JP6961140B2 - Shower room glass sliding door structure - Google Patents

Description

The present invention relates to the technical field of a cable clip, and specifically to a glass sliding door structure of a shower room.

Shower rooms generally use sliding glass doors, but there are two problems. First, in the conventional sliding door, the rail is exposed and dust is easily accumulated, and when showering, the hair flows into the rail according to the water flow, which makes it difficult to clean and the sliding door becomes clogged and cannot be moved. Second, the slider connected to the lower end of the glass sliding door serves as a support and movement function for the entire glass sliding door, but it is easily worn by itself due to the sediment, and when it is replaced, the entire glass sliding door is constructed. The operation is complicated because it needs to be disassembled.

Chinese Patent Application Publication No. 206091738

An object of the present invention is to provide a glass sliding door structure for a shower room, and to solve the two problems in the above-mentioned prior art.

In order to achieve the above purpose, it is a glass sliding door structure of the shower room, and it is a first rail set, two connecting rods, a second rail set, two fixed partition plates, and two sliding partition plates. The lower end of the first rail set is connected to the upper end of the second rail set by two connecting rods, and one fixed partition plate is provided on the inner surface of each connecting rod. Attached, the two sliding partition plates are provided between the first rail assembly and the second rail assembly, the two sliding partition plates are arranged on the left and right, and the two sliding partitions are arranged. The partition plate is located between the two connecting rods.

The first rail assembly includes a fixed sliding rail, a cushioning plate, and a cushioning spring. A buffering groove is formed inside the fixed sliding rail, and the cushioning plate is formed in the buffering groove. Is connected by the cushioning spring, the cushioning plate is slidably connected to the cushioning groove, and the first rail assembly performs a function of hanging and sliding with respect to the upper end of the sliding partition plate. By installing the buffer groove, when the lower end of the sliding partition plate and the second rail set meet with the deposit, the sliding partition plate rises by a certain height and the sliding partition is formed. It is possible to prevent the lower end of the plate from becoming clogged and unable to move, and the buffer plate and the buffer spring cooperate with the sliding partition plate that has risen to a certain height to perform a buffer shock absorbing function.

The second rail assembly includes an arc-shaped plate, a fixed rail, a sliding groove, an air space, a discharge groove, a repositioning mechanism, a pushing frame, a pressing head, and a closing block. The fixed rail is attached to the upper end of the plate, the sliding groove is formed in the central portion of the fixed rail, the air space is formed in the front end of the fixed rail, and the rear of the fixed rail is formed. The discharge groove is formed at the end, the blockage block is closed at the rear end of the discharge groove, and the sliding groove, the air space, and the discharge groove are in a communicative relationship, and the sliding The repositioning mechanism is symmetrically attached to both front and rear ends of the groove, the pushing frame is provided inside the air space, the left end of the air space is connected to the pressing head, and human power is applied during operation. The lower end of the sliding partition plate is interlocked by a pushing method to slide with the sliding groove, and when there is a large amount of deposits in the sliding groove, the closing block is opened and the pressing head is manually pressed. Then, the extruded air pushes the push frame rearward, thereby pushing the deposits to the rear side for cleaning, and then injecting purified water into the air space and deposits remaining in the sliding groove. The object is swept away, and at the same time that the second rail assembly and the lower end of the sliding partition plate slide together, the deposits in the fixed rail are cleaned, and the possibility that the sliding partition plate cannot move is reduced.

The repositioning mechanism includes a push-up block, a push-up spring, and a protective cover, the push-up block is slidably connected to the sliding groove, and the lower end of the push-up block is slid by the push-up spring. The protective cover is externally attached to the outside of the push-up spring, which is connected to the moving groove.

The push frame includes a connecting rod, an initial spring, and a pushing brush, and the rear end of the connecting rod is connected to the pushing brush by the initial spring and is manually operated by the pressing head. The pushed air pushes the push brush backward, thereby cleaning the deposits in the sliding groove and causing the initial spring to perform a repositioning action.

The sliding partition plate includes a glass sliding door, a hook type slider, a placement groove, a pressing block, a support double pulley, and a thread column, and the upper end of the glass sliding door is the hook type slider and a bolt. connected, wherein the front side of the lower end of the glass sliding doors, wherein every groove homogeneously disposed, inside the lower in the placed grooves, the support pulley block is provided above the inside of the placing groove The pressing block is provided, and the pressing block and the glass sliding door are connected by the screw thread column, and during operation, the hook type slider is fixedly slid before attaching the connecting rod and the fixing rail. It engages in the rail, thereby slidably connecting the upper end of the glass sliding door, and by engaging the support double pulley with the fixed rail, the lower end of the glass sliding door is slidably connected and worn. When the support double pulley was replaced, the screw thread column was twisted to separate the pressing block from the placement groove, and the support double pulley was raised by the pushing force of the push-up spring, and the user was abraded. The support double pulley is taken out, replaced with the new support double pulley, the pressing block is inserted, and the pressing of the pressing block causes the support double pulley to be engaged again below the placement groove.

Preferably, the rear side of the upper end of the fixed rail has a structure gradually inclined downward from the front to the rear, and the inside of the pressing head has a spatial structure.

Preferably, the air space is composed of a main space and a closed space, the closed space and the main space are provided so as to intersect each other, and the left end of the main space is connected to the pressing head to form the closed space. A thread structure is provided on the inner wall of the front end of the.

Preferably, the front end outer wall of the connecting rod is provided with a thread structure, the central portion of the connecting rod is provided with a filter plate, and the outer wall of the filter plate is provided with a rubber ring cover. The rear end of the push brush has a gourd structure, and a hard brush is uniformly provided on the surface of the rear end of the push brush.

Preferably, a connecting block is provided at the upper end of the hook type slider, two sliding wheels are provided by mandrel on the left and right sides of the lower end of the connecting block, and recessed grooves are provided at the left and right ends of the connecting block. Are symmetrically formed, and a ball is placed in the recessed groove.

Preferably, the rear end of the pressing block has a structure that is gradually inclined upward from the front to the rear, and the lower end surface of the pressing block and the upper end surface of the supporting double pulley are provided in close contact with each other.

Preferably, the support double pulley is composed of a frame and a pulley, the pulley is attached to the inside of the frame by a mandrel, and the pulley is uniformly formed with a communication groove along the circumferential direction. , The front and rear ends of the frame are embedded in the placement groove .

The glass sliding door structure of the shower room of the present invention can quickly clean dust and hair by the wind and avoid deposits, and also forms a gap between the upper end of the glass sliding door and the fixed rail, so that the glass sliding door can be used. By avoiding being caught and unable to move, and by making the glass sliding door a hanging type, the force acting on the support double pulley is weakened, wear is reduced, and the support double pulley can be replaced at any time, improving replacement efficiency. Let me.

The glass sliding door structure of the shower room of the present invention forms a gap between the hook type slider and the buffer groove, so that when the glass sliding door is obstructed, it can rise a certain distance and continue to slide and move. What you cannot do is avoided.

The glass sliding door structure of the shower chamber of the present invention sends air into the sliding groove by pressing the pressing head before and after the shower, blows dust and hair, and then flushes the inside of the sliding groove again with purified water. It is avoided that the glass sliding door is obstructed by the deposit and cannot be moved.

The support double pulley in the glass sliding door structure of the shower room of the present invention has a structure that can be disassembled as a single unit, and it is not necessary to disassemble the entire glass sliding door at the time of replacement, so that the replacement efficiency is improved.

Each direction described in the present application is a direction when the device is viewed in the same direction as in FIG.

It is a structural drawing of this invention. It is sectional drawing (from right to left) between the 1st rail set of this invention, a glass sliding door and a hook type slider. It is sectional drawing (from right to left) between the 2nd rail assembly of this invention and a sliding partition plate. It is a structural drawing of the push frame of this invention. It is sectional drawing (from top to bottom) between the fixed rail of this invention, a sliding groove, an air space and a discharge groove. It is a locally enlarged view of the part X in FIG. 3 of this invention.

Hereinafter, the present embodiment will be described with reference to FIGS. 1 to 6. The technical contents of the embodiments of the present invention will be described clearly and completely. Obviously, the examples described below are only a part of the examples of the present invention and not all of them. Based on the examples of the present invention, those skilled in the art will include all examples obtained without creative effort within the scope of protection of the present invention.

As shown in FIGS. 1 to 6, the glass sliding door structure of the shower chamber includes a first rail set 1, two connecting rods 2, a second rail set 3, two fixed partition plates 5, and two. The lower end of the first rail assembly 1 including the sliding partition plate 6 is connected to the upper end of the second rail assembly 3 by two connecting rods 2, and each connecting rod 2 has one inner surface. A fixed partition plate 5 is attached, two sliding partition plates 6 are provided between the first rail assembly 1 and the second rail assembly 3, two sliding partition plates 6 are arranged on the left and right, and The two sliding partition plates 6 are located between the two connecting rods 2.

The first rail assembly 1 includes a fixed sliding rail 11, a cushioning plate 12, and a buffer spring 13, and a buffer groove is formed inside the fixed sliding rail 11, and a buffer is buffered in the buffer groove. The plate 12 is connected by a cushioning spring 13, the cushioning plate 12 is slidably connected to the buffer groove, and the first rail assembly 1 performs a function of hanging and sliding with respect to the upper end of the sliding partition plate 6. By installing a buffer groove, when the lower end of the sliding partition plate 6 and the second rail assembly 3 meet with the deposit when they slide, the sliding partition plate 6 rises a certain height and the sliding partition plate 6 rises. It is possible to prevent the lower end of 6 from becoming clogged and unable to move, and the buffer plate 12 and the buffer spring 13 cooperate with each other for the sliding partition plate 6 that has risen to a certain height to perform a buffer shock absorbing function.

The second rail assembly 3 includes an arcuate plate 31, a fixed rail 32, a sliding groove 33, an air space 34, a discharge groove 35, a repositioning mechanism 36, a push frame 37, a pressing head 38, and a blockage. A fixed rail 32 is attached to the upper end of the arcuate plate 31 including the block 39, a sliding groove 33 is formed in the central portion of the fixed rail 32, and an air space 34 is formed in the front end of the fixed rail 32. Is formed, a discharge groove 35 is formed at the rear end of the fixed rail 32, a closing block 39 is closed at the rear end of the discharge groove 35, and the sliding groove 33, the air space 34, and the discharge groove 35 are separated from each other. , The repositioning mechanism 36 is symmetrically attached to both front and rear ends of the sliding groove 33, a pushing frame 37 is provided inside the air space 34, and the left end of the air space 34 is a pressing head. It is connected to 38, and at the time of operation, the lower end of the sliding partition plate 6 is interlocked with the sliding groove 33 by a manual pushing method to slide with the sliding groove 33, and when there is a large amount of deposits in the sliding groove 33, the blocking block 39 is pressed. It opens and manually presses the pressing head 38, and the extruded air pushes the push frame 37 backwards, which pushes the deposits backwards for cleaning, and then injects purified water into the air space 34. The deposits remaining in the sliding groove 33 are washed away, and at the same time the second rail assembly 3 and the lower end of the sliding partition plate 6 slide together, the deposits in the fixed rail 32 are cleaned, and the sliding partition plate 6 is removed. Reduce the chance of getting stuck.

The repositioning mechanism 36 includes a push-up block 361, a push-up spring 362, and a protective cover 363, the push-up block 361 is slidably connected to the sliding groove 33, and the lower end of the push-up block 361 is a push-up spring 362. A protective cover 363 is attached to the outside of the push-up spring 362, which is connected to the sliding groove 33.

The push frame 37 includes a connecting rod 371, an initial spring 372, and a pushing brush 373, and the rear end of the connecting rod 371 is connected to the pushing brush 373 by the initial spring 372 and is manually operated during operation. The pressing head 38 is pressed, and the extruded air pushes the pushing brush 373 to the rear side, whereby the deposit in the sliding groove 33 is cleaned, and the initial spring 372 performs a repositioning action.

The sliding partition plate 6 includes a glass sliding door 61, a hook type slider 62, a placing groove 63, a pressing block 64, a support double pulley 65, and a screw thread column 66, and the upper end of the glass sliding door 61 is It is bolted to the hook type slider 62, and a placement groove 63 is uniformly provided on the front side of the lower end of the glass sliding door 61, and a support double pulley 65 is provided below the inside of the placement groove 63. A pressing block 64 is provided above the inside of the above, and the pressing block 64 and the glass sliding door 61 are connected by a screw thread column 66, and a hook type slider is used before attaching the connecting rod 2 and the fixed rail 11 during operation. 62 is engaged in the fixed sliding rail 11, whereby the upper end of the glass sliding door 61 is slidably connected, and the lower end of the glass sliding door 61 is slid by engaging the support double pulley 65 and the fixed rail 32. When the support double pulley 65, which is connected and worn out, is replaced, the screw thread pillar 66 is twisted to separate the pressing block 64 and the placement groove 63, and the support double pulley 65 is raised by the pushing force of the push-up spring 362. The user takes out the worn support double pulley 65, replaces it with a new support double pulley 65, inserts the pressing block 64, and by pressing the pressing block 64, the supporting double pulley 65 is reengaged below the placement groove 63. ..

The rear side of the upper end of the fixed rail 32 has a structure that gradually slopes downward from the front to the rear, and a gap formed between the rear side of the upper end of the fixed rail 32 and the rear side of the lower end of the glass sliding door 61. Is a structure that gradually inclines downward from the front to the back, which makes it difficult for the hair to fall directly into the sliding groove 33, and the inside of the pressing head 38 is a spatial structure and contains air. There is.

The air space 34 is composed of a main space and a closed space, and the closed space and the main space are provided so as to intersect with each other. A mountain structure is provided, and during operation, the pressing head 38 is pressed to push air into the main space, and the air pushed into the main space is dispersed in each closed space, thereby causing air in the sliding groove 33. Send and organize.

A thread structure is provided on the outer wall of the front end of the connecting rod 371, the connecting rod 371 and the front end of the closed space are connected by a screw thread, and a filter plate is provided in the central portion of the connecting rod 371. Is prevented from entering the closed space, a rubber ring cover is provided on the outer wall of the filter plate, the rear end of the push brush 373 has a gourd structure, and the surface of the rear end of the push brush 373. The hard brush is uniformly provided on the surface, and the hard brush can clean the deposits in the sliding groove 33 and can be entangled with the hair in the sliding groove 33, which is convenient for collecting hair. The situation where the glass sliding door 61 cannot be moved is avoided.

A connecting block is provided at the upper end of the hook type slider 62, two sliding wheels are provided by mandrel on the left and right sides of the lower end of the connecting block, and recessed grooves are symmetrically formed at the left and right ends of the connecting block. A ball is placed in the recessed groove, and by installing the sliding wheel and the ball, the frictional force between the hook type slider 62 and the buffer groove is reduced, and the upper end surface of the hook type slider 62 and the buffer groove are reduced. By forming a gap between the sliding door 61 and the upper end of the glass sliding door 61, if the glass sliding door 61 is obstructed, the glass sliding door 61 can rise a certain distance and continue to slide, and a situation in which the glass sliding door 61 cannot move due to deposits is avoided.

The rear end of the pressing block 64 has a structure that is gradually inclined upward from the front to the rear, and the lower end surface of the pressing block 64 and the upper end surface of the supporting double pulley 65 are provided in close contact with each other, thereby pressing. The difficulty of pressing between the block 64 and the support double pulley 65 is reduced.

The support double pulley 65 is composed of a frame and a pulley, and the pulley is attached to the inside of the frame by a mandrel, and the pulley is uniformly formed with a communication groove along the circumferential direction, whereby deposits are formed. The front and rear ends of the frame are embedded in the placement groove 63 so as not to be disturbed by the pulley after being blown into the air.

When replacing the support double pulley 65
Step 1: The thread pillar 66 is turned to separate the pressing block 64 and the placement groove 63. At this time, the support double pulley 65 is pushed by the push-up spring 362 and rises, and the user uses the worn support double pulley 65. Take it out.
Step 2: The new support double pulley 65 is placed in the placement groove 63 again, the pressing block 64 is inserted, and the support double pulley 65 is reengaged below the placement groove 63 by the pressing of the pressing block 64, and the replacement is completed. And.

When cleaning the deposits:
Step 1: The pressing head 38 is pressed to push the air into the main space, and the air pushed into the main space is dispersed in each closed space, whereby the air is sent into the sliding groove 33 to be organized.
Step 2: Purified water is injected into the air space 34, thereby flushing the deposits remaining in the sliding groove 33.

Claims (7)

The glass sliding door structure of the shower room
Includes first rail assembly (1), two connecting rods (2), second rail assembly (3), two fixed partition plates (5), and two sliding partition plates (6). ,
The lower end of the first rail assembly (1) is connected to the upper end of the second rail assembly (3) by the two connecting rods (2).
One fixed partition plate (5) is attached to the inner surface of each of the connecting rods (2).
Two sliding partition plates (6) are provided between the first rail assembly (1) and the second rail assembly (3).
The two sliding partition plates (6) are arranged on the left and right.
The two sliding partition plates (6) are located between the two connecting rods (2).
The first rail assembly (1) includes a fixed sliding rail (11), a buffer plate (12), and a buffer spring (13).
A buffer groove is formed inside the fixed sliding rail (11).
The buffer plate (12) is connected to the buffer groove by the buffer spring (13).
The buffer plate (12) is slidably connected to the buffer groove and is connected to the buffer plate (12).
The second rail assembly (3) includes an arc-shaped plate (31), a fixed rail (32), a sliding groove (33), an air space (34), a discharge groove (35), and a repositioning mechanism (36). ), The pushing frame (37), the pushing head (38), and the closing block (39).
The fixed rail (32) is attached to the upper end of the arc-shaped plate (31).
The sliding groove (33) is formed in the central portion of the fixed rail (32).
The air space (34) is formed at the front end of the fixed rail (32).
The discharge groove (35) is formed at the rear end of the fixed rail (32).
The blockage block (39) is closed at the rear end of the discharge groove (35).
The sliding groove (33), the air space (34), and the discharge groove (35) have a communication relationship.
The repositioning mechanism (36) is symmetrically attached to both front and rear ends of the sliding groove (33).
The push frame (37) is provided inside the air space (34).
The left end of the air space (34) is connected to the pressing head (38).
The repositioning mechanism (36) includes a push-up block (361), a push-up spring (362), and a protective cover (363).
The push-up block (361) is slidably connected to the sliding groove (33).
The lower end of the push-up block (361) is connected to the sliding groove (33) by the push-up spring (362).
The protective cover (363) is externally attached to the outside of the push-up spring (362).
The push frame (37) includes a connecting rod (371), an initial spring (372), and a push brush (373).
The rear end of the connecting rod (371) is connected to the pushing brush (373) by the initial spring (372).
The sliding partition plate (6) includes a glass sliding door (61), a hook type slider (62), a placement groove (63), a pressing block (64), a support double pulley (65), and a thread column. (66) and, including
The upper end of the glass sliding door (61) is bolted to the hook type slider (62).
The placement groove (63) is uniformly provided on the front side of the lower end of the glass sliding door (61).
The support double pulley (65) is provided below the inside of the placement groove (63).
The pressing block (64) is provided above the inside of the placing groove (63).
The pressing block (64) and the glass sliding door (61) are connected by the thread column (66).
The glass sliding door structure of the shower room is characterized by this. The rear side of the upper end of the fixed rail (32) has a structure in which the upper end is gradually inclined downward from the front to the rear.
The inside of the pressing head (38) has a spatial structure.
The glass sliding door structure of the shower room according to claim 1. The air space (34) is composed of a main space and a closed space.
The closed space and the main space are provided so as to intersect with each other.
The left end of the main space is connected to the pressing head (38) and is connected to the pressing head (38).
A thread structure is provided on the inner wall of the front end of the closed space.
The glass sliding door structure of the shower room according to claim 1. A thread structure is provided on the outer wall of the front end of the connecting rod (371).
A filtration plate is provided at the center of the connecting rod (371).
A rubber ring cover is provided on the outer wall of the filter plate.
The rear end of the push brush (373) has a gourd structure and has a gourd structure.
A hard brush is uniformly provided on the surface of the rear end of the pushing brush (373).
The glass sliding door structure of the shower room according to claim 1. A connection block is provided at the upper end of the hook type slider (62).
Two sliding wheels are provided by mandrel on the left and right sides of the lower end of the connection block.
Recessed grooves are symmetrically formed on the left and right ends of the connecting block.
A ball is placed in the recessed groove.
The glass sliding door structure of the shower room according to claim 1. The rear end of the pressing block (64) has a structure in which the rear end is gradually inclined upward from the front to the rear.
The lower end surface of the pressing block (64) and the upper end surface of the supporting double pulley (65) are provided in close contact with each other.
The glass sliding door structure of the shower room according to claim 1. The support double pulley (65) is composed of a frame and a pulley.
Inside the frame, the pulley is attached by a mandrel.
A communication groove is uniformly formed in the pulley along the circumferential direction.
Both front and rear ends of the frame are embedded in the placement groove (63) .
The glass sliding door structure of the shower room according to claim 1.

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