Angle sensor 8, photosensitive sensor 9, battery power detection device, generator battery power detection device, solar power generation current sensor 10, wind power generation current sensor 11 and generator power generation current sensor 12, the remote communication monitoring unit includes a wireless transmitter, The wireless receiving device, the display device and the alarm device, the solar power generation device 1 is electrically connected with the storage battery 5 through the solar power generation charging controller 13, the wind power generation device 2 is electrically connected with the storage battery 5 through the wind power generation charging controller 14, and the generator power generation device 3. The charging controller 15 is electrically connected to the storage battery 5 through the generator, and the storage battery 5 is electrically connected to the charging terminal of the generator storage battery 6, the power supply terminal of the central control unit and the power supply terminal of the communication base station 4 through lines, and the generator The storage battery 6 is used to provide power for starting the generator. The solar panel of the solar power generation device 1 is provided with a photosensitive sensor 9. The photosensitive sensor 9 is electrically connected with the central control unit through a line. Angle sensor 8, the angle sensor 8 is electrically connected with the central control unit through the line, the oil quantity sensor 7 is arranged on the fuel tank of the generator power generation device 3, and the oil quantity sensor 7 is electrically connected with the central control unit through the line, solar power generation A solar power generation current sensor 13 is connected to the line between the device 1 and the solar power generation charging controller 13, and the solar power generation current sensor 13 is electrically connected to the central control unit through a line. A wind power generation current sensor 14 is connected to the line between them, the wind power generation current sensor 14 is electrically connected to the central control unit through the line, and a generator is connected to the line between the generator generating device 3 and the generator charging controller 15 A generator current sensor 16, the generator generator current sensor 16 is electrically connected to the central control unit through a line, the storage battery 5 is provided with a battery power detection device, the battery power detection device is electrically connected to the central control unit through a line, the generator battery 6 is equipped with a generator battery power detection device, the generator battery power detection device is electrically connected to the central control unit through a line, the wireless transmitting device and the wireless receiving device establish two-way wireless communication through the GSM global mobile communication system, and the wireless transmitting device passes through The circuit is electrically connected to the central control unit, and the wireless receiving device is electrically connected to the display device and the alarm device respectively through the circuit.

所述的太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器均都采用BA系列交流电流传感器,该太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器的V/OJT端口分别通过线路对应连接于AT89c51单片机的P2.5端口、P2.4端口和P2.3端口。The solar power generation current sensor, the wind power generation current sensor and the generator generation current sensor all adopt the BA series AC current sensor, and the V/OJT ports of the solar power generation current sensor, the wind power generation current sensor and the generator generation current sensor respectively pass through The lines are correspondingly connected to the P2.5 port, P2.4 port and P2.3 port of the AT89c51 microcontroller.

所述的角度传感器采用KMZ41电压输出式角度传感器,该角度传感器分别通过线路对应连接于AT89c51单片机的P0.5端口、EA端口、ALE端口和PSEN端口。The angle sensor adopts a KMZ41 voltage output angle sensor, which is respectively connected to the P0.5 port, EA port, ALE port and PSEN port of the AT89c51 microcontroller through lines.

所述的光敏传感器采用TSL2561光敏传感器,该光敏传感器的SDA端口和SCL端口分别通过线路对应连接于AT89c51单片机的P0.6端口和P0.7端口。The photosensitive sensor adopts a TSL2561 photosensitive sensor, and the SDA port and the SCL port of the photosensitive sensor are respectively connected to the P0.6 port and the P0.7 port of the AT89c51 single-chip microcomputer through lines.

所述的油量传感器为液位传感器,该液位传感器采用485通讯模块检测油箱中剩余的油量,485通讯模块通过ADC0809数模转换器进行数模转换,ADC0809数模转换器与通过线路与AT89c51单片机相连,其中ADC0809数模转换器的ECO端口、OUTPUT ENABLE端口和COLOCK端口分别对应连接于AT89c51单片机的P1.7端口、P2.0端口和P2.1端口,ADC0809数模转换器的2-1端口、2-2端口、2-3端口、2-4端口、2-5端口、2-6端口和2-7端口分别对应连接于AT89c51单片机的P1.0端口、P1.1端口、P1.2端口、P1.3端口、P1.4端口、P1.5端口和P1.6端口。The oil quantity sensor is a liquid level sensor, and the liquid level sensor uses a 485 communication module to detect the remaining oil quantity in the fuel tank. The 485 communication module performs digital-to-analog conversion through the ADC0809 digital-to-analog converter, and the ADC0809 digital-to-analog converter communicates with the The AT89c51 single-chip microcomputer is connected, and the ECO port, OUTPUT ENABLE port and COLOCK port of the ADC0809 digital-to-analog converter are respectively connected to the P1.7 port, P2.0 port and P2.1 port of the AT89c51 single-chip microcomputer, and the 2- 1 port, 2-2 port, 2-3 port, 2-4 port, 2-5 port, 2-6 port and 2-7 port respectively correspond to P1.0 port, P1.1 port, P1 port connected to AT89c51 MCU .2 port, P1.3 port, P1.4 port, P1.5 port and P1.6 port.

所述的蓄电池电量检测装置和发电机蓄电池电量检测装置分别用于检测蓄电池的电量和发电机蓄电池的电量,采用相同的电量检测模块,该电量检测模块的XIN端口、RESET端口、CS端口、SDO端口、XOUT端口和SDI端口分别通过线路对应连接于AT89c51单片机的P0.0端口、P0.1端口、P0.2端口、P0.3端口、P0.4端口和P0.5端口。The battery power detection device and the generator battery power detection device are respectively used to detect the power of the battery and the power of the generator battery. The same power detection module is used. The XIN port, RESET port, CS port, SDO port of the power detection module port, XOUT port and SDI port are respectively connected to the P0.0 port, P0.1 port, P0.2 port, P0.3 port, P0.4 port and P0.5 port of the AT89c51 single chip microcomputer through lines.

所述故障检测模块包括油量传感器7,角度传感器8,光照传感器9 ,太阳能电流传感器10 ,风力发电电流传感器11 ,发电机发电电流传感器12,其中光照传感器9位于太阳发电单元1的太阳能板上,采集太阳光照强度,角度传感器8位于风力发电单元2上,检测风力发电机是否处于工作状态,太阳能电流传感器10 、风力发电电流传感器11、发电机发电电流传感器12分别位于各个单元电流流出的出口处,电流传感器用于检测各类发电设备是否有发出电量,该模块的传感器直接与中央处理系统单片机模块直接相连,把采集到的信息直接输送到单片机。其中太阳能发电单元1、风力发电单元2和发电机发电单元3对储蓄电池5进行充电,蓄电池5直接对基站4进行供电。其中蓄电池5通过变压装置直接对发电机蓄电池6进行充电。蓄电池6与蓄电池5相连接,蓄电池5首先是储存来自太阳能发电单元1和风力发电单元2的电能,当蓄电池电量低于20%时,系统启动发电机发电单元3,当蓄电池5的电量达到100%时,系统自动切断发电机发电单元3的开关,关闭发电机发电。The fault detection module includes an oil quantity sensor 7, an angle sensor 8, an illumination sensor 9, a solar current sensor 10, a wind power generation current sensor 11, and a generator current sensor 12, wherein the illumination sensor 9 is located on the solar panel of the solar power generation unit 1 , collect the sunlight intensity, the angle sensor 8 is located on the wind power generation unit 2, and detects whether the wind power generator is in working condition, the solar current sensor 10, the wind power generation current sensor 11, and the generator current sensor 12 are respectively located at the outlets of the current flow out of each unit At the position, the current sensor is used to detect whether all kinds of power generation equipment have generated electricity. The sensor of this module is directly connected to the single-chip microcomputer module of the central processing system, and the collected information is directly transmitted to the single-chip microcomputer. The solar power generation unit 1 , the wind power generation unit 2 and the generator power generation unit 3 charge the storage battery 5 , and the storage battery 5 directly supplies power to the base station 4 . The storage battery 5 directly charges the generator storage battery 6 through the transformer device. The storage battery 6 is connected with the storage battery 5. The storage battery 5 first stores the electric energy from the solar power generation unit 1 and the wind power generation unit 2. When the battery power is lower than 20%, the system starts the generator power generation unit 3. When the power of the battery 5 reaches 100% %, the system automatically cuts off the switch of the generator generating unit 3 and turns off the generator to generate electricity.

本发明所述的蓄电池主要是储存来自太阳能发电装置、风力发电装置和发电机发电装置所提供的的电能,发电机蓄电池单元主要是用于启动发电机,当蓄电池中的电量低于20%时,中央控制单元智能控制启动发电机装置,发电机蓄电池通过变压装置由蓄电池单元供电。The storage battery of the present invention mainly stores the electric energy provided by the solar power generation device, the wind power generation device and the generator power generation device, and the generator storage battery unit is mainly used to start the generator. , the central control unit intelligently controls the starting generator device, and the generator battery is powered by the battery unit through the transformer device.

本发明的具体运行过程为:首先通过故障检测单元对发太阳能发电装置、风力发电装置和发电机发电装置进行检测,利用故障检测单元中的油量传感器、角度传感器、光敏传感器、太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器采集各个单元的信息,将采集到的信息传输到中央控制单元中,由中央控制单元对该信号进行分析。如果检测出系统处于故障状态,发出信号,信号包括五位二进制代码,该五位二进制代码的前两位代表基站的编号,每一座基站都有自己的编号,第三位代码代表太阳能发电装置是否正常工作,当代码是1时表示该装置正常工作,代码是0时则表示该装置不能正常工作,第四位代码表示风力发电装置是否正常工作,当代码是1时表示该装置正常工作,代码是0时则表示该装置不能正常工作,第五位代码表示发电机发电装置是否正常工作,当代码是1时表示该装置正常工作,代码是0时则表示该装置不能正常工作。故障检测单元对系统进行实时的检测,实时监测系统是否出现故障,并通过无线发射装置和无线接收装置建立远程通信以及时排出故障。The specific operation process of the present invention is: first, detect the solar power generation device, wind power generation device and generator power generation device through the fault detection unit, use the oil quantity sensor, angle sensor, photosensitive sensor, solar power generation current sensor in the fault detection unit 1. The wind power generation current sensor and the generator generation current sensor collect the information of each unit, and transmit the collected information to the central control unit, and the central control unit analyzes the signal. If it is detected that the system is in a fault state, a signal is sent, and the signal includes a five-digit binary code. The first two digits of the five-digit binary code represent the number of the base station, each base station has its own number, and the third code represents whether the solar power generation device is Normal operation, when the code is 1, it means that the device is working normally; When it is 0, it means that the device cannot work normally. The fifth code indicates whether the generator generating device is working normally. When the code is 1, it means that the device is working normally. When the code is 0, it means that the device cannot work normally. The fault detection unit detects the system in real time, monitors whether there is a fault in the system in real time, and establishes remote communication through the wireless transmitting device and the wireless receiving device to remove the fault in time.

以上显示和描述了本发明的基本原理,主要特征和优点,在不脱离本发明精神和范围的前提下,本发明还有各种变化和改进,这些变化和改进都落入要求保护的本发明的范围。The basic principles, main features and advantages of the present invention have been shown and described above. On the premise of not departing from the spirit and scope of the present invention, the present invention also has various changes and improvements, and these changes and improvements all fall into the claimed invention. range.

Claims (1)

1.自供电通讯基站管理系统,其特征在于主要由中央控制单元、基站供电单元、发电充电单元、故障检测单元和远程通讯监控单元构成,其中中央控制单元为AT89c51单片机,基站供电单元包括蓄电池和发电机蓄电池,发电充电单元包括太阳能发电装置、太阳能发电充电控制器、风力发电装置、风力发电充电控制器、发电机发电装置和发电机发电充电控制器,故障检测单元包括油量传感器、角度传感器、光敏传感器、蓄电池电量检测装置、发电机蓄电池电量检测装置、太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器,远程通讯监控单元包括无线发射装置、无线接收装置、显示装置和报警装置,太阳能发电装置通过太阳能发电充电控制器与蓄电池电性连接,风力发电装置通过风力发电充电控制器与蓄电池电性连接,发电机发电装置通过发电机发电充电控制器与蓄电池电性连接,该蓄电池通过线路分别与发电机蓄电池的充电端、中央控制单元的电源端和通讯基站的电源端电性连接,发电机蓄电池用于为发电机的启动提供电源,太阳能发电装置的太阳能板上设有光敏传感器,该光敏传感器通过线路与中央控制单元电性连接,风力发电装置的扇叶上设有角度传感器,该角度传感器通过线路与中央控制单元电性连接,发电机发电装置的油箱上设有油量传感器,该油量传感器通过线路与中央控制单元电性连接,太阳能发电装置与太阳能发电充电控制器之间的线路上连接有太阳能发电电流传感器,该太阳能发电电流传感器通过线路与中央控制单元电性连接,风力发电装置与风力发电充电控制器之间的线路上连接有风力发电电流传感器,该风力发电电流传感器通过线路与中央控制单元电性连接,发电机发电装置与发电机发电充电控制器之间的线路上连接有发电机发电电流传感器,该发电机发电电流传感器通过线路与中央控制单元电性连接,蓄电池上设有蓄电池电量检测装置,该蓄电池电量检测装置通过线路与中央控制单元电性连接,发电机蓄电池上设有发电机蓄电池电量检测装置,该发电机蓄电池电量检测装置通过线路与中央控制单元电性连接,无线发射装置和无线接收装置通过GSM全球移动通信系统建立双向无线通信,无线发射装置通过线路与中央控制单元电性连接,无线接收装置通过线路分别与显示装置和报警装置电性连接;所述的太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器均都采用BA系列交流电流传感器,该太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器的V/OJT端口分别通过线路对应连接于AT89c51单片机的P2.5端口、P2.4端口和P2.3端口;所述的角度传感器采用KMZ41电压输出式角度传感器,该角度传感器分别通过线路对应连接于AT89c51单片机的P0.5端口、EA端口、ALE端口和PSEN端口;所述的光敏传感器采用TSL2561光敏传感器,该光敏传感器的SDA端口和SCL端口分别通过线路对应连接于AT89c51单片机的P0.6端口和P0.7端口;所述的油量传感器为液位传感器,该液位传感器采用485通讯模块检测油箱中剩余的油量,485通讯模块通过ADC0809数模转换器进行数模转换,ADC0809数模转换器与通过线路与AT89c51单片机相连,其中ADC0809数模转换器的ECO端口、OUTPUT ENABLE端口和COLOCK端口分别对应连接于AT89c51单片机的P1.7端口、P2.0端口和P2.1端口,ADC0809数模转换器的2-1端口、2-2端口、2-3端口、2-4端口、2-5端口、2-6端口和2-7端口分别对应连接于AT89c51单片机的P1.0端口、P1.1端口、P1.2端口、P1.3端口、P1.4端口、P1.5端口和P1.6端口;所述的蓄电池电量检测装置和发电机蓄电池电量检测装置分别用于检测蓄电池的电量和发电机蓄电池的电量,采用相同的电量检测模块,该电量检测模块的XIN端口、RESET端口、CS端口、SDO端口、XOUT端口和SDI端口分别通过线路对应连接于AT89c51单片机的P0.0端口、P0.1端口、P0.2端口、P0.3端口、P0.4端口和P0.5端口;具体运行过程为:首先通过故障检测单元对发太阳能发电装置、风力发电装置和发电机发电装置进行检测,利用故障检测单元中的油量传感器、角度传感器、光敏传感器、太阳能发电电流传感器、风力发电电流传感器和发电机发电电流传感器采集各个单元的信息,将采集到的信息传输到中央控制单元中,由中央控制单元对该信息进行分析,如果检测出系统处于故障状态,发出信号,信号包括五位二进制代码,该五位二进制代码的前两位代表基站的编号,每一座基站都有自己的编号,第三位代码代表太阳能发电装置是否正常工作,当代码是1时表示该装置正常工作,代码是0时则表示该装置不能正常工作,第四位代码表示风力发电装置是否正常工作,当代码是1时表示该装置正常工作,代码是0时则表示该装置不能正常工作,第五位代码表示发电机发电装置是否正常工作,当代码是1时表示该装置正常工作,代码是0时则表示该装置不能正常工作,故障检测单元对系统进行实时的检测,实时监测系统是否出现故障,并通过无线发射装置和无线接收装置建立远程通信以及时排出故障。1. The self-powered communication base station management system is characterized in that it is mainly composed of a central control unit, a base station power supply unit, a power generation charging unit, a fault detection unit and a remote communication monitoring unit, wherein the central control unit is an AT89c51 single-chip microcomputer, and the base station power supply unit includes a storage battery and Generator battery, power generation and charging unit includes solar power generation device, solar power generation charge controller, wind power generation device, wind power generation charge controller, generator power generation device and generator power generation charge controller, fault detection unit includes oil quantity sensor, angle sensor , photosensitive sensor, battery power detection device, generator battery power detection device, solar power generation current sensor, wind power generation current sensor and generator power generation current sensor, the remote communication monitoring unit includes a wireless transmitter, a wireless receiver, a display device and an alarm device , the solar power generation device is electrically connected to the storage battery through the solar power generation charge controller, the wind power generation device is electrically connected to the storage battery through the wind power generation charge controller, and the generator power generation device is electrically connected to the storage battery through the generator generation charge controller. The charging terminal of the generator battery, the power supply terminal of the central control unit and the power supply terminal of the communication base station are respectively electrically connected through the lines. The generator battery is used to provide power for starting the generator. sensor, the photosensitive sensor is electrically connected with the central control unit through the line, the fan blade of the wind power generation device is equipped with an angle sensor, and the angle sensor is electrically connected with the central control unit through the line, and the oil tank of the generator power generation device is equipped with The oil quantity sensor is electrically connected to the central control unit through a line, and the solar power generation current sensor is connected to the line between the solar power generation device and the solar power charging controller, and the solar power generation current sensor is electrically connected to the central control unit through a line. The wind power generation current sensor is connected to the line between the wind power generation device and the wind power generation charge controller, and the wind power generation current sensor is electrically connected to the central control unit through the line, and the generator power generation device and the generator generation charge controller The generator current sensor is connected to the line between them. The generator current sensor is electrically connected to the central control unit through the line. The battery is equipped with a battery power detection device. The generator battery is equipped with a generator battery power detection device, which is electrically connected to the central control unit through a line, and the wireless transmitter and wireless receiver establish two-way wireless communication through the GSM global mobile communication system , the wireless transmitting device is electrically connected to the central control unit through a line, and the wireless receiving device is electrically connected to a display device and an alarm device through a line; the solar power generation current sensor, wind power generation current sensor and generator power generation current sensor are all Using BA series AC current sensor, the solar power generation current sensor, wind power generation current sensor and generator generation current sensor The V/OJT port of V/OJT is respectively connected to the P2.5 port, P2.4 port and P2.3 port of the AT89c51 single-chip microcomputer through the corresponding line; The described angle sensor adopts the KMZ41 voltage output type angle sensor, and the angle sensor is respectively connected through the corresponding line In the P0.5 port, EA port, ALE port and PSEN port of the AT89c51 microcontroller; the photosensitive sensor adopts the TSL2561 photosensitive sensor, and the SDA port and the SCL port of the photosensitive sensor are respectively connected to the P0.6 port of the AT89c51 microcontroller through lines and P0.7 port; the oil quantity sensor described is a liquid level sensor, which uses a 485 communication module to detect the remaining oil in the tank, and the 485 communication module performs digital-to-analog conversion through the ADC0809 digital-to-analog converter, and the ADC0809 digital-to-analog The converter is connected to the AT89c51 single-chip microcomputer through the line, and the ECO port, OUTPUT ENABLE port and COLOCK port of the ADC0809 digital-to-analog converter are respectively connected to the P1.7 port, P2.0 port and P2.1 port of the AT89c51 single-chip microcomputer, and the ADC0809 digital The 2-1 port, 2-2 port, 2-3 port, 2-4 port, 2-5 port, 2-6 port and 2-7 port of the analog converter are respectively connected to the P1.0 port, P1.1 port, P1.2 port, P1.3 port, P1.4 port, P1.5 port and P1.6 port; the battery power detection device and the generator battery power detection device are respectively used to detect the power of the battery The same power detection module is used for the electric power and the electric power of the generator battery. The XIN port, RESET port, CS port, SDO port, XOUT port and SDI port of the electric power detection module are respectively connected to the P0.0 port of the AT89c51 single-chip microcomputer through lines. , P0.1 port, P0.2 port, P0.3 port, P0.4 port and P0.5 port; the specific operation process is as follows: first, the solar power generation device, wind power generation device and generator power generation device are connected to each other through the fault detection unit For detection, use the oil level sensor, angle sensor, photosensitive sensor, solar power generation current sensor, wind power generation current sensor and generator power generation current sensor in the fault detection unit to collect information from each unit, and transmit the collected information to the central control unit In the process, the central control unit analyzes the information. If it is detected that the system is in a fault state, a signal is sent out. The signal includes a five-digit binary code. The first two digits of the five-digit binary code represent the serial number of the base station. Each base station has its own The third code represents whether the solar power generation device is working normally. When the code is 1, it means that the device is working normally. When the code is 0, it means that the device is not working normally. The fourth code represents whether the wind power generation device is working normally. When the code is 1, it means that the device is working normally, and when the code is 0, it means that the device cannot work normally. Normal work, the fifth code indicates whether the generator power generation device is working normally. When the code is 1, it means that the device is working normally. When the code is 0, it means that the device is not working normally. The fault detection unit detects the system in real time. Monitor the system for faults, and establish remote communication through wireless transmitters and wireless receivers to eliminate faults in time.
CN201610117177.9A 2016-03-02 2016-03-02 Self-powered communication base station manages system Expired - Fee Related CN105576807B (en)

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