TWM650175U - Drainage device and floor-to-ceiling window drainage system - Google Patents

Abstract

This invention provides a drainage device and a floor-to-ceiling window drainage system. The drainage device includes drainage parts and cover parts. The drainage piece has a pipe part and a conduit part, and the pipe part has a top end and a water conduction hole connected to the pipe part; the cover piece is installed on the drainage piece, and the bottom of the cover piece is protruding with a snap-on part, and the snap-on part is snap-connected with the top end, so that the cover A gap is formed between the fitting and the drainage fitting, and the gap can be used for pipe fittings to be inserted to connect the water conduction holes; the floor-to-ceiling window drainage system includes the aforementioned drainage device and drainage structure. The drainage structure is located at the bottom of the floor-to-ceiling window. The drainage structure has a drainage space. A drainage hole is provided on one side of the drainage space and is connected to the drainage device through pipe fittings. Thereby, the drainage device of the present invention can be buried under the ground and connected to the floor-to-ceiling window through pipe fittings, so as to achieve the purpose of making the barrier-free floor-to-ceiling window have drainage effect.

Description

Drainage device and floor-to-ceiling window drainage system

The invention relates to a drainage device and system, in particular to a drainage device and a floor-to-ceiling window drainage system equipped with the aforementioned drainage device.

It is common knowledge that on the side of the house close to the yard, in order to obtain good lighting and improve the convenience of entering and exiting the yard, floor-to-ceiling windows are usually used during decoration to achieve the aforementioned purposes. Among them, existing floor-to-ceiling windows are usually designed with a stepped drainage structure at the bottom to achieve the drainage effect.

As today's society ages and the number of patients with chronic diseases increases, the number of wheelchair users is gradually increasing. In order to cope with the aforementioned increase in wheelchair users, floor-to-ceiling windows are gradually developing towards barrier-free designs. However, barrier-free floor-to-ceiling windows need to be flush with the ground, so they do not have the original stepped design. As a result, existing barrier-free floor-to-ceiling windows generally suffer from poor drainage problems.

In addition, existing outdoor drainage structures (such as manhole covers, drainage covers, etc.) are usually directly connected to the ground and are flush with the ground. As a result, barrier-free floor-to-ceiling windows cannot achieve drainage through additional pipes. effect.

Furthermore, as described in the Republic of China Patent No. 1614443, a drain is disclosed, which includes: a joint body having a pipe part and a conduit part, the pipe part has a water conduction hole connected to the conduit part, and the water conduction hole There are a plurality of first positioning parts and a plurality of second positioning parts spaced apart on the inner periphery. Each second positioning part is spaced between every two adjacent first positioning parts. There is a space between each first positioning part and each second positioning part. There is an inclined surface, in which each first positioning part and each second positioning part are respectively provided with a level block, and each first positioning part is provided with a convex block relative to the axial direction of the joint body. Among them, although the drainer disclosed above can be connected to casings of different pipe diameters according to needs, there is no resisting structure above it, so it cannot be easily transferred to the drainage structure of floor-to-ceiling windows, and it cannot be installed under the ground. .

In order to solve the above problems, this invention discloses a drainage device that can be buried under the ground and can be connected to the floor-to-ceiling windows through gaps and pipe fittings, so that the water from the floor-to-ceiling windows can flow smoothly into the underground waterway, thereby solving the problem of conventional problems. The purpose of the water backflow blocking problem.

To achieve the above object, one embodiment of the present invention provides a drainage device, which includes a drainage component and a cover component. The drainage piece has a pipe part and a conduit part. The pipe part has a top end and a water guide hole connected to the conduit part. The inner periphery of the water guide hole is provided with a plurality of first positioning parts and a plurality of second positioning parts relative to the axial spacing ring of the water guide hole. Positioning parts, each second positioning part is spaced between every two adjacent first positioning parts, and a slope is provided between each first positioning part and each second positioning part, wherein each first positioning part and each second positioning part Each first positioning portion is provided with a layer of blocks, and each first positioning portion is provided with a bump relative to the axial direction of the drainage member; the cover is installed on the drainage member, and a engaging portion is protruding from the bottom of the cover, and the engaging portion is engaged with the top end connection, so that a gap is formed between the cover member and the drainage member, and the gap can be used for inserting a pipe fitting so that the pipe fitting is connected to the water conduction hole.

This invention further provides a floor-to-ceiling window drainage system, which includes the aforementioned drainage device and a drainage structure. The drainage structure is located at the bottom of a floor-to-ceiling window. The drainage structure has a drainage space. A drainage hole is provided on one side of the drainage space. The drainage hole is connected to the drainage device through pipe fittings.

Thereby, the drainage device of the present invention can be buried under the ground, and can be connected to the floor-to-ceiling window through gaps and pipe fittings, thereby achieving the purpose of making the barrier-free floor-to-ceiling window have drainage effect.

Furthermore, the drainage device of this invention can drain the water in the soil into the drainage parts through the gap design, thereby improving the soil drainage efficiency, and can discharge the biogas in the drainage parts to prevent the accumulation of biogas and cause danger.

In order to facilitate the explanation of the central idea expressed in the above creative content column of this creation, specific embodiments are hereby expressed. Various objects in the embodiments are drawn according to proportions suitable for enumeration and description, rather than according to the proportions of actual components, and will be described first.

Referring to FIGS. 1 to 3 , a drainage device 100 according to a first embodiment of the present invention is disclosed, which is installed in a drainage pipe 1 that has been buried under the ground. The drainage device 100 includes a drainage member 10 and A cover piece 20.

The drainage member 10 is funnel-shaped. The drainage member 10 has a pipe portion 11 and a conduit portion 12 . The takeover part 11 has a top end 111 and a water guide hole 112 communicating with the conduit part 12. The inner periphery of the water guide hole 112 is provided with a plurality of first positioning parts 113 and a plurality of second positioning parts 114 relative to the axial spacing ring of the water guide hole 112. Each second positioning part 114 is spaced between every two adjacent first positioning parts 113, and a slope 115 is provided between each first positioning part 113 and each second positioning part 114, wherein each first positioning part 113 and each The second positioning parts 114 are each provided with a level block 116 , and each first positioning part 113 is provided with a protrusion 117 relative to the axial direction of the drainage member 10 . As shown in FIGS. 1 to 3 , the inclined surface 115 is inclined downward from the top end 111 toward the direction of the conduit portion 12 .

As shown in Figures 1 to 3, in the first embodiment of the present invention, the take-over part 11 is circular, the conduit part 12 is a cylindrical tube, and the first positioning part 113 and the second positioning part 114 are ring-shaped. The area occupied by the inner circumference of the water guide hole 112 and the first positioning portion 113 disposed on the inner circumference of the water guide hole 112 is greater than the area occupied by the second positioning portion 114 disposed on the inner circumference of the water guide hole 112 , wherein the first positioning portion The number of the second positioning parts 113 is 3 and is arranged at equal intervals. The number of the second positioning parts 114 is 3 and is arranged at equal intervals. The number of the inclined surfaces 115 is 6. The take-over part 11 is not limited to a circle, and the take-over part 11 is also Can be rectangular in shape.

As shown in Figures 1 to 3 and Figures 7 to 9, in the first embodiment of the present invention, a connection groove 118 is recessed in the side wall of the take-up part 11, and the connection groove 118 and the cover 20 form a hole for a pipe. 200 is inserted, allowing the user to introduce water into the pipe fitting 200, and transport the water to the drainage fitting 10 through the pipe fitting 200, so that the water can be discharged into the drainage pipe 1 through the drainage fitting 10. The number of connecting grooves 118 may be plural and spaced apart from each other to connect multiple pipe fittings 200 .

As shown in Figures 1 to 3, in the first embodiment of the present invention, the level block 116 has a first receiving surface 116a and a second receiving surface 116b, and the first receiving surface 116a and the second receiving surface 116b are in contact with the drainage. The axial direction of the component 10 is vertical, and the first bearing surface 116a and the second bearing surface 116b are arranged at different heights. There is a vertical first distance L1 between the first bearing surface 116a and the top end 111, and the second bearing surface 116b and the top end 111 are arranged at different heights. There is a vertical second distance L2 between the top ends 111 , and the second distance L2 is greater than the first distance L1 . In the first embodiment of the present invention, the second distance L2 is 1.5 times the first distance L1.

As shown in Figures 1 to 3, in the first embodiment of the present invention, the bump 117 is provided on the first receiving surface 116a, and the height of the bump 117 is equal to the first distance L1; furthermore, the bump 117 It has a first side 117a and an opposite second side 117b, and there is a third distance L3 between the first side 117a and the inner edge of the side wall of the takeover portion 11.

The cover 20 covers the drainage member 10. The bottom of the cover 20 is protruding with a snap-in portion 21. The snap-in portion 21 snaps into place with the top 111 of the drainage component 10, so that there is a gap between the cover 20 and the drainage component 10. A gap 22 is formed, and the gap 22 can be used for the pipe fitting 200 to be inserted, so that the pipe fitting 200 is connected to the water guide hole 112 of the drainage member 10 . Among them, the cover 20 can prevent sand and gravel with larger particles from entering the drainage member 10 and causing damage to the drainage member 10, and the gap 22 can allow water in the soil to drain into the drainage member 10, and can drain water from the drainage member 10. Biogas is discharged to prevent the accumulation of biogas and cause danger.

In addition, as shown in FIGS. 1 to 3 and 7 to 9 , in the first embodiment of the present invention, the gap 22 can form a hole with the connecting groove 118 for the pipe 200 to be inserted, so that the user can introduce water The pipe fitting 200 transports water to the drainage fitting 10 through the pipe fitting 200, so that the water is discharged into the drainage pipe 1 through the drainage fitting 10.

As shown in Figures 4 to 6 and 10, this is the second embodiment of this invention. The cover 30 of the second embodiment of this invention also has a snap portion 31 and a gap 32, which is different from the first embodiment of this invention. The point is that the top of the cover 30 is provided with a connecting hole 33, the connecting hole 33 is connected to one end of an outdoor drain pipe 300, and the other end of the outdoor drain pipe 300 is connected to the outdoors, so that through the arrangement of the outdoor drain pipe 300 , the water on the outdoor ground can directly flow into the drainage member 10, thereby preventing water accumulation on the outdoor ground from causing danger. Among them, the diameter of the connecting hole 33 can be adaptively adjusted according to the diameter of the outdoor drainage pipe 300 .

Furthermore, in the second embodiment of the present invention, the first positioning portion 113 and the second positioning portion 114 are annularly spaced, so that the hierarchical blocks 116 or the protrusions 117 are annularly staggered. When the outdoor drainage pipe 300 passes through When the cover 30 is installed in the water guide hole 112, the outer edges of the outdoor drain pipes 300 of different diameters can be pressed against the first side 117a, the second side 117b, the inner periphery of the conduit part 12 or the pipe part 11 that conform to the pipe diameter. One of the inner edges of the side wall can achieve quick alignment and positioning, and can increase the stability of the installation of the outdoor drainage pipe 300. Moreover, the bottom of the outdoor drainage pipe 300 contacts the first receiving surface 116a or the second receiving surface 116b, thereby increasing its stabilizing effect.

As shown in FIGS. 4 to 6 , in the second embodiment of the present invention, a plurality of auxiliary drainage holes 34 are provided on the periphery of the connecting hole 33 . The auxiliary drainage holes 34 are arranged at intervals, and each auxiliary drainage hole 34 is arc-shaped. This auxiliary drainage hole 34 can assist in draining water in the soil into the drainage member 10, thereby improving drainage efficiency and preventing water accumulation on the outdoor ground.

As shown in FIGS. 7 to 9 , the first embodiment of the present invention further provides a floor-to-ceiling window drainage system, which includes the aforementioned drainage device 100 and a drainage structure 400 . The installation height of the drainage device 100 is lower than the installation height of the drainage structure 400 .

The drainage structure 400 is located at the bottom of a floor-to-ceiling window 2. The drainage structure 400 has a drainage space 410. A drainage hole 420 is provided on one side of the drainage space 410. The drainage hole 420 is connected to the drainage device 100 through the pipe 200. Among them, the floor-to-ceiling window 2 is a barrier-free floor-to-ceiling window.

As shown in Figures 7 and 8, in this creative embodiment, the drainage structure 400 further includes a connecting piece 430, and the connecting piece 430 has a fixed section 430a and a connecting section 430b. The fixed section 430a is inserted into the drainage hole 420; the connecting section 430b is for the end of the pipe fitting 200 that is far away from the drainage device 100 to be sleeved; the invention further includes a clamp 500, and the clamp 500 is sleeved at the end of the pipe fitting 200 that is away from the drainage device 100, and The end of the pipe 200 away from the drainage device 100 is clamped and fixed to the connecting section 430b, so that the connecting piece 430 and the clamp 500 can reliably connect and fix the pipe 200 to the drainage hole 420 and prevent the pipe 200 from falling off the drainage hole 420.

As shown in FIGS. 7 and 8 , in this creative embodiment, a guide part 440 is provided at the bottom of the drainage space 410 , and the guide part 440 is used to guide the water in the drainage space 410 to the drainage hole 420 . Among them, the guide part 440 has a guide section 440a and a setting section 440b. The guide section 440a is inclined, and the inclination angle of the guide section 440a is between 2 degrees and 5 degrees; the set section 440b is recessed on a side of the guide section 440a close to the drainage hole 420, and the set section 440b is provided for connecting elements The connecting section 430b of 430 is snap-connected, so that with the assistance of the guide part 440, the water can flow to the drainage hole 420 more smoothly and quickly.

In addition, as shown in Figure 10, it is a floor-to-ceiling window drainage system according to the second embodiment of the present invention. The drainage device 100 can be additionally connected to an outdoor drainage pipe 300, so that the water on the outdoor ground can directly flow into the drainage device 100 and be discharged to the drainage pipe. 1 in. Furthermore, one end of the outdoor drainage pipe 300 close to the ground is further connected with a water drop head 600. The water drop head 600 can prevent oversized objects (such as stones with larger diameters, waste, etc.) from falling into the drainage device 100 and preventing the drainage device 100 from falling into the drainage device 100. Damage due to collision with an object.

Thus, this creation has the following advantages:

1. The drainage device 100 of this invention can be buried under the ground, and can be connected to the floor-to-ceiling window 2 through the gap 22 and the pipe fitting 200, so as to achieve the purpose of making the barrier-free floor-to-ceiling window 2 have drainage effect.

2. The drainage device 100 of this invention can drain the water in the soil into the drainage member 10 through the design of the gap 22, thereby improving the soil drainage efficiency, and can discharge the biogas in the drainage member 10 to prevent the accumulation of biogas and cause danger.

3. The drainage device 100 of the second embodiment of the present invention can enable water on the outdoor ground to flow into the drainage device 100 through the connection holes 33 and the outdoor drainage pipe 300, thereby preventing water accumulation on the outdoor ground and reducing risks. effect on the probability of accidents.

Although this creation is illustrated with a best embodiment, those skilled in this art can make various changes in various forms without departing from the spirit and scope of this creation. The above embodiments are only used to illustrate the present invention and are not intended to limit the scope of the present invention. All modifications or changes that do not violate the spirit of this creation are within the scope of the patent application for this creation.

1: Drainage pipe 2: Floor-to-ceiling windows 100: Drainage device 200:Pipe fittings 300:Outdoor drainage pipe 400: Drainage structure 410: Drainage space 420: Drainage hole 430: Connector 430a: Fixed segment 430b: Connecting segment 440: Guidance Department 440a: Guide section 440b: Setting section 500:Clamp firmware 600: Falling into the water 10: Drainage parts 11: Taking over department 111:Top 112:Water hole 113:First Positioning Department 114:Second positioning department 115: Incline 116: Hierarchy block 116a: First undertaking surface 116b: Second undertaking surface 117: Bump 117a: first side 117b: Second side 118:Connection slot 12:Catheter Department 20:Cover 21:Clamping part 22:gap 30: cover 31:Clamping part 32:gap 33:Connection hole 34: Auxiliary drainage hole L1: first distance L2: second distance L3: The third distance

[Figure 1] is a schematic three-dimensional appearance diagram of the drainage device according to the first embodiment of the present invention. [Figure 2] is an exploded schematic diagram of the drainage device according to the first embodiment of the present invention. [Figure 3] is a schematic cross-sectional view taken along the A-A section line in Figure 1. [Figure 4] is a schematic three-dimensional view of the drainage device according to the second embodiment of the present invention. [Figure 5] is an exploded schematic diagram of the drainage device of the second embodiment of the present invention. [Fig. 6] is a schematic cross-sectional view taken along the line B-B in Fig. 4. [Figure 7] is a schematic structural diagram of the floor-to-ceiling window drainage system of the first embodiment of this invention. [Figure 8] is a partially enlarged schematic diagram of the floor-to-ceiling window drainage system of the first embodiment of the present invention, showing the connection status of the drainage holes and pipe fittings. [Figure 9] is a partially enlarged schematic diagram of the floor-to-ceiling window drainage system of the first embodiment of the present invention, showing the connection status of the drainage device and pipe fittings. [Figure 10] is a schematic diagram of the structure of the floor-to-ceiling window drainage system of the second embodiment of this invention.

100: Drainage device

10: Drainage parts

11: Taking over department

111:Top

112:Water hole

113:First Positioning Department

114:Second positioning department

115: Incline

116: Hierarchy block

116a: First undertaking surface

116b: Second undertaking surface

117: Bump

117a: first side

117b: Second side

118:Connection slot

12:Catheter Department

20:Cover

21:Clamping part

Claims (14)

A drainage device comprising: A drainage member has a pipe part and a conduit part. The pipe part has a top end and a water guide hole connected to the conduit part. The inner periphery of the water guide hole is provided with a plurality of axial spacing rings relative to the water guide hole. A positioning part and a plurality of second positioning parts, each second positioning part is spaced between every two adjacent first positioning parts, and a slope is provided between each first positioning part and each second positioning part, wherein, Each first positioning part and each second positioning part are respectively provided with a level block, and each first positioning part is provided with a convex block relative to the axial direction of the drainage member; and A cover is provided on the drainage member. A snap-in portion is protruding from the bottom of the cover, and the snap-in portion is snap-connected with the top end, so that a gap is formed between the cover and the drainage member. The gap can be used for inserting a pipe fitting so that the pipe fitting is connected to the water conduction hole. The drainage device as claimed in claim 1, wherein a connecting groove is recessed in the side wall of the connecting portion, and the connecting groove and the gap form a hole for the pipe fitting to be inserted. The drainage device as claimed in claim 1, wherein the slope slopes downward from the top end toward the direction of the conduit part. The drainage device of claim 1, wherein a connection hole is drilled through the top of the cover, and the connection hole is connected to one end of an outdoor drainage pipe, and the other end of the outdoor drainage pipe is connected to the outdoors. The drainage device according to claim 4, wherein a plurality of auxiliary drainage holes are provided around the connecting hole, and the auxiliary drainage holes are arranged at intervals. The drainage device according to claim 1, wherein the step block has a first receiving surface and a second receiving surface, and the first receiving surface and the second receiving surface are arranged at different heights. The drainage device of claim 6, wherein there is a first distance between the first receiving surface and the top end, a second distance between the second receiving surface and the top end, and the second distance is greater than the first distance. distance. The drainage device according to claim 6, wherein the first receiving surface and the second receiving surface are perpendicular to the axial direction of the drainage member. The drainage device according to claim 6, wherein the protrusion is provided on the first receiving surface. A floor-to-ceiling window drainage system, which includes: A drainage device as described in any one of claims 1 to 9; and A drainage structure is provided at the bottom of a floor-to-ceiling window. The drainage structure has a drainage space. A drainage hole is provided on one side of the drainage space. The drainage hole is connected to the drainage device through the pipe fitting. The floor-to-ceiling window drainage system according to claim 10, wherein the drainage structure further includes a connecting piece, the connecting piece has a fixed section and a connecting section, the fixed section is inserted into the drainage hole, and the connecting section is used for the pipe fitting Set at one end away from the drainage device. The floor-to-ceiling window drainage system according to claim 11 further includes a clamp that is sleeved on an end of the pipe fitting away from the drainage device, and clamps and fixes the end of the pipe fitting away from the drainage device on the connecting section. The floor-to-ceiling window drainage system as claimed in claim 11, wherein a guide portion is provided at the bottom of the drainage space, and the guide portion guides water in the drainage space to the drainage hole. The floor-to-ceiling window drainage system according to claim 13, wherein the guide part has a guide section and a setting section, and the setting section is recessed on a side of the guide section close to the drainage hole, and the setting section is provided for the The connecting section of the connecting piece is firmly connected.

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