CN209765303U - attached lifting scaffold electrical control device - Google Patents

attached lifting scaffold electrical control device Download PDF

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Publication number
CN209765303U
CN209765303U CN201920366232.7U CN201920366232U CN209765303U CN 209765303 U CN209765303 U CN 209765303U CN 201920366232 U CN201920366232 U CN 201920366232U CN 209765303 U CN209765303 U CN 209765303U
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wiring terminal
terminal row
wiring
control
sub
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CN201920366232.7U
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Chinese (zh)
Inventor
施志峰
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Xiamen Anke Technology Co Ltd
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Xiamen Anke Technology Co Ltd
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Abstract

the utility model discloses an electric control device of an attached lifting scaffold, which comprises a main control box and first to Nth sub-control boxes; the main control box comprises a forward contactor, a reverse contactor, an intermediate relay, a phase sequence protection relay, an ascending control switch, a descending control switch, a main control mainboard, a first wiring terminal row and a second wiring terminal row; the first to Nth sub-control boxes respectively comprise a sub-control board, a third wiring terminal row, a fourth wiring terminal row, a fifth wiring terminal row, a sixth wiring terminal row, a first alternating current contactor and a second emergency stop button. Adopt the utility model discloses a control is climbed frame whole promotion, descends, and synchronous electric block crowd coordination work has overload warning, electric block and reports to the police and cuts off scaffold frame electric block and plays to rise motor circuit and show scaffold frame current weight and control function asynchronously, can avoid scaffold frame equipment to overload or receive characteristics such as equipment and the personal safety accident that stop when playing to cause because of the overload.

Description

attached lifting scaffold electrical control device
Technical Field
the utility model relates to a lifting foot hand rack field especially relates to an attached lifting foot hand rack electrical control device.
background
The scaffold for high-rise buildings mainly comprises a lifting scaffold and a fixed scaffold. The lifting scaffold is characterized in that lifting points or descending points of lifting equipment such as N electric hoists act on a frame body when the lifting scaffold is lifted or descended, the frame body is lifted or descended together, however, in the lifting or descending process of the frame body, due to the fact that the performance difference of the lifting equipment can cause the mutual asynchronism, individual points are lifted or descended too fast, and finally, the local load exceeds the mechanical property of materials to cause safety accidents. According to the existing lifting scaffold control system, each machine position before use, namely each electric hoist needs to pre-tighten a rope for driving a scaffold to lift, after a sub-control pre-tightening button is started, an operator observes and debugs the display of the tension tonnage of the steel wire rope, when the tonnage display reaches a certain value, the sub-control is started and stopped to complete the pre-tightening setting of one machine position, and after all the machine positions are completely set, an integral ascending or descending button can be started to complete the ascending and descending operation of the scaffold. Operating personnel can consume a large amount of man-hours because of the repeated operation pretension procedure at whole operation procedure process to every machine position also needs independent cable junction, makes the electric line arrangement confusion of support body platform, causes the cable to expose in the middle of the work progress easily, brings the hidden danger for the construction safety.
in addition, when a certain machine position is controlled to ascend and descend, other machine positions must be adjusted to the stopping positions, otherwise, other machine positions can all act after the machine position is electrified, and safety accidents are easily caused. In addition, before the scaffold is lifted, all the branch control switches are required to be uniformly adjusted to the 'cis' position, namely the rotation directions are consistent, if one branch control switch is not pressed to the 'cis' position, immeasurable serious results can be caused, and accidents are caused.
disclosure of Invention
In view of the above-mentioned prior art not enough, the utility model aims at providing an attached lifting scaffold electric control device aims at solving the problem that prior art exists.
In order to achieve the above purpose, the technical solution of the present invention is as follows:
The utility model provides an attached lifting scaffold electric control device, which comprises a main control box and first to Nth sub-control boxes; wherein N is a positive integer greater than or equal to 2;
the main control box comprises a forward contactor (K1), a reverse contactor (K2), an intermediate relay (KA), a phase sequence protection relay, an ascending control switch (UP), a descending control switch (DOWN), a main control main board, a first wiring terminal row (Y1) and a second wiring terminal row (Y2);
The first terminal block (Y1) comprises 4 terminal ports, and the first terminal port of the first terminal block (Y1) is grounded;
The second terminal row (Y2) comprises 4 connection ports, a first connection port of the second terminal row (Y2) is connected to a direct-current voltage (SL), and a second connection port of the second terminal row (Y2) is connected to a neutral line (N) of three-phase alternating current;
the third and fourth wiring ports of the second wiring terminal row (Y2) are respectively connected to an RS485 connection interface (A, B) of the main control mainboard;
One end of a normally open contact of the forward rotation contactor (K1) is connected to three-phase alternating current respectively, and the other end of the normally open contact of the forward rotation contactor (K1) is connected to second to fourth wiring ports of the first wiring terminal row respectively;
one end of a normally open contact of the reverse contactor (K2) is connected to three-phase alternating current respectively, and the other end of the normally open contact of the reverse contactor (K2) is connected to second to fourth wiring ports of the first wiring terminal row respectively;
one end of a first normally open contact of the intermediate relay (KA) is connected to a third phase (C) of three-phase alternating current, and the other end of the first normally open contact of the intermediate relay (KA) is connected to one end of an ascending control switch (UP) and one end of a descending control switch (DOWN) respectively;
the other end of the rising control switch (UP) is connected to one end of a coil of the forward rotation contactor (K1); the other end of the coil of the forward rotation contactor (K1) is connected with a second normally closed auxiliary contact (K2-2) of the reverse rotation contactor and then is connected to one end of a normally closed contact of the phase sequence protection relay; the other end of the DOWN control switch (DOWN) is connected to one end of a coil of a reverse contactor (K2); the other end of the coil of the reverse rotation contactor (K2) is connected with a second normally closed auxiliary contact (K1-2) of the forward rotation contactor and then is connected to one end of a normally closed contact of the phase sequence protection relay; the other end of the normally closed contact of the phase sequence protection relay is connected to a zero line (N) of three-phase alternating current;
The main control mainboard is also respectively connected to one end of a first normally open contact of the intermediate relay (KA) and one end of a normally open contact of the phase sequence protection relay, and the other end of the first normally open contact of the intermediate relay (KA) is electrically connected with the other end of the normally open contact of the phase sequence protection relay and then is connected to the main control mainboard; one end of a coil of the intermediate relay (KA) is connected to a zero line (N) of three-phase alternating current, and the other end of the coil of the intermediate relay (KA) is connected to a first wiring port (SL) of the second wiring terminal row (Y2);
The main control mainboard is also respectively connected to one end of a second normally open contact of the intermediate relay (KA) and one end of a normally open contact of the phase sequence protection relay, and the other end of the second normally open contact of the intermediate relay is electrically connected with the other end of the normally open contact of the phase sequence protection relay and then is connected to the main control mainboard; one end of a coil of the intermediate relay (KA) is connected to a zero line (N) of three-phase alternating current, and the other end of the coil of the intermediate relay (KA) is connected to a first wiring port (SL) of the second wiring terminal row (Y2);
one end of a normally open contact of the first alternating current contactor (J1) is electrically connected with the fourth wiring terminal row, and the other end of the normally open contact of the first alternating current contactor (J1) is electrically connected with the electric hoist;
the main control mainboard is an MCU chip; the main control mainboard is respectively connected to the control end of an ascending control switch (UP) and the control end of a descending control switch (DOWN); the main control box is used for controlling the electric hoist to rotate forwards, reversely and stop so as to realize the lifting, descending and stopping of the scaffold;
the first sub-control box to the Nth sub-control box respectively comprise sub-control boards, a third wiring terminal row (Y3), a fourth wiring terminal row (Y4), a fifth wiring terminal row (Y5), a sixth wiring terminal row (Y6), a first alternating current contactor (J1), a transformer and a second emergency stop button;
the first input of the transformer is electrically connected to the second connection port of the fifth connection terminal row (Y5); a second input end of the transformer is electrically connected with a fourth wiring port (C) of the third wiring terminal row (Y3), and an output end of the transformer is connected to a sub-control board;
The sub-control board is electrically connected with the gravity sensor; one terminal (OUT) of the sub-board is connected to one end of the coil of the first ac contactor (J1), and the other end of the coil of the first ac contactor (J1) is connected to the second wiring port of the fifth wiring terminal row (Y5) and the second wiring port of the sixth wiring terminal row (Y6), respectively;
The third terminal block (Y3) comprises 4 connection ports, and the 4 connection ports of the third terminal block (Y3) are electrically connected with the 4 connection ports of the first terminal block (Y1), respectively;
the fourth terminal block (Y4) comprises 4 connection ports, and the 4 connection ports of the fourth terminal block (Y4) are electrically connected with the 4 connection ports of the third terminal block (Y3), respectively;
The fourth wiring terminal block (Y4) is connected with the first alternating current contactor and is electrically connected with the electric hoist;
the third wiring port (V1) of the fourth wiring terminal row (Y4) is electrically connected with a sub-control board (COM), and the first wiring Port (PE) of the fourth wiring terminal row (Y4) is electrically connected with a sub-control board (GND);
the fifth terminal row (Y5) comprises 4 terminal ports, and the first terminal port of the fifth terminal row (Y5) is electrically connected with a sub control board (SL 2);
the sixth wiring terminal block (Y6) comprises 4 wiring ports, a third and a fourth wiring ports of the sixth wiring terminal block (Y6) are respectively connected to the RS485 connection interface (A, B) of the sub-control board, and a second wiring port of the sixth wiring terminal block (Y6) is connected to a second port of the fifth wiring terminal block (Y5);
one end of a normally open contact of the first alternating current contactor (J1) is electrically connected with the fourth wiring terminal row, and the other end of the normally open contact of the first alternating current contactor (J1) is electrically connected with the electric hoist;
The sub-control board is an MCU chip;
The third wiring terminal row (Y3) of the first branch control box is electrically connected with the first wiring terminal row (Y1) of the main control box;
the fourth wiring terminal row (Y4) of the first sub-control box is electrically connected with the third wiring terminal row (Y3) of the second sub-control box;
The third wiring terminal row (Y3) of the ith sub-control box is electrically connected with the fourth wiring terminal row (Y4) of the ith-1 sub-control box;
the fifth wiring terminal row (Y5) of the first branch control box is electrically connected with the second wiring terminal row (Y2) of the main control box;
the sixth wiring terminal row (Y6) of the first sub-control box is electrically connected with the fifth wiring terminal row (Y5) of the second sub-control box;
the fifth wiring terminal row (Y5) of the ith sub-control box is electrically connected with the sixth wiring terminal row (Y6) of the ith-1 sub-control box;
Wherein i is an integer and i is more than or equal to 2 and less than or equal to N;
one end of the second emergency stop button is connected to the first wiring port of the sixth wiring terminal row (Y6); the other end of the second emergency stop button is electrically connected with a sub-control board (SL 1).
Further, the utility model discloses an among the attached lift scaffold electrical control unit, AC/DC power adapter is connected to the N minute control box, AC/DC power adapter's alternating current input end is connected to the fourth wiring port of fourth binding post row (Y4), the second wiring port of sixth binding post row (Y4) respectively, the first wiring port of sixth binding post row (Y4) is connected to AC/DC power adapter's direct current output end.
furthermore, in the attached lifting scaffold electrical control device of the present invention, the main control box further comprises a first emergency stop button, the first emergency stop button is normally closed, and one end of the first emergency stop button is electrically connected to a third phase (C) of three-phase alternating current; the other end of the first emergency stop button is electrically connected with one end of a first normally open contact of the intermediate relay (KA).
further, the main control box further comprises a first circuit breaker QF1, the first circuit breaker QF1 is connected with the first emergency stop button in series, one end of the first circuit breaker QF1 after the series connection is electrically connected with a third phase (C) of three-phase alternating current, and the other end of the first circuit breaker QF1 after the series connection is electrically connected with one end of a first normally-open contact of the intermediate relay (KA);
Furthermore, the main control box further comprises a second circuit breaker QF2, the second circuit breaker QF2, a first normally closed auxiliary contact (K1-1) of the forward rotation contactor and a first normally closed auxiliary contact (K2-1) of the reverse rotation contactor are connected in series, one end (X3) of the series connection is electrically connected with a third phase (C) input end of three-phase alternating current, and the other end (X31) of the series connection is electrically connected with a fourth wiring port of the first wiring terminal row (Y1).
further, the utility model discloses an attached type lift scaffold electrical control unit still contains a host computer, carries out the communication with host computer, master control case and a plurality of branch control box through a RS485 communication bus and connects.
further, the utility model discloses in the embodiment of the attached type lifting scaffold electrical control device, the model of MCU chip is the KF8TS2716 chip.
further, in the embodiment of the electrical control device for an attached lifting scaffold of the present invention, the sub-control box further comprises a first ac contactor (J1), one end of the normally open contact of the first ac contactor (J1) is electrically connected to the fourth terminal block, and the other end of the normally open contact of the first ac contactor (J1) is electrically connected to the electric block.
Optionally, in the embodiment of the present invention, the sub-control box further includes a thermal relay CJ; the normally closed contact of the thermal relay CJ is connected in series between the first alternating current contactor (J1) and the electric hoist;
A first normally closed auxiliary contact CJ-1 of the thermal relay CJ; one end of a first normally closed auxiliary contact CJ-1 of the thermal relay CJ is connected to the second port of the fifth terminal row (Y5), and the other end is connected to the other end of the coil of the first ac contactor;
both ends of the second normally open auxiliary contact CJ-2 of the thermal relay CJ are connected to the sub-control boards, respectively.
furthermore, the main control box further comprises a first circuit breaker QF1, the first circuit breaker QF1 is connected with the first emergency stop button in series, one end of the first circuit breaker QF1 after the first circuit breaker QF is connected with a third phase (C) of three-phase alternating current in series, and the other end of the first circuit breaker QF1 after the first circuit breaker QF is connected with one end of a first normally-open contact of the intermediate relay (KA) in series.
The main control box further comprises a second circuit breaker QF2, the second circuit breaker QF2, a first normally closed auxiliary contact (K1-1) of the forward rotation contactor and a first normally closed auxiliary contact (K2-1) of the reverse rotation contactor are connected in series, one end (X3) of the series connection is electrically connected with a third phase (C) input end of three-phase alternating current, and the other end (X31) of the series connection is electrically connected with a fourth wiring port of the first wiring terminal row (Y1).
further, a first normally closed auxiliary contact (K1-1) of the forward rotation contactor is connected in series with a first normally closed auxiliary contact (K2-1) of the reverse rotation contactor, one end (X3) of the series connection is electrically connected with a third phase (C) input end of three-phase alternating current, and the other end (X31) of the series connection is electrically connected with a fourth wiring port of the first wiring terminal row (Y1);
Furthermore, the main control box further comprises a breaker QF, one end of the breaker QF is electrically connected with the three-phase alternating current input end, the other end of the breaker QF is electrically connected with one end of a normally open contact of the forward rotation contactor (K1) and one end of a normally open contact of the reverse rotation contactor (K2) respectively, and the breaker QF is a three-phase alternating current breaker.
Further, the utility model discloses in the embodiment of inserted lift scaffold electrical control device, the branch control box still contains an inspection switch, the both ends of inspection switch are connected to branch control panel respectively.
furthermore, in the embodiment of the electric control device of the attached lifting scaffold of the utility model, the main control box is also provided with a current detector, a plurality of manual operation buttons, a change-over switch and a remote control receiver,
the remote control receiver comprises a receiving antenna, the main control mainboard is connected to a power supply end of the remote control receiver to provide power (+9V) for the remote control receiver, first to fourth output ends of the remote control receiver are respectively connected to the main control mainboard (X0, X1, X2, X3) and one ends of a plurality of manual operation buttons (ascending, descending, stopping and overhauling), the other ends of the plurality of manual operation buttons are respectively connected to a grounding end of the remote control receiver, a COM end, a GND end, a COM2 end, a COM3 end and one end of a change-over switch after being connected, and the other end of the change-over switch is electrically connected with the main control mainboard (X5);
the receiving antenna is used for receiving operation control signals of the attached lifting scaffold, and the remote control receiver transmits the received operation control signals of the attached lifting scaffold to the main control mainboard to control the attached lifting scaffold to go up, down, stop or overhaul;
the manual operation button is a normally open button, and the main control mainboard receives a closing signal of the manual operation button or a signal of the remote control receiver to control the up-going, down-going, stopping or overhauling of the attached lifting scaffold.
The current detector is arranged between the forward rotation contactor (K1) and the first wiring terminal row (Y1) and used for detecting working current, when the current exceeds a set threshold value, the change-over switch is controlled to be in a closed state, and the attached lifting scaffold electrical control device is controlled to enter an overhaul mode.
Further, in the embodiment of the utility model discloses attached lifting scaffold electrical control device, the device still includes terminal resistor, terminal resistor's one end is connected to the fourth wiring port of the sixth binding post row (Y6) of N minute control box, terminal resistor's the other end is connected to the third wiring port of the sixth binding post row (Y6) of N minute control box.
with prior art, through the utility model discloses an attached lifting scaffold electric control device, the utility model discloses control is climbed a whole promotion, descends, and synchronous electric block crowd coordinated work has overload warning, electric block and is out of step reported to the police and cut off scaffold frame electric block and plays to rise motor circuit and show scaffold frame current weight and control function, can avoid scaffold frame equipment to receive when overloading or rising because of the overload to block equipment and the personal safety accident that causes. The utility model discloses a normally open contact of auxiliary relay comes the coil of the main circuit contactor of series connection three-phase electricity again, as long as there is a control box to have safety circuit problem or safe action, and all branch control box double-phase electric disconnection and main control box can not move.
Additionally, the utility model discloses a RS485 communication bus is in the same place host computer, master control case and branch control box linkage, carries out real-time detection, returns to synchronous safety to the load of each branch accuse in the system and detects, and real-time alarm, real-time troubleshooting and real-time control have guaranteed quick, safety and the accuracy of scaffold frame construction effectively.
drawings
The accompanying drawings, which are described herein, serve to provide a further understanding of the invention and constitute a part of this specification, and the exemplary embodiments and descriptions thereof are provided for explaining the invention without constituting undue limitations to the invention. In the drawings:
FIG. 1 is a schematic view of the electric control device of the attached lifting scaffold of the present invention;
FIG. 2 is a circuit diagram of a main control box of the electric control device of the attached lifting scaffold of the present invention;
FIG. 3 is a schematic diagram of a main control board of a main control box of the attached lifting scaffold electrical control device;
fig. 4 is a circuit diagram of the sub-control box of the electric control device of the attached lifting scaffold of the present invention.
Detailed Description
In order to make the technical problem, technical solution and advantageous effects to be solved by the present invention clearer and more obvious, the following description of the present invention with reference to the accompanying drawings and embodiments is provided for further details. It should be understood that the specific embodiments described herein are for purposes of illustration only and are not intended to limit the invention.
The electric control device of the attached lifting scaffold comprises a main control box and first to Nth sub-control boxes, wherein N is a positive integer more than or equal to 2; in the embodiment of the present invention, N is 30, as shown in fig. 1, that is, the attached type lifting scaffold electrical control device includes a main control box, a number 1 sub-control box (first sub-control box) … … 29 (twenty-ninth sub-control box), and a number-tail sub-control box (thirtieth sub-control box).
As shown in fig. 2, the main control box includes a forward contactor (K1), a reverse contactor (K2), an intermediate relay (KA), a phase sequence protection relay, an UP control switch (UP), a DOWN control switch (DOWN), a main control board, a first terminal block (Y1), and a second terminal block (Y2);
The first terminal block (Y1) comprises 4 terminal ports, and a first terminal port of the first terminal block (Y1) is grounded PE;
the second terminal block (Y2) comprises 4 connection ports, a first connection port of the second terminal block (Y2) is connected to a direct current voltage (SL), namely, a direct current voltage of +12V, and a second connection port of the second terminal block (Y2) is connected to a zero line (N) of three-phase alternating current;
the third and fourth wiring ports of the second wiring terminal row (Y2) are respectively connected to an RS485 connection interface (A, B) of the main control mainboard;
One end of a normally open contact of the forward rotation contactor (K1) is connected to a three-phase alternating current (A, B, C), and the other end of the normally open contact of the forward rotation contactor (K1) is connected to second to fourth wiring ports of the first wiring terminal row;
One end of a normally open contact of the reverse contactor (K2) is connected to three-phase alternating current (A, B, C), and the other end of the normally open contact of the reverse contactor (K2) is connected to second to fourth wiring ports of the first wiring terminal row;
one end of a first normally open contact of the intermediate relay (KA) is connected to a third phase (C) of three-phase alternating current, and the other end (COM) of the first normally open contact of the intermediate relay (KA) is connected to one end of an ascending control switch (UP) and one end of a descending control switch (DOWN) respectively;
the other end of the rising control switch (UP) is connected to one end of a coil of the forward rotation contactor (K1); the other end of the coil of the forward rotation contactor (K1) is connected with a second normally closed auxiliary contact (K2-2) of the reverse rotation contactor and then is connected to one end of a normally closed contact of the phase sequence protection relay; the other end of the DOWN control switch (DOWN) is connected to one end of a coil of a reverse contactor (K2); the other end of the coil of the reverse rotation contactor (K2) is connected with a second normally closed auxiliary contact (K1-2) of the forward rotation contactor and then is connected to one end of a normally closed contact of the phase sequence protection relay; the other end of the normally closed contact of the phase sequence protection relay is connected to a zero line (N) of three-phase alternating current;
the main control mainboard is respectively connected to the control end of an ascending control switch (UP) and the control end of a descending control switch (DOWN); and a pin (UP) of the main control mainboard sends out a control signal for controlling the connection or disconnection of the UP control switch (UP), and the main control mainboard sends out a control signal for controlling the connection or disconnection of the DOWN control switch (DOWN).
the main control mainboard is also respectively connected to one end of a second normally open contact of the intermediate relay (KA) and one end of a normally open contact of the phase sequence protection relay, and the other end of the second normally open contact of the intermediate relay (KA) is electrically connected with the other end of the normally open contact of the phase sequence protection relay and then is connected to the main control mainboard; one end of a coil of the intermediate relay (KA) is connected to a zero line (N) of three-phase alternating current, and the other end of the coil of the intermediate relay (KA) is connected to a first wiring port (SL) of the second wiring terminal row (Y2).
The main control mainboard is also respectively connected to one end of a second normally open contact of the intermediate relay (KA) and one end of a normally open contact of the phase sequence protection relay, and the other end of the second normally open contact of the intermediate relay is electrically connected with the other end of the normally open contact of the phase sequence protection relay and then is connected to the main control mainboard; one end of a coil of the intermediate relay (KA) is connected to a zero line (N) of three-phase alternating current, and the other end of the coil of the intermediate relay (KA) is connected to a first wiring port (SL) of the second wiring terminal row (Y2);
it needs to be further explained that the intermediate relay (KA) protection loop works normally, the first normally open contact (5) of the intermediate relay (KA) is closed, and the main control box control loop can work normally; and a second normally open contact (19) of the intermediate relay (KA) is closed to provide a normal working signal for the MCU.
It needs to be further explained that the working principle of the sequence protection relay is that the normally closed contact (2) of the phase sequence protection relay is cut off, the control loop is powered off, and the forward rotation contactor (K1) and the reverse rotation contactor (K2) are powered off and disconnected; and a normally open contact (21) of the phase sequence protection relay is closed to provide a protection signal for the MCU.
in the embodiment of the present invention, the main control board is an MCU chip, preferably, as shown in fig. 3, the model of the MCU chip is KF8TS2716 chip, the electric block forward rotation control end (UP) of the MCU chip is connected to the control end of the UP control switch (UP), and the electric block reverse rotation control end (DOWN) of the MCU chip is connected to the control end of the DOWN control switch (DOWN); the electric hoist corotation realizes the promotion of scaffold frame, and correspondingly, the electric hoist reversal realizes the decline of scaffold frame. The main control box is used for controlling the electric hoist to rotate forwards, reversely and stop so as to realize lifting, descending and stopping of the scaffold.
The main control box further comprises a transformer, the input end of the transformer is connected to a third phase (C) and a zero line (N) of three-phase alternating current respectively, the output end of the transformer is connected to the 13 pins and the 15 pins of the main control mainboard respectively, and the transformer provides low-voltage alternating current for the main control mainboard.
as shown in fig. 4, the first to nth sub-control boxes respectively include a sub-control board, a third terminal row (Y3), a fourth terminal row (Y4), a fifth terminal row (Y5), a sixth terminal row (Y6), a first ac contactor (J1), a transformer, and a second emergency stop button;
the first input of the transformer is electrically connected to the second connection port of the fifth connection terminal row (Y5); a second input end of the transformer is electrically connected with a fourth wiring port (C) of the third wiring terminal row (Y3), and an output end of the transformer is connected to a sub-control board; the transformer with the third binding post row electricity is connected and is acquireed the alternating current and become the alternating current input voltage that divides the control panel needs, in the embodiment of the utility model provides a, the input of transformer is connected to respectively the first wiring port and the fourth wiring port of fourth binding post row acquire 220V alternating voltage, and the transformer converts 220V's alternating voltage into AC9V and provides alternating voltage for dividing the control panel.
the sub-control boards (19, 21, 23, 25) are electrically connected with a gravity sensor (+5V, GND, INP +, INN-); one terminal (OUT) of the sub-board is connected to one end of the coil of the first ac contactor (J1), and the other end of the coil of the first ac contactor (J1) is connected to the second wiring port of the fifth wiring terminal row (Y5) and the second wiring port of the sixth wiring terminal row (Y6), respectively;
the third wire connection bank (Y3) comprises 4 wire connection ports, the 4 wire connection ports (C, B, A, PE) of the third wire connection bank (Y3) being electrically connected with the 4 wire connection ports of the first wire connection bank (Y1), respectively;
the fourth terminal row (Y4) comprises 4 connection ports, the 4 connection ports (W1, V1, U1, PE) of the fourth terminal row (Y4) being electrically connected with the 4 connection ports (C, B, A, PE) of the third terminal row (Y3), respectively;
the fourth wiring terminal row (Y4) is connected with the first alternating current contactor and electrically connected with an electric hoist (W2, V2, U2 and PE); the electric hoist has the features of low hoisting speed, light weight and high part hardness.
the third wiring port (V1) of the fourth wiring terminal row (Y4) is electrically connected with a sub-control board (COM), and the first wiring Port (PE) of the fourth wiring terminal row (Y4) is electrically connected with a sub-control board (GND);
the fifth terminal row (Y5) comprises 4 terminal ports, and the first terminal port of the fifth terminal row (Y5) is electrically connected with a sub control board (SL 2);
the sixth wiring terminal block (Y6) comprises 4 wiring ports, a third and a fourth wiring ports of the sixth wiring terminal block (Y6) are respectively connected to the RS485 connection interface (A, B) of the sub-control board, and a second wiring port of the sixth wiring terminal block (Y6) is connected to a second port of the fifth wiring terminal block (Y5);
The sub-control board is an MCU chip,
the third wiring terminal row (Y3) of the first branch control box is electrically connected with the first wiring terminal row (Y1) of the main control box; that is, the first connection port of the third terminal row (Y3) of the first branch box is electrically connected to the first connection port of the first terminal row (Y1) of the main control box, the second connection port of the third terminal row (Y3) of the first branch box is electrically connected to the first connection port of the second terminal row (Y1) of the main control box, the third connection port of the third terminal row (Y3) of the first branch box is electrically connected to the first connection port of the third terminal row (Y1) of the main control box, and the fourth connection port of the third terminal row (Y3) of the first branch box is electrically connected to the first connection port of the fourth terminal row (Y1) of the main control box.
The fourth wiring terminal row (Y4) of the first sub-control box is electrically connected with the third wiring terminal row (Y3) of the second sub-control box; namely, the first connection port of the fourth terminal block (Y4) of the first sub-control box is electrically connected with the first connection port of the first terminal block (Y3) of the second sub-control box; the second wiring port of the fourth wiring terminal row (Y4) of the first branch control box is electrically connected with the first wiring port of the second wiring terminal row (Y3) of the second branch control box; the third wiring port of the fourth wiring terminal row (Y4) of the first branch control box is electrically connected with the first wiring port of the third wiring terminal row (Y3) of the second branch control box; the fourth wiring port of the fourth wiring terminal row (Y4) of the first branch control box is electrically connected with the first wiring port of the fourth wiring terminal row (Y3) of the second branch control box;
the fourth wiring terminal row (Y4) of the second branch control box is electrically connected with the third wiring terminal row (Y3) of the third branch control box; the fourth wiring terminal row (Y4) of the third sub-control box is electrically connected with the third wiring terminal row (Y3) of the fourth sub-control box; the same can be done, namely the third wiring terminal row (Y3) of the ith sub-control box is electrically connected with the fourth wiring terminal row (Y4) of the ith-1 sub-control box;
the fifth wiring terminal row (Y5) of the first branch control box is electrically connected with the second wiring terminal row (Y2) of the main control box; the sixth wiring terminal row (Y6) of the first sub-control box is electrically connected with the fifth wiring terminal row (Y5) of the second sub-control box; the sixth wiring terminal row (Y6) of the second branch control box is electrically connected with the fifth wiring terminal row (Y5) of the third branch control box; the sixth wiring terminal row (Y6) of the third sub-control box is electrically connected with the fifth wiring terminal row (Y5) of the fourth sub-control box; by analogy, the fifth wiring terminal row (Y5) of the ith sub-control box is electrically connected with the sixth wiring terminal row (Y6) of the ith-1 sub-control box; wherein i is an integer and i is more than or equal to 2 and less than or equal to N;
one end of the second emergency stop button is connected to the first wiring port of the sixth wiring terminal row (Y6); the other end of the second emergency stop button is electrically connected with a sub-control board (SL 1).
furthermore, the main control box is also provided with a plurality of manual operation buttons and a remote control receiver, one ends of the manual operation buttons are connected to the main control main board, and the other ends of the manual operation buttons are connected; the remote control receiver is respectively connected to the main control mainboard and one end of the plurality of manual operation buttons; the manual operation button is a normally open button, and the main control mainboard receives a closing signal of the manual operation button or a signal of the remote control receiver to control the up-going, down-going, stopping or overhauling of the attached lifting scaffold. The embodiment of the utility model provides an in, a plurality of manually operation button is respectively for going upward manual button, down manual button, stop manual button, overhaul manual button. For example, when the operator starts the up manual button, the up manual button is in a closed state, and the attached lifting scaffold enters a manual control up state.
The sub-control box at the tail end is an Nth sub-control box, the Nth sub-control box is connected with an AC/DC power adapter, the alternating current input end of the AC/DC power adapter is respectively connected to the fourth wiring port of a fourth wiring terminal row (Y4) and the second wiring port of a sixth wiring terminal row (Y4), and the direct current output end of the AC/DC power adapter is connected with the first wiring port of the sixth wiring terminal row (Y4). The AC/DC power adapter is characterized in that AC220V leading out a phase and a zero line from a three-phase main output port is converted into DC12V, the AC 12 and the zero line are connected with a power supply in an adaptive mode, all branch control boxes are connected in series through a DC12V circuit, each control box is provided with an emergency stop button, all the branch control boxes are also connected in series on a safety circuit in an automatic mode and are connected in series into a main control box all the time to control an intermediate relay of the DC12V, a normally open contact of the intermediate relay is connected with a coil of a three-phase main circuit contactor in series, and when the main control box or any one control box has a safety circuit problem or safety action, two phases of all the branch control boxes are electrically disconnected and the main control box cannot operate.
The main control box further comprises a first emergency stop button, the first emergency stop button is normally closed, and one end of the first emergency stop button is electrically connected with a third phase (C) of three-phase alternating current; the other end of the first emergency stop button is electrically connected with one end of a first normally open contact of the intermediate relay (KA).
The device also comprises an upper computer, and the upper computer, the main control box and the plurality of sub-control boxes are in communication connection through an RS485 communication bus. The load of each separately controlled electric hoist is detected in real time through the upper computer, the synchronous safe return is detected, real-time alarming, real-time obstacle removal and real-time control are achieved, and the rapidness, safety and accuracy of scaffold construction are effectively guaranteed.
the first wiring port of the sixth wiring terminal row (Y6) is connected with the second emergency stop button to the sub control board;
the sub-control box further comprises a thermal relay CJ; the normally closed contact of the thermal relay CJ is connected in series between the first alternating current contactor (J1) and the electric hoist;
a first normally closed auxiliary contact CJ-1 of the thermal relay CJ; one end of a first normally closed auxiliary contact CJ-1 of the thermal relay CJ is connected to the second port of the fifth terminal row (Y5), and the other end is connected to the other end of the coil of the first ac contactor;
two ends of a second normally open auxiliary contact CJ-2 of the thermal relay CJ are respectively connected to the sub-control boards;
furthermore, the main control box further comprises a first circuit breaker QF1, the first circuit breaker QF1 is connected with the first emergency stop button in series, one end of the first circuit breaker QF1 after the first circuit breaker QF is connected with a third phase (C) of three-phase alternating current in series, and the other end of the first circuit breaker QF1 after the first circuit breaker QF is connected with one end of a first normally-open contact of the intermediate relay (KA) in series.
the main control box further comprises a second circuit breaker QF2, the second circuit breaker QF2, a first normally closed auxiliary contact (K1-1) of the forward rotation contactor and a first normally closed auxiliary contact (K2-1) of the reverse rotation contactor are connected in series, one end (X3) of the series connection is electrically connected with a third phase (C) input end of three-phase alternating current, and the other end (X31) of the series connection is electrically connected with a fourth wiring port of the first wiring terminal row (Y1).
further, a first normally closed auxiliary contact (K1-1) of the forward rotation contactor is connected in series with a first normally closed auxiliary contact (K2-1) of the reverse rotation contactor, one end (X3) of the series connection is electrically connected with a third phase (C) input end of three-phase alternating current, and the other end (X31) of the series connection is electrically connected with a fourth wiring port of the first wiring terminal row (Y1);
furthermore, the main control box further comprises a breaker QF, one end of the breaker QF is electrically connected with the three-phase alternating current input end, the other end of the breaker QF is electrically connected with one end of a normally open contact of the forward rotation contactor (K1) and one end of a normally open contact of the reverse rotation contactor (K2) respectively, and the breaker QF is a three-phase alternating current breaker.
furthermore, the branch control box further comprises an overhaul switch, and two ends of the overhaul switch are respectively connected to the branch control board.
the main control box is also provided with a current detector, a plurality of manual operation buttons, a change-over switch and a remote control receiver,
The remote control receiver comprises a receiving antenna, the main control mainboard is connected to a power supply end of the remote control receiver to provide power (+9V) for the remote control receiver, first to fourth output ends of the remote control receiver are respectively connected to the main control mainboard (X0, X1, X2, X3) and one ends of a plurality of manual operation buttons (ascending, descending, stopping and overhauling), the other ends of the plurality of manual operation buttons are respectively connected to a grounding end of the remote control receiver, a COM end, a GND end, a COM2 end, a COM3 end and one end of a change-over switch after being connected, and the other end of the change-over switch is electrically connected with the main control mainboard (X5);
The receiving antenna is used for receiving operation control signals of the attached lifting scaffold, and the remote control receiver transmits the received operation control signals of the attached lifting scaffold to the main control mainboard to control the attached lifting scaffold to go up, down, stop or overhaul;
the manual operation button is a normally open button, and the main control mainboard receives a closing signal of the manual operation button or a signal of the remote control receiver to control the up-going, down-going, stopping or overhauling of the attached lifting scaffold.
the current detector is arranged between the forward rotation contactor (K1) and the first wiring terminal row (Y1) and used for detecting working current, when the current exceeds a set threshold value, the change-over switch is controlled to be in a closed state, and the attached lifting scaffold electrical control device is controlled to enter an overhaul mode.
further, as shown in fig. 1, the apparatus further includes a termination resistor, one end of which is connected to the fourth connection port of the sixth connection terminal row (Y6) of the nth partial control box, and the other end of which is connected to the third connection port of the sixth connection terminal row (Y6) of the nth partial control box.
as shown in fig. 2, further, in the embodiment of the present invention, a pin (RUN) of the main control motherboard is connected to an LED lamp, the LED lamp is a work indicator, and when the LED lamp connected to the pin (RUN) of the main control motherboard is green, the system is indicated to work normally;
one pin (ERR) of the main control mainboard is connected with an LED lamp which is a fault indicator lamp, and when the LED lamp connected to the pin (ERR) of the main control mainboard is displayed in red, the fault of a system safety circuit and the fault of a phase sequence are represented;
The branch accuse case still includes the third fuse, the third fuse is established ties between the transformer of branch accuse case and third binding post row, the one end of third fuse is connected with the second input electricity of transformer, the other end of third fuse and the fourth connection port of third binding post row (Y3).
the sub-control box further comprises a first LED lamp (LD1) and a second LED lamp (LD2), and the first LED lamp (LD1) is connected in parallel with the input end of the transformer of the sub-control box; one end of the second LED lamp (LD2) is electrically connected with the sub-control board (ERR) of the sub-control box, and the other end of the second LED lamp (LD2) is electrically connected with the other end of the coil of the first alternating current contactor (J1).
the utility model discloses can realize the action of various states through the single chip microcomputer and switch, control three-phase alternating current motor. The master control box controls the motor to rotate forwards, reversely and stop, so that the climbing frame is lifted, descended and stopped. The sub-control box has two working states of automatic operation and maintenance operation, and is switched by a change-over switch. The automatic state is used for integral lifting and descending; the maintenance state is used for the barb, the lifting point and the tight hook of the single hoist. The sub-control box is responsible for collecting real-time load data transmitted by the weight sensor of each machine position, and carrying out comprehensive analysis to judge various faults and timely carry out corresponding automatic operation, such as early warning and shutdown. And transmitted to the host and the upper computer through a communication bus RS 485.
The electric control device of the attached lifting scaffold of the utility model comprises an automatic mode and an overhaul mode; the automatic mode is that after the sub-control box receives an ascending and descending command of the main control box, the sub-control box performs the attraction of the ascending contactor and the descending contactor after the safety loop is firstly attracted (including the safety loop of the main control box) for one second, the sub-control box starts to act after the attraction of the ascending contactor and the descending contactor is performed, at the moment, if the weight of the climbing frame detected by the weighing sensor is larger than a full-load set value during the ascending and descending operation, the sub-control box only gives an alarm and gives a sound prompt, the climbing frame continues to operate, when the weight is larger than an overload set value and smaller than a light-load set value, the safety loop of the sub-control box is automatically disconnected, and all the sub-control. In the automatic mode, all the sub-control boxes and the main control box stop running after the emergency stop button and the maintenance button on the sub-control box, the main control box and other sub-control boxes act.
in the maintenance mode, when a certain sub-control box is maintained, the main control box is inching to send maintenance up and down commands, the sub-control box outputs operation (note: the function of the weighing sensor is closed and the sub-control box forcibly operates in the maintenance mode), and other sub-control boxes do not act. If the main control box sends an automatic command, other sub-control boxes can receive the automatic command and display the automatic command on the LED screen, and the main control box cannot operate.
it should be noted that the utility model discloses the safety circuit that indicates is the branch control box (the Nth branch control box) of tail end, draw forth a looks and zero line from three-phase main delivery outlet and connect one AC220V to become DC12V power adaptation, all branch control boxes are established ties through this DC 12V's circuit, emergency stop switch is all installed to every control box, branch control box also all establishes ties on the safety circuit in automatic mode, establish ties to the main control incasement always, control a DC 12V's auxiliary relay, auxiliary relay's normally open contact comes the coil of the main circuit contactor of series connection three-phase electricity again, as long as there is a control box safety circuit problem or safe action, all branch control box double-phase electrical disconnection and main control box can not run.
the above-described embodiments are merely preferred embodiments of the present invention, and it should be noted that, for those skilled in the art, a plurality of modifications and infiltrations can be made without departing from the principles of the present invention, and these modifications and infiltrations should also be regarded as the protection scope of the present invention.

Claims (10)

1. an electric control device of an attached lifting scaffold is characterized in that,
the device comprises a main control box and first to Nth sub-control boxes; wherein N is a positive integer greater than or equal to 2;
The main control box comprises a forward contactor K1, a reverse contactor K2, an intermediate relay KA, a phase sequence protection relay, an ascending control switch UP, a descending control switch DOWN, a main control main board, a first wiring terminal row Y1 and a second wiring terminal row Y2;
The first wire connecting bank Y1 contains 4 wire connection ports, and the first wire connection port of the first wire connecting bank Y1 is grounded;
the second wiring terminal row Y2 comprises 4 wiring ports, a first wiring port of the second wiring terminal row Y2 is connected to a direct-current voltage SL, and a second wiring port of the second wiring terminal row Y2 is connected to a zero line N of three-phase alternating current;
The third and fourth wiring ports of the second wiring terminal block Y2 are connected to the RS485 connection interface a and the connection interface B of the main control motherboard, respectively;
One end of a normally open contact of the forward contactor K1 is connected to three-phase alternating current respectively, and the other end of the normally open contact of the forward contactor K1 is connected to second to fourth wiring ports of the first wiring terminal row respectively;
One end of a normally open contact of the reverse contactor K2 is connected to three-phase alternating current respectively, and the other end of the normally open contact of the reverse contactor K2 is connected to second to fourth wiring ports of the first wiring terminal row respectively;
one end of a first normally open contact of the intermediate relay KA is connected to a third phase C of three-phase alternating current, and the other end of the first normally open contact of the intermediate relay KA is respectively connected to one end of an ascending control switch UP and one end of a descending control switch DOWN;
the other end of the UP control switch UP is connected to one end of a coil of the forward rotation contactor K1; the other end of the coil of the forward rotation contactor K1 is connected with a second normally closed auxiliary contact K2-2 of the reverse rotation contactor and then is connected to one end of a normally closed contact of the phase sequence protection relay; the other end of the DOWN control switch DOWN is connected to one end of a coil of the reverse contactor K2; the other end of the coil of the reverse rotation contactor K2 is connected with a second normally closed auxiliary contact K1-2 of the forward rotation contactor and then is connected to one end of a normally closed contact of the phase sequence protection relay; the other end of the normally closed contact of the phase sequence protection relay is connected to a zero line N of three-phase alternating current;
The main control mainboard is also respectively connected to one end of a second normally open contact of the intermediate relay KA and one end of a normally open contact of the phase sequence protection relay, and the other end of the second normally open contact of the intermediate relay is electrically connected with the other end of the normally open contact of the phase sequence protection relay and then is connected to the main control mainboard; one end of a coil of the intermediate relay KA is connected to a zero line N of three-phase alternating current, and the other end of the coil of the intermediate relay KA is connected to a first wiring port SL of the second wiring terminal row Y2;
the main control mainboard is an MCU chip; the main control mainboard is respectively connected to the control end of the UP control switch UP and the control end of the DOWN control switch DOWN; the main control box is used for controlling the electric hoist to rotate forwards, reversely and stop so as to realize the lifting, descending and stopping of the scaffold;
The first sub-control box to the Nth sub-control box respectively comprise sub-control boards, a third wiring terminal row Y3, a fourth wiring terminal row Y4, a fifth wiring terminal row Y5, a sixth wiring terminal row Y6, a first alternating current contactor J1, a transformer and a second emergency stop button;
the first input end of the transformer is electrically connected with the second wiring port of the fifth wiring terminal row Y5; a second input end of the transformer is electrically connected with a fourth wiring port C of the third wiring terminal row Y3, and an output end of the transformer is connected to the sub-control board;
the sub-control board is electrically connected with the gravity sensor; one terminal OUT of the sub-control board is connected to one end of the coil of the first ac contactor J1, and the other end of the coil of the first ac contactor J1 is connected to the second wiring port of the fifth wiring terminal row Y5 and the second wiring port of the sixth wiring terminal row Y6, respectively;
The third wire connecting bank Y3 includes 4 wire connection ports, and the 4 wire connection ports of the third wire connecting bank Y3 are electrically connected with the 4 wire connection ports of the first wire connecting bank Y1, respectively;
the fourth wire connecting bank Y4 includes 4 wire connection ports, and the 4 wire connection ports of the fourth wire connecting bank Y4 are electrically connected with the 4 wire connection ports of the third wire connecting bank Y3, respectively;
The fourth wiring terminal block Y4 is connected with the first alternating current contactor and is electrically connected with the electric hoist;
the third wiring port V1 of the fourth wiring terminal row Y4 is electrically connected with the sub-control board COM, and the first wiring port PE of the fourth wiring terminal row Y4 is electrically connected with the sub-control board GND;
the fifth wiring terminal block Y5 comprises 4 wiring ports, and the first wiring port of the fifth wiring terminal block Y5 is electrically connected with the sub-control board SL 2;
The sixth wiring terminal block Y6 includes 4 wiring ports, the third and fourth wiring ports of the sixth wiring terminal block Y6 are respectively connected to the RS485 connection interface a and the connection interface B of the sub-control board, and the second wiring port of the sixth wiring terminal block Y6 is connected to the second port of the fifth wiring terminal block Y5;
one end of a normally open contact of the first alternating current contactor J1 is electrically connected with the fourth wiring terminal row, and the other end of the normally open contact of the first alternating current contactor J1 is electrically connected with the electric hoist;
The sub-control board is an MCU chip;
The third wiring terminal row Y3 of the first branch control box is electrically connected with the first wiring terminal row Y1 of the main control box;
the fourth wiring terminal row Y4 of the first branch control box is electrically connected with the third wiring terminal row Y3 of the second branch control box;
the third wiring terminal row Y3 of the ith sub-control box is electrically connected with the fourth wiring terminal row Y4 of the ith-1 sub-control box;
the fifth wiring terminal row Y5 of the first branch control box is electrically connected with the second wiring terminal row Y2 of the main control box;
The sixth wiring terminal row Y6 of the first branch control box is electrically connected with the fifth wiring terminal row Y5 of the second branch control box;
The fifth wiring terminal row Y5 of the ith sub-control box is electrically connected with the sixth wiring terminal row Y6 of the ith-1 sub-control box;
wherein i is an integer and i is more than or equal to 2 and less than or equal to N;
One end of the second emergency stop button is connected to the first wiring port of the sixth wiring terminal row Y6; the other end of the second emergency stop button is electrically connected with the sub-control board SL 1.
2. The attached lifting scaffold electrical control apparatus of claim 1,
the Nth sub-control box is connected with an AC/DC power adapter, the alternating current input end of the AC/DC power adapter is respectively connected to the fourth wiring port of the fourth wiring terminal row Y4 and the second wiring port of the sixth wiring terminal row Y4, and the direct current output end of the AC/DC power adapter is connected with the first wiring port of the sixth wiring terminal row Y4.
3. The attached lifting scaffold electrical control apparatus of claim 1,
The main control box further comprises a first emergency stop button, the first emergency stop button is normally closed, and one end of the first emergency stop button is electrically connected with a third phase C of three-phase alternating current; the other end of the first emergency stop button is electrically connected with one end of a first normally open contact of the intermediate relay KA.
4. the attached lifting scaffold electrical control apparatus of claim 1,
the main control box further comprises a first circuit breaker QF1, the first circuit breaker QF1 is connected with the first emergency stop button in series, one end of the first circuit breaker QF1 after the first circuit breaker QF is connected with a third phase C of three-phase alternating current in series, and the other end of the first circuit breaker QF after the first circuit breaker QF1 is connected with one end of a first normally-open contact of the intermediate relay KA in series;
The main control box further comprises a second circuit breaker QF2, the second circuit breaker QF2, a first normally closed auxiliary contact K1-1 of the forward rotation contactor and a first normally closed auxiliary contact K2-1 of the reverse rotation contactor are connected in series, one end of the series connection is electrically connected with a third phase C input end of three-phase alternating current, and the other end of the series connection is electrically connected with a fourth wiring port of the first wiring terminal row Y1.
5. The attached lifting scaffold electrical control apparatus of claim 1,
The device also comprises an upper computer, and the upper computer, the main control box and the plurality of sub-control boxes are in communication connection through an RS485 communication bus.
6. The attached lifting scaffold electrical control apparatus of claim 1,
the model of the MCU chip is KF8TS2716 chip.
7. the attached lifting scaffold electrical control apparatus of claim 1,
the sub-control box also comprises a thermal relay; the normally closed contact of the thermal relay is connected in series between the first alternating current contactor J1 and the electric hoist;
One end of a first normally-closed auxiliary contact of the thermal relay is connected to the second interface of the fifth wiring terminal row Y5, and the other end of the first normally-closed auxiliary contact of the thermal relay is connected to the other end of the coil of the first alternating current contactor;
And two ends of a second normally-open auxiliary contact of the thermal relay are respectively connected to the sub-control boards.
8. the attached lifting scaffold electrical control apparatus of claim 1,
The branch control box further comprises an overhaul switch, and two ends of the overhaul switch are respectively connected to the branch control boards.
9. the attached lifting scaffold electrical control apparatus of claim 1,
The main control box is also provided with a current detector, a plurality of manual operation buttons, a change-over switch and a remote control receiver,
The remote control receiver comprises a receiving antenna, the main control mainboard is connected to a power supply end of the remote control receiver to provide power for the remote control receiver, first to fourth output ends of the remote control receiver are respectively connected to the main control mainboard and one ends of a plurality of manual operation buttons, the other ends of the plurality of manual operation buttons are respectively connected and then connected to a grounding end of the remote control receiver, a COM end, a GND end, a COM2 end, a COM3 end of the main control mainboard and one end of a change-over switch, and the other end of the change-over switch is electrically connected with the main control mainboard;
the receiving antenna is used for receiving operation control signals of the attached lifting scaffold, and the remote control receiver transmits the received operation control signals of the attached lifting scaffold to the main control mainboard to control the attached lifting scaffold to go up, down, stop or overhaul;
the manual operation button is a normally open button, and the main control mainboard receives a closing signal of the manual operation button or a signal of the remote control receiver to control the up and down movement, stop or overhaul of the attached lifting scaffold;
The current detector is arranged between the forward rotation contactor K1 and the first wiring terminal row Y1 and used for detecting working current, when the current exceeds a set threshold value, the change-over switch is controlled to be in a closed state, and the attached lifting scaffold electrical control device is controlled to enter an overhaul mode.
10. the attached lifting scaffold electrical control apparatus of claim 1,
the device further comprises a terminal resistor, one end of the terminal resistor is connected to the fourth wiring port of the sixth wiring terminal row Y6 of the Nth sub-control box, and the other end of the terminal resistor is connected to the third wiring port of the sixth wiring terminal row Y6 of the Nth sub-control box.
CN201920366232.7U 2019-03-21 2019-03-21 attached lifting scaffold electrical control device Active CN209765303U (en)

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Application Number Priority Date Filing Date Title
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Application Number Priority Date Filing Date Title
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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109814469A (en) * 2019-03-21 2019-05-28 厦门安科科技有限公司 A kind of attachment type raise scaffold electrical control gear
CN111268577A (en) * 2020-01-20 2020-06-12 乾日安全科技(北京)有限公司 Climbing frame control system and method
CN111287442A (en) * 2020-01-20 2020-06-16 北京韬盛科技发展有限公司 Intelligent communication fault warning system and method for climbing frame
CN112125244A (en) * 2020-09-30 2020-12-25 中国核工业华兴建设有限公司 Working platform capable of ascending and descending along arc dome and installation method thereof

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109814469A (en) * 2019-03-21 2019-05-28 厦门安科科技有限公司 A kind of attachment type raise scaffold electrical control gear
CN111268577A (en) * 2020-01-20 2020-06-12 乾日安全科技(北京)有限公司 Climbing frame control system and method
CN111287442A (en) * 2020-01-20 2020-06-16 北京韬盛科技发展有限公司 Intelligent communication fault warning system and method for climbing frame
CN112125244A (en) * 2020-09-30 2020-12-25 中国核工业华兴建设有限公司 Working platform capable of ascending and descending along arc dome and installation method thereof

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