Rainwater recycling mechanism for space capsule
By designing the roof trough and rainwater conduction components in the space capsule house, the rainwater is introduced into the external recycling box for multi-layer purification, which solves the complex installation and inconvenient maintenance of the space capsule rainwater recycling and utilization, and achieves efficient rainwater recycling and Purification improves water self-sufficiency.
Patent Information
- Application Number
- CN202323501881.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2023-12-21
- Publication Date
- 2024-12-27
- Estimated Expiration
- 2033-12-21
AI Technical Summary
In the prior art, capsule integrated houses have problems such as complex installation, inconvenient maintenance, and inability to meet self-sufficiency water needs in remote areas or disasters in terms of rainwater recycling.
A rainwater recycling mechanism including a trough around the top, a rainwater conduction assembly and an external recycling box was designed. The rainwater conduction assembly was used to guide the rainwater into the external recycling box, and the multi-layer purification structure (primary bearing groove, dustproof cover) was used. The plate, porous ceramic layer and activated carbon filter layer) are purified and the purified rainwater is transported to the indoor water supply system by driving the water pump.
It realizes efficient recycling and purification of rainwater, improves the self-sufficiency water source capacity of space capsule houses, simplifies installation and maintenance, is suitable for complex installation environments, and improves the functionality and practicality of water sources.
Smart Images
Figure CN222252311U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of rainwater recycling, in particular to a rainwater recycling mechanism for a space capsule. Background Art
[0002] Space capsule integrated housing refers to the application of the concept of space capsules to residential buildings on Earth to create efficient, sustainable, and modular living spaces. The design of this type of house is inspired by the compactness, space utilization efficiency, and self-sufficiency of space capsules. Space capsule integrated housing focuses on maximizing the use of space. Through clever design and innovative storage solutions, the house can provide ample living space, including multifunctional furniture, wall-mounted storage systems, etc., while the rainwater recycling mechanism enables the building or space capsule to be more self-sufficient. In some cases, especially in remote areas or when disasters occur, rainwater recycling can provide residents with a reliable source of water and reduce dependence on external water supply systems. Therefore, this case hopes to propose a rainwater recycling mechanism that is optimized for space capsules to improve the water self-sufficiency in the space capsule. For the above problems, there may already be technical means to solve them in the prior art, but this case wants to provide an alternative or replacement technical solution. Utility Model Content
[0003] To achieve the above purpose, the utility model is implemented through the following technical solutions: a rainwater recycling mechanism for a space capsule, comprising: a space capsule body, a house roof, a top peripheral groove and an external recycling box, wherein the house roof is installed on the space capsule body, the top peripheral groove is installed on the space capsule body, and the top peripheral groove is connected to the house roof, the external recycling box is installed on the space capsule body, a rainwater conduction component is installed on the top peripheral groove, and a rainwater recycling purification structure is installed in the external recycling box;
[0004] The rainwater recycling and purification structure comprises: a primary receiving groove, a dustproof cover plate, a cover plate rotating shaft, a weighted ball block, a dirt cleaning door, a dirt filtering bearing plate, a filter screen on the plate, an anti-seepage rubber cushion layer, a porous ceramic layer, an activated carbon filter layer, a post-filtration water tank, a driving water pump and an indoor water supply box;
[0005] The primary receiving groove is provided in the external recovery box, the dust cover is installed in the external recovery box, and the dust cover is connected to the primary receiving groove, the cover rotating shaft is installed on the dust cover, and the cover rotating shaft is connected to the external recovery box, the counterweight ball block is installed on the dust cover, a dirt cleaning door is provided on the external recovery box, a filter plate slot is provided on the primary receiving groove, the dirt filter carrier plate is inserted into the primary receiving groove through the filter plate slot, and the dirt filter carrier plate is connected to the external recovery box, and the filter screen on the board is installed on the dirt The impermeable water-proof rubber cushion layer is installed on the impurity filtering supporting plate, and the impermeable water-proof rubber cushion layer is connected to the primary receiving groove, the porous ceramic layer is installed in the primary receiving groove, the activated carbon filter layer is installed in the primary receiving groove, the post-filtration water tank is installed in the external recovery box body, and the post-filtration water tank is connected to the primary receiving groove, the driving water pump is installed in the external recovery box body, and the driving water pump is connected to the post-filtration water tank through a pipeline, the indoor water supply box body is installed in the space capsule body, and the indoor water supply box body is connected to the driving water pump through a pipeline.
[0006] It should be noted that, in the above, after the main body of the space capsule is assembled, the top peripheral groove is tightly combined with the roof of the house, and the external recovery box can be installed according to the position of the rainwater conduction component. The details can be configured in combination with the actual installation situation of the main body of the space capsule, which can improve the installation adaptability of the entire mechanism. When it rains, rainwater passes through the water guide groove arranged on the roof of the house and is guided into the top peripheral groove. The water is guided by the top peripheral groove to the rainwater conduction component, and then transferred to the external recovery box and received by the primary receiving groove. The dust cover can prevent dirt and dust from entering the primary receiving groove at ordinary times. After the rainwater accumulates to a certain extent, the gravity of the rainwater exceeds the weight of the counterweight ball block, which will cause the dust cover to flip along the cover plate rotation axis to the inside of the primary receiving groove, thereby allowing the rainwater to enter the primary receiving groove. The receiving tank and the on-board filter net on the dirt filter carrier plate will filter and separate large pieces of dirt. If too much accumulation affects the water inlet, the dirt filter carrier plate can be pulled out from the filter plate slot opened on the primary receiving tank through the dirt cleaning door for cleaning. The anti-seepage rubber pad layer can prevent water from flowing out from the gap in the filter plate slot. After the initial filtration, the water is filtered by the porous ceramic layer and the activated carbon filter layer, and then flows into the post-filtration water tank for temporary storage. When the liquid level detector arranged in the post-filtration water tank detects that the water level reaches the set value, the filtered and purified rainwater is transported to the indoor water supply tank in the space capsule body through a pipe by driving the water pump. Then, it is connected to the water supply system in the space capsule body through the transfer valve arranged on the indoor water supply tank, so as to achieve the effect of rainwater recycling.
[0007] Preferably, the rainwater conduction assembly comprises: a rainwater conduction chain and a plurality of conduction receiving bowls;
[0008] The rainwater conduction chain is connected to the top peripheral groove, and the rainwater conduction chain is connected to the inner side of the primary receiving groove, and a plurality of conduction receiving bowls are respectively installed on the rainwater conduction chain;
[0009] It should be noted that, in the above, the rainwater conduction chain can be conveniently bridged with the top peripheral groove. After the main body of the space capsule is placed, holes are opened in the top peripheral groove according to actual conditions, and the rainwater conduction chain and the openings are bridged. The bridged rainwater conduction chain will extend to the top of the dust cover in the primary receiving groove. When rainwater accumulates in the top peripheral groove, the accumulated rainwater flows to the rainwater conduction chain through the openings on the top peripheral groove, and gathers and flows on the rainwater conduction chain and several conduction receiving bowls until it flows into the primary receiving groove. After the accumulated weight exceeds the weight of the counterweight ball block, the dust cover is pressed back, so that the collected rainwater flows into the primary receiving groove for purification and recovery. The outer side of the conduction receiving bowl can be decorated with patterns and designs to beautify the space capsule. Secondly, the water flowing on the rainwater conduction chain can be guided and gathered through the water-permeable holes set at the bottom of the conduction receiving bowl to avoid splashing of rainwater and improve the efficiency of rainwater collection.
[0010] Preferably, the bottom of the conduction receiving bowl is provided with a water-permeable hole;
[0011] Preferably, a transfer valve is provided on the indoor water supply box;
[0012] Preferably, the roof of the house is provided with a water channel;
[0013] Preferably, a liquid level detector is provided in the filtered water tank.
[0014] Beneficial Effects
[0015] The utility model provides a rainwater recycling mechanism for a space capsule. It has the following beneficial effects. Compared with the prior art, the rainwater recycling mechanism for a space capsule receives and collects rainwater through the top peripheral groove installed on the periphery of the house roof, transfers the rainwater to an external recycling box through a rainwater conduction component, purifies and filters the rainwater through a rainwater reuse purification structure in the external recycling box, and then supplies it to the water supply system of the space capsule body. The external rainwater conduction component of the mechanism has a simple structure and is easy to maintain. It also has a certain beautification effect and is easy to install. It is suitable for special installation environments such as space capsules where the placement environment is complex and a large-scale recycling mechanism cannot be placed, which greatly improves the functionality and practicality of the self-sufficient water source of the space capsule house. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1It is a schematic diagram of the main cross-sectional structure of a rainwater recycling mechanism for a space capsule described in the utility model.
[0017] Figure 2 for Figure 1 A partial enlarged schematic diagram of "A" in the figure.
[0018] In the figure: 1. Space capsule body; 2. House roof; 3. Top perimeter groove; 4. External recovery box; 5. Primary receiving groove; 6. Dust cover; 7. Cover rotating shaft; 8. Counterweight ball block; 9. Cleaning door; 10. Dirt filter carrier plate; 11. Plate filter; 12. Water-proof rubber cushion layer; 13. Porous ceramic layer; 14. Activated carbon filter layer; 15. Post-filtration water tank; 16. Driving water pump; 17. Indoor water supply box; 18. Rainwater conduction chain; 19. Conducting receiving bowl. DETAILED DESCRIPTION
[0019] Based on the embodiments of the present utility model, all other embodiments obtained by ordinary technicians in the field without making any creative work shall fall within the scope of protection of the present utility model.
[0020] Through the personnel in this field, all the electrical components in this case are connected to their corresponding power supplies through wires, and appropriate controllers and encoders should be selected according to actual conditions to meet the control requirements. The specific connection and control sequence should refer to the following working principle, and the electrical connection between the electrical components is completed in the order of working in sequence. The detailed connection means are well-known technologies in this field. The following mainly introduces the working principles and processes, and no longer explains the electrical control.
[0021] Example
[0022] The present invention will be described in detail below in conjunction with the accompanying drawings. Figure 1-2As shown, a rainwater recycling mechanism for a space capsule comprises: a space capsule body 1, a house roof 2, a top peripheral groove 3 and an external recycling box 4, wherein the house roof 2 is mounted on the space capsule body 1, the top peripheral groove 3 is mounted on the space capsule body 1, and the top peripheral groove 3 is connected to the house roof 2, the external recycling box 4 is mounted on the space capsule body 1, a rainwater conduction component is mounted on the top peripheral groove 3, and a rainwater recycling purification structure is mounted in the external recycling box 4; the rainwater recycling purification structure comprises: a primary receiving groove 5, a dustproof cover plate 6, a cover plate rotating shaft 7, a counterweight ball block 8, a cleaning door 9, A dirt filter carrier plate 10, a filter screen on the plate 11, a water-proof rubber cushion layer 12, a porous ceramic layer 13, an activated carbon filter layer 14, a post-filtration water tank 15, a driving water pump 16 and an indoor water supply box 17; the external recovery box 4 is provided with the primary receiving groove 5, the dust cover 6 is installed in the external recovery box 4, and the dust cover 6 is connected to the primary receiving groove 5, the cover plate rotating shaft 7 is installed on the dust cover 6, and the cover plate rotating shaft 7 is connected to the external recovery box 4, the counterweight ball block 8 is installed on the dust cover 6, the external recovery box 4 is provided with a cleaning door 9, the primary bearing The receiving groove 5 is provided with a filter plate slot, the dirt filter carrier plate 10 is inserted into the primary receiving groove 5 through the filter plate slot, and the dirt filter carrier plate 10 is connected to the external recovery box 4, the plate filter 11 is installed on the dirt filter carrier plate 10, the water-proof rubber pad layer 12 is installed on the dirt filter carrier plate 10, and the water-proof rubber pad layer 12 is connected to the primary receiving groove 5, the porous ceramic layer 13 is installed in the primary receiving groove 5, the activated carbon filter layer 14 is installed in the primary receiving groove 5, the post-filtration water tank 15 is installed in the external recovery box 4, and the post-filtration water tank 15 is connected to the primary receiving groove 5, the driving water pump 16 is installed in the external recovery box 4, and the driving water pump 16 is connected to the post-filtration water tank 15 through a pipeline, the indoor water supply box 17 is installed in the space capsule body 1, and the indoor water supply box 17 is connected to the driving water pump 16 through a pipeline; the rainwater conduction component includes: a rainwater conduction chain 18 and a plurality of conduction receiving bowls 19; the rainwater conduction chain 18 is connected to the top peripheral groove 3, and the rainwater conduction chain 18 is connected to the inner side of the primary receiving groove 5, and a plurality of conduction receiving bowls 19 are respectively installed on the rainwater conduction chain 18.
[0023] According to the attached Figure 1-2It is concluded that after the space capsule body 1 is assembled, the top peripheral groove 3 is tightly combined with the house roof 2, and the external recovery box 4 can be installed according to the position of the rainwater conduction component. The details can be configured in combination with the actual installation situation of the space capsule body 1, which can improve the installation adaptability of the entire mechanism. When it rains, rainwater passes through the water guide groove set on the house roof 2 and is guided to the top peripheral groove 3. The water is guided by the top peripheral groove 3 to the rainwater conduction component, and then transferred to the external recovery box 4 and received by the primary receiving groove 5. The dust cover 6 can prevent dirt and dust from entering the primary receiving groove 5 at ordinary times. After the rainwater accumulates to a certain extent, the gravity of the rainwater exceeds the weight ball block 8. The weight of the dust cover 6 will cause it to flip along the cover rotating shaft 7 toward the inside of the primary receiving groove 5, so that rainwater can enter the primary receiving groove 5. The filter screen 11 on the dirt filter carrier plate 10 will filter and separate large pieces of dirt. If too much dirt is accumulated and affects the water inlet, the dirt filter carrier plate 10 can be pulled out from the filter plate slot opened on the primary receiving groove 5 through the dirt cleaning door 9 for cleaning. The water-proof rubber pad layer 12 can prevent water from flowing out of the gap in the filter plate slot. After the initial filtration, the water is filtered by the porous ceramic layer 13 and the activated carbon filter layer 14, and then flows into the post-filtration water tank 15 for temporary storage. When the post-filtration water tank 15 is provided with After the liquid level detector detects that the water level has reached the set value, the water pump 16 is driven to transport the filtered and purified rainwater through a pipeline to the indoor water supply box 17 in the space capsule body 1, and then the transfer valve provided on the indoor water supply box 17 is connected to the water supply system in the space capsule body 1 to achieve the effect of rainwater recycling; the rainwater conduction chain 18 can be conveniently bridged with the top peripheral groove 3. After the space capsule body 1 is placed, the top peripheral groove 3 is opened according to actual conditions, and the rainwater conduction chain 18 is bridged with the opening. The bridged rainwater conduction chain 18 will extend to the top of the dust cover 6 in the primary receiving groove 5. When rainwater accumulates in the top peripheral groove 3, The accumulated rainwater flows through the openings on the top peripheral groove 3 to the rainwater conduction chain 18, and is collected and flows on the rainwater conduction chain 18 and a plurality of conduction receiving bowls 19 until it flows into the primary receiving groove 5. After the accumulated weight exceeds the weight of the counterweight ball block 8, the dust cover plate 6 is pressed back, so that the collected rainwater flows into the primary receiving groove 5 for purification and recovery. The outer side of the conduction receiving bowl 19 can be decorated with patterns and designs to beautify the space capsule. Secondly, the water flowing on the rainwater conduction chain 18 can be guided and collected through the water-permeable holes arranged at the bottom of the conduction receiving bowl 19 to avoid splashing of rainwater and improve the efficiency of rainwater collection.
[0024] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. A rainwater recycling mechanism for a space capsule, comprising: A space capsule body (1), a house roof (2), a top peripheral groove (3) and an external recovery box (4), characterized in that the house roof (2) is installed on the space capsule body (1), the top peripheral groove (3) is installed on the space capsule body (1), and the top peripheral groove (3) is connected to the house roof (2), the external recovery box (4) is installed on the space capsule body (1), a rainwater conduction component is installed on the top peripheral groove (3), and a rainwater recycling and purification structure is installed in the external recovery box (4); The rainwater recycling and purification structure comprises: a primary receiving groove (5), a dustproof cover plate (6), a cover plate rotating shaft (7), a weighted ball block (8), a dirt cleaning door (9), a dirt filtering bearing plate (10), a filter screen on the plate (11), an anti-seepage rubber cushion layer (12), a porous ceramic layer (13), an activated carbon filter layer (14), a post-filtration water tank (15), a driving water pump (16) and an indoor water supply box (17); The external recovery box (4) is provided with the primary receiving groove (5), the dust cover (6) is installed in the external recovery box (4), and the dust cover (6) is connected to the primary receiving groove (5), the cover plate rotating shaft (7) is installed on the dust cover (6), and the cover plate rotating shaft (7) is connected to the external recovery box (4), the counterweight ball block (8) is installed on the dust cover (6), the external recovery box (4) is provided with a cleaning door (9), the primary receiving groove (5) is provided with a filter plate slot, the dirt filter carrier plate (10) is inserted into the primary receiving groove (5) through the filter plate slot, and the dirt filter carrier plate (10) is connected to the external recovery box (4), and the plate filter (11) is installed on the dirt filter carrier plate ( 10), the anti-seepage rubber cushion layer (12) is installed on the dirt filtering carrier plate (10), and the anti-seepage rubber cushion layer (12) is connected to the primary receiving groove (5), the porous ceramic layer (13) is installed in the primary receiving groove (5), the activated carbon filter layer (14) is installed in the primary receiving groove (5), the post-filtration water tank (15) is installed in the external recovery box (4), and the post-filtration water tank (15) is connected to the primary receiving groove (5), the driving water pump (16) is installed in the external recovery box (4), and the driving water pump (16) is connected to the post-filtration water tank (15) through a pipeline, and the indoor water supply box (17) is installed in the space capsule body (1), and the indoor water supply box (17) is connected to the driving water pump (16) through a pipeline.
2. A rainwater recycling mechanism for a space capsule according to claim 1, characterized in that: The rainwater conduction component comprises: a rainwater conduction chain (18) and a plurality of conduction receiving bowls (19); The rainwater conduction chain (18) is connected to the top peripheral groove (3), and the rainwater conduction chain (18) is connected to the inner side of the primary receiving groove (5), and a plurality of conduction receiving bowls (19) are respectively installed on the rainwater conduction chain (18).
3. A rainwater recycling mechanism for a space capsule according to claim 2, characterized in that: The bottom of the conduction receiving bowl (19) is provided with a water permeable hole.
4. A rainwater recycling mechanism for a space capsule according to claim 3, characterized in that: The indoor water supply box (17) is provided with a switching valve.
5. A rainwater recycling mechanism for a space capsule according to claim 4, characterized in that: The house roof (2) is provided with a water guide groove.
6. A rainwater recycling mechanism for a space capsule according to claim 5, characterized in that: A liquid level detector is arranged in the filtered water tank (15).