WO2012006874A1 - 一种带有检测装置的镍氢电池组 - Google Patents

一种带有检测装置的镍氢电池组 Download PDF

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Publication number
WO2012006874A1
WO2012006874A1 PCT/CN2011/070268 CN2011070268W WO2012006874A1 WO 2012006874 A1 WO2012006874 A1 WO 2012006874A1 CN 2011070268 W CN2011070268 W CN 2011070268W WO 2012006874 A1 WO2012006874 A1 WO 2012006874A1
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WIPO (PCT)
Prior art keywords
nickel
battery pack
hydrogen battery
unit
detecting
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PCT/CN2011/070268
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English (en)
French (fr)
Inventor
吴合年
刘向军
黄金锋
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深圳市三俊电池有限公司
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Publication of WO2012006874A1 publication Critical patent/WO2012006874A1/zh

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    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01MPROCESSES OR MEANS, e.g. BATTERIES, FOR THE DIRECT CONVERSION OF CHEMICAL ENERGY INTO ELECTRICAL ENERGY
    • H01M10/00Secondary cells; Manufacture thereof
    • H01M10/34Gastight accumulators
    • H01M10/345Gastight metal hydride accumulators
    • HELECTRICITY
    • H01ELECTRIC ELEMENTS
    • H01MPROCESSES OR MEANS, e.g. BATTERIES, FOR THE DIRECT CONVERSION OF CHEMICAL ENERGY INTO ELECTRICAL ENERGY
    • H01M10/00Secondary cells; Manufacture thereof
    • H01M10/42Methods or arrangements for servicing or maintenance of secondary cells or secondary half-cells
    • H01M10/48Accumulators combined with arrangements for measuring, testing or indicating the condition of cells, e.g. the level or density of the electrolyte
    • H01M10/482Accumulators combined with arrangements for measuring, testing or indicating the condition of cells, e.g. the level or density of the electrolyte for several batteries or cells simultaneously or sequentially
    • 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
    • Y02E60/00Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
    • Y02E60/10Energy storage using batteries

Definitions

  • the present invention relates to the field of batteries, and in particular to a nickel-hydrogen (Ni-MH) battery pack with a detection device.
  • Ni-MH nickel-hydrogen
  • Lead-acid batteries usually use lead dioxide as the positive electrode active material, lead as the negative electrode active material, sulfuric acid as the electrolyte, and the two electrodes are immersed in the sulfuric acid solution to cause a chemical reaction. Realize the charge and discharge of the battery.
  • the waste lead-acid battery contains a large amount of lead inside, and the random discharge not only pollutes the environment, but also has a great harm to human health.
  • nickel-hydrogen battery As a new type of battery, nickel-hydrogen battery has good environmental performance, and its positive active material is nickel hydroxide. (called nickel oxide electrode), the negative active material is metal oxide or hydrogen storage alloy (called hydrogen storage electrode)
  • the electrolyte is potassium hydroxide.
  • Nickel-metal hydride batteries do not contain toxic and harmful heavy metals, so they will not pollute the environment during production, use or disposal, and the battery materials are easy to recycle. They are called 'green batteries'. At present, nickel-hydrogen batteries are gradually replacing traditional lead-acid batteries due to their good environmental performance and high energy density.
  • the object of the present invention is to overcome the deficiencies in the prior art described above, and to provide an intelligent nickel-hydrogen battery pack with a detecting device, which is convenient The technicians grasp the internal working status in a timely and accurate manner and maintain it accordingly.
  • the object of the present invention can be achieved by the following measures:
  • the nickel-hydrogen battery pack with the detecting device comprises one or more nickel-hydrogen battery cells electrically connected to each other, and further comprises a detecting device composed of the following circuit units:
  • One or more detecting units electrically connecting the battery unit for detecting a current working state parameter of the NiMH battery pack and transmitting the working state parameter to the control unit;
  • control unit electrically connected to the output of the detecting unit for receiving the working state parameter and controlling the output of the display unit
  • a display unit electrically connected to the output of the control unit for displaying the working state parameter in an image or symbol manner.
  • the object of the invention can also be achieved by the following measures:
  • the detecting unit includes a temperature sensor, and the working state parameter is a temperature value.
  • the temperature sensor includes a temperature probe and a temperature detector coupled to the temperature probe, the temperature probe being disposed on one side of the NiMH battery unit or disposed outside the NiMH battery pack.
  • the detecting unit includes a voltage detecting circuit, and the voltage detecting circuit includes a voltage detector connected to the nickel-hydrogen battery cell through a detecting line, and the working state parameter is a voltage value.
  • the overcurrent protection sheet is also connected in series on the detection line.
  • the detecting unit includes a charging and discharging state detecting circuit, and the working state parameter is a charging state or a discharging state.
  • the detecting device further includes an alarm unit; the operating unit threshold is pre-stored in the control unit, and after receiving the working state parameter detected by the detecting unit, the working state parameter and the working state valve are The values are compared, and an alarm signal is sent to the alarm unit according to the comparison result; the alarm unit is configured to output the alarm signal.
  • the nickel-hydrogen battery pack includes a wiring board, and the control unit, the temperature detector, and the voltage detector are disposed on the wiring board.
  • the control unit is a central processing unit, a single chip microcomputer or a programmable controller.
  • the nickel-hydrogen battery pack includes a PVC heat shrinkable sleeve, the PVC
  • the heat shrink tubing includes a plurality of battery mounting locations, each of which is nested in a battery mounting location.
  • the nickel-hydrogen battery pack of the invention adopts a self-contained detecting device including a display unit, and automatically detects various working state parameters during the working process of the nickel-hydrogen battery pack, thereby realizing intelligent control of the nickel-hydrogen battery pack. Further, the nickel-hydrogen battery pack does not contain toxic and harmful heavy metals, and does not pollute the environment in the production, use and disposal of the battery, and the material is easy to recycle, so it has good environmental performance.
  • FIG. 1 is a schematic diagram of control of a nickel-hydrogen battery pack according to an embodiment of the present invention
  • FIG. 2 is a schematic view showing the line connection of a nickel-hydrogen battery pack according to an embodiment of the present invention
  • FIG. 3 is a top plan view of a nickel-hydrogen battery pack according to an embodiment of the present invention.
  • FIG. 4 is a bottom view of a nickel-hydrogen battery pack according to an embodiment of the present invention.
  • Figure 5 is a front elevational view of a nickel-hydrogen battery pack according to an embodiment of the present invention.
  • FIG. 6 is a schematic structural view of a nickel-hydrogen battery constituting a battery pack according to an embodiment of the present invention.
  • Figure 7 is a schematic view showing the structure of a face pad of an embodiment.
  • the nickel-hydrogen battery pack with the detecting device of the invention comprises a plurality of interconnected nickel-hydrogen battery cells,
  • the number of nickel-hydrogen battery cells may be determined according to the specific power demand of the device or the specifications of the nickel-hydrogen battery cells.
  • These nickel-hydrogen battery cells are connected in parallel or in series through a connecting piece made of nickel, for example, the battery pack may include one or more connections.
  • a sheet, each connecting piece is connected to a plurality of nickel-hydrogen battery cells.
  • the detecting device in the nickel-hydrogen battery pack of the present invention comprises a control unit 20 and a display unit 40. And at least one detecting unit, and the alarm unit 41 can also be configured as needed. among them:
  • the detecting unit is configured to detect a current working state parameter of the nickel-hydrogen battery pack, and transmit the detected working state parameter to the control unit 20 .
  • the staff should pay close attention to the internal temperature of the NiMH battery pack, the ambient temperature, the voltage of one or more NiMH battery cells, and the charging of the battery pack.
  • the state of change of the discharge state, etc. thereby monitoring whether the nickel-hydrogen battery pack is in a normal working state. Therefore, the detecting unit 20 may include a temperature sensor 31 and a voltage detecting circuit 32 according to monitoring requirements.
  • the charging and discharging state detecting circuit 33 and the like are respectively used for detecting the current operating temperature parameters such as the current temperature value, the voltage value, and the charging state/discharging state of the nickel-hydrogen battery pack.
  • the control unit 20 is configured to receive operating state parameters from the respective detecting units and control the display unit 30. These work status parameters are output for the staff to view.
  • the detecting unit may further include an alarm unit 41, and the control unit 20
  • the pre-stored working state threshold value is received, and after receiving the working state parameter detected by each detecting unit, the working state parameter is compared with the pre-stored working state threshold, and an alarm signal is sent to the alarm unit according to the comparison result.
  • the control unit 20 may preset a temperature threshold, compare the temperature value detected by the temperature sensor 31 with a preset temperature threshold, and immediately send an alarm signal to the alarm unit when the detected temperature value is higher than the temperature threshold.
  • Alarm unit 41 is a display or sounder that is used to output an alarm signal by means of display or sound, to remind the staff to turn off the power in time, or to check or repair the equipment failure.
  • the control unit 20 is disposed on the circuit board 100, and the detecting unit includes a temperature sensor 31.
  • the temperature sensor 31 can be an NTC (negative temperature coefficient) thermistor, an infrared temperature sensor, etc., and the detected operating state parameter is a temperature value.
  • temperature sensor 31 includes temperature probe 311 And a temperature detector 312 connected to the temperature probe 311, the temperature probe 311 can be disposed on one side of a nickel-hydrogen battery unit as needed, for example, can be arranged in different positions in the entire nickel-hydrogen battery pack 2-3 A temperature probe 311 is used to detect the temperature inside the NiMH battery pack; the temperature probe 311 can also be disposed outside the NiMH battery pack to detect the ambient temperature around the NiMH battery pack. Temperature probe 311 The temperature detector 312 is connected through T0, T1 or other temperature sensing pin on the circuit board 100, and the temperature detector 312 receives the temperature probe 311. After the temperature detection signal, it is correspondingly measured to obtain a specific temperature value, and the temperature value is input to the control unit 20.
  • the voltage detecting circuit 32 includes a detecting line connected to the positive and negative electrodes of the nickel-hydrogen battery unit. And a voltage detector 322 connected to the detection line 321 disposed on the circuit board 100 . During voltage detection, the voltage value of each NiMH battery cell in the battery pack can be detected as needed, and the voltage values of several NiMH battery cells connected to a certain connection piece can also be detected.
  • the detection line 321 One connection piece 60 is connected at one end, and the other end is connected to the voltage detector 322 through a VC1, VC2 or other voltage detecting pin on the circuit board 100, and the voltage detector 322 The voltage of the NiMH battery cell connected to the connecting piece 60 is detected, and the measured voltage value is input to the control unit 20.
  • the nickel-hydrogen battery pack of the embodiment includes a total of five connecting pieces 60, so 6 detection lines 321 are connected to 5 connecting pieces 60 and negative poles of nickel-metal hydride battery packs respectively.
  • the detection lines 321 of different serial numbers in Fig. 2 are connected to the connecting pieces with corresponding serial numbers in Fig. 3 and Fig. 4 respectively.
  • the voltage detecting circuit 321 further includes an overcurrent protection sheet 50, as shown in FIG. 2 to FIG. 4, each detection line.
  • the 321 is connected to the overcurrent protection sheet 50 correspondingly, and can automatically disconnect the circuit when the current is too large, thereby protecting the safety of the nickel-hydrogen battery pack.
  • the detecting unit includes a charging and discharging state detecting circuit 33
  • the circuit includes the same charging and discharging state detecting chip as the prior art, and can directly detect the charging current of the battery pack, and if the charging current is greater than zero, the control unit 20
  • the operating state parameter of the battery pack in the charging state is output, and if the charging current is less than zero, the operating state parameter of the battery pack in the discharging state is output to the control unit 20.
  • Control unit 20 is CPU (central processing unit), single chip microcomputer, PLC A device (programmable controller) capable of receiving operating state parameters from different detecting units, converting them into corresponding electrical signals and transmitting them to the display unit 40, the display unit 40
  • the various working state parameters detected can be displayed according to the obtained electrical signal for the staff to view.
  • the staff can refer to the display unit 40
  • the temperature value inside or outside of the displayed battery pack determines the heat dissipation state of the battery pack, and the remaining capacity is judged by referring to the voltage value of the nickel-hydrogen battery unit, and it is understood whether the current battery pack is in a charged state or a discharged state, and can also be performed according to these working state parameters.
  • the corresponding equipment is adjusted and maintained to ensure the normal operation of the electrical equipment.
  • the circuit board 100 also includes an indicator light 101 for indicating the operating state of the battery pack; serial numbers 1 and 2
  • the connecting wires are respectively connected to the negative pole and the positive pole of the battery pack, wherein the positive connecting cable is also connected to the safety socket, which also serves to avoid overcharging of the battery.
  • Display unit 40 and alarm unit 41 according to specific needs It can be placed on the circuit board 100 or placed outside the circuit board 100.
  • the nickel-hydrogen battery unit 10 in the nickel-hydrogen battery pack of the present invention includes at least two layers, two upper and lower nickel-hydrogen battery cells. 10 is separated by an epoxy board pad 80, and an end face of each nickel-hydrogen battery cell 10 connected to the connecting piece 60 is also provided with an epoxy board mat 80 .
  • the shape of the epoxy board pad 80 is as shown in Fig. 7. Shown for insulation between individual nickel-hydrogen battery cells 10.
  • the nickel-hydrogen battery pack of the present invention further comprises a PVC (polyvinyl chloride) heat-shrinkable sleeve 11 , the PVC heat-shrinkable sleeve 11
  • PVC polyvinyl chloride
  • the upper part, the middle part and the lower part of the battery pack are respectively provided with an upper bracket 71, support 72 and lower bracket 73, which are screwed together for mounting a plurality of nickel-hydrogen battery cells 10 mounted in the PVC heat shrinkable sleeve 11 Position them to make them a solid whole.
  • each nickel-hydrogen battery cell 10 is further provided with a separate heat shrinkable sleeve on the surface thereof, which can further strengthen the nickel-hydrogen battery unit 10 Waterproof protection.
  • the nickel-hydrogen battery unit not only has the characteristics of high energy density, good impact resistance, long working life, overcharge and overcharge resistance and strong charge retention, and the nickel-hydrogen battery pack can be widely used. Power supply for all kinds of electronic products and large electrical equipment, and because the battery does not contain toxic and harmful heavy metals, it will not pollute the environment in the production, use and disposal of the battery, and the materials are easy to recycle, so it has good environmental performance.
  • the invention utilizes the detecting device to automatically detect various working state parameters of the nickel-hydrogen battery pack in the working process, realizes intelligent control of the nickel-hydrogen battery pack, and facilitates the staff to grasp the nickel-hydrogen battery pack in a timely and accurate manner.
  • Working state, and according to the test results, the nickel-hydrogen battery pack is effectively regulated and maintained, especially when the nickel-hydrogen battery pack is used for powering large equipment in the fields of communication base station, reserve power source, emergency power source, military equipment, etc., the nickel of the invention
  • the hydrogen battery pack can ensure the normal power supply to the power equipment and avoid the impact on the service operation of the equipment.
  • the present invention also encapsulates the entire nickel-hydrogen battery pack by using a protective layer made of a special plastic, such as a special plastic, preferably manufactured by American General Motors. C2950 raw material, from PC (polycarbonate) / ABS (acrylonitrile - butadiene - Synthetic styrene copolymer, these special plastics have the advantages of waterproof, cold resistance, UV resistance, high temperature resistance, etc.
  • a special plastic such as a special plastic, preferably manufactured by American General Motors. C2950 raw material, from PC (polycarbonate) / ABS (acrylonitrile - butadiene - Synthetic styrene copolymer, these special plastics have the advantages of waterproof, cold resistance, UV resistance, high temperature resistance, etc.
  • the plastic material of this material can be used to encapsulate the whole nickel-hydrogen battery pack.
  • Low temperature, heavy impact resistance and drop protection, etc. facilitate nickel-hydrogen battery packs to be applied to various special environments according to specific requirements (such as military requirements, emergency communication requirements, etc.), such as low temperature environment, high temperature environment, humid environment, etc. based on climate or artificial The harsh environment formed by the factors is therefore more widely used.
  • the nickel-hydrogen battery pack with the detecting device of the invention is especially suitable for the fields of communication base station, reserve power source, emergency power source, military equipment, etc., and is convenient for the worker to effectively regulate and maintain the nickel-hydrogen battery pack according to the detection result of the real-time display, and conforms to them. Special requirements for high reliability power begging .

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  • Engineering & Computer Science (AREA)
  • Manufacturing & Machinery (AREA)
  • Chemical & Material Sciences (AREA)
  • Chemical Kinetics & Catalysis (AREA)
  • Electrochemistry (AREA)
  • General Chemical & Material Sciences (AREA)
  • Charge And Discharge Circuits For Batteries Or The Like (AREA)
  • Secondary Cells (AREA)
  • Battery Mounting, Suspending (AREA)

Abstract

提供一种带有检测装置的镍氢电池组,包括多个相互电连接的镍氢电池单元(10)和检测装置,检测装置包括控制单元(20)、显示单元(40)和至少一个检测单元;所述检测单元检测所述镍氢电池组当前的工作状态参数,并将所述工作状态参数传输给所述控制单元(20);所述控制单元(20)控制所述显示单元(40)输出所述工作状态参数。对镍氢电池组在工作过程中的各种工作状态参数进行自动检测,实现了对镍氢电池组的智能化控制,并且根据检测结果对镍氢电池组进行有效地调控和维护,能够保障用电设备的正常供电。

Description

一种带有检测装置的镍氢电池组 技术领域
本发明涉及电池领域,具体涉及一种带有检测装置的镍氢( Ni-MH )电池组。
背景技术
一方面,随着人们环保意识的日益增强,生活、工业等各个领域都对电池的环保性能提出了越来越高的要求,业内纷纷提高了电池在材料、生产工艺、包装、回收等发面的环保标准,用于减少或消除电池生产或者废弃环节造成的环境污染问题。但是,目前市场上的蓄电池以铅酸电池为主,铅酸电池通常以二氧化铅作为正极活性物质,铅作为负极活性物质,硫酸作为电解液,两极浸入到硫酸溶液中并发生化学反应,从而实现蓄电池的充放电。然而,废弃的铅酸电池内部含有大量的铅,随意排放不仅会污染环境,而且对人体健康有重大危害。而作为一种新型蓄电池,镍氢电池具有良好的环保性能,其正极活性物质为氢氧化镍 ( 称氧化镍电极 ) ,负极活性物质为金属氧化物或贮氢合金 ( 称贮氢电极 ) ,电解液为氢氧化钾。镍氢电池不含有毒有害的重金属,因此无论生产、使用过程中还是废弃后都不会污染环境,且电池材料方便回收利用,被称为'绿色电池'。目前,镍氢电池由于具备良好的环保性能、高能量密度等特性,正在逐步取代传统的铅酸电池。
另一方面,多个镍氢电池通过串 / 并联的方式组装成镍氢电池组,并应用在通讯基站、储备电源、应急电源、军工设备等领域为大型设备供电时,技术人员有时需要对镍氢电池组进行工作状态的调整和维护,从而保障用电设备的正常运行,避免电池状态不稳定而造成的设备故障、业务中断等问题。但是,针对现有或已公开的镍氢电池组,技术人员无法及时、准确地掌握其内部的工作状态,因此难以对镍氢电池组进行相应的维护。
技术问题
本发明的目的在于克服上述现有技术中的不足之处,提供一种带有检测装置的智能化镍氢电池组,方便 技术人员及时、准确地掌握其内部的工作状态并对其进行相应的维护 。
技术解决方案
本发明的目的可以通过以下措施来达到:
这种带有检测装置的镍氢电池组,包括一个以上相互电连接的镍氢电池单元,还包括由以下电路单元组成的检测装置:
一个或一个以上检测单元,电连接所述电池单元,用于检测所述镍氢电池组当前的工作状态参数,并将所述工作状态参数传输给控制单元;
控制单元,电连接所述检测单元输出端,用于接收所述工作状态参数并控制显示单元输出;
显示单元,电连接所述控制单元输出端,用于以图像或符号方式显示所述工作状态参数。
本发明的目的还可以通过以下措施来达到:
所述检测单元包括温度传感器,所述工作状态参数为温度值。例如,所述温度传感器包括温度探头和与所述温度探头连接的温度检测器,所述温度探头设置在所述镍氢电池单元的一侧,或者设置在所述镍氢电池组的外部。
所述检测单元包括电压检测电路,所述电压检测电路包括通过检测线与所述镍氢电池单元相连的电压检测器,所述工作状态参数为电压值。优选地,在检测线上还串接过流保护片。
所述检测单元包括充放状态检测电路,所述工作状态参数为充电状态或放电状态。
一种实施方式中,检测装置还包括告警单元;所述控制单元中预存工作状态阀值,用于接收所述检测单元检测的工作状态参数后,将所述工作状态参数与所述工作状态阀值进行比较,并根据比较结果发送报警信号给告警单元;告警单元用于输出所述报警信号。
所述镍氢电池组包括线路板,所述控制单元、温度检测器和电压检测器设置在所述线路板上。
所述控制单元为中央处理器、单片机或可编程控制器。
所述镍氢电池组包括 PVC 热缩套管,所述 PVC 热缩套管包括多个电池安装位,每个镍氢电池单元嵌套在一个电池安装位中。
有益效果
本发明相比现有技术具有如下优点:
本发明镍氢电池组采用包括显示单元的自带检测装置,在内部对镍氢电池组工作过程中的各种工作状态参数进行自动检测,实现了对镍氢电池组的智能化控制。进一步,该镍氢电池组内部不含有毒有害的重金属,在电池生产、使用和废弃各个环节中不会污染环境,材料容易回收利用,因此具有良好的环保性能。
附图说明
图 1 为本发明一种实施例的镍氢电池组的控制原理图;
图 2 为本发明一种实施例的镍氢电池组的线路连接示意图;
图 3 为本发明一种实施例的镍氢电池组的俯视图;
图 4 为本发明一种实施例的镍氢电池组的仰视图;
图 5 为本发明一种实施例的镍氢电池组的主视图;
图 6 为本发明一种实施例的组成电池组的镍氢电池结构示意图;
图 7 为一种实施例的面垫结构示意图 。
本发明的最佳实施方式
首先,说明本发明最佳实施例的基础:
本发明带有检测装置的镍氢电池组包括多个相互连接的镍氢电池单元 , 镍氢电池单元的数量可根据设备的具体用电需求或镍氢电池组的规格而定,这些镍氢电池单元通过镍制的连接片相互并联或者串联,例如电池组可包括一个或多个连接片,每个连接片连接多个镍氢电池单元。
第二,说明本发明最佳实施例的核心和关键:
如图 1 所示,本发明镍氢电池组中的检测装置包括控制单元 20 、显示单元 40 和至少一个检测单元,还可根据需要配置告警单元 41 。其中:
检测单元用于检测镍氢电池组当前的工作状态参数,并将检测到的工作状态参数传输给控制单元 20 。具体地,镍氢电池组在正常工作过程中,工作人员应当严格关注镍氢电池组的内部温度、环境温度、一个或多个镍氢电池单元的电压、电池组的充电 / 放电状态等的变化状况,从而监控镍氢电池组是否处于正常的工作状态。因此根据监控需要,检测单元 20 可包括温度传感器 31 、电压检测电路 32 、充放状态检测电路 33 等,分别用于检测镍氢电池组当前的温度值、电压值、充电状态 / 放电状态等工作状态参数。
控制单元 20 用于接收来自各检测单元的工作状态参数,并控制显示单元 30 输出这些工作状态参数供工作人员查看。
优选地,检测单元还可进一步包括告警单元 41 ,控制单元 20 中预存工作状态阀值,接收各检测单元检测的工作状态参数后,将该工作状态参数与预存的工作状态阀值进行比较,并根据比较结果发送报警信号给告警单元 41 。例如控制单元 20 可预设温度阀值,将温度传感器 31 检测到的温度值与预设的温度阀值相比较,发现检测到的温度值高于温度阀值时,立刻发送报警信号给告警单元 41 ;或者控制单元 20 可预设电压阀值,将电压检测电路 32 检测到的电压值与预设的电压阀值相比较,发现检测到的电压值低于电压阀值时,立刻发送报警信号给告警单元 41 。告警单元 41 为显示器或发声器,用于通过显示或发声的方式输出报警信号,提醒工作人员及时关断电源,或检查或维修设备故障。
如图 2 所示的线路连接图中,控制单元 20 设置在线路板 100, 检测单元包括温度传感器 31 时,该温度传感器 31 可为 NTC( 负温度系数)热敏电阻、红外温度传感器等,检测得到的工作状态参数为温度值。例如,温度传感器 31 包括温度探头 311 和与温度探头 311 相连的温度检测器 312 ,温度探头 311 可根据需要设置在某一镍氢电池单元的一侧,例如可在整个镍氢电池组中的不同位置配置 2-3 个温度探头 311 ,用于探测镍氢电池组内部的温度值;温度探头 311 还可设置在镍氢电池组的外部,用于检测镍氢电池组周围的环境温度。温度探头 311 通过线路板 100 上的 T0 、 T1 或其他温度检测引脚接入温度检测器 312 ,温度检测器 312 接收温度探头 311 的温度检测信号后,对其进行相应测量得到具体的温度值,并将温度值输入控制单元 20 。
检测单元包括电压检测电路 32 时,电压检测电路 32 包括连接在镍氢电池单元的正负极的检测线 321 ,以及设置在线路板 100 上、与检测线 321 相连的电压检测计 322 。电压检测时,可根据需要检测电池组中每个镍氢电池单元的电压值,也可检测连接在某一连接片上的几个镍氢电池单元的电压值。结合图 3 和图 4 ,检测线 321 一端连接一个连接片 60 ,另一端通过线路板 100 上的 VC1 、 VC2 或其他电压检测引脚接入电压检测器 322 ,电压检测器 322 对连接在该连接片 60 上的镍氢电池单元的电压进行检测,并将测得的电压值输入控制单元 20 。例如本实施例的镍氢电池组共包含 5 个连接片 60 ,因此采用 6 条检测线 321 分别连接 5 个连接片 60 以及镍氢电池组的负极,图 2 中不同序号的检测线 321 分别连接图 3 和图 4 中带有相应序号的连接片 60 (连接在各连接片 60 上标有相应序号的位置),即序号为 3 的检测线 321 连接镍氢电池组的负极,序号为 4-8 的检测线 321 相应地连接序号为 4-8 的连接片 60 。进一步地,为了避免过流充电导致的安全隐患,电压检测线路 321 中还包括过流保护片 50 ,如图 2- 图 4 所示,每条检测线 321 都对应地连接过流保护片 50 ,能够在电流过大时自动断开电路,从而保护镍氢电池组的安全。
检测单元包括充放状态检测电路 33 时,该电路中包含与现有技术相同的充放状态检测芯片,能够直接检测电池组的充电电流,如果充电电流大于零则向控制单元 20 输出电池组处于充电状态的工作状态参数,如果充电电流小于零则向控制单元 20 输出电池组处于放电状态的工作状态参数。
控制单元 20 为 CPU( 中央处理器 ) 、单片机、 PLC (可编程控制器)等器件,能够接收来自不同检测单元的工作状态参数后,将其转换成相应的电信号发送给显示单元 40 ,显示单元 40 为一显示屏,可根据得到的电信号将检测的各种工作状态参数进行显示以便工作人员查看。例如工作人员可参照显示单元 40 显示的电池组内部或外部的温度值判断电池组的散热状态,参照镍氢电池单元的电压值判断其剩余容量,并了解目前电池组处于充电状态还是放电状态,还可根据这些工作状态参数进行相应的设备调整和维护,从而保证用电设备的正常工作。
线路板 100 还包括指示灯 101 ,用于显示电池组的工作状态;序号为 1 和 2 的连接线分别用于连接电池组的负极和正极,其中正极连接线还连接保险插座,同样起到避免电池过充的作用。根据具体需要,显示单元 40 和告警单元 41 可设置在线路板 100 上,或者设置在线路板 100 外部。
第三,进一步说明本发明最佳实施例的具体封装:
如图 5- 图 7 所示,本发明的镍氢电池组中的镍氢电池单元 10 包括至少两层,上下两个镍氢电池单元 10 之间通过环氧板面垫 80 隔开,每个镍氢电池单元 10 与连接片 60 相连的端面也贴设环氧板面垫 80 。该环氧板面垫 80 的形状如图 7 所示,用于各个镍氢电池单元 10 之间的绝缘。本发明的镍氢电池组还包括 PVC( 聚氯乙烯 ) 热缩管套 11 ,该 PVC 热缩套管 11 上具有多个电池固定位,每个镍氢电池单元 10 嵌套在一个电池固定位中,能够起到良好的防水保护作用,电池组的上部、中部和下部分别还设有上支架 71 、中支架 72 和下支架 73 ,这些支架之间采用螺钉紧固连接,用于对安装在 PVC 热缩套管 11 内的多个镍氢电池单元 10 进行定位,使其组合成一个牢固的整体。优选地,每个镍氢电池单元 10 表面还套有独立的热缩套管,能够进一步加强镍氢电池单元 10 的防水保护。与传统的铅酸电池相比,镍氢电池单元不仅具有能量密度高、耐冲击好、工作寿命长、耐过充过放能力和电荷保持能力强等特点,形成的镍氢电池组能够广泛应用于各类电子产品和大型电器设备的供电,而且由于电池内部不含有毒有害的重金属,在电池生产、使用和废弃各个环节中不会污染环境,材料容易回收利用,因此具有良好的环保性能。本发明利用检测装置,对镍氢电池组在工作过程中的各种工作状态参数进行自动检测,实现了对镍氢电池组的智能化控制,便于工作人员及时、准确地掌握镍氢电池组的工作状态,并根据检测结果对镍氢电池组进行有效地调控和维护,尤其是镍氢电池组应用在通讯基站、储备电源、应急电源、军工设备等领域为大型设备供电时,本发明的镍氢电池组能够保障对用电设备的正常供电,避免对设备的业务运行造成影响。
进一步地,本发明还采用专用塑胶制成的保护层对整个镍氢电池组进行封装,例如专用塑胶优选美国通用公司生产的 C2950 原材料,由 PC (聚碳酸酯) /ABS (丙烯腈 - 丁二烯 - 苯乙烯共聚物)合成,这些专用塑胶具有防水、耐寒、抗紫外线、耐高温等优势,采用该材料塑胶材料对整个镍氢电池组进行封装后,能够起到耐高 / 低温、耐重物冲击和跌落保护等作用,便于镍氢电池组根据具体要求(例如军工要求、应急通讯要求等)应用于各种特殊环境,例如低温环境、高温环境、潮湿环境等基于气候或人为因素形成的恶劣环境,因此用途更加广泛。
本发明的实施方式
工业实用性
本发明带检测装置的镍氢电池组尤其适用于通讯基站、储备电源、应急电源、军工设备等领域,方便工作人员根据实时显示的检测结果对镍氢电池组进行有效地调控和维护,符合它们高可靠性用电的特殊要 求 。
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Claims (10)

1 、 一种带有检测装置的镍氢电池组,包括一个以上相互电连接的镍氢电池单元 (10) ,其特征在于,还包括:
一个或一个以上检测单元,电连接所述镍氢电池单元 (10) ,用于检测所述镍氢电池单元 (10) 的工作状态参数;
控制单元 (20) 及其输出端电连接的显示单元 (40) ,输入端电连接所述检测单元,用于接收并显示输出所述工作状态参数。
2 、根据权利要求 1 所述镍氢电池组,其特征在于,所述检测单元包括充放状态检测电路 (33) ,所述工作状态参数 是 充电状态或放电状态。
3 、根据权利要求 1 所述镍氢电池组,其特征在于,所述检测单元包括温度传感器 (31) ,所述工作状态参数是温度值。
4 、根据权利要求 3 所述镍氢电池组,其特征在于,还包括电连接在控制单元 (20) 和所述温度传感器 (31) 之间的温度检测器 (312) 。
5 、根据权利要求 1 所述镍氢电池组,其特征在于,所述检测单元包括电压检测电路 (32) ,该 电压检测电路 (32) 包括通过 检测线 (321) 与所述 镍氢电池单元 (10) 电连接的 电压检测器 (322) ,所述工作状态参数是电压值。
6 、根据权利要求 5 所述镍氢电池组,其特征在于,所述电压检测电路 (32) 还包括串在所述检测线 (321) 上的过流保护片 (50) 。
7 、根据权利要求 1-6 任一项所述镍氢电池组,其特征在于,还包括与控制单元 (20) 电连接的告警单元 (41) ,所述控制单元 (20) 还根据接收的工作状态参数超出控制单元 (20) 预存工作状态阀值发送并由所述告警单元 (41) 输出报警信号。
8 、根据权利要求 1 、 4 或 5 所述镍氢电池组,其特征在于,还包括设有控制单元 (20) 、温度检测器 (312) 和电压检测器 (322) 的线路板 (100) 。
9、根据权利要求 1 所述镍氢电池组,其特征在于,所述控制单元 (20) 是中央处理器、单片机或可编程控制器。
10 、根据权利要求 1 所述镍氢电池组,其特征在于,还包括设有一个以上电池安装位的 PVC 热缩套管 (11) ,每个所述镍氢电池单元 (10) 嵌套在一个电池安装位中。
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