首页> 外国专利> Improvements in or relating to relay controlling apparatus in railway safety systems, for signalling between a vehicle and the track which carries the vehicle

Improvements in or relating to relay controlling apparatus in railway safety systems, for signalling between a vehicle and the track which carries the vehicle

机译:铁路安全系统中中继控制设备或与之相关的改进,用于在车辆与运载车辆的轨道之间发出信号

摘要

797,056. Railway signalling. SIEMENS & HALSKE AKT.-GES. Dec. 2, 1955, No. 34606/55. Class 105. Equipment for signalling between a railway vehicle and track apparatus comprises a Hall generator fixedly disposed in a gap in a ferromagnetic path and a signal receiver consisting of at least one relay connected to the Hall electrodes and means operable by the vehicle on a predetermined portion or section of the track to modify one or more of the factors controlling the output of the Hall generator, e.g. the strength and direction of the controlling magnetic field or the controlling current. In the first case, the Hall generator may be carried on the vehicle and arranged to interact with a magnetic field disposed on the track or the magnetic field may be carried on the vehicle and the Hall generator be disposed on the track. In the second case the controlling current of the Hall generator on the track may be derived from the track circuit and modified or varied when the vehicle enters the track section. A.C. or D.C. current-may be used for the controlling current. The Hall generator may be formed of a semi-conducting compound of one of the elements boron, aluminium, gallium and indium with one of the elements nitrogen, phosphorous arsenic and antimony having, e.g. a mobility of the electricity carriers higher than 6000 cm. sec.SP2/SP/volt. sec. As shown in Fig. 1, the vehicle carried magnet' comprises pole pieces 1, 2, a soft iron bridge 3, 4 and magnetic pieces 5, 6 forming a gap therebetween accommodating the Hall generator 7 consisting of a thin plate of semi-conducting material with control electrodes 10, 11 extending in contact over the entire horizontal edges, and Hall electrodes disposed on the vertical edges 12, 13, these Hall electrodes being of smaller area than the control electrodes. The control electrodes are supplied with current through a resistor 9 from a battery 8 and a relay 14 is connected to the Hall electrodes 12, 13. Resistance 9 which is large compared with the resistance between the control electrodes tends to keep the control current constant. For supervision of the control current, the winding of a supervisory relay may replace resistor 9. To supervise all closed circuits, the controlling field is sufficiently great to hold the relay 14 operated by the Hall voltage and for this an auxiliary magnet 15 provides additional control flux to that of the vehicle magnet 1, 2, 3, 4. The track magnet is a permanent magnet 16 with soft iron pole pieces 17, 18 having thereon neutralizing windings 19, 20 which are energized, when e.g. the track signal associated with the magnet 16 is at clear, to neutralize the field of the magnet 16 so as not to influence the Hall receiver as the vehicle magnet passes thereover. Relay 14 may be a polarized relay and the magnet 16 must then be so strong as to reverse the controlling field of the Hall generator as the vehicle magnet passes over the permanent magnet 16 when this latter is to be effective. For a relay with an armature having a stable mid position and operable to one off-normal contact or the other by energization of the relay winding by current of appropriate sign, two different signals can be transmitted, by omitting the magnet 15 and arranging the direction of the track magnet in accordance with the desired signal. The polarized relay may be replaced by two parallel connected neutral relays with respective oppositely poled current rectifiers. The permanent magnet may be carried by the train to effect control of the Hall generator assembly 1-14 disposed on the track for e.g. end-of-train signalling, route release, switching-on warning installations or for point-setting from the train. Amplifiers, preferably transistor amplifiers, are connected between the Hall generator and the signal receiver. The invention is also described in connection with axle counting systems, Figs. 2 and 3 (not shown), by reversing the Hall generator control flux as the wheel of an axle passes the main magnet of the generator assembly on the track to divert the main control flux from the Hall generator and allow an oppositely compensating flux to reduce the controlling flux to zero in the Hall generator. If D.C. controlling current is used the signal receivers are disposed immediately adjacent the Hall generator impulse emitters. If A.C. controlling current is used the A.C. output voltage from the Hall generator is stepped up by a transformer and transmitted by lines to rectifiers at the signal box, the output from the rectifiers being fed to the receiving relays to actuate the counting device. For economy in cable a particular frequency of the control current may be allocated to each impulse emitter of a counting point. As shown in Fig. 4, the A.C. control current for the Hall generator 32 disposed on the track, is derived from the track circuit of section 29, the feed to the track being through a reversing switch 28 and a resistor 39 from a mains 27, at one end of the section and the Hall generator 32 being connected through a resistor 40 across the rails at the other end of the section. The control magnetic field is produced by two choke coils 36, 37 fed from the mains 27, through a condenser 38 by which phase equality between the control field and the control current may be adjusted, so that a pulsating unidirectional voltage is set up at the Hall electrodes, the direct current component of which is fed to the track relay 35, the fundamental A.C. component and the harmonics being filtered out by the low pass filter 33, 34, 65. If relay 35 is a polarized relay with armature having a stable mid-position, the position of this relay can be changed when the track is vacant by changing over the switch 28 which results in a reversal of the control current and may be used to indicate the condition of the track section adjacent the insulation joints 30. The windings 36, 37 may alternatively be excited by current fed from the track circuit and the control current may be fed directly from the source 27 through a 90 degree phase shifter. To increase the power supplied to the signal relay 35 two or more Hall generators may be provided in juxtaposition to one another in the same gap in the magnetic circuit or in a plurality of gaps, the corresponding control electrodes being connected together and also the corresponding Hall electrodes, preferably using A.C. controlling current, in which case the control current of each Hall generator may be provided by its respective secondary winding associated with the same primary winding of a transformer fed e.g. from the track circuit, the Hall electrodes of the generators being connected in series. Alternatively all the generators may be connected into the same control circuit, Ó transformer then feeding the signal receiver from its secondary winding associated with several primary windings connected to respective Hall electrodes of the generators. Alternatively, the signal receiver may have as many windings as there are Hall generators.
机译:797,056。铁路信号。西门子和哈尔斯克AKT.-GES。 1955年12月2日,编号34606/55。类别105。用于在铁路车辆和轨道设备之间发送信号的设备包括:霍尔发生器,其固定地布置在铁磁路径的间隙中;信号接收器,该信号接收器包括至少一个与霍尔电极相连的继电器;以及车辆可在预定位置操作的装置轨道的一部分或部分,以修改控制霍尔发生器输出的一个或多个因素,例如控制磁场或控制电流的强度和方向。在第一种情况下,霍尔发生器可以被携带在车辆上并且被布置为与布置在轨道上的磁场相互作用,或者磁场可以被运载在车辆上并且霍尔发生器被布置在轨道上。在第二种情况下,霍尔发生器在轨道上的控制电流可以从轨道电路得出,并在车辆进入轨道部分时改变或改变。交流或直流电流可用于控制电流。霍尔发生器可以由硼,铝,镓和铟中的一种元素的半导体化合物与元素氮,磷,砷和锑中的一种元素的半导体化合物形成。载流子的迁移率高于6000厘米。秒 2 /伏。秒如图1所示,车载磁体包括磁极片1、2,软铁桥3、4以及在它们之间形成间隙的磁性片5、6,以容纳由半导体薄板组成的霍尔发生器7。该材料具有在整个水平边缘上接触延伸的控制电极10、11,以及在垂直边缘12、13上布置的霍尔电极,这些霍尔电极的面积小于控制电极的面积。从电池8通过电阻器9向控制电极提供电流,并且将继电器14连接到霍尔电极12、13。与控制电极之间的电阻相比,电阻9大的电阻9趋于保持控制电流恒定。为了监控控制电流,监控继电器的绕组可以代替电阻器9。为监控所有闭合电路,控制磁场足够大,以使继电器14保持由霍尔电压工作,为此,辅助磁铁15提供了附加控制磁通量是永磁体16,其具有软铁极靴17、18,其上具有中和绕组19、20,当例如时,该中和绕组被通电。与磁体16相关的轨道信号是清晰的,以抵消磁体16的磁场,从而在车辆磁体经过霍尔接收器时不影响霍尔接收器。继电器14可以是极化继电器,并且当要使永磁体16有效时,当车辆磁体经过永磁体16时,磁体16必须如此坚固,以使霍尔发生器的控制场反转。对于具有电枢的继电器,该电枢具有稳定的中间位置,并且可以通过使用适当符号的电流对继电器绕组通电来操作一个非正常接触或另一个非正常接触,则可以通过省略磁体15并布置方向来传输两个不同的信号轨道磁铁根据所需信号的角度。极化继电器可以用两个并联的中性继电器代替,它们分别带有相反极性的电流整流器。永磁体可以由火车承载,以实现对例如布置在轨道上的霍尔发电机组件1-14的控制。列车结束信号,路线释放,接通警告装置或用于从火车设置点。放大器,优选晶体管放大器,连接在霍尔发生器和信号接收器之间。还结合车轴计数系统描述了本发明,图1和2。如图2和3所示(未显示),当车轴的车轮在轨道上通过发电机组件的主磁体时,通过反转霍尔发电机的控制磁通,可以将霍尔发电机的主控制磁通转移,并允许反向补偿的磁通减小在霍尔发生器中控制磁通为零。如果使用直流控制电流,则信号接收器紧邻霍尔发生器脉冲发射器放置。如果使用交流控制电流,则霍尔变压器的交流输出电压将通过变压器升压,并通过线路传输到信号盒的整流器,整流器的输出将馈送到接收继电器,以启动计数设备。为了节省电缆,可以将控制电流的特定频率分配给计数点的每个脉冲发射器。如图4所示,设置在轨道上的霍尔发生器32的交流控制电流是从部分29的轨道电路得到的,对轨道的馈电是通过反向开关28和来自电源27的电阻39实现的。在该部分的一端,霍尔发生器32通过电阻器40跨该部分的另一端的轨道连接。控制磁场由两个从干线27馈入的扼流线圈36、37穿过电容器38产生,通过电容器38可以调节控制场和控制电流之间的相位相等,从而在输出端设置脉动单向电压。霍尔电极,其直流分量被馈送到轨道继电器35,基本的AC分量和谐波被低通滤波器33、34、65滤除。如果继电器35是极化电枢且电枢具有稳定在中间位置,当轨道空置时,可以通过切换开关28来改变该继电器的位置,这导致控制电流的反转,并且可以用于指示绝缘接头30附近的轨道部分的状况。替代地,绕组36、37可以由从跟踪电路馈送的电流激励,并且控制电流可以通过90度移相器直接从电源27馈送。为了增加提供给信号继电器35的功率,可以在磁路中的相同间隙或多个间隙中彼此并列设置两个或多个霍尔发生器,相应的控制电极以及相应的霍尔电极,最好使用交流控制电流,在这种情况下,每个霍尔发生器的控制电流可以由其各自的次级绕组提供,该次级绕组与例如馈电的变压器的同一初级绕组相关联从轨道电路来看,发电机的霍尔电极串联连接。替代地,所有发电机可以连接到相同的控制电路中,然后由变压器将来自其次级绕组的信号接收器馈给信号接收器,该次级绕组与连接到发电机各自霍尔电极的几个初级绕组相关。可替代地,信号接收器可以具有与霍尔发生器一样多的绕组。

著录项

  • 公开/公告号GB797056A

    专利类型

  • 公开/公告日1958-06-25

    原文格式PDF

  • 申请/专利权人 SIEMENS & HALSKE AKTIENGESELLSCHAFT;

    申请/专利号GB19550034606

  • 发明设计人 MILLER MAX;BAUMGART SIEGFRIED;

    申请日1955-12-02

  • 分类号B61L1/16;B61L1/18;B61L3/22;

  • 国家 GB

  • 入库时间 2022-08-23 20:24:54

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