CN109826536B - Turnover glass curtain wall and turnover control method thereof - Google Patents

Turnover glass curtain wall and turnover control method thereof Download PDF

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Publication number
CN109826536B
CN109826536B CN201910131303.XA CN201910131303A CN109826536B CN 109826536 B CN109826536 B CN 109826536B CN 201910131303 A CN201910131303 A CN 201910131303A CN 109826536 B CN109826536 B CN 109826536B
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linear motor
glass
glass frame
controller mcu
bottom side
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CN109826536A (en
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赵付舟
徐逸舟
杨保成
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Changshu Institute of Technology
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Changshu Institute of Technology
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Abstract

The invention discloses a turnover glass curtain wall which comprises a window frame, a glass frame, movable glass and a controller MCU, wherein the upper side and the lower side of the movable glass are rotatably connected with the glass frame through rotating shafts and are driven by a rotating stepping motor, a window-opening linear motor is arranged on the side edge of the window frame, a linear motor stator track is vertically fixed on the side edge of the window frame, a linear motor rotor is connected with a sliding block, the sliding block is connected with the glass frame through a first connecting rod, a second connecting rod and a third connecting rod, the glass frame is driven to be opened and closed by the movement of the sliding block, a pushing linear motor is arranged in the bottom edge of the glass frame and is connected with a pushing rod, the pushing linear motor drives the pushing rod to stretch, and the controller MCU is respectively connected with the rotating stepping motor. The invention also discloses a turnover control method of the turnover glass curtain wall. According to the invention, the automatic turnover of the glass curtain wall is realized, so that the efficiency and safety of large-scale cleaning are improved.

Description

Turnover glass curtain wall and turnover control method thereof
Technical Field
The invention relates to a glass curtain wall and a control method thereof, in particular to a reversible glass curtain wall and a control method thereof.
Background
To date, two methods are generally adopted for cleaning the external wall glass of a high-rise building: firstly, a double-side wiping tool special for wiping glass is adopted to clean the outer glass, but the double-side wiping tool is difficult to wipe dirt or dust in dead corners. And secondly, hiring professionals to clean from the outside by adopting professional tools. For example, high-altitude spider men generally hang down from a high place by using a safety rope tied at the waist to clean layer by layer, but a serious safety accident that workers fall down to death from high altitude often occurs. In the prior art, a glass curtain wall adopting a turnover structure is also adopted to meet the requirement of cleaning, for example, Chinese patent with the publication number of CN106837083A discloses a double-frame turnover curtain wall window, which comprises a square frame, a window frame and a glass frame; the frame is fixed on the curtain wall, the upper part of the window frame is hinged to the upper frame of the frame, and the lower part of the window frame is provided with a handle; the glass frame is assembled in the middle of the window frame through a middle hinge shaft, the hinge shafts are symmetrically assembled on two sides of the glass frame, and the upper portion of the glass frame is fixed with the window frame through screws. This scheme must dismantle the screw of fixed glass frame and window frame earlier when needing upset glass frame washing glass, and in order to ensure that the glass frame can not turn at will and cause the potential safety hazard when clean, still must fasten the screw once more behind the upset glass frame, this causes very big inconvenience for extensive cleaning.
Disclosure of Invention
Aiming at the defects of the prior art, the invention aims to provide a turnover glass curtain wall, which can automatically turn over the glass curtain wall so as to be convenient for large-scale cleaning. Another object of the invention is to provide a method for controlling a reversible glass curtain wall.
The technical scheme of the invention is as follows: a turnover glass curtain wall comprises a window frame, a glass frame, movable glass and a controller MCU, wherein the movable glass is embedded in the glass frame, the upper side and the lower side of the movable glass are rotationally connected with the glass frame through a rotating shaft, a rotary stepping motor is arranged in the glass frame, an output shaft of the rotary stepping motor is connected with the rotating shaft to drive the movable glass to rotate, a window opening linear motor is arranged at the side of the window frame and comprises a linear motor rotor and a linear motor stator track, the linear motor stator track is vertically fixed at the side of the window frame, the linear motor rotor is connected with a sliding block, the upper part of the sliding block is hinged with the head end of a first connecting rod, the tail end of the first connecting rod is hinged with the upper part of the side of the glass frame, the lower part of the linear motor stator track is hinged with the head end of a second connecting rod, the terminal of second connecting rod with the middle part of glass frame's side is articulated, the lower part of slider is articulated with the head end of third connecting rod, the terminal of third connecting rod with the middle part of second connecting rod is articulated, the topside and the base of window frame are equipped with the step groove, the glass frame embedding during the window frame the glass frame is located the step inslot, be equipped with top pushing linear electric motor in the base of glass frame, top pushing linear electric motor is connected with the ejector pin, top pushing linear electric motor drive ejector pin follows the side of glass frame's base is stretched out or is retracted, controller MCU respectively with rotatory step motor the linear electric motor of windowing with top pushing linear electric motor connects.
Further, in order to further judge the opening position of the glass frame, a closing state position sensor is arranged at the upper part of the linear motor stator track, an opening state position sensor is arranged at the middle lower part of the linear motor stator track, the closing state position sensor is triggered once when the linear motor rotor reaches the upper part of the linear motor stator track, the opening state position sensor is triggered once when the linear motor rotor reaches the middle lower part of the linear motor stator track, and both the closing state position sensor and the opening state position sensor are connected with the controller MCU.
Furthermore, a bottom edge fixing pin assembly is arranged on the bottom edge of the glass frame, a bottom edge locking groove is arranged on the bottom edge of the window frame, the bottom edge fixing pin assembly comprises a bottom edge electromagnet, a bottom edge spring, a bottom edge armature, a bottom edge pin and a bottom edge unlocking pull wire, the bottom edge electromagnet, the bottom edge spring and the bottom edge armature are arranged in the bottom edge of the glass frame, the bottom edge armature is connected with the bottom edge electromagnet through the bottom edge spring, the bottom edge electromagnet is fixedly connected with the bottom edge of the glass frame, the bottom edge pin and the bottom edge unlocking pull wire are both fixedly connected with the bottom edge armature, the bottom edge pin extends out or retracts into the bottom edge of the glass frame under the action of the bottom edge electromagnet and the bottom edge spring, and the bottom edge unlocking pull wire extends to the outside from the inside of the bottom edge of the glass frame and is used for manually, and the bottom side electromagnet is connected with the controller MCU.
Furthermore, the outer edge of the bottom edge of the window frame is provided with a bottom edge guide inclined notch.
Furthermore, a side fixing pin component is arranged on the inner wall of one side of the glass frame, side locking grooves are formed in the left side and the right side of the movable glass, the side fixing pin component comprises a side electromagnet, a side spring, a side armature, a side pin and a side unlocking stay wire, the side electromagnet, the side spring and the side armature are arranged in the side of the glass frame, the side armature is connected with the side electromagnet through the side spring, the side electromagnet is fixedly connected with the side of the glass frame, the side pin and the side unlocking stay wire are fixedly connected with the side armature, the side pin stretches out or retracts into the side of the glass frame under the action of the side electromagnet and the side spring, and the side unlocking stay wire is extended from the inside of the side of the glass frame to the outside and used for manually pulling the side armature, the side electromagnet is connected with the controller MCU.
Furthermore, the edges of the left side and the right side of the movable glass are provided with side guide inclined notches.
Furthermore, in order to avoid the volume interference between the movable glass and the glass frame and ensure the good sealing performance of the movable glass, the inner walls of the two sides of the glass frame are concave cambered surfaces, and the two sides of the movable glass are convex cambered surfaces matched with the concave cambered surfaces.
A turnover control method of a turnover glass curtain wall is based on the operation of the turnover glass curtain wall and comprises the following steps: s1, the controller MCU records position information of the linear motor rotor on the linear motor stator track, the controller MCU judges the position of the glass frame according to signals of the closed state position sensor, when the closed state position sensor is triggered to indicate that the glass frame is completely closed, the controller MCU controls the pushing linear motor to act so that the pushing rod extends out of the side face of the bottom edge of the glass frame and enters S2, otherwise, the controller MCU directly enters S2; s2, the controller MCU judges the position of the glass frame according to the signal of the opening state position sensor, when the opening state position sensor is triggered, the glass frame is completely opened, the controller MCU directly enters S3, otherwise, the controller MCU controls the window opening linear motor to act until the opening state position sensor is triggered, and the controller MCU enters S3; s3, controlling the rotary stepping motor to act by the controller MCU, enabling the movable glass to rotate 180 degrees, and entering S4; and S4, controlling the window opening linear motor to act by the controller MCU according to the position information obtained in S1 so as to reset the glass frame.
Further, the turnover control method of the turnover glass curtain wall is based on the operation of the turnover glass curtain wall and comprises the following steps: s1, the controller MCU records position information of the linear motor rotor on the linear motor stator track, the controller MCU judges the position of the glass frame according to signals of the closed state position sensor, when the closed state position sensor is triggered to indicate that the glass frame is completely closed, the controller MCU controls the bottom side electromagnet to be electrified, the bottom side pin column is retracted, the controller MCU controls the pushing linear motor to act to enable the pushing rod to extend out of the side face of the bottom side of the glass frame and then enter S2, otherwise, the controller MCU directly enters S2; s2, the controller MCU judges the position of the glass frame according to the signal of the opening state position sensor, when the opening state position sensor is triggered, the glass frame is completely opened, the controller MCU directly enters S3, otherwise, the controller MCU controls the window opening linear motor to act until the opening state position sensor is triggered, and the controller MCU enters S3; s3, controlling the rotary stepping motor to act by the controller MCU, enabling the movable glass to rotate 180 degrees, and entering S4; and S4, controlling the window opening linear motor to act by the controller MCU according to the position information obtained in S1 so as to reset the glass frame.
Further, the turnover control method of the turnover glass curtain wall is based on the operation of the turnover glass curtain wall and comprises the following steps: s1, the controller MCU records position information of the linear motor rotor on the linear motor stator track, the controller MCU judges the position of the glass frame according to signals of the closed state position sensor, when the closed state position sensor is triggered to indicate that the glass frame is completely closed, the controller MCU controls the bottom side electromagnet to be electrified and to lose electricity after the pushing linear motor acts, the bottom side pin column retracts and extends out after unlocking, the controller MCU controls the pushing linear motor to act to enable the pushing rod to extend out from the side face of the bottom side of the glass frame, and then the glass frame enters S2, otherwise, the glass frame directly enters S2; s2, the controller MCU judges the position of the glass frame according to the signal of the opening state position sensor, when the opening state position sensor is triggered, the glass frame is completely opened, the controller MCU directly enters S3, otherwise, the controller MCU controls the window opening linear motor to act until the opening state position sensor is triggered, and the controller MCU enters S3; s3, the controller MCU controls the side electromagnets to be electrified and loses power after the rotary stepping motor acts, the side pins retract and unlock and then extend out, and the controller MCU controls the rotary stepping motor to act, so that the movable glass rotates 180 degrees and enters S4; and S4, controlling the window opening linear motor to act by the controller MCU according to the position information obtained in S1 so as to reset the glass frame.
The technical scheme provided by the invention has the advantages that the opening mode of the existing glass curtain wall is kept by matching the driving mode of the linear motor with the plurality of connecting rods, the movable glass is driven by the rotary stepping motor to turn over, so that the automatic opening, closing and turning over of the glass curtain wall are realized, and the problem that the outer side of the glass curtain wall is difficult to clean is solved. The pushing linear motor is used for pushing the glass frame to open for an angle in the fully closed state, so that the problem that the window cannot be opened due to self locking of the window opening linear motor and each connecting rod in the fully closed state is solved. The invention can conveniently carry out unified overturning operation on a plurality of glass curtain walls through centralized control, improves the cleaning working efficiency and ensures the safety.
Drawings
Fig. 1 is a schematic structural view of a reversible glass curtain wall.
Fig. 2 is a schematic view of fig. 1 taken along direction a.
Fig. 3 is a schematic cross-sectional view of BB of fig. 2 rotated to a certain angle toward the moving glass.
FIG. 4 is an enlarged view of the bottom edge anchor pin assembly configuration.
Detailed description of the invention
The present invention is further illustrated by the following examples, which are not to be construed as limiting the invention thereto.
Referring to fig. 1 to 4, the reversible glass curtain wall according to the embodiment of the present invention includes a window frame 1, a glass frame 3, a movable glass 2 and a controller MCU10, wherein the movable glass 2 is embedded in the glass frame 3. The periphery of the movable glass 2 is provided with a wrapping edge 12, the upper side and the lower side of the movable glass 2 are rotationally connected with the glass frame 3 through a rotating shaft 13, a rotary stepping motor 5 is arranged in the glass frame 3, and an output shaft of the rotary stepping motor 5 is connected with the rotating shaft 13 to drive the movable glass 2 to rotate. The side of window frame 1 is equipped with the linear electric motor that windows, and the linear electric motor that windows includes linear electric motor active cell 4 and linear electric motor stator track 8, and linear electric motor stator track 8 is vertical to be fixed in the side of window frame 1. The linear motor rotor 4 is connected with a sliding block 7, the upper part of the sliding block 7 is hinged with the head end of a first connecting rod 16a, the tail end of the first connecting rod 16a is hinged with the upper part of the side edge of the glass frame 3, the lower part of the linear motor stator track 8 is hinged with the head end of a second connecting rod 16b, the tail end of the second connecting rod 16b is hinged with the middle part of the side edge of the glass frame 3, the lower part of the sliding block 7 is hinged with the head end of a third connecting rod 16c, and the tail end of the third connecting rod 16c is hinged with the middle part of the second connecting rod. A closed state position sensor 14 is arranged at the upper part of the linear motor stator track 8, an open state position sensor 15 is arranged at the middle lower part of the linear motor stator track 8, the closed state position sensor 14 is triggered once when the linear motor rotor 4 reaches the upper part of the linear motor stator track 8, the open state position sensor 15 is triggered once when the linear motor rotor 4 reaches the middle lower part of the linear motor stator track 8, and both the closed state position sensor 14 and the open state position sensor 15 are connected with the controller MCU 10.
The top edge and the bottom edge of the window frame 1 are provided with step grooves, the glass frame 3 is positioned in the step grooves when the glass frame 3 is embedded into the window frame 1, and the bottom edge of the glass frame 3 is internally provided with a pushing linear motor 25. The pushing linear motor 25 is connected with a pushing rod 26, the pushing linear motor 25 drives the pushing rod 26 to extend out or retract from the side face of the bottom edge of the glass frame 3, the controller MCU10 is respectively connected with the rotary stepping motor 5, the windowing linear motor and the pushing linear motor 25, and the controller MCU10 is further connected with a button 23 to control the whole system to work.
As shown in fig. 4, the glass frame 3 and the movable glass 2 are locked to ensure the installation. The bottom edge of the glass frame 3 is provided with a bottom edge fixing pin assembly 6a, the bottom edge of the window frame 1 is provided with a bottom edge locking groove 11a, the bottom edge fixing pin assembly 6a comprises a bottom edge electromagnet 19a, a bottom edge spring 18a, a bottom edge armature 20a, a bottom edge pin 17a and a bottom edge unlocking pull wire 21a, the bottom edge electromagnet 19a, the bottom edge spring 18a and the bottom edge armature 20a are arranged in the bottom edge of the glass frame 3, and the bottom edge armature 20a is connected with the bottom edge electromagnet 19a through the bottom edge spring 18 a. The bottom electromagnet 19a is fixedly connected with the bottom edge of the glass frame 3, the bottom pin 17a and the bottom unlocking pull wire 21a are fixedly connected with the bottom armature 20a, and the bottom pin 17a extends out of or retracts into the bottom edge of the glass frame 3 under the action of the bottom electromagnet 19a and the bottom spring 18 a. The bottom side unlocking pull wire 21a extends from the inner part to the outer part of the bottom side of the glass frame 3 and is used for manually pulling the bottom side armature 20a, and the bottom side electromagnet 19a is also connected with the controller MCU 10. Accordingly, a bottom side guide notch 22a is provided at the outer edge of the bottom side of the window frame 1, and the bottom side guide notch 22a guides the bottom side pin 17a to retract when the glass frame 3 is closed. The head end of the bottom side pin 17a is designed into an inclined surface so as to be conveniently matched with the bottom side guide inclined notch 22a in a guide mode. Similarly to the bottom side fixing pin assembly 6a, a side fixing pin assembly 6b is provided on an inner wall of one side of the glass frame 3, and side locking grooves 11b are provided on both left and right sides of the moving glass 2. The structure of side fixed pin subassembly 6b is the same with base fixed pin subassembly 6a (concrete structure is not drawn in addition), including the side electro-magnet, the side spring, the side armature, side round pin post and side unblock are acted as go-between, the side electro-magnet, side spring and side armature set up in glass frame 3's side, the side armature passes through the side spring and is connected with the side electro-magnet, the side fixed connection of side electro-magnet and glass frame 3, side round pin post and side unblock are acted as go-between all and side armature fixed connection, the side round pin post stretches out or retracts the side of glass frame 3 under side electro-magnet and side spring action, the side unblock is acted as go-between and is extended to the outside by the inside of the side of glass frame 3 and is used for manually pulling side armature. Correspondingly, the left and right edges of the movable glass 2 are provided with side guide inclined notches 22b, and when the movable glass 2 rotates 180 degrees, the side guide inclined notches 22b guide the side pins to retract. The head end of the side pin is also designed as an inclined surface to facilitate guiding fit with the side guiding inclined notch 22 b.
The work process of the reversible glass curtain wall is as follows:
firstly, during windowing and air exchanging:
1. if the bottom edge fixing pin assembly 6a is not in the locking state, no obstacle exists in the room, and the handle 24 on the glass frame 3 is pushed by the outstretched hand, the window opening angle is adjusted according to the air exchange area required by the user as a common window is opened.
2. If the bottom edge fixing pin assembly 6a is in a locked state, the bottom edge unlocking pull wire 21a is pulled, the bottom edge pin 17a is retracted against the pre-tightening force of the bottom edge spring 18a, and then the handle 24 is pushed, so that the window can be opened.
Secondly, when the glass is cleaned:
the method for automatically turning over the glass in the electrified state comprises the following steps:
1. when the linear motor mover 4 is in any position between the off-state position sensor 14 and the on-state position sensor 15, the button 23 is clicked, and the linear motor mover 4 sends its own position signal on the linear motor stator track 8 to the controller MCU10 for storage. Then, the controller MCU10 sends a command to the linear motor mover 4, and the linear motor mover 4 moves to the position of the open position sensor 15, so that the movable glass 2 of the window meets the turning condition. If the linear motor mover 4 is in the position of the on-state position sensor 15, the above process is omitted. The controller MCU10 commands the side electromagnet in the side fixing pin assembly 6b to be electrified and generate a magnetic field, the side armature is attracted to overcome the pretightening force of the side spring, the side pin column retracts, and the side fixing pin assembly 6b is in an unlocking state at the moment. Then the controller MCU10 orders the rotary stepping motor 5 to drive the movable glass 2 to rotate 180 degrees, then the controller MCU10 orders the side electromagnet in the side fixing pin assembly 6b to power off and lose the magnetic field, the side spring restores to the original state and drives the side armature to move outwards, the side pin column extends out, and the side fixing pin assembly 6b is in a locking state. When the movable glass 2 approaches the final moment of turning, the side pin column in the side fixing pin assembly 6b slides into the side locking groove 11b through the side guiding inclined notch 22b, so that the movable glass 2 is locked. After the movable glass 2 is turned over and locked, the controller MCU10 commands the linear motor mover 4 to return to the initial position according to the stored position information of the linear motor mover 4.
2. When the linear motor mover 4 is in the position of the closed state position sensor 14, the window is in the closed state at this time. When the button 23 is clicked, the controller MCU10 first energizes the bottom electromagnet 19a in the bottom anchor pin assembly 6a and generates a magnetic field, which attracts the bottom armature 20a against the biasing force of the bottom spring 18a, and the bottom anchor pin 17a retracts from the bottom locking slot 11a, so that the bottom anchor pin assembly 6a is in an unlocked state. The controller MCU10 sends a pushing command to the pushing linear motor 25 to enable the pushing rod 26 to extend out of the glass frame 3, at the moment, the first connecting rod 16a, the second connecting rod 16b and the third connecting rod 16c are not collinear with the linear motor stator track 8 any more, and then the pushing linear motor 25 retracts to reset. The controller MCU10 continues to send commands to the linear motor mover 4, and the linear motor mover 4 moves to the position of the open position sensor 15, at which time the moving glass 2 of the window meets the flipping condition. The controller MCU10 commands the side electromagnet in the side fixing pin assembly 6b to be electrified and generate a magnetic field, the side armature is attracted to overcome the pretightening force of the side spring, the side pin column retracts, and the side fixing pin assembly 6b is in an unlocking state at the moment. Then the controller MCU10 orders the rotary stepping motor 5 to drive the movable glass 2 to rotate 180 degrees, then the controller MCU10 orders the side electromagnet in the side fixing pin assembly to power off and lose the magnetic field, the side spring restores to the original state and drives the side armature to move outwards, the side pin column extends out, and the side fixing pin assembly 6b is in a locking state. When the movable glass 2 approaches the final moment of turning, the side pin column in the side fixing pin assembly 6b slides into the side locking groove 11b through the side guiding inclined notch 22b, so that the movable glass 2 is locked. When the movable glass 2 is turned over and locked, the controller MCU10 sends a command to the linear motor mover 4, and the linear motor mover 4 returns to the position of the closed position sensor 14. In the process, the bottom side pin 17a of the bottom side fixing pin assembly 6a slides into the bottom side locking groove 11a through the bottom side guide inclined notch 22a, and the bottom side fixing pin assembly 6a is in the locking state, and finally the window is closed.
The method for manually turning the glass in the power-off state comprises the following steps:
1. when the linear motor mover 4 is located at any position between the closed state position sensor 14 and the open state position sensor 15, the handle 24 is manually pushed, so that the linear motor mover 4 reaches the position of the open state position sensor 15, and the movable glass 2 of the window meets the turning condition. If the linear motor mover 4 is in the position of the on-state position sensor 15, the above process is omitted. The side unlocking stay wire is pulled manually, the side armature is pulled up, the side spring is compressed, the side pin column retracts, and the side fixing pin assembly 6b is in an unlocking state. The movable glass 2 is manually pushed to rotate for a certain angle, and then the side unlocking pull wire is released. When the movable glass 2 rotates to 180 degrees, the side spring restores to the original state and drives the side armature to move outwards, the side pin column extends out, and the side fixing pin assembly 6b is in a locking state at the moment. When the movable glass 2 approaches the final moment of turning, the side pin column in the side fixing pin assembly 6b slides into the side locking groove 11b through the side guiding inclined notch 22b, so that the movable glass 2 is locked. After the movable glass 2 is turned over and locked, the handle 24 is pulled again, so that the linear motor rotor 4 moves to a proper position, and the window opening angle is adjusted according to the required ventilation area.
2. When the linear motor mover 4 is in the position of the closed state position sensor 14, the window is in the closed state at this time. The bottom side release wire 21a is manually pulled, the bottom side armature 20a is pulled up and the bottom side spring 18a is compressed to retract the bottom side pin 17a, and the bottom side fixing pin assembly 6a is in the unlocked state. The handle 24 is pushed manually, so that the linear motor mover 4 reaches the position of the open state position sensor 15, and the movable glass 2 of the window meets the turning condition. The side unlocking stay wire is pulled manually, the side armature is pulled up, the side spring is compressed, the side pin column retracts, and the side fixing pin assembly 6b is in an unlocking state. The movable glass 2 is manually pushed to rotate for a certain angle, and then the side unlocking pull wire is released. When the movable glass 2 rotates to 180 degrees, the side spring restores to the original state and drives the side armature to move outwards, the side pin column extends out, and the side fixing pin assembly 6b is in a locking state at the moment. When the movable glass 2 approaches the final moment of turning, the side pin column in the side fixing pin assembly 6b slides into the side locking groove 11b through the side guiding inclined notch 22b, so that the movable glass 2 is locked. When the movable glass 2 is turned over and locked, the handle 24 is pulled again, so that the linear motor rotor 4 moves to the position of the closed state position sensor 14. In the process, the bottom side pin 17a of the bottom side fixing pin assembly 6a slides into the bottom side locking groove 11a through the bottom side guide inclined notch 22a, and the bottom side fixing pin assembly 6a is in the locking state, and finally the window is closed.

Claims (10)

1. A turnover glass curtain wall is characterized by comprising a window frame, a glass frame, movable glass and a controller MCU, wherein the movable glass is embedded in the glass frame, the upper side and the lower side of the movable glass are rotationally connected with the glass frame through a rotating shaft, a rotary stepping motor is arranged in the glass frame, an output shaft of the rotary stepping motor is connected with the rotating shaft to drive the movable glass to rotate, a window-opening linear motor is arranged at the side of the window frame and comprises a linear motor rotor and a linear motor stator track, the linear motor stator track is vertically fixed at the side of the window frame, the linear motor rotor is connected with a sliding block, the upper part of the sliding block is hinged with the head end of a first connecting rod, the tail end of the first connecting rod is hinged with the upper part of the side of the glass frame, the lower portion of the linear motor stator rail is hinged to the head end of the second connecting rod, the tail end of the second connecting rod is hinged to the middle of the side edge of the glass frame, the lower portion of the sliding block is hinged to the head end of the third connecting rod, the tail end of the third connecting rod is hinged to the middle of the second connecting rod, step grooves are formed in the top edge and the bottom edge of the window frame, the glass frame is embedded into the window frame, the glass frame is located in the step grooves, a pushing linear motor is arranged in the bottom edge of the glass frame, the pushing linear motor is connected with a pushing rod, the pushing linear motor drives the pushing rod to extend out or retract from the side face of the bottom edge of the glass frame, and the controller MCU is connected with the rotary stepping motor, the window-opening linear motor and the pushing linear motor respectively.
2. The reversible glass curtain wall as claimed in claim 1, wherein the upper part of the linear motor stator track is provided with a closed state position sensor, the middle lower part of the linear motor stator track is provided with an open state position sensor, the linear motor rotor triggers the closed state position sensor once when reaching the upper part of the linear motor stator track, the linear motor rotor triggers the open state position sensor once when reaching the middle lower part of the linear motor stator track, and the closed state position sensor and the open state position sensor are both connected with the controller MCU.
3. The reversible glass curtain wall as claimed in claim 2, wherein the bottom side of the glass frame is provided with a bottom side fixing pin assembly, the bottom side of the window frame is provided with a bottom side locking groove, the bottom side fixing pin assembly comprises a bottom side electromagnet, a bottom side spring, a bottom side armature, a bottom side pin and a bottom side unlocking pull wire, the bottom side electromagnet, the bottom side spring and the bottom side armature are arranged in the bottom side of the glass frame, the bottom side armature is connected with the bottom side electromagnet through the bottom side spring, the bottom side electromagnet is fixedly connected with the bottom side of the glass frame, the bottom side pin and the bottom side unlocking pull wire are both fixedly connected with the bottom side armature, the bottom side pin extends out or retracts into the bottom side of the glass frame under the action of the bottom side electromagnet and the bottom side spring, and the bottom side unlocking pull wire extends from the inside to the outside of the bottom side of the glass frame and is used for manually And the bottom side electromagnet is connected with the controller MCU.
4. The reversible glass curtain wall as claimed in claim 3, wherein the outer edge of the bottom edge of the window frame is provided with a bottom edge guide bevel notch.
5. The reversible glass curtain wall as claimed in claim 3, wherein a side fixing pin assembly is arranged on an inner wall of one side of the glass frame, side locking grooves are formed in the left side and the right side of the movable glass, the side fixing pin assembly comprises a side electromagnet, a side spring, a side armature, a side pin and a side unlocking pull wire, the side electromagnet, the side spring and the side armature are arranged in the side of the glass frame, the side armature is connected with the side electromagnet through the side spring, the side electromagnet is fixedly connected with the side of the glass frame, the side pin and the side unlocking pull wire are fixedly connected with the side armature, the side pin extends out or retracts from the side electromagnet and the side spring, and the side pull wire unlocking is formed by extending the inside of the side of the glass frame to the outside for manually pulling the side of the glass frame The side armature iron is connected with the side electromagnet and the controller MCU.
6. The reversible glass curtain wall as claimed in claim 5, wherein the left and right edges of the movable glass are provided with side guiding inclined notches.
7. The reversible glass curtain wall as claimed in claim 1, wherein the inner walls of the two sides of the glass frame are concave arc surfaces, and the two sides of the movable glass are convex arc surfaces matched with the concave arc surfaces.
8. A turnover control method of a turnover glass curtain wall, which is characterized in that the control method is operated based on the turnover glass curtain wall of claim 2, and comprises the following steps: s1, the controller MCU records position information of the linear motor rotor on the linear motor stator track, the controller MCU judges the position of the glass frame according to signals of the closed state position sensor, when the closed state position sensor is triggered to indicate that the glass frame is completely closed, the controller MCU controls the pushing linear motor to act so that the pushing rod extends out of the side face of the bottom edge of the glass frame and enters S2, otherwise, the controller MCU directly enters S2; s2, the controller MCU judges the position of the glass frame according to the signal of the opening state position sensor, when the opening state position sensor is triggered, the glass frame is completely opened, the controller MCU directly enters S3, otherwise, the controller MCU controls the window opening linear motor to act until the opening state position sensor is triggered, and the controller MCU enters S3; s3, controlling the rotary stepping motor to act by the controller MCU, enabling the movable glass to rotate 180 degrees, and entering S4; and S4, controlling the window opening linear motor to act by the controller MCU according to the position information obtained in S1 so as to reset the glass frame.
9. A turnover control method of a turnover glass curtain wall, which is characterized in that the control method is operated based on the turnover glass curtain wall of claim 3, and comprises the following steps: s1, the controller MCU records position information of the linear motor rotor on the linear motor stator track, the controller MCU judges the position of the glass frame according to signals of the closed state position sensor, when the closed state position sensor is triggered to indicate that the glass frame is completely closed, the controller MCU controls the bottom side electromagnet to be electrified, the bottom side pin column is retracted, the controller MCU controls the pushing linear motor to act to enable the pushing rod to extend out of the side face of the bottom side of the glass frame and then enter S2, otherwise, the controller MCU directly enters S2; s2, the controller MCU judges the position of the glass frame according to the signal of the opening state position sensor, when the opening state position sensor is triggered, the glass frame is completely opened, the controller MCU directly enters S3, otherwise, the controller MCU controls the window opening linear motor to act until the opening state position sensor is triggered, and the controller MCU enters S3; s3, controlling the rotary stepping motor to act by the controller MCU, enabling the movable glass to rotate 180 degrees, and entering S4; and S4, controlling the window opening linear motor to act by the controller MCU according to the position information obtained in S1 so as to reset the glass frame.
10. A turnover control method of a turnover glass curtain wall, which is characterized in that the control method is operated based on the turnover glass curtain wall of claim 5, and comprises the following steps: s1, the controller MCU records position information of the linear motor rotor on the linear motor stator track, the controller MCU judges the position of the glass frame according to signals of the closed state position sensor, when the closed state position sensor is triggered to indicate that the glass frame is completely closed, the controller MCU controls the bottom side electromagnet to be electrified and to lose electricity after the pushing linear motor acts, the bottom side pin column retracts and extends out after unlocking, the controller MCU controls the pushing linear motor to act to enable the pushing rod to extend out from the side face of the bottom side of the glass frame, and then the glass frame enters S2, otherwise, the glass frame directly enters S2; s2, the controller MCU judges the position of the glass frame according to the signal of the opening state position sensor, when the opening state position sensor is triggered, the glass frame is completely opened, the controller MCU directly enters S3, otherwise, the controller MCU controls the window opening linear motor to act until the opening state position sensor is triggered, and the controller MCU enters S3; s3, the controller MCU controls the side electromagnets to be electrified and loses power after the rotary stepping motor acts, the side pins retract and unlock and then extend out, and the controller MCU controls the rotary stepping motor to act, so that the movable glass rotates 180 degrees and enters S4; and S4, controlling the window opening linear motor to act by the controller MCU according to the position information obtained in S1 so as to reset the glass frame.
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Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS57153188U (en) * 1981-03-19 1982-09-25
CN201056928Y (en) * 2007-06-13 2008-05-07 深圳市中锋智能技术有限公司 Electric window
CN201129115Y (en) * 2007-10-11 2008-10-08 深圳市中锋智能技术有限公司 Electric window
CN106593207A (en) * 2015-10-20 2017-04-26 刘曲忠 Suspension window

Patent Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS57153188U (en) * 1981-03-19 1982-09-25
CN201056928Y (en) * 2007-06-13 2008-05-07 深圳市中锋智能技术有限公司 Electric window
CN201129115Y (en) * 2007-10-11 2008-10-08 深圳市中锋智能技术有限公司 Electric window
CN106593207A (en) * 2015-10-20 2017-04-26 刘曲忠 Suspension window

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