CN205485441U - Stereo garage control system based on CAN bus - Google Patents
Stereo garage control system based on CAN bus Download PDFInfo
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- CN205485441U CN205485441U CN201620030353.0U CN201620030353U CN205485441U CN 205485441 U CN205485441 U CN 205485441U CN 201620030353 U CN201620030353 U CN 201620030353U CN 205485441 U CN205485441 U CN 205485441U
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Abstract
The utility model discloses a stereo garage control system based on CAN bus, its characterized in that: the system include host computer, CAN bus and with a plurality of CAN nodes of CAN bus connection, the CAN node includes communication node, parking stall calling node, environmental control node, sideslip motion control node and lift motion control node, each CAN node is with CAN bus connection and through CAN bus exchange of data, the host computer passes through the communication node access control system, realizes the remote control to the garage, the parking stall is called the node and is used for the field operation personnel to control the access of vehicle, the environmental control node is used for detecting business turn over storehouse vehicle appearance size, the whole sideslip of a sideslip motion control node control train position, the elevating movement that the sweep was carried in the control of lift motion control node. This control system can design the nimble combination of needs according to the garage, swiftly constitutes the stereo garage's of different scales control system reliably.
Description
Technical field
This utility model relates to industrial control equipment technical field, is specifically related to a kind of multi-storied garage based on CAN
Control system.
Background technology
Along with China's economic development, parking difficulty problem is more and more prominent, and multi-storied garage is the effective way solving this problem,
Wherein up-down cross sliding type multi-storied garage is because having the advantages such as control simplicity, scaleable, strong adaptability, and market share is high.
The up-down cross sliding type multi-storied garage many employings centralized control system with PLC as core at present, this control system price is of a relatively high,
And there is the shortcomings such as moving component many, wiring complexity, field adjustable difficulty, poor, the maintenance difficult of portability of program, this restriction
The further development of multi-storied garage.
Utility model content
The purpose of this utility model is the deficiency for current prior art, it is provided that a kind of solid based on CAN
Garage control system.
This utility model be the technical scheme is that a kind of three-dimensional garage control system based on CAN, and it is special
Levy and be: system includes host computer |, CAN and multiple CAN nodes of being connected with CAN;Described CAN node
Including communication node, parking stall calling node, environmental Kuznets Curves node, transverse motion controls node and elevating movement controls node, institute
State each CAN node be connected with CAN and exchange data by CAN;Described host computer is accessed by communication node
Control system, it is achieved the long-range control to garage;Parking stall calling node controls the access of vehicle for site operation personnel;Environment
Control node to be used for detecting inbound/outbound process vehicle overall size;Transverse motion controls the whole lateral moving of node control string parking stall;Lifting
The elevating movement of motor control node control vehicle-containing.
This utility model is constituted control network by multiple CAN nodes, and CAN node is by CAN Node Controller, CAN
Bus control unit, CAN driver, input channel, output channel and auxiliary circuit are constituted.Wherein, elevating movement controls
Node includes Linear displacement transducer, simulation input processing circuit, switching mode displacement transducer, numeral input processing circuit, joint
Dot address encoder, CAN Node Controller, digital output device drive circuit, switch electromagnetic valve, simulation outut device drive
Circuit, electro-hydraulic proportional throttle valve, CAN controller, CAN driver.Linear displacement transducer and simulation input
Process circuit connects, and simulation input processing circuit is connected with CAN Node Controller;Switching mode displacement transducer and numeral input
Reason circuit connects, and numeral input processing circuit is connected with CAN Node Controller;Node address encoder and CAN node control
Device connects;Switch electromagnetic valve is connected with digital output device drive circuit, digital output device drive circuit and CAN node control
Device connects;Electro-hydraulic proportional throttle valve is connected with simulation outut device drive circuit, simulation outut device drive circuit and CAN node
Controller connects;CAN driver is connected with CAN controller, CAN controller and CAN node control
Device connects;CAN driver is connected with CAN.
This utility model uses and there is the STC15F2K60S2 type single-chip microcomputer of A/D, D/A module as CAN node
Controller, CAN controller selects SJA1000 chip, and CAN driver selects CTM1050T high-speed isolated to receive
Send out device.
The beneficial effects of the utility model are: this utility model can need flexible combination according to garage design, the most reliably
Ground constitutes the control system of the multi-storied garage of different scales, and with low cost.
Accompanying drawing explanation
Fig. 1 is the structural representation of a kind of three-dimensional garage control system based on CAN of this utility model.
Fig. 2 is that elevating movement controls node structure schematic diagram.
Label title in figure: (1) host computer, (2) communication node, (3) parking stall calling node, (4) environment
Controlling node, (5) transverse motion controls node, and (6) elevating movement controls node, (7) Linear displacement transducer, (8)
Simulation input processing circuit, (9) switching mode displacement transducer, (10) numeral input processing circuit, (11) node address is compiled
Code device, (12) CAN Node Controller, (13) digital output device drive circuit, (14) switch electromagnetic valve, (15)
Simulation outut device drive circuit, (16) electro-hydraulic proportional throttle valve, (17) CAN controller, (18) CAN is total
Line drive.
Detailed description of the invention
Below in conjunction with the drawings and specific embodiments, this utility model is described in detail explanation.
A kind of three-dimensional garage control system based on CAN, as shown in Figure 1, it is characterised in that: system includes
Position machine (1), CAN and the multiple CAN nodes being connected with CAN;Described CAN node includes communication node
(2), parking stall calling node (3), environmental Kuznets Curves node (4), transverse motion control node (5) and elevating movement control
Node (6), described each CAN node is connected with CAN and exchanges data by CAN;Described host computer (1)
By communication node (2) access control system, it is achieved the long-range control to garage;Parking stall calling node (3) is for scene behaviour
Make the access of personnel control vehicle;Environmental Kuznets Curves node (4) is used for detecting inbound/outbound process vehicle overall size;Transverse motion controls joint
Point (5) is used for controlling the whole lateral moving motion of string parking stall;Elevating movement controls node (6) and is used for controlling elevating mechanism vehicle-containing
Elevating movement.
This utility model is constituted control network by multiple CAN nodes, and CAN node is by CAN Node Controller, CAN
Bus control unit, CAN driver, input channel, output channel and auxiliary circuit are constituted.Wherein, as in figure 2 it is shown,
Elevating movement controls node (6) and includes that Linear displacement transducer (7), simulation input processing circuit (8), switching mode displacement pass
Sensor (9), numeral input processing circuit (10), node address encoder (11), CAN Node Controller (12),
Digital output device drive circuit (13), switch electromagnetic valve (14), simulation outut device drive circuit (15), electro-hydraulic ratio
Example choke valve (16), CAN controller (17), CAN driver (18).Linear displacement transducer (7)
Being connected with simulation input processing circuit (8), simulation input processing circuit (8) is connected with CAN Node Controller (12);Open
Pass type displacement transducer (9) is connected with numeral input processing circuit (10), and numeral input processing circuit (10) saves with CAN
Base site controller (12) connects;Node address encoder (11) is connected with CAN Node Controller (12);Switch electromagnetic valve (14)
It is connected with digital output device drive circuit (13), digital output device drive circuit (13) and CAN Node Controller (12)
Connect;Electro-hydraulic proportional throttle valve (16) is connected with simulation outut device drive circuit (15), simulates outut device drive circuit
(15) it is connected with CAN Node Controller (12);CAN driver (18) is with CAN controller (17) even
Connecing, CAN controller (17) is connected with CAN Node Controller (12);CAN driver (18) and CAN
Bus connects.
This utility model uses and there is the STC15F2K60S2 type single-chip microcomputer of A/D, D/A module as CAN node
Controller (12), CAN controller (17) selects SJA1000 chip, and CAN driver (18) selects CTM1050T
High-speed isolated transceiver.
During bicycle parking, host computer (1) sends long-range bicycle parking control instruction by communication node (2) in CAN,
Or in CAN, sent bicycle parking by site operation personnel by vehicle calling node (3) to instruct, the traversing fortune of respective column
The dynamic node (5) that controls reads bicycle parking instruction this train of rear drive position whole lateral moving, forms liftway, and elevating movement controls joint
Point (6) drives elevating mechanism to move vertically to garage port in liftway, and vehicle is placed on the vehicle-containing of elevating mechanism, ring
Border controls the relative position of node (4) detection vehicle overall size and vehicle with vehicle-containing, it is to avoid vehicle collides with surrounding,
Elevating movement controls node (6) and drives elevating mechanism to move vertically to corresponding bicycle parking position, corresponding transverse motion control in liftway
Node processed (5) drives this train position to return to original position.
When picking up the car, host computer (1) sends, by communication node (2), control instruction of remotely picking up the car in CAN,
Or in CAN, sent instruction of picking up the car, the traversing fortune of respective column by site operation personnel by vehicle calling node (3)
The dynamic node (5) that controls reads instruction this train of rear drive position whole lateral moving of picking up the car, and forms liftway, and elevating movement controls joint
Point (6) drives elevating mechanism to move vertically to corresponding parking stall in liftway and picks up the car, and vehicle is placed on the vehicle-containing of elevating mechanism,
During picking up the car, the overall dimensions of environmental Kuznets Curves node (4) moment detection vehicle and the position of vehicle, it is to avoid vehicle and surrounding
Environment Collision and the relative position being accurately positioned vehicle and vehicle-containing, elevating movement controls node (6) and drives elevating mechanism in lifting
Moving vertically to garage exit in passage, vehicle rolls away from, and the transverse motion of respective column controls node (5) and drives this train position overall
Traversing, return to original position.
Wherein, elevating movement controls node (6) needs the vehicle-containing controlling elevating mechanism accurately to lift between multilamellar parking stall,
Its speed is higher with Bit andits control precision, and elevating movement controls to use Linear displacement transducer (7) and switching mode displacement transducer (9)
Cooperate realization, for elevating mechanism full process positioning and speed controlling, uses electro-hydraulic proportional throttle valve (16) to control lifting
The displacement of organization hydraulic pressure cylinder and speed, be set to double speed motion by hydraulic cylinder, and in elevating movement, elevating mechanism is first with fast speed
Close to destination layer, reduce to low speed when distance objective is nearer, under the control of destination layer switching mode displacement transducer (9), accurately
Stop destination layer.Node address encoder (11) is that multiple elevating movement control node carries out geocoding.Consider the need of upgrading
Want, simulation input processing circuit (8) is set for Linear displacement transducer (7), number is set for switching mode displacement transducer (9)
Word input processing circuit (10), arranges digital output device drive circuit (13) for switch electromagnetic valve (14), for electro-hydraulic ratio
Example choke valve (16) arranges simulation outut device drive circuit (15).CAN Node Controller (12) passes through CAN
Controller (17) and CAN driver (18) realize data communication with CAN.
The above, be only preferred embodiment of the present utility model, not impose any restrictions this utility model, every
Any simple modification of being made above example according to this utility model technical spirit, change, still fall within protection of the present utility model
In the range of.
Claims (2)
1. a three-dimensional garage control system based on CAN, it is characterised in that: system includes host computer (1), CAN and the multiple CAN nodes being connected with CAN;Described CAN node includes communication node (2), parking stall calling node (3), environmental Kuznets Curves node (4), transverse motion controls node (5) and elevating movement controls node (6), and described each CAN node is connected with CAN and exchanges data by CAN;Described host computer (1) passes through communication node (2) access control system, it is achieved the long-range control to garage;Parking stall calling node (3) controls the access of vehicle for site operation personnel;Environmental Kuznets Curves node (4) is used for detecting inbound/outbound process vehicle overall size;Transverse motion controls node (5) and is used for controlling the whole lateral moving motion of string parking stall;Elevating movement controls node (6) for controlling the elevating movement of elevating mechanism vehicle-containing.
A kind of three-dimensional garage control system based on CAN the most according to claim 1, it is characterized in that: elevating movement controls node (6) and includes Linear displacement transducer (7), simulation input processing circuit (8), switching mode displacement transducer (9), numeral input processing circuit (10), node address encoder (11), CAN Node Controller (12), digital output device drive circuit (13), switch electromagnetic valve (14), simulation outut device drive circuit (15), electro-hydraulic proportional throttle valve (16), CAN controller (17), CAN driver (18);Linear displacement transducer (7) is connected with simulation input processing circuit (8), and simulation input processing circuit (8) is connected with CAN Node Controller (12);Switching mode displacement transducer (9) is connected with numeral input processing circuit (10), and numeral input processing circuit (10) is connected with CAN Node Controller (12);Node address encoder (11) is connected with CAN Node Controller (12);Switch electromagnetic valve (14) is connected with digital output device drive circuit (13), and digital output device drive circuit (13) is connected with CAN Node Controller (12);Electro-hydraulic proportional throttle valve (16) is connected with simulation outut device drive circuit (15), and simulation outut device drive circuit (15) is connected with CAN Node Controller (12);CAN driver (18) is connected with CAN controller (17), and CAN controller (17) is connected with CAN Node Controller (12);CAN driver (18) is connected with CAN.
Priority Applications (1)
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CN201620030353.0U CN205485441U (en) | 2016-01-06 | 2016-01-06 | Stereo garage control system based on CAN bus |
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CN201620030353.0U CN205485441U (en) | 2016-01-06 | 2016-01-06 | Stereo garage control system based on CAN bus |
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CN201620030353.0U Expired - Fee Related CN205485441U (en) | 2016-01-06 | 2016-01-06 | Stereo garage control system based on CAN bus |
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Cited By (1)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN111487895A (en) * | 2019-01-29 | 2020-08-04 | 海天塑机集团有限公司 | Communication system of displacement sensor and controller |
-
2016
- 2016-01-06 CN CN201620030353.0U patent/CN205485441U/en not_active Expired - Fee Related
Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN111487895A (en) * | 2019-01-29 | 2020-08-04 | 海天塑机集团有限公司 | Communication system of displacement sensor and controller |
CN111487895B (en) * | 2019-01-29 | 2023-05-05 | 海天塑机集团有限公司 | Communication system of displacement sensor and controller |
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C14 | Grant of patent or utility model | ||
GR01 | Patent grant | ||
CF01 | Termination of patent right due to non-payment of annual fee |
Granted publication date: 20160817 Termination date: 20170106 |
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CF01 | Termination of patent right due to non-payment of annual fee |