CN113022646B - Multi-linkage shared turnout system - Google Patents
Multi-linkage shared turnout system Download PDFInfo
- Publication number
- CN113022646B CN113022646B CN202110512402.XA CN202110512402A CN113022646B CN 113022646 B CN113022646 B CN 113022646B CN 202110512402 A CN202110512402 A CN 202110512402A CN 113022646 B CN113022646 B CN 113022646B
- Authority
- CN
- China
- Prior art keywords
- group
- relay
- switching relay
- interlocking
- circuit
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Active
Links
Images
Classifications
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B61—RAILWAYS
- B61L—GUIDING RAILWAY TRAFFIC; ENSURING THE SAFETY OF RAILWAY TRAFFIC
- B61L5/00—Local operating mechanisms for points or track-mounted scotch-blocks; Visible or audible signals; Local operating mechanisms for visible or audible signals
- B61L5/06—Electric devices for operating points or scotch-blocks, e.g. using electromotive driving means
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B61—RAILWAYS
- B61L—GUIDING RAILWAY TRAFFIC; ENSURING THE SAFETY OF RAILWAY TRAFFIC
- B61L5/00—Local operating mechanisms for points or track-mounted scotch-blocks; Visible or audible signals; Local operating mechanisms for visible or audible signals
- B61L5/06—Electric devices for operating points or scotch-blocks, e.g. using electromotive driving means
- B61L5/062—Wiring diagrams
Landscapes
- Engineering & Computer Science (AREA)
- Mechanical Engineering (AREA)
- Train Traffic Observation, Control, And Security (AREA)
Abstract
A multi-interlocking shared turnout system comprises at least two interlocking devices, a multi-interlocking shared turnout control device and a group of turnouts; interlocking all connect the switch through many locks sharing switch controlling means, many locks sharing switch controlling means in be provided with the switching button that is used for selecting interlocking, switching button and interlocking one-to-one, when the switching button is pressed, the interlocking that corresponds obtains the control right of switch, other interlocking can not obtain the control right, realize a plurality of interlocks and share a set of switch of control, reduce the quantity of switch equipment, practice thrift the switch installation place, reduce the maintenance of switch, practice thrift the cost.
Description
Technical Field
The invention belongs to the technical field of rail transit, and particularly discloses a multi-linked shared turnout system.
Background
In a railway signal control system, switches and interlocks are very important devices, and trains can normally and safely run. At present, interlocks and switches used on railways have multiple equipment models of multiple manufacturers, for example, interlocks used in the Guangzhou railway administration range include computer interlocks of the general company, computer interlocks of the Kasco, computer interlocks of the iron department, and signal interlocks of other models. Even if only one group of turnouts is available, a plurality of interlocking devices cannot be adopted to control the action of one group of turnouts. However, in the implementation process, for example, in an experimental training base, the interlocking and turnout equipment are not realistic to be set in a one-to-one correspondence manner due to the limitation of factors such as site capacity, investment amount, construction period and the like, and a plurality of sets of interlocking shared turnout systems are lacked in the prior art.
Disclosure of Invention
The invention aims to provide a multi-linkage shared turnout system, which uses a plurality of sets of interlocks to control a group of turnouts.
The technical scheme of the invention is as follows: a multi-interlocking shared turnout system comprises at least two interlocking devices, a multi-interlocking shared turnout control device and a group of turnouts; the interlocking equipment all connect same group switch through many locks sharing switch controlling means, many locks sharing switch controlling means in be provided with the switching button that is used for selecting interlocking equipment, switching button and interlocking equipment one-to-one.
The further technical scheme of the invention is as follows: the multi-linkage shared turnout control device comprises an interlocking driving interface, a multi-linkage driving control combination, a turnout control combination, an interlocking acquisition interface, a multi-linkage acquisition control combination, a turnout indication combination and a mutual exclusion switching circuit; the interlocking drive interface, the multi-interlocking drive control combination and the turnout control combination are sequentially connected in series, and the mutual exclusion switching circuit is connected with the multi-interlocking drive control combination; the turnout indication combination, the multi-interlocking acquisition control combination and the interlocking acquisition interface are sequentially connected in series, and the mutual exclusion switching circuit is connected with the multi-interlocking acquisition control combination.
The further technical scheme of the invention is as follows: the multi-linkage shared turnout control device further comprises an interlocking indication switching circuit connected with the mutual exclusion switching circuit, wherein the interlocking indication switching circuit comprises an interlocking indoor indicator lamp, a multi-linkage indication control combination and an interlocking outdoor indicator lamp which are sequentially connected in series.
The further technical scheme of the invention is as follows: the multi-interlocking indication control combination comprises: the first interlocking indicator light circuit is connected with the eighth group A rear contact of the first switching relay and the eighth group A rear contact of the second switching relay in series, the second interlocking indicator light circuit is connected with the eighth group B rear contact of the first switching relay and the eighth group B front contact of the second switching relay in series, the third interlocking indicator light circuit is connected with the eighth group C front contact of the first switching relay and the eighth group C rear contact of the second switching relay in series, and the fourth interlocking indicator light circuit is connected with the eighth group D front contact of the first switching relay and the eighth group D front contact of the second switching relay in series.
The further technical scheme of the invention is as follows: the turnout control combination comprises a fixed operation relay, a reverse operation relay and a locking protection relay; one end of the excitation of the fixed operation relay, the reverse operation relay and the locking protection relay is connected with the negative interlocking control electricity, and the other end of the excitation is connected with the multi-interlocking drive control combination; the turnout representation combination comprises a fixed-table acquisition line, a reverse-table acquisition line and a fixed-reverse acquisition line; one end of the fixed-meter acquisition line, the inverse-meter acquisition line and the fixed-inverse acquisition line is connected with an interlocking control positive electricity IOZ, and the other end of the fixed-inverse acquisition line is connected with a multi-interlocking acquisition control combination.
The further technical scheme of the invention is as follows: the mutual exclusion switching circuit comprises a first button, a second button, a third button, a fourth button, a button relay, a first switching relay and a second switching relay; the normally closed contact of the third button is connected in series with the button relay excitation and then connected between the positive pole and the negative pole of the power supply; the normally closed contact of the first button, the first group of front contacts of the button relay, the first switching relay excitation, the second switching relay excitation, the fifth group of front contacts of the button relay and the normally open contact of the fourth button are sequentially connected in series and then connected between the positive pole and the negative pole of the power supply; one end of a third group of rear contacts of the button relay is connected to a series point of a fifth group of front contacts and the excitation of the second switching relay, and the other end of the third group of rear contacts of the button relay is connected with the negative electrode of the power supply; after the eighth group of front contacts of the button relay are connected with the normally open contact of the second button in series, one end of the button relay is connected with the negative electrode of the power supply, and the other end of the button relay is connected with the series connection point of the excitation of the first switching relay and the excitation of the second switching relay; the first set of rear contacts of the push button relay is connected to the series point of the first switching relay excitation and the second switching relay excitation.
The further technical scheme of the invention is as follows: and a resistor is connected in series between the eighth group of front contacts of the button relay and the normally open contact of the second button.
The further technical scheme of the invention is as follows: and the excitation two ends of the button relay, the first switching relay and the second switching relay are connected with a backward diode in parallel.
The further technical scheme of the invention is as follows: the multi-interlocking drive control combination comprises a first interlocking drive circuit, a second interlocking drive circuit, a third interlocking drive circuit and a fourth interlocking drive circuit; the first interlock drive circuit includes: the drive line of the fixed operating relay is connected with a first group A rear contact of the first switching relay and a first group A rear contact circuit of the second switching relay in series, the drive line of the reverse operating relay is connected with a second group A rear contact of the first switching relay and a second group A rear contact circuit of the second switching relay in series, and the drive line of the locking protective relay is connected with a third group A rear contact of the first switching relay and a third group A rear contact circuit of the second switching relay in series; the second interlock driving circuit includes: the drive line of the fixed operating relay is connected with a first group B front contact of a first switching relay and a first group B rear contact circuit of a second switching relay in series, and the drive line of the reverse operating relay is connected with a second group B front contact of the first switching relay and a second group B rear contact circuit of the second switching relay in series; a driving wire of the locking protection relay is connected with a third group B front contact of the first switching relay and a third group B rear contact circuit of the second switching relay in series; the third interlock driving circuit includes: the drive line of the fixed operating relay is connected with a first group C rear contact of a first switching relay and a first group C front contact circuit of a second switching relay in series, the drive line of the reverse operating relay is connected with a second group C rear contact of the first switching relay and a second group C front contact circuit of the second switching relay in series, and the drive line of the locking protective relay is connected with a third group C rear contact of the first switching relay and a third group C front contact circuit of the second switching relay in series; the fourth interlock driving circuit includes: the drive line of the fixed operating relay is connected with a first group D front contact of the first switching relay and a first group D front contact circuit of the second switching relay in series, the drive line of the reverse operating relay is connected with a second group D front contact of the first switching relay and a second group D front contact circuit of the second switching relay in series, and the drive line of the locking protective relay is connected with a third group D front contact of the first switching relay and a third group D front contact circuit of the second switching relay in series.
The further technical scheme of the invention is as follows: the multi-interlocking acquisition control combination comprises a first interlocking acquisition circuit, a second interlocking acquisition circuit, a third interlocking acquisition circuit and a fourth interlocking acquisition circuit; the first interlock acquisition circuit comprises: the fourth group A rear contact of the first switching relay and the fourth group A rear contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group A rear contact of the first switching relay and the fifth group A rear contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group A rear contact of the first switching relay and the sixth group A rear contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line; the second interlock acquisition circuit comprises: the fourth group B rear contact of the first switching relay and the fourth group B front contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group B rear contact of the first switching relay and the fifth group B front contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group B rear contact of the first switching relay and the sixth group B front contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line; the third interlock acquisition circuit includes: a fourth group C front contact of the first switching relay and a fourth group C rear contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, a fifth group C front contact of the first switching relay and a fifth group C rear contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and a sixth group C front contact of the first switching relay and a sixth group C rear contact circuit of the second switching relay are connected in series on the fixed meter reverse acquisition line; the fourth interlock acquisition circuit include: the fourth group D front contact of the first switching relay and the fourth group D front contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group D front contact of the first switching relay and the fifth group D front contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group D front contact of the first switching relay and the sixth group D front contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line.
The invention has the positive effects that: the invention comprises at least two interlocking devices, a multi-linked shared turnout control device and a group of turnouts; interlocking all connect the switch through many locks sharing switch controlling means, many locks sharing switch controlling means in be provided with the switching button that is used for selecting interlocking, switching button and interlocking one-to-one, when the switching button is pressed, the interlocking that corresponds obtains the control right of switch, other interlocking can not control the switch, realize a set of switch of a plurality of interlocking shared control, reduce the quantity of switch equipment, practice thrift the switch installation place, reduce the maintenance of switch, practice thrift the cost.
The invention will be further described with reference to the accompanying drawings and specific embodiments.
Drawings
Fig. 1 is a block diagram of a circuit for controlling a group of turnouts shared by a plurality of interlocking devices.
Fig. 2 is a schematic block diagram of a multiple-interlocking shared turnout system.
FIG. 3 is a schematic diagram of a mutex switching circuit.
Fig. 4 is a circuit diagram of a multiple-interlocking drive control combination circuit.
Fig. 5 is a circuit diagram of a multi-lock acquisition control combination circuit.
Fig. 6 is a circuit diagram of a multiple lock indication control combination circuit.
FIG. 7 is a schematic diagram of an improved mutex switching circuit.
In the figure: LS1 first interlock, LS2 second interlock, LS3 third interlock, LS4 fourth interlock, LS1A first button, LS2A second button, LS3A third button, LS4A fourth button, LS3AJ button relay, QHJ1 first switching relay, QHJ2 second switching relay, DCJ operation setting relay, FCJ operation reversing relay, DBJ meter setting relay, FBJ operation reversing relay, SFJ lock protection relay, IOZ interlock control positive electricity, IOF interlock control negative electricity, KZ power supply positive pole, KF power supply negative pole, and ↓relayfall-down state.
Detailed Description
The invention is described in further detail below with reference to the figures and specific examples. It should be noted that: the technical features or combinations of the technical features described in the embodiments should not be considered as being isolated, and they may be re-used independently or combined with each other to achieve better technical effects, and should be understood as the scope of the present invention.
The drive information of the interlocking to the switch is generally three: the driving fixed operation relay sucks up the DCJ ℃, (the driving reverse operation relay sucks up the FCJ ℃, (the driving reverse operation relay) and (the driving locking protection relay) suck up the SFJ ℃, (the driving reverse operation relay). The switch representation information collected by interlocking is generally three: and the fixed table relay sucks up a DBJ ≠ state, the reverse table relay sucks up an FBJ ℃ state and a state when the fixed table relay DBJ and the reverse table relay FBJ fall down simultaneously. The relay used in this embodiment includes a plurality of sets of contacts, each set of contacts has a front contact and a rear contact, and a certain set of contacts, front contacts or rear contacts is indicated to be used in the circuit, so as to facilitate distinguishing a specific circuit, and the use of only the set of contacts, front contacts or rear contacts is not limited, and other sets of contacts, front contacts or rear contacts may be used as long as the same function can be achieved. In the embodiment, four sets of interlocking devices are used to share one set of turnout for description, and it is understood that two, three or more sets of interlocking devices may share one set of turnout, and the invention also belongs to the scope of the invention.
A multi-linked shared turnout system comprises at least two interlocking devices, a multi-linked shared turnout control device and a group of turnouts; interlocking all connect same group switch through many locks sharing switch controlling means, many locks sharing switch controlling means in be provided with the switching button that is used for selecting interlocking equipment, switching button and interlocking equipment one-to-one, when the switching button is pressed, the interlocking equipment that corresponds obtains the control right of switch, other interlocking equipment can not control the switch, realize a plurality of interlocking equipment sharing control a set of switch, reduce the quantity of switch equipment, practice thrift switch installation place, reduce the maintenance of switch, practice thrift the cost.
As shown in fig. 1, the multiple-interlocking shared turnout system comprises four interlocking devices including a first interlocking device, a second interlocking device, a third interlocking device and a fourth interlocking device, wherein the four interlocking devices are all connected with a multiple-interlocking shared turnout control device, and the multiple-interlocking shared turnout control device is connected with a group of turnouts. Four switching buttons, namely a first button, a second button, a third button and a fourth button are arranged in the multi-interlocking shared turnout control device. When a first button is pressed, the first interlocking control circuit is switched on, other three interlocking control circuits are switched off, and the first interlocking obtains the control right of the turnout; when the second button is pressed, the second interlocking control circuit is switched on, other three interlocked control circuits are switched off, and the second interlocking obtains the control right of the turnout; when the third button is pressed, the third interlocking control circuit is connected, other three interlocked control circuits are disconnected, and the third interlocking obtains the control right of the turnout; when the fourth button is pressed, the fourth interlocking control circuit is switched on, other three interlocked control circuits are switched off, and the fourth interlocking obtains the control right of the turnout. So, realize four interlocking sharing control a set of switch, reduced switch quantity and switch installation place, practice thrift the cost.
Referring to fig. 2, the multiple-interlocking shared control turnout device includes an interlocking drive interface, a multiple-interlocking drive control combination, a turnout control combination, an interlocking acquisition interface, a multiple-interlocking acquisition control combination, a turnout indication combination, and a mutual exclusion switching circuit; the interlocking drive interface, the multi-interlocking drive control combination and the turnout control combination are sequentially connected in series, and the mutual exclusion switching circuit is connected with the multi-interlocking drive control combination; the turnout indication combination, the multi-interlocking acquisition control combination and the interlocking acquisition interface are sequentially connected in series, and the mutual exclusion switching circuit is connected with the multi-interlocking acquisition control combination. The interlock driving interface can be connected with a plurality of sets of interlock devices, such as a first interlock LS1, a second interlock LS2, a third interlock LS3 and a fourth interlock LS4 device, the mutual exclusion switching circuit controls the action of a plurality of interlock driving control combinations, and the switch control combinations are connected with a specific interlock device exclusively and exclusively; the mutual exclusion switching circuit controls the action of the multi-interlocking acquisition control combination, and uniquely and exclusively connects the turnout indication combination to a certain interlocking device. The mutual exclusion switching circuit controls the action of the multi-interlocking drive control combination and the multi-interlocking acquisition control combination, the control right of the turnout is unique and exclusively connected to the specified interlocking equipment, a plurality of interlocking equipment are shared to control a group of turnouts, the number of turnout equipment is reduced, the turnout installation site is saved, the construction engineering quantity of the turnout is reduced, the maintenance of the turnout is reduced, the operation is simple, and the cost is saved.
Referring to fig. 2 and fig. 6, in this embodiment, the multiple-interlocking shared turnout control device further includes an interlocking indication switching circuit connected to the mutual exclusion switching circuit, where the interlocking indication switching circuit includes an interlocking indoor indicator lamp, a multiple-interlocking indication control combination, and an interlocking outdoor indicator lamp, which are sequentially connected in series. The interlocking indicator lamps are arranged both indoors and outdoors, such as a first interlocking LS1 red indicator lamp, a second interlocking LS2 green indicator lamp, a third interlocking LS3 yellow indicator lamp and a fourth interlocking LS4 blue indicator lamp, the mutual exclusion switching circuit is connected with the interlocking indication switching circuit to control the multi-interlocking indication control combination action, after the selected interlocking equipment obtains the turnout control right, the indicator lamp corresponding to the interlocking equipment is lightened to display that the interlocking equipment obtains the turnout control right, and the situation that an indoor operator and an outdoor operator can conveniently master the turnout control right is taken as another concept of the invention, the indicator lamps can be arranged only indoors or outdoors.
As shown in fig. 4, the switch control combination includes a fixed operation relay DCJ ↓, a reverse operation relay FCJ ↓, and a locking protection relay SFJ ↓; and one end of the excitation of the fixed operation relay, the reverse operation relay and the locking protection relay is connected with the negative IOF of the interlocking control, and the other end of the excitation is connected with the multi-interlocking drive control combination. The exclusive switching circuit controls the multi-interlock driving control combination action, and the exclusive and exclusive fixed operation relay DCJ ↓, the reverse operation relay FCJ ↓andthe locking protection relay SFJ ↓areconnected with the selected interlock equipment.
As shown in fig. 5, the switch representation combination includes a fixed table acquisition line, a reverse table acquisition line and a fixed reverse acquisition line; one end of the fixed-meter acquisition line, the inverse-meter acquisition line and the fixed-inverse acquisition line is connected with an interlocking control positive electricity IOZ, and the other end of the fixed-inverse acquisition line is connected with a multi-interlocking acquisition control combination. An acquisition circuit formed by the fourth group of front contacts of the fixed table relay DBJ ↓ is a fixed table acquisition line, an acquisition circuit formed by the fourth group of front contacts of the inverse table relay FBJ ↓ is an inverse table acquisition line, and a series acquisition circuit formed by the third group of front contacts of the fixed table relay DBJ ↓ and the third group of front contacts of the inverse table relay FBJ ↓ ] is a fixed inverse acquisition line. The exclusive switching circuit controls the action of the multi-interlocking acquisition control combination, and the unique exclusive turnout representation combination formed by the fixed table acquisition line, the inverted table acquisition line and the fixed inverted acquisition line is connected to the selected interlocking equipment.
As shown in fig. 3, the mutually exclusive switching circuit includes a first push button LS1A, a second push button LS2A, a third push button LS3A, a fourth push button LS4A, a push button relay LS3AJ, a first switching relay QHJ1, and a second switching relay QHJ 2; the normally closed contact of the third button is connected in series with the button relay excitation and then connected between the positive electrode KZ and the negative electrode KF of the power supply; the normally closed contact of the first button, the first group of front contacts of the button relay, the first switching relay excitation, the second switching relay excitation, the fifth group of front contacts of the button relay and the normally open contact of the fourth button are sequentially connected in series and then connected between the positive pole and the negative pole of the power supply; one end of a third group of rear contacts of the button relay is connected to a series point of a fifth group of front contacts and the excitation of the second switching relay, and the other end of the third group of rear contacts of the button relay is connected with the negative electrode of the power supply; after the eighth group of front contacts of the button relay are connected with the normally open contact of the second button in series, one end of the button relay is connected with the negative electrode of the power supply, and the other end of the button relay is connected with the series connection point of the excitation of the first switching relay and the excitation of the second switching relay; the first set of rear contacts of the push button relay is connected to the series point of the first switching relay excitation and the second switching relay excitation.
The exclusive switching circuit comprises four switching buttons, namely a first button LS1A, a second button LS2A, a third button LS3A and a fourth button LS4A, wherein the switching buttons adopt two groups of buttons for connecting the contacts, the two groups of contacts are simultaneously connected when the switching buttons are pressed down, and then the two groups of contacts are simultaneously disconnected when the switching buttons are pressed down.
The exclusive switching circuit comprises a button relay LS3 AJ. Pressing the third button LS3A causes the button relay LS3AJ ↓ to suck up. The button relay LS3J adopts JWXC-1700 type railway signal electrodeless 1700 safety type relay, and the excitation circuit of the relay is powered by +24V KZ and-24V KF. The first and third groups of front contacts of the push button relay LS3AJ control the first switching relay QHJ1 ↓andthe second switching relay QHJ2 ↓andinhale, and the sixth and eighth groups of rear contacts of the push button relay LS3AJ control the second push button LS2A and the fourth push button LS4A to realize mutual exclusion switching when being pressed.
The mutual exclusion switching circuit comprises two switching relays, namely a first switching relay QHJ1 and a second switching relay QHJ2, the two switching relays are JWXC-1700 type railway signal electrodeless 1700 safety relays, and the excitation circuits of the relays are powered by +24V KZ and-24V KF. In this embodiment, it should be understood that the number of the contacts of the first switching relay QHJ1 and the second switching relay QHJ2 is sufficient enough to meet the requirement of the connection of the switching circuit, when the number of the contacts of one relay cannot meet the connection requirement, for example, the adopted JWXC-1700 type railway signal electrodeless 1700 safety relay has only 8 groups of nodes, the type of relay can be connected in parallel to form a relay group, and the relays in the group act in the same manner, i.e., the relays are duplicated, so that the requirement of the number of the contacts of the relay is met. As shown in fig. 3, 4 and 5, the first switching relay QHJ1 has 32 contacts, and a relay group formed by four JWXC-1700 type relays connected in parallel is named A, B, C and D for convenience of distinguishing, wherein "first group a front contacts of the first switching relay QHJ 1" represents first group front contacts of the a relay in the first switching relay group, "second group B front contacts of the first switching relay QHJ 1" represents second group front contacts of the B relay in the first switching relay group, and so on. The second switching relay QHJ2 has 32 contacts, and is a relay group formed by connecting four other JWXC-1700 type relays in parallel, and for convenience of distinguishing between them, they are named A, B, C and D, wherein "the first group a of front contacts of the second switching relay QHJ 2" represents the first group of front contacts of the a relay in the second switching relay group, "the second group B of front contacts of the second switching relay QHJ 2" represents the second group of front contacts of the B relay in the second switching relay group, and so on.
The four buttons and the button relay are matched to control the two switching relays to suck or fall down, and a group of turnouts is controlled by sharing a plurality of interlocking devices. As shown in fig. 3, 4 and 5, the control process is as follows:
pressing the first button LS1A, no matter which set of interlocking devices are switched on before switching, the excitation circuits of the first switching relay QHJ1 and the second switching relay QHJ2 are switched off, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓areswitched on the first interlocking LS1 control circuit, the other three interlocking control circuits are switched off, switching is performed to the first interlocking LS1 control circuit, and the first interlocking LS1 device obtains the turnout control right.
Pressing the second push button LS2A pops up the other three push buttons, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓ and turn off the other three interlock control circuits, turn on the second interlock LS2 control circuit, and the second interlock LS2 device obtains the switch control right.
The third button LS3A is pressed to bounce other three buttons, the button relays LS3AJ ×) suck up, the first switching relay QHJ1 ↓afterthe excitation circuit of the first switching relay QHJ1 is disconnected, the second switching relay QHJ2 ×) after the excitation circuit of the second switching relay QHJ2 is connected, other three interlocking control circuits are disconnected, the third interlocking LS3 control circuit is connected, and the third interlocking LS3 device obtains the turnout control right.
Pressing the fourth button LS4A, popping up the other three buttons, the first switching relay QHJ1 ℃ > and the second switching relay QHJ2 ℃, > disconnecting the other three interlock control circuits, switching on the fourth interlock LS4 control circuit, and the fourth interlock LS4 device obtains the switch control right.
The mutual exclusion switching circuit realizes mutual exclusion of all interlocks and guarantees the following safety guarantee measures for controlling the turnout by only selecting the interlock equipment:
when the mutual exclusion switching circuit fails, the first switching relay QHJ1 and the second switching relay QHJ2 cannot be excited, the first interlock LS1 control circuit is switched on, and it is guaranteed that at least the first interlock LS1 equipment can control turnouts under any condition.
When the four push buttons are pressed simultaneously, as long as the first push button LS1A is pressed, the excitation circuits of the first switching relay QHJ1 and the second switching relay QHJ2 are switched off, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓areswitched on, the control circuit of the first push button LS1A is switched on, and the first interlock LS1 device can control the turnout.
When the third button LS3A and the second button LS2A are pressed simultaneously, since the eighth set of rear contacts of the button relay LS3AJ are connected in series in front of the second button LS2A, at this time, after the third button LS3A is pressed, the button relay LS3AJ is energized, the negative electric KF of the second button LS2A is turned off, only the second switching relay QHJ2 is energized, the second switching relay QHJ2 ↓isenabled, and the first switching relay QHJ1 is energized, so that the first switching relay QHJ1 ↓isenabled, only the third interlock LS3 control circuit is enabled, which has the same effect as that of only pressing the third switching button LS 3A.
When the second and fourth buttons LS2A and LS4A are pressed simultaneously, there are two excitation circuits: KZ-LS1A (Bounce) -LS3AJ 1-QHJ 1-QHJ 2-LS 3AJ 5-LS 4A (Down) -KF; KZ-LS1A (Bounce) -LS3AJ 1-QHJ 1-LS 3AJ 8-R-LS 2A (Down) -KF. And a resistor R is connected in series between the eighth group of front contacts of the button relay and the normally open contact of the second button. Since a 1k Ω resistor R is connected in series in the (pressed) path of the second switching button LS2A, the excitation of the second switching relay QHJ2 is not affected. At this time, the first and second switching relays QHJ1 ↓and QHJ2 ×) and the fourth interlock LS4 control circuit are turned on, and the same effect as the switching button of the fourth interlock LS4 is pressed.
When the third push button LS3A, the second push button LS2A and the fourth push button LS4A are pressed simultaneously, since the eighth group of rear contacts of the push button relay LS3AJ are connected in series in front of the second push button LS2A and the fifth group of rear contacts of the push button relay LS3AJ are connected in series in front of the fourth push button LS4A, at this time, after the third push button LS3A is pressed, the push button relay LS3AJ is excited and attracted, the negative terminals KF of the second push button LS2A and the fourth push button LS4A are turned off, only the excitation circuit of the second switching relay QHJ2 is turned on, the second switching relay QHJ2 ↓isturned off, the excitation circuit of the first switching relay QHJ1 is turned off, the first switching relay QHJ1 ↓, only the control circuit of the third interlock LS3 is turned on, and the effect is the same as that only the third push button LS3A is pressed.
Therefore, no matter the exclusive switching circuit breaks down or takes place that a plurality of buttons are pressed simultaneously, all have and only an interlock acquires the control right of switch, the guarantee switch can be controlled by the interlock, a plurality of interlocks simultaneous control switch can not appear, lead to control command wadding in disorder, damage switch equipment, guarantee switch equipment safety work in order.
As shown in fig. 4, the multi-gang lock drive control combination includes a first interlock driving circuit, a second interlock driving circuit, a third interlock driving circuit, and a fourth interlock driving circuit.
The first interlock drive circuit includes: the drive line of the fixed operating relay DCJ is connected in series with a first group a rear contact of the first switching relay QHJ1 and a first group a rear contact circuit of the second switching relay QHJ2, the drive line of the reverse operating relay FCJ is connected in series with a second group a rear contact of the first switching relay QHJ1 and a second group a rear contact circuit of the second switching relay QHJ2, and the drive line of the locking protection relay FSJ is connected in series with a third group a rear contact of the first switching relay QHJ1 and a third group a rear contact circuit of the second switching relay QHJ 2. After the first button LS1A is pressed, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓, turn on the switch control circuit of the first interlock LS1, and turn off the switch control circuits of the other three interlocks.
The second interlock driving circuit includes: a first group B front contact of a first switching relay QHJ1 and a first group B rear contact circuit of a second switching relay QHJ2 are connected in series on a driving wire of the fixed operating relay DCJ, and a second group B front contact of a first switching relay QHJ1 and a second group B rear contact circuit of a second switching relay QHJ2 are connected in series on a driving wire of the reverse operating relay FCJ; the drive line of the lock protection relay SFJ is connected in series with the third group B front contact of the first switching relay QHJ1 and the third group B rear contact circuit of the second switching relay QHJ 2. After the second button LS2A is pressed, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓turnon the switch control circuit of the second linkage LS2 and turn off the switch control circuits of other three sets of interlocks.
The third interlock driving circuit includes: the drive line of the fixed operating relay DCJ is connected in series with a first group C rear contact of the first switching relay QHJ1 and a first group C front contact circuit of the second switching relay QHJ2, the drive line of the reverse operating relay FCJ is connected in series with a second group C rear contact of the first switching relay QHJ1 and a second group C front contact circuit of the second switching relay QHJ2, and the drive line of the locking protection relay SFJ is connected in series with a third group C rear contact of the first switching relay QHJ1 and a third group C front contact circuit of the second switching relay QHJ 2. After the third button LS3A is pressed, the switching button relays LS3AJ ↓, the first switching relay QHJ1 ↓andthe second switching relay QHJ2 ↓areswitched on the switch control circuit of the third interlocking LS3, and the switch control circuits of other 3 sets of interlocking are switched off.
The fourth interlock driving circuit includes: the drive line of the fixed operating relay DCJ is connected in series with a first group D front contact of the first switching relay QHJ1 and a first group D front contact circuit of the second switching relay QHJ2, the drive line of the reverse operating relay FCJ is connected in series with a second group D front contact of the first switching relay QHJ1 and a second group D front contact circuit of the second switching relay QHJ2, and the drive line of the locking protection relay SFJ is connected in series with a third group D front contact of the first switching relay QHJ1 and a third group D front contact circuit of the second switching relay QHJ 2. After the fourth button LS4A is pressed, the first switching relay QHJ1 ℃ > and the second switching relay QHJ2 ℃ > switch on the fourth interlocking LS4 switch control circuit, and switch off the other 3 sets of interlocked switch control circuits.
The computer interlocking respectively outputs two driving signals after receiving the station information and interlocking logic operation: when a switch reverse position orientation manipulation command is output, an interlocking control positive electricity IOZ is output on a corresponding driving circuit of a fixed manipulation relay DCJ and a locking protection relay SFJ, and an interlocking control negative electricity IOF in a side terminal combined with the switch control is configured to pass through the fixed manipulation relay DCJ and the locking protection relay SFJ excitation circuit and drive the fixed manipulation relay DCJ ≦ and the locking protection relay SFJ ≦ 111; when the switch location is output to the manipulation command of counterposition, output interlocking control positive electricity IOZ on reverse operation relay FCJ and locking protection relay SFJ correspond the drive circuit, with the interlocking control negative electricity IOF in the switch control combination side terminal, construct and lead to reverse operation relay FCJ and locking protection relay SFJ excitation circuit, drive reverse operation relay FCJ ≧ and locking protection relay SFJ ≧ is.
As shown in fig. 5, the multi-gang acquisition control combination includes: the system comprises a first interlocking acquisition circuit, a second interlocking acquisition circuit, a third interlocking acquisition circuit and a fourth interlocking acquisition circuit.
The first interlock acquisition circuit comprises: and the fixed meter acquisition line is connected with a fourth group A rear contact of the first switching relay and a fourth group A rear contact circuit of the second switching relay in series, the reverse meter acquisition line is connected with a fifth group A rear contact of the first switching relay and a fifth group A rear contact circuit of the second switching relay in series, and the fixed reverse acquisition line is connected with a sixth group A rear contact of the first switching relay and a sixth group A rear contact circuit of the second switching relay in series. When the first button LS1A is pressed, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓, the switch of the first interlock LS1 is turned on to indicate the acquisition circuit, and the switch of the other three interlocks is turned off to indicate the acquisition circuit.
The second interlock acquisition circuit comprises: the fourth group B rear contact of the first switching relay and the fourth group B front contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group B rear contact of the first switching relay and the fifth group B front contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group B rear contact of the first switching relay and the sixth group B front contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line; when the second button LS2A is pressed, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓ turn on the second interlocking LS2 turnout to indicate the acquisition circuit, and turn off the other three sets of interlocking turnouts to indicate the acquisition circuit.
The third interlock acquisition circuit includes: the fourth group C front contact of the first switching relay and the fourth group C rear contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group C front contact of the first switching relay and the fifth group C rear contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group C front contact of the first switching relay and the sixth group C rear contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line. When the third button LS3A is pressed, the first switching relay QHJ1 ↓ and the second switching relay QHJ2 ↓turnon the third interlocking LS3 turnout to indicate the acquisition circuit, and the other three sets of interlocking turnout to indicate the acquisition circuit.
The fourth interlock acquisition circuit include: the fourth group D front contact of the first switching relay and the fourth group D front contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group D front contact of the first switching relay and the fifth group D front contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group D front contact of the first switching relay and the sixth group D front contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line. When the fourth button LS3A is pressed, the first switching relay QHJ1 ℃ > and the second switching relay QHJ2 ℃,. the fourth interlock LS4 turnout is turned on to indicate the acquisition circuit, and the other three sets of interlocked turnouts are turned off to indicate the acquisition circuit.
As shown in fig. 6, the currently turned-on interlock device is indicated by the suck and drop states of the first switching relay QHJ1 and the second switching relay QHJ2 of the multiple interlock indication control combination. In the multiple lock drive control combining circuit and the multiple lock acquisition control combining circuit, the first to sixth groups of the contacts of the first switching relay QHJ1 and the second switching relay QHJ2 have been used, and the seventh group and the eighth group of the contacts remain. The design utilizes the eighth group of contacts of the first switching relay QHJ1 and the second switching relay QHJ2 to form a communication interlocking control indicator lamp circuit.
The multi-interlocking indication control combination comprises: and an eighth group A rear contact of the first switching relay QHJ1 and an eighth group A rear contact of the second switching relay QHJ2 are connected in series on the first interlock LS1 indicator lamp circuit and used for indicating the first interlock LS1 equipment to be switched on to obtain the turnout control right. And an eighth group B rear contact of the first switching relay QHJ1 and an eighth group B front contact of the second switching relay QHJ2 are connected in series on the second interlock LS2 indicator lamp circuit and used for indicating the second interlock LS2 equipment to be switched on to obtain the turnout control right. And an eighth group C front contact of the first switching relay QHJ1 and an eighth group C rear contact of the second switching relay QHJ2 are connected in series on an indicator lamp circuit of the third interlock LS3 and used for indicating the connection of the third interlock LS3 equipment to acquire the turnout control right. And an eighth group D front contact of the first switching relay QHJ1 and an eighth group D front contact of the second switching relay QHJ2 are connected in series on the fourth interlocking LS4 indicator lamp circuit and used for indicating the fourth interlocking LS4 equipment to be switched on to obtain the turnout control right.
In the switching operation control panel, corresponding interlock control indicating lamps are arranged above switching buttons corresponding to four sets of interlocks of the first interlock LS1, the second interlock LS2, the third interlock LS3 and the fourth interlock LS 4. In order to facilitate the synchronization of indoor interlocking and outdoor turnout control, a set of corresponding interlocking indicator lamps is also installed beside the outdoor station track. The outdoor interlocking indicator lamp and the indoor interlocking indicator lamp adopt the same control conditions and keep synchronous display.
As shown in fig. 7, the reverse diodes are connected in parallel to the energized terminals of the push button relay LS3AJ, the first switching relay QHJ1, and the second switching relay QHJ 2. When the button is switched on and switched off, the reverse diode can eliminate high voltage generated on a relay coil, prevent components on a circuit from being damaged by the high voltage, reduce electromagnetic radiation and avoid interference with other electronic equipment.
Although the present invention has been described with reference to a preferred embodiment, it should be understood that various changes, substitutions and alterations can be made herein without departing from the spirit and scope of the invention as defined by the appended claims.
Claims (9)
1. The utility model provides a many gang lock sharing switch systems which characterized by: the device comprises at least two interlocking devices, a multi-linked shared turnout control device and a group of turnouts; the interlocking devices are all connected with the same group of turnouts through a multi-interlocking shared turnout control device, switching buttons for selecting the interlocking devices are arranged in the multi-interlocking shared turnout control device, and the switching buttons correspond to the interlocking devices one by one; the multi-linkage shared turnout control device comprises an interlocking driving interface, a multi-linkage driving control combination, a turnout control combination, an interlocking acquisition interface, a multi-linkage acquisition control combination, a turnout indication combination and a mutual exclusion switching circuit;
the interlocking drive interface, the multi-interlocking drive control combination and the turnout control combination are sequentially connected in series, and the mutual exclusion switching circuit is connected with the multi-interlocking drive control combination;
the turnout indication combination, the multi-interlocking acquisition control combination and the interlocking acquisition interface are sequentially connected in series, and the mutual exclusion switching circuit is connected with the multi-interlocking acquisition control combination.
2. A multiple gang lock shared switch system as claimed in claim 1, wherein: the multi-linkage shared turnout control device further comprises an interlocking indication switching circuit connected with the mutual exclusion switching circuit, wherein the interlocking indication switching circuit comprises an interlocking indoor indicator lamp, a multi-linkage indication control combination and an interlocking outdoor indicator lamp which are sequentially connected in series.
3. A multiple gang lock shared switch system as claimed in claim 2, wherein: the multi-interlocking indication control combination comprises: the first interlocking indicator light circuit is connected with the eighth group A rear contact of the first switching relay and the eighth group A rear contact of the second switching relay in series, the second interlocking indicator light circuit is connected with the eighth group B rear contact of the first switching relay and the eighth group B front contact of the second switching relay in series, the third interlocking indicator light circuit is connected with the eighth group C front contact of the first switching relay and the eighth group C rear contact of the second switching relay in series, and the fourth interlocking indicator light circuit is connected with the eighth group D front contact of the first switching relay and the eighth group D front contact of the second switching relay in series.
4. A multiple gang lock shared switch system as claimed in claim 1, wherein: the turnout control combination comprises a fixed operation relay, a reverse operation relay and a locking protection relay; one end of the excitation of the fixed operation relay, the reverse operation relay and the locking protection relay is connected with the negative interlocking control electricity, and the other end of the excitation is connected with the multi-interlocking drive control combination;
the turnout representation combination comprises a fixed-table acquisition line, a reverse-table acquisition line and a fixed-reverse acquisition line; one end of the fixed-meter acquisition line, the inverted-meter acquisition line and the fixed-inverted-meter acquisition line is connected with the interlocking control positive electricity, and the other end of the fixed-inverted-meter acquisition line is connected with the multi-interlocking acquisition control combination.
5. A multiple gang lock shared switch system as claimed in claim 1, wherein: the mutual exclusion switching circuit comprises a first button, a second button, a third button, a fourth button, a button relay, a first switching relay and a second switching relay;
the normally closed contact of the third button is connected in series with the button relay excitation and then connected between the positive pole and the negative pole of the power supply;
the normally closed contact of the first button, the first group of front contacts of the button relay, the first switching relay excitation, the second switching relay excitation, the fifth group of front contacts of the button relay and the normally open contact of the fourth button are sequentially connected in series and then connected between the positive pole and the negative pole of the power supply; one end of a third group of rear contacts of the button relay is connected to a series point of a fifth group of front contacts and the excitation of the second switching relay, and the other end of the third group of rear contacts of the button relay is connected with the negative electrode of the power supply; after the eighth group of front contacts of the button relay are connected with the normally open contact of the second button in series, one end of the button relay is connected with the negative electrode of the power supply, and the other end of the button relay is connected with the series connection point of the excitation of the first switching relay and the excitation of the second switching relay; the first set of rear contacts of the push button relay is connected to the series point of the first switching relay excitation and the second switching relay excitation.
6. A multiple gang lock shared switch system as claimed in claim 5, wherein: and a resistor is connected in series between the eighth group of front contacts of the button relay and the normally open contact of the second button.
7. A multiple gang lock shared switch system as claimed in claim 5, wherein: and the excitation two ends of the button relay, the first switching relay and the second switching relay are connected with a backward diode in parallel.
8. A multiple gang lock shared switch system as claimed in claim 1, wherein: the multi-interlocking drive control combination comprises a first interlocking drive circuit, a second interlocking drive circuit, a third interlocking drive circuit and a fourth interlocking drive circuit;
the first interlock drive circuit includes: the drive line of the fixed operating relay is connected with a first group A rear contact of the first switching relay and a first group A rear contact circuit of the second switching relay in series, the drive line of the reverse operating relay is connected with a second group A rear contact of the first switching relay and a second group A rear contact circuit of the second switching relay in series, and the drive line of the locking protective relay is connected with a third group A rear contact of the first switching relay and a third group A rear contact circuit of the second switching relay in series;
the second interlock driving circuit includes: the drive line of the fixed operating relay is connected with a first group B front contact of a first switching relay and a first group B rear contact circuit of a second switching relay in series, and the drive line of the reverse operating relay is connected with a second group B front contact of the first switching relay and a second group B rear contact circuit of the second switching relay in series; a driving wire of the locking protection relay is connected with a third group B front contact of the first switching relay and a third group B rear contact circuit of the second switching relay in series;
the third interlock driving circuit includes: the drive line of the fixed operating relay is connected with a first group C rear contact of a first switching relay and a first group C front contact circuit of a second switching relay in series, the drive line of the reverse operating relay is connected with a second group C rear contact of the first switching relay and a second group C front contact circuit of the second switching relay in series, and the drive line of the locking protective relay is connected with a third group C rear contact of the first switching relay and a third group C front contact circuit of the second switching relay in series;
the fourth interlock driving circuit includes: the drive line of the fixed operating relay is connected with a first group D front contact of the first switching relay and a first group D front contact circuit of the second switching relay in series, the drive line of the reverse operating relay is connected with a second group D front contact of the first switching relay and a second group D front contact circuit of the second switching relay in series, and the drive line of the locking protective relay is connected with a third group D front contact of the first switching relay and a third group D front contact circuit of the second switching relay in series.
9. A multiple gang lock shared switch system as claimed in claim 1, wherein: the multi-interlocking acquisition control combination comprises a first interlocking acquisition circuit, a second interlocking acquisition circuit, a third interlocking acquisition circuit and a fourth interlocking acquisition circuit;
the first interlock acquisition circuit comprises: the fourth group A rear contact of the first switching relay and the fourth group A rear contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group A rear contact of the first switching relay and the fifth group A rear contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group A rear contact of the first switching relay and the sixth group A rear contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line;
the second interlock acquisition circuit comprises: the fourth group B rear contact of the first switching relay and the fourth group B front contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group B rear contact of the first switching relay and the fifth group B front contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group B rear contact of the first switching relay and the sixth group B front contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line;
the third interlock acquisition circuit includes: a fourth group C front contact of the first switching relay and a fourth group C rear contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, a fifth group C front contact of the first switching relay and a fifth group C rear contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and a sixth group C front contact of the first switching relay and a sixth group C rear contact circuit of the second switching relay are connected in series on the fixed meter reverse acquisition line;
the fourth interlock acquisition circuit include: the fourth group D front contact of the first switching relay and the fourth group D front contact circuit of the second switching relay are connected in series on the fixed meter acquisition line, the fifth group D front contact of the first switching relay and the fifth group D front contact circuit of the second switching relay are connected in series on the reverse meter acquisition line, and the sixth group D front contact of the first switching relay and the sixth group D front contact circuit of the second switching relay are connected in series on the fixed reverse acquisition line.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202110512402.XA CN113022646B (en) | 2021-05-11 | 2021-05-11 | Multi-linkage shared turnout system |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202110512402.XA CN113022646B (en) | 2021-05-11 | 2021-05-11 | Multi-linkage shared turnout system |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN113022646A CN113022646A (en) | 2021-06-25 |
| CN113022646B true CN113022646B (en) | 2021-10-26 |
Family
ID=76455221
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202110512402.XA Active CN113022646B (en) | 2021-05-11 | 2021-05-11 | Multi-linkage shared turnout system |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN113022646B (en) |
Families Citing this family (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN113562016A (en) * | 2021-07-08 | 2021-10-29 | 浙江众合科技股份有限公司 | Switch control switching system of full electronic execution unit and relay circuit |
Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2001056858A1 (en) * | 2000-02-02 | 2001-08-09 | Dimetronic, S.A. | Actuating device for railroad switches for changing tracks |
| CN104978881A (en) * | 2015-07-23 | 2015-10-14 | 柳州铁道职业技术学院 | Switch machine control unit integrated training platform |
| CN108945002A (en) * | 2018-07-12 | 2018-12-07 | 江苏慧学堂系统工程有限公司 | A kind of computer interlock control system and method |
| CN109159799A (en) * | 2018-09-19 | 2019-01-08 | 北京安润通电子技术开发有限公司 | A kind of general track switch driving interface module and its application method |
| CN109436025A (en) * | 2018-10-29 | 2019-03-08 | 江西理工大学 | A kind of intelligent switch control system and method for magnetic suspension train |
| CN110435716A (en) * | 2019-08-20 | 2019-11-12 | 湖南磁浮交通发展股份有限公司 | A kind of changing points control circuit |
Family Cites Families (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN204884260U (en) * | 2015-07-23 | 2015-12-16 | 柳州铁道职业技术学院 | Goat control unit synthesizes real platform of instructing |
-
2021
- 2021-05-11 CN CN202110512402.XA patent/CN113022646B/en active Active
Patent Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| WO2001056858A1 (en) * | 2000-02-02 | 2001-08-09 | Dimetronic, S.A. | Actuating device for railroad switches for changing tracks |
| CN104978881A (en) * | 2015-07-23 | 2015-10-14 | 柳州铁道职业技术学院 | Switch machine control unit integrated training platform |
| CN108945002A (en) * | 2018-07-12 | 2018-12-07 | 江苏慧学堂系统工程有限公司 | A kind of computer interlock control system and method |
| CN109159799A (en) * | 2018-09-19 | 2019-01-08 | 北京安润通电子技术开发有限公司 | A kind of general track switch driving interface module and its application method |
| CN109436025A (en) * | 2018-10-29 | 2019-03-08 | 江西理工大学 | A kind of intelligent switch control system and method for magnetic suspension train |
| CN110435716A (en) * | 2019-08-20 | 2019-11-12 | 湖南磁浮交通发展股份有限公司 | A kind of changing points control circuit |
Also Published As
| Publication number | Publication date |
|---|---|
| CN113022646A (en) | 2021-06-25 |
Similar Documents
| Publication | Publication Date | Title |
|---|---|---|
| CN111409668A (en) | Switch control system | |
| CN108682579B (en) | Remote control method for power supply of isolating switch motor | |
| CN103236204B (en) | ZPW-2000A frequency-shift comprehensive training platform | |
| CN113022646B (en) | Multi-linkage shared turnout system | |
| CN110299041A (en) | A kind of Intelligent power distribution terminal and communication O&M integration practical training system and method | |
| CN209673920U (en) | A kind of railway signal computer interlocking driving acquisition simulation test case | |
| CN204316829U (en) | A kind of more-control switch of remote manual control compatibility | |
| CN113147829B (en) | Multi-interlock shared turnout control device | |
| CN210027460U (en) | Switch machine electric control device | |
| CN112339793B (en) | Reverse cutting system of point switch | |
| CN212828418U (en) | Switch control system | |
| CN109149780A (en) | A kind of long-range switching system of railway signal power supply screen input power | |
| CN210680752U (en) | Emergency operation device for rail transit signal interlocking fault | |
| CN203287707U (en) | Button-type switching device for multiple computer interlocking systems | |
| CN202502406U (en) | Section signal equipment simulation board | |
| CN209535112U (en) | A kind of trackside electronic unit remote control equipment | |
| CN111342708A (en) | Electric interlocking control system of double-drive elevator | |
| CN211391303U (en) | Interlocking machine dual-system switching equipment | |
| CN102495627A (en) | Section signal equipment simulation board | |
| CN208820541U (en) | A kind of long-range switching system of railway signal power supply screen input power | |
| CN2318725Y (en) | Multi-switch combined electric socket board | |
| CN114843993B (en) | Circuit compatible with multiple switch machine actions and control method | |
| CN220180795U (en) | Communication address distribution circuit and distribution system for flexibly grouping trains | |
| CN211508945U (en) | Electric interlocking control system of double-drive elevator | |
| CN213384272U (en) | Double-control circuit for interstation crossover turnout |
Legal Events
| Date | Code | Title | Description |
|---|---|---|---|
| PB01 | Publication | ||
| PB01 | Publication | ||
| SE01 | Entry into force of request for substantive examination | ||
| SE01 | Entry into force of request for substantive examination | ||
| GR01 | Patent grant | ||
| GR01 | Patent grant |