TWM461685U - Lower frame of aluminum window featuring drainage and windproof - Google Patents

Description

Drainable and windproof aluminum door and window frame material

The present invention discloses a frame material for aluminum doors and windows, especially a frame material for aluminum doors and windows that can be drained and windproof.

The lower frame of the aluminum door and window has a first inner recessed portion adjacent to the indoor portion, and a second inner recessed portion is adjacent to the first inner recessed portion in the outdoor direction. The first inner recessed portion has an upper recess and one is located below the upper recess. The lower groove, and a baffle blocking between the upper and lower grooves, can be slipped by the door leaf or sash at the outer end of the upper groove.

However, when it rains, the rainwater will fall from the outside into the upper groove to accumulate. Once the accumulated water level exceeds the height of the upper groove and the rainwater cannot be drained to the outside in time, the rainwater will overflow and flow into the room, causing indoors. Water or moisture can affect the living environment.

In view of this, the creators have been concentrating on development and research, and after a long period of hard work and overcoming all difficulties, they finally designed this creation.

Therefore, one of the purposes of this creation is to provide a water- and dust-proof aluminum door and window frame material that can drain most of the rainwater to the outside.

Moreover, another object of the present invention is to provide a frame material for aluminum doors and windows that can be drained and windproof, and can be used to block outdoor wind from entering the room by using rainwater accumulated after being excluded.

Therefore, in order to achieve the above object, a water-proof aluminum door and window frame material of the present invention comprises: a first supporting unit, comprising a track facing the room and having a distance from the room at intervals An upper recess, a first stop at the bottom edge of the upper recess and having at least one inlet, and a lower recess located below the first stop, the lower recess being in communication with the at least one inlet and having a first partition extending downwardly from the first stop and formed adjacent to the at least one inlet, a second partition extending upward from the bottom of the lower recess and spaced adjacent to the first partition a plate, and at least one bus outlet that is adjacent to the second baffle; and when rainwater falls from the outside into the upper recess, the rainwater continuously enters and accumulates in the lower recess via the at least one inlet, After the water level of the rainwater exceeds the highest height of the second partition, the rainwater overflows from the at least one outlet; when the water level of the rainwater can be maintained above the lowest height of the first partition, rainwater Stop outside winds enter the room.

The drainable and windproof aluminum door and window lower frame material further comprises a second supporting unit, wherein the second supporting unit comprises a water storage space adjacent to the lower concave portion of the first supporting unit and communicating with the at least one collecting outlet a third partition for spacing the water storage space and having a track, and a second partition extending from the lower recess toward the outdoor direction and having a height higher than a track of the third partition Block.

The track of the third partition of the second support unit is in communication with the second stop.

The highest height of the second partition is higher than the lowest height of the first partition based on the bottom edge of the lower recess of the first supporting unit.

The track of the recess above the first supporting unit is slidable by the fan.

The track of the third partition of the second supporting unit is slidable by the fan.

The first and second support units are all made by an aluminum extrusion technique.

The effect of the creation is that the rainwater overflows from the at least one outlet outlet; when the water level of the rainwater can be maintained above the lowest height of the first partition, the rainwater can block the outdoor wind from entering the room. . Therefore, this creation can discharge most of the rainwater drainage to the outside, and can use the rainwater accumulated after the exclusion to block the outdoor wind from entering the room, so that drainage and wind prevention can be achieved.

1‧‧‧First support unit

11‧‧‧Upper recess

112‧‧‧ Track

12‧‧‧ first stop

122‧‧‧Confluence entrance

13‧‧‧Under recess

132‧‧‧ first partition

134‧‧‧Second partition

136‧‧ ‧ confluence exit

2‧‧‧ indoor

3‧‧‧Outdoor

4‧‧‧Second support unit

41‧‧‧Water storage space

42‧‧‧ Third partition

422‧‧‧ Track

43‧‧‧second stop

5‧‧‧ sector

6‧‧‧ sector

FIG. 1 is a schematic view showing an application aspect of each rail mounting fan according to an embodiment of the present invention.

Fig. 2 is a schematic view showing the action of the rainwater in the outdoor environment when the rainwater is attacked by the embodiment.

Fig. 3 is a schematic view showing the action of blocking the wind into the room when the wind is blown by the embodiment.

Fig. 4 is a schematic enlarged view showing another embodiment of the creation.

Referring to Figures 1 to 3, an embodiment of a drainable and windproof aluminum door and window frame material of the present invention includes a first support unit 1.

The first supporting unit 1 includes an upper recess 11 facing the room 2 and having a track 112 spaced apart from the room 2 at a distance, a bottom edge of the upper recess 11 and at least one inlet 122. a first stop portion 12 and a lower recess 13 located below the first stop portion 12, the lower recess portion 13 is in communication with the at least one bus inlet 122 and has a first stop portion 12 facing downward a first partition 132 extending along the at least one inlet inlet 122, a second partition 134 extending upward from the bottom of the lower recess 13 and spaced apart from the first partition 132, and at least A bus outlet 136 that is adjacent to the second partition 134 and that communicates with each other. Based on the bottom edge of the lower recess 13 of the first support unit 1, the highest height of the second partition 134 is higher than the lowest height of the first partition 132. The track 112 of the recess 11 above the first support unit 1 is slidable for the fan body 5.

The second supporting unit 4 includes a second supporting unit 4, and the second supporting unit 4 includes a water storage space 41 adjacent to the lower recess 13 of the first supporting unit 1 and connected to the at least one collecting outlet 136. a third partition 42 spaced apart from the water storage space 41 and having a track 422, and a track 422 extending from the lower recess 13 toward the outdoor 3 and having a height higher than that of the third partition 42 High second stop 43. The track 422 of the third partition 42 of the second support unit 4 is in communication with the second stop 43. The track 422 of the third partition 42 of the second supporting unit 4 is slidable for the fan body 6. The first and second support units 1, 4 are all made by an aluminum extrusion technique.

By the combination of the above elements, as shown in FIGS. 1 to 3, in one embodiment of the present invention, when rainwater falls from the outdoor 3 into the upper recess 11, the rainwater continues through the at least one inlet 122. After the groundwater enters the lower recessed portion 13, the water level of the rainwater exceeds the highest height of the second partition 134, the rainwater overflows from the at least one airflow outlet 136; when the water level of the rainwater can be maintained at When the first partition 132 is above the lowest level, the rain can block the wind from the outdoor 3 from entering the chamber 2. Therefore, in this embodiment, most of the rainwater can be drained to the outdoor unit 3, and the rainwater accumulated after the exclusion can be used to block the wind of the outdoor 3 from entering the room 2, so that the above-mentioned drainage and windproof can be achieved.

Referring to FIG. 4, corresponding to the component descriptions of FIGS. 1 to 3, it can be found that the openings are arranged at equal intervals and are arranged at the inlet port 122 and the bus outlet 136 of the first supporting unit 15, and the openings thereof are opened. Although the area is larger than that of the above embodiment, the same object as the embodiment can be achieved.

In summary, when Zhiben's creation has industrial applicability and progress, and this creation is not found in any publication, it is also novel. When it meets the requirements of the Patent Law, it proposes a new type of patent application according to law. The quasi-patent is a prayer.

1‧‧‧First support unit

11‧‧‧Upper recess

122‧‧‧Confluence entrance

13‧‧‧Under recess

132‧‧‧ first partition

134‧‧‧Second partition

136‧‧ ‧ confluence exit

2‧‧‧ indoor

3‧‧‧Outdoor

4‧‧‧Second support unit

Claims (7)

The utility model relates to a water-repellent and wind-proof aluminum door and window lower frame material, comprising: a first supporting unit, comprising: an upper concave portion facing the room and having a track spaced apart from the indoor space, and a bottom edge of the upper concave portion And a first stop portion having at least one bus inlet, and a lower recess portion below the first stop portion, the lower recess portion is in communication with the at least one bus inlet and has a lower portion extending from the first stop portion a first partition formed adjacent to the at least one inlet, a second partition extending upward from the bottom of the lower recess and spaced adjacent to the first partition, and at least one and the second partition Between the adjacent outlets that are connected to each other; when rainwater falls from the outside into the upper recess, the rainwater continuously enters the lower recess through the at least one inlet, the water level of the rain exceeds the height of the second partition After the highest height, the rainwater overflows from the at least one outlet port; when the water level of the rainwater can be maintained above the lowest level of the first partition, the rainwater can block outdoor wind from entering the room. The glazing and windproof aluminum door and window lower frame material according to claim 1, further comprising a second supporting unit, wherein the second supporting unit comprises a recess adjacent to the lower portion of the first supporting unit and is connectable to the at least a water storage space of a confluence outlet, a third partition which is spaced apart to block the water storage space and has a track, and a lower partition extending toward the outdoor direction and having a height higher than the third partition The track is a high second stop. The ventilating and windproof aluminum door and window lower frame material according to claim 2, wherein the track of the third partition of the second supporting unit and the second blocking portion are in communication. The glazing and windproof aluminum door and window lower frame material according to claim 3, wherein the highest height of the second partition is higher than the first based on the bottom edge of the lower recess of the first supporting unit The lowest height of the partition. The slidable and windproof aluminum door and window lower frame material according to the fourth aspect of the invention, wherein the track of the concave portion above the first supporting unit is slidable by the fan body. The ventilating and windproof aluminum door and window lower frame material according to claim 5, wherein the track of the third partition of the second supporting unit is slidable by the fan body. The aluminum door and window lower frame material according to claim 6, wherein the first and second supporting units are all made by an aluminum extrusion technology.