Subway door capable of guiding flow
Technical Field
The invention relates to the technical field of subways, in particular to a subway door capable of guiding flow.
Background
In most subway stations at present, the waiting areas of the subway are divided into waiting areas of the subway on two sides of a get-on area, and meanwhile, the slogan of getting-off before getting-on is generally written on the ground, but some passengers don't consider getting-off passengers after the subway arrives at the station to open the door, and squeeze into the carriage continuously, so that the subway entrance is blocked, and the getting-on and getting-off efficiency is reduced.
In the face of the situation of congestion at the car door, some subway stations can have staff to maintain order at the car door, but the number of staff to be arranged is large, so that the labor cost is increased, in addition, some subway stations can place isolation bars at the station door to guide passengers waiting for getting on the car, but most of the methods solve the situation of congestion of the passengers getting on the car, have poor effect on passengers not following rules, or can often have the situation of getting on and off the car simultaneously, and can not guarantee that the passengers get off the car preferentially.
Disclosure of Invention
The subway door capable of guiding the flow provided by the invention is provided with the guide function for guiding passengers getting on, so that the situation that the passengers get on and get off are blocked at the door when other passengers get off is avoided, the dilemma that more manpower is needed to maintain order is solved, and meanwhile, the situation that the passengers getting on do not follow the order of getting on and off before the passengers get on and get off when no person maintains order is also solved, so that the situation of the congestion is caused.
The subway door capable of guiding the flow comprises subway doors which are symmetrical on two sides, extension cavities are formed in the subway doors on two sides, extension plates are arranged in the extension cavities in a sliding mode, a pressure mechanism is arranged at one end in each extension plate, when the extension plates slide out of the extension cavities, the pressure mechanism can pop out outwards, the number density of people needing to enter the subway outside can be detected, a power mechanism is arranged in each extension plate and located at one side of the pressure mechanism, the power mechanism can drive the extension plates to slide in the extension cavities, a movable plate is arranged at the upper end of each subway door in a rotating mode, a locking mechanism is arranged between each movable plate and each subway door, the locking mechanism can unlock and lock the subway door and the movable plate, a fixed plate is arranged at the upper end face of each movable plate, a sliding mechanism is arranged between each fixed plate and each movable plate, the movable plate can be driven to slide outwards, a base is arranged at the lower side of each subway door, the subway door is arranged between each base and each subway door, and the subway door is driven to slide, and accordingly passengers can be prevented from moving downwards when the subway door is driven to slide.
Further, the pressure mechanism comprises a pressure cavity formed in the extension plate, a pressure plate is slidably arranged in the pressure cavity, a distance sensor is fixedly arranged on the inner wall of one side of the pressure cavity, which is close to the pressure plate, and the distance sensor can detect the sliding distance of the pressure plate.
Further, a compression spring is fixedly arranged between one end face, close to the distance sensor, of the pressure plate and the inner wall of the pressure cavity, and the compression spring is in a compression state.
Further, the power mechanism comprises a threaded cavity formed in the extension plate, a telescopic motor is fixedly arranged in the subway door and close to one end of the threaded cavity, the telescopic motor is connected with a threaded shaft in a power mode close to one end face of the extension plate, the outer circular surface of the threaded shaft can be in threaded connection with the inner wall of the threaded cavity, and the extension plate can be driven to slide through rotation of the threaded shaft.
Further, a fixed shaft is fixedly arranged at the center of the upper end face of the subway door, and the fixed shaft extends into the movable plate and is connected with the movable plate in a sliding mode.
Further, the locking mechanism comprises a cavity arranged in the movable plate, a lock cavity is arranged at one end, close to the cavity, of the subway door, a locking block is arranged in the cavity in a sliding mode, and the locking block can slide into the lock cavity and lock the subway door and the movable plate.
Further, a magnet is fixedly arranged at one end, far away from the lock cavity, of the lock block, and an electromagnet which can be magnetically connected with the magnet is fixedly arranged at the inner wall, far away from one side of the lock cavity, of the cavity.
Further, a locking spring is fixedly arranged between one end face, far away from the lock cavity, of the locking block and the inner wall of the cavity, and when the locking block slides into the cavity, the subway door and the movable plate are unlocked.
Further, the sliding mechanism comprises a sliding block cavity which is arranged in the fixed plate and is symmetrical on two sides, a sliding motor is fixedly arranged in the inner wall of the sliding block cavity, two ends of the sliding motor are symmetrical and are in power connection with a rotating shaft, two sides of the sliding motor are away from one end of the sliding motor and extend to two sides of the sliding motor respectively, and sliding blocks are connected with threads in the sliding block cavity.
Further, the sliding block is close to one end face of the subway door and is fixedly connected with one end face of the movable plate, far away from the subway door, and the sliding block can drive the subway door to slide through the movable plate.
The invention has the following beneficial effects:
According to the invention, when the subway door is opened, the subway door is driven to rotate through the rack, so that a limit is caused to passengers waiting for getting on the subway door, the passengers can be reminded of the order of getting off and then getting on through the door, and meanwhile, the passengers can be guaranteed to get off preferentially, so that the occurrence of congestion is avoided. The invention further limits the boarding area by the way that the extension plate extends out while the subway door is opened, and can detect the boarding passengers at the same time.
Drawings
The invention will be further described with reference to the drawings and examples.
Fig. 1 is a schematic structural diagram of a first embodiment of the present invention.
FIG. 2 is a schematic diagram of the structure at A-A in FIG. 1.
FIG. 3 is a schematic diagram of the structure at B-B in FIG. 1.
Fig. 4 is a state diagram of fig. 3.
Fig. 5 is an enlarged schematic view at C in fig. 1.
Fig. 6 is a top view of the expanded view of fig. 1.
Fig. 7 is a transverse sectional view of a subway door in a second embodiment of the present invention.
In the figure, 11, a subway door, 12, an extension cavity, 13, an extension plate, 14, a thread cavity, 15, a telescopic motor, 16, a thread shaft, 17, a fixed plate, 18, a fixed shaft, 19, a movable plate, 20, a pressure cavity, 21, a spur gear, 22, a rack cavity, 23, a base, 24, a rack, 25, a distance sensor, 26, a pressure plate, 27, a compression spring, 28, a lock cavity, 29, a locking block, 30, a magnet, 31, a rotating shaft, 32, a sliding block cavity, 33, a communicating cavity, 34, a first contact switch, 35, a second contact switch, 36, a cavity, 37, a locking spring, 38, an electromagnet, 39, a sliding motor, 40, a sliding block, 41 and a guide plate.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.
Referring to fig. 1-6, a diversion metro door in this embodiment includes two symmetrical metro doors 11, a movable plate 19 is rotatably disposed at the upper end of each side of the metro door 11, a fixed shaft 18 is fixedly disposed at the center of the upper end surface of each side of the metro door 11, the fixed shaft 18 extends into the movable plate 19 and is matched with the movable plate 19, so that the metro door 11 and the movable plate 19 can rotate relatively, a locking mechanism is disposed between the movable plate 19 and the metro door 11, the locking mechanism can unlock and lock the metro door 11 and the movable plate 19, the locking mechanism includes a cavity 36 disposed in the movable plate 19, a lock cavity 28 is disposed at one end of the metro door 11 adjacent to the cavity 36, a locking block 29 is slidably disposed in the cavity 36, a magnet 30 is fixedly disposed at one end of the locking block 29 remote from the lock cavity 28, an electromagnet 38 is fixedly disposed at one side of the cavity 36 remote from the lock cavity 28 and is magnetically connected with the magnet 30, a spring 37 is disposed between one end surface of the locking block 29 remote from the lock cavity 28 and the inner wall 36, and the electromagnet is electrically connected with the fixed shaft 38, so that the metro door 11 can rotate after the locking block 29 slides into the cavity 19, and the cavity 19 rotates, and the cavity 19 is rotatably. The fixed plate 17 is arranged on the upper end face of the movable plate 19, the sliding mechanism is arranged between the fixed plate 17 and the movable plate 19, the sliding mechanism can drive the movable plate 19 to slide, the sliding mechanism comprises a sliding block cavity 32 which is arranged in the fixed plate 17 and is symmetrical on two sides, a sliding motor 39 is fixedly arranged in the inner wall of the sliding block cavity 32 on two sides, two ends of the sliding motor 39 are symmetrical and are in power connection with a rotating shaft 31, one ends of the rotating shafts 31 on two sides, far away from the sliding motor 39, extend to sliding blocks 40 in the sliding block cavity 32 respectively, one end face, close to the subway door 11, of the sliding blocks 40 is fixedly connected with one end face, far away from the subway door 11, of the movable plate 19, of the sliding blocks 40 can drive the subway door 11 to slide through the movable plate 19, namely, the sliding motor 39 is started to realize opposite or back sliding of the subway door 11 on two sides.
The extension cavity 12 is formed in the subway door 11 on two sides, the extension plate 13 is arranged in the extension cavity 12 in a sliding mode, a pressure mechanism is arranged at one end in the extension plate 13, after the extension plate 13 slides out of the extension cavity 12, the pressure mechanism can pop out outwards, further the number density of people needing to enter a subway can be detected, the power mechanism is arranged in the extension plate 13 and located on one side of the pressure mechanism, the power mechanism can drive the extension plate 13 to slide in the extension cavity 12, the power mechanism comprises a threaded cavity 14 formed in the extension plate 13, one end, close to the threaded cavity 14, of the subway door 11 is fixedly provided with a telescopic motor 15, one end face, close to the extension plate 13, of the telescopic motor 15 is in dynamic connection with a threaded shaft 16, the outer circular face of the threaded shaft 16 can be in threaded connection with the inner wall of the threaded cavity 14, the extension plate 13 can be driven to slide through rotation of the threaded shaft 16, the pressure mechanism comprises a pressure cavity 20 formed in the extension plate 13, a distance sensor 25 is fixedly arranged on one side, close to the pressure cavity 20, the distance sensor 25 can detect the sliding distance of the pressure plate 26, a compression spring 27 is fixedly arranged between one end face, close to the pressure sensor 25 and the inner wall 20, and the compression spring 27 is in a compression state. The two sides of the inner wall of the extension cavity 12 are symmetrical and are communicated with the communication cavity 33, the extension plate 13 is positioned in one end face of the communication cavity 33, a first contact switch 34 is fixedly arranged on the inner wall of one side of the communication cavity 33, which is close to the telescopic motor 15, a second contact switch 35 is fixedly arranged on the inner wall of one side of the communication cavity 33, the second contact switch 35 can be contacted with the first contact switch 34 so as to control the electromagnet 38 to stop working, the first contact switch 34 and the second contact switch 35 are not arranged, the electromagnet 38 is controlled to open for example for a program time in other modes, the base 23 is arranged on the lower side of the subway door 11, a rack mechanism is arranged between the base 23 and the subway door 11, when the subway door 11 slides, the rack mechanism can drive the subway door 11 to rotate outwards, so that passengers can be prevented from crowding firstly and secondly, the rack mechanism comprises a rack cavity 22 which is arranged in the base 23 and is symmetrical on two sides, a straight gear 21 is slidably arranged in the rack cavity 22, one end face of the straight gear 21 is close to the subway door 11 is fixedly connected with the subway door 11, one side of the inner wall of the center of the base 23 is fixedly provided with a rack 24, the outer circle face of the straight gear 21 can be matched with the rack 24, and the rack 21 can slide to the rack 21 is meshed with the rack 11 through the rack 24 after the rack 21 slides.
The method for controlling the opening and closing of the subway door in the embodiment is described below, and specifically comprises the following steps:
When the subway stops, the sliding motor 39 starts to rotate forward to drive the rotating shafts 31 at two sides to rotate synchronously, the sliding block 40 is driven to slide far away from the sliding motor 39 through threaded connection, the sliding block 40 drives the movable plate 19 to slide through fixed connection, the movable plate 19 can drive the subway door 11 to slide through the fixed shaft 18, and at the moment, the subway door 11 at two sides slides far away from the sliding motor 39 until the subway is opened. Here, the right place behind the subway door 11 is a passenger getting-off area in the subway, the waiting areas of getting-on subway passengers are arranged on two sides of the getting-off area, the front of the subway door 11 is a subway carriage correspondingly, the opening of the pressure cavity 20 faces the getting-off area, the passengers needing to wait for riding wait for getting-on in the waiting area, and the passengers waiting for getting-off wait for getting-off in the carriage.
And the step of unlocking the subway door, namely when the subway door 11 slides, the electromagnet 38 is started, the magnet 30 is driven to slide through magnetic connection, and then the locking block 29 is driven to slide into the cavity 36 through fixed connection and is in a state of being separated from the inner wall of the locking cavity 28, and at the moment, the movable plate 19 and the subway door 11 are unlocked. Here, the first contact switch 34 is in contact with the second contact switch 35 but does not cause the electromagnet 38 to stop operating because the electromagnet 38 is forcibly activated.
The subway door 11 slides, the spur gear 21 is driven to slide through the fixed connection, after the spur gear 21 slides to be contacted with one end face, close to the rack cavity 22, of the rack 24 when being meshed with the rack 24, the outer circular face of the spur gear 21 is meshed with one end face of the rack 24, when the spur gear 21 continues to slide, the spur gear 21 can be driven to rotate through the gear meshing, the spur gear 21 drives one end, close to the sliding motor 39, of the subway door 11 to rotate towards the lower car area through the fixed connection until the subway doors 11 on two sides are unfolded in an eight shape, the wide openings of the subway doors on two sides face into a carriage, the narrow openings face into the lower car area, and passengers in the subway can get off conveniently. Here, when the subway door 11 slides, the spur gear 21 may be driven to slide through the fixed connection, and when the spur gear 21 moves to the position just before being meshed with the rack 24, the electromagnet 38 is started to unlock the movable plate 19 from the subway door 11.
When the subway door 11 slides, the telescopic motor 15 starts to rotate positively, the telescopic motor 15 drives the threaded shaft 16 to rotate, and then the telescopic plate 13 is driven to slide far away from the corresponding telescopic motor 15 through threaded connection, the first contact switch 34 is separated from the second contact switch 35, after the telescopic plate 13 slides to the maximum distance, the telescopic motor 15 stops rotating, at the moment, the two side telescopic plates 13 reduce the getting-off area, passengers waiting for getting off in the middle get off the subway are prevented from getting on the subway at the same time, confusion is caused, meanwhile, the telescopic plate 13 slides to drive the pressure plate 26 to slide, after the pressure plate 26 slides out of the extension cavity 12, the pressure plate 26 is not pressed by the inner wall of the extension cavity 12, at the moment, the compression spring 27 drives the pressure plate 26 to slide far away from the distance sensor 25 through self elasticity, the distance sensor 25 starts to detect the distance between the pressure plate 26, when passengers in the subway get off the subway, the passengers waiting for getting on the subway at the same time are crowded, the passengers can contact the pressure plate 26 firstly to press the pressure plate 26 into the pressure cavity 20, when the passengers get on the subway at the crowded subway, the passengers enter the subway, the distance is larger than the preset value, the distance is equal to the preset, and the voice signal is sent to the terminal order is kept downwards, and the passengers can send out, and the voice signal is sent downwards by the passengers; when the extension plate 13 moves to the maximum distance, after a period of time, the telescopic motor 15 is reversed to drive the extension plate 13 to reset, after the extension plate 13 is reset, the area between the subway doors 11 on both sides is enlarged, at the moment, the phenomenon of subway congestion is relieved when the subway is opened, the larger area between the subway doors 11 on both sides is convenient for passengers to get on and off the subway at the moment, the efficiency is improved.
When the subway door 11 is to be closed, the sliding motor 39 is reversed to drive the subway door 11 to slide and reset in the direction approaching to the sliding motor 39, when the spur gear 21 passes through the rack 24 again, the spur gear 21 rotates and drives the subway door 11 to rotate to reset, at the moment, the first contact switch 34 and the second contact switch 35 are propped against each other, the electromagnet 38 can be controlled to stop working, the locking spring 37 drives the locking block 29 to slide into the locking cavity 28 through self elasticity and locks the subway door 11 and the movable plate 19, and after the sliding block 40 slides to reset, the adjacent end faces of the subway doors 11 at two sides are propped against each other, so that closing is completed.
Referring to fig. 7, two ends of the pressure plate 26 near the side of the compression spring 27 are fixed with guide plates 41, the guide plates 41 are slidably connected with the pressure chamber 20 and cover the compression spring 27 therein, so that the pressure plate 26 cannot completely extend out of the pressure chamber 20 to cause abnormal resetting, and the function of guiding and protecting the compression spring 27 is also achieved. The guide plate 41 may be provided with a limiting block, and the side wall of the pressure cavity 20 is provided with a limiting groove, and the limiting block extends into the limiting groove.
The above embodiments are only for illustrating the technical concept and features of the present invention, and are intended to enable those skilled in the art to understand the present invention and implement it without limiting the scope of the present invention. All equivalent changes or modifications made in accordance with the spirit of the present invention should be construed to be included in the scope of the present invention.