A detachable reptile tank

Abstract

This utility model discloses a detachable reptile tank, including a bottom main tank with a splicing part on it. The splicing part includes a splicing top frame and a splicing bottom frame arranged from top to bottom. The splicing bottom frame is located on top of the bottom main tank, and a glass splicing component is provided between the splicing top frame and the splicing bottom frame. A detachable wire mesh splicing component is placed on the splicing top frame. This utility model improves the activity space and comfort of reptiles by optimizing the tank structure and through easy splicing design. The reasonable appearance design and modular combination enhance the aesthetics and user experience.

Description

Technical Field

[0001] This utility model relates to the field of reptile tank technology, specifically a detachable reptile tank. Background Technology

[0002] Most reptiles are cold-blooded and have high requirements for temperature, humidity, ventilation, and activity space. For example, lizards and snakes need climbing space, while turtles need a water and land environment that simulates their natural habitat.

[0003] In existing technologies, reptile tanks typically include a transparent tank, ventilation structure, heating and lighting devices, etc., to meet the living needs of reptiles.

[0004] However, traditional reptile tanks have a simple structure and inadequate ventilation and activity space design, which may affect the health of reptiles. Adding necessary structures to a fixed glass tank to meet functional requirements results in a bulky tank that is difficult to transport and easily damaged. Therefore, this application proposes a detachable reptile tank. Utility Model Content

[0005] The purpose of this invention is to provide a detachable reptile tank to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a detachable reptile tank, including a bottom main tank, wherein the bottom main tank is provided with a splicing part;

[0007] The splicing section includes a splicing top frame and a splicing bottom frame arranged from top to bottom. The splicing bottom frame is positioned on top of the bottom main cylinder. A glass splicing component is provided between the splicing top frame and the splicing bottom frame. A detachable iron mesh splicing component is placed on the splicing top frame.

[0008] The bottom main cylinder includes a glass base plate and glass side plates arranged around the glass base plate. The glass side plates are bonded to the glass base plate with glass glue. An aluminum alloy edging is provided at the joint between the glass side plates and the glass base plate. A first plastic corner bracket is provided between two adjacent aluminum alloy edgings.

[0009] The iron mesh splicing component includes an iron mesh, with first aluminum alloy connectors on all four sides of the iron mesh. A first corner bracket connector is provided between the first aluminum alloy connector on the rear side and the first aluminum alloy connector on the left side. A spray pre-reserved opening corner bracket is provided between the first aluminum alloy connector on the front side and the first aluminum alloy connectors on both sides. A plug is provided at the spray pre-reserved opening on the surface of the spray pre-reserved opening corner bracket. A cable outlet box corner bracket is provided between the first aluminum alloy connector on the rear side and the first aluminum alloy connector on the right side. A cable outlet cover is provided at the cable outlet hole on the surface of the cable outlet box corner bracket.

[0010] The glass splicing component includes three glass partitions and a glass door panel located on the front side. The three glass partitions and the glass door panel enclose a square frame. Each of the four corners of the square frame is provided with a vertical second aluminum alloy connector. An aluminum alloy structural column is inserted into the second aluminum alloy connector. The glass door panel is rotatably installed on the front side of the square frame.

[0011] Both ends of the aluminum alloy structural column are provided with internal threads.

[0012] The splicing top frame includes four fourth aluminum alloy connectors connected end to end. The four fourth aluminum alloy connectors form a square structure. Two adjacent fourth aluminum alloy connectors are connected by a third plastic corner bracket. One end of the front fourth aluminum alloy connector is provided with a glass door hinge, and the other end of the front fourth aluminum alloy connector is provided with a glass door limiting plate.

[0013] One side of the top of the glass door panel is rotatably connected to the spliced ​​top frame via a glass door hinge.

[0014] The surface of the third plastic corner bracket is provided with a first threaded hole that mates with the internal thread at the top of the aluminum alloy structural column.

[0015] The splicing base frame includes four third aluminum alloy connectors connected end to end. The four third aluminum alloy connectors form a square structure. Two adjacent third aluminum alloy connectors are connected by second plastic corner brackets. One end of the front third aluminum alloy connector is provided with a glass door hinge, and the other end of the front third aluminum alloy connector is provided with a glass door lock.

[0016] One side of the bottom of the glass door panel is rotatably connected to the splicing bottom frame via a glass door lower hinge.

[0017] The second plastic corner bracket has a second threaded hole on its surface that matches the internal thread at the bottom of the aluminum alloy structural column.

[0018] The third aluminum alloy connectors on both sides have ventilation holes on their surfaces, and the inner walls of the third aluminum alloy connectors on both sides have ventilation mesh covering the ventilation holes.

[0019] Compared with the prior art, the beneficial effects of this utility model are:

[0020] This invention optimizes the cylinder structure and improves the activity space and comfort of reptiles through an easy-to-assemble design. The reasonable appearance design and modular combination enhance the aesthetics and user experience. Attached Figure Description

[0021] Figure 1 This is a schematic diagram of the overall isometric structure of this utility model;

[0022] Figure 2 This is a schematic diagram of the isometric structure of the bottom main cylinder of this utility model;

[0023] Figure 3 This is a schematic diagram of the exploded structure of the bottom main cylinder of this utility model;

[0024] Figure 4 This is an isometric structural diagram of the splicing part of this utility model;

[0025] Figure 5 This is an isometric structural diagram of the wire mesh splicing component of this utility model;

[0026] Figure 6 This is an exploded structural diagram of the iron mesh splicing component of this utility model;

[0027] Figure 7 This is a schematic diagram of the combined structure of the glass splicing component, splicing bottom frame, and splicing top frame of this utility model;

[0028] Figure 8 This is a schematic diagram of the isometric structure of the spliced ​​top frame of this utility model;

[0029] Figure 9 This is a schematic diagram of the exploded structure of the spliced ​​top frame of this utility model;

[0030] Figure 10 This is an isometric structural diagram of the glass splicing component of this utility model;

[0031] Figure 11 This is a schematic diagram of the exploded structure of the glass splicing component of this utility model;

[0032] Figure 12 This is a schematic diagram of the isometric structure of the splicing bottom frame of this utility model;

[0033] Figure 13 This is a schematic diagram of the exploded structure of the spliced ​​bottom frame of this utility model.

[0034] In the diagram: 1. Bottom main cylinder; 11. Glass bottom plate; 12. Glass side plate; 13. Aluminum alloy edging; 14. First plastic corner bracket; 2. Splicing section; 21. Iron mesh splicing component; 211. Iron mesh; 212. First aluminum alloy connector; 213. First corner bracket connector; 214. Sprayer pre-reserved corner bracket; 215. Plug; 216. Outlet box corner bracket; 217. Outlet cover plate; 22. Glass splicing component; 221. Glass partition 222. Glass door panel; 223. Second aluminum alloy connector; 224. Aluminum alloy structural column; 23. Spliced ​​bottom frame; 231. Third aluminum alloy connector; 232. Ventilation grid; 233. Second plastic corner bracket; 234. Glass door lock; 235. Glass door bottom hinge; 24. Spliced ​​top frame; 241. Fourth aluminum alloy connector; 242. Third plastic corner bracket; 243. Glass door top hinge; 244. Glass door limit plate. Detailed Implementation

[0035] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments.

[0036] Please see Figure 1-13 This utility model provides a technical solution: a detachable reptile tank, including a bottom main tank 1, with a splicing part 2 on the bottom main tank 1; the splicing part 2 includes a splicing top frame 24 and a splicing bottom frame 23 arranged from top to bottom, the splicing bottom frame 23 being positioned at the top of the bottom main tank 1, a glass splicing component 22 being provided between the splicing top frame 24 and the splicing bottom frame 23, and a detachable iron mesh splicing component 21 being placed on the splicing top frame 24. The glass splicing component 22 is assembled between the splicing bottom frame 23 and the splicing top frame 24, and then the iron mesh splicing component 21 is placed on the splicing top frame 24, thereby forming the splicing part 2. The splicing part 2 is then placed on top of the bottom main tank 1, thereby assembling the detachable reptile tank. By optimizing the tank structure and through easy splicing design, the activity space and comfort of reptiles are improved. The reasonable appearance design and modular combination enhance the aesthetics and user experience.

[0037] like Figure 2-3 As shown, the bottom main cylinder 1 includes a glass base plate 11 and glass side plates 12 arranged around the glass base plate 11. The glass side plates 12 are bonded to the glass base plate 11 with glass glue. An aluminum alloy edging 13 is provided at the joint between the glass side plates 12 and the glass base plate 11. A first plastic corner bracket 14 is provided between two adjacent aluminum alloy edging 13. The bottom main cylinder 1 with the top opening is formed by combining the glass base plate 11 and the four glass side plates 12. The connection between the glass base plate 11 and the glass side plates 12 is wrapped by the aluminum alloy edging 13, which provides aesthetics.

[0038] Both ends of the aluminum alloy edging 13 are provided with insertion holes. The first plastic corner bracket 14 has locking blocks on both sides that cooperate with the insertion holes. Two adjacent aluminum alloy edgings 13 are assembled together by the first plastic corner bracket 14. Specifically, when two adjacent aluminum alloy edgings 13 are spliced ​​together, the locking blocks on both sides of the first plastic corner bracket 14 are respectively inserted into the insertion holes at the ends of the two adjacent aluminum alloy edgings 13, thereby locking the two adjacent aluminum alloy edgings 13 together.

[0039] like Figure 4-6As shown, the iron mesh splicing component 21 includes an iron mesh 211. The iron mesh 211 is provided with first aluminum alloy connectors 212 on all four sides. A first corner bracket connector 213 is provided between the first aluminum alloy connector 212 on the rear side and the first aluminum alloy connector 212 on the left side. A spray pre-reserved opening corner bracket 214 is provided between the first aluminum alloy connector 212 on the front side and the first aluminum alloy connectors 212 on both sides. A plug 215 is provided at the spray pre-reserved opening on the surface of the spray pre-reserved opening corner bracket 214. A wire outlet box corner bracket 216 is provided between the first aluminum alloy connector 212 on the rear side and the first aluminum alloy connector 212 on the right side. A wire outlet cover plate 217 is provided at the wire outlet hole on the surface of the wire outlet box corner bracket 216.

[0040] Specifically, the first aluminum alloy connector 212 has a strip-shaped groove on its side that mates with the edge of the wire mesh 211. The first aluminum alloy connector 212 is installed around the wire mesh 211 through the strip-shaped groove. To facilitate water spraying into the reptile tank, spray nozzle corner brackets 214 are installed at both ends of the first aluminum alloy connector 212 on the front side. At the same time, a plug 215 is snapped into the spray nozzle of the spray nozzle corner bracket 214. When spraying is needed, the plug 215 is removed, and water can be sprayed through the spray nozzle. The spray nozzle on the corner bracket 214 sprays water into the reptile tank. To facilitate the routing of the circuit inside the reptile tank, a wire outlet box corner bracket 216 is provided between the first aluminum alloy connector 212 on the rear side and the first aluminum alloy connector 212 on the right side. A wire outlet cover plate 217 is provided at the wire outlet hole on the surface of the wire outlet box corner bracket 216. When it is necessary to route the wire, the wire outlet cover plate 217 is removed, and the circuit inside the reptile tank can be routed out from the wire outlet hole on the surface of the wire outlet box corner bracket 216.

[0041] The first aluminum alloy connector 212 has insertion holes at both ends. The first corner bracket connector 213, the spray pre-reserved corner bracket 214, and the cable outlet box corner bracket 216 all have locking blocks on both sides that cooperate with the insertion holes. By cooperating with the insertion holes, the four first aluminum alloy connectors 212 can be easily combined together.

[0042] The size of the wire mesh splicing component 21 is adapted to the inner size of the splicing top frame 24, so that the wire mesh splicing component 21 can be placed inside the splicing top frame 24 and the surface of the wire mesh splicing component 21 is flush with the surface of the splicing top frame 24.

[0043] like Figure 10-11As shown, the glass splicing component 22 includes three glass partitions 221 and a glass door panel 222 located on the front side. The three glass partitions 221 and the glass door panel 222 enclose a square frame. Vertical second aluminum alloy connectors 223 are provided at the four corners of the square frame. An aluminum alloy structural column 224 is inserted into the second aluminum alloy connector 223. The glass door panel 222 is rotatably installed on the front side of the square frame. Both ends of the aluminum alloy structural column 224 are provided with internal threads.

[0044] Specifically, the second aluminum alloy connector 223 is vertically arranged, and a vertical strip groove is opened on the side of the second aluminum alloy connector 223 to cooperate with the glass partition 221. The second aluminum alloy connector 223 can be installed on the side of the glass partition 221 through the vertical strip groove, thereby combining the three glass partitions 221 together. In order to facilitate the opening of the reptile tank, a glass door panel 222 is rotatably installed in front of the glass splicing piece 22. In order to increase the connection strength between the glass splicing piece 22 and the splicing top frame 24 and the splicing bottom frame 23, a through hole is opened in the center of the second aluminum alloy connector 223, and an aluminum alloy structural column 224 is inserted into the through hole. When the glass splicing piece 22 is installed between the splicing top frame 24 and the splicing bottom frame 23, the top of the aluminum alloy structural column 224 is connected to the splicing top frame 24, and the bottom of the aluminum alloy structural column 224 is connected to the splicing bottom frame 23, thereby improving the connection strength between the glass splicing piece 22 and the splicing top frame 24 and the splicing bottom frame 23.

[0045] like Figure 7-9 As shown, the splicing top frame 24 includes four fourth aluminum alloy connectors 241 connected end to end, forming a square structure. Adjacent fourth aluminum alloy connectors 241 are connected by third plastic corner brackets 242. One end of the front fourth aluminum alloy connector 241 is provided with a glass door upper hinge 243, and the other end of the front fourth aluminum alloy connector 241 is provided with a glass door limiting plate 244. One side of the top of the glass door panel 222 is rotatably connected to the splicing top frame 24 through the glass door upper hinge 243. The surface of the third plastic corner bracket 242 is provided with a first threaded hole that matches the internal thread at the top of the aluminum alloy structural column 224. After assembling the glass splicing piece 22 and the splicing top frame 24 together, the bolt threads are installed in the first threaded hole and the internal thread at the top of the aluminum alloy structural column 224 to strengthen the connection strength between the glass splicing piece 22 and the splicing top frame 24.

[0046] Specifically, the fourth aluminum alloy connector 241 has insertion holes at both ends, and the third plastic corner bracket 242 has locking blocks on both sides that cooperate with the insertion holes. By cooperating with the insertion holes, the third plastic corner bracket 242 is assembled between two adjacent fourth aluminum alloy connectors 241, thereby splicing the two adjacent fourth aluminum alloy connectors 241 together. In order to rotate and install the glass door panel 222 on the front of the glass splice 22, a glass door upper hinge 243 is snapped onto one end of the front fourth aluminum alloy connector 241. The glass door upper hinge 243 has a locking block on one side that cooperates with the insertion hole, and a slot on the other side that cooperates with the locking block on the third plastic corner bracket 242. During assembly, the glass door upper hinge 243 is first installed on the left end of the front fourth aluminum alloy connector 241, and then the third plastic corner bracket 242 is assembled with the glass door upper hinge 243.

[0047] Among them, a U-shaped clip is rotatably installed at the bottom of the glass door hinge 243. The inner width of the U-shaped clip is adapted to the thickness of the glass door panel 222, so that the glass door panel 222 is installed on the glass door hinge 243 and the glass door panel 222 can rotate.

[0048] To ensure the glass door panel 222 remains closed when closed, a glass door limiting plate 244 is installed on the right end of the fourth aluminum alloy connector 241 on the front side. One end of the glass door limiting plate 244 has a locking block that engages with a socket, and the other side has a slot that engages with the locking block on the third plastic angle bracket 242. During assembly, the glass door limiting plate 244 is first installed on the right end of the fourth aluminum alloy connector 241 on the front side, and then the third plastic angle bracket 242 is attached to the glass door limiting plate 244. Assembled together, specifically, a limiting block is rotatably installed on the front of the glass door limiting plate 244. When it is necessary to open the glass door panel 222, the limiting block rotates to a horizontal position, and the limiting block does not contact the glass door panel 222. Then the glass door panel 222 can rotate normally, thereby opening the glass door panel 222. When it is necessary to close the glass door panel 222, the glass door panel 222 is closed first, and then the limiting block is rotated to a vertical position, so that the limiting block contacts the top side of the surface of the glass door panel 222, preventing the glass door panel 222 from opening outward.

[0049] The fourth aluminum alloy connector 241 has a strip-shaped groove on its lower surface that matches the top edge of the glass side panel 221, which can snap the fourth aluminum alloy connector 241 onto the top of the glass side panel 221, thereby installing the splicing top frame 24 on the top of the glass splicing component 22.

[0050] like Figure 12-13As shown, the splicing base frame 23 includes four third aluminum alloy connectors 231 connected end to end, forming a square structure. Adjacent third aluminum alloy connectors 231 are connected by second plastic corner brackets 233. One end of the front third aluminum alloy connector 231 is provided with a glass door hinge 235, and the other end of the front third aluminum alloy connector 231 is provided with a glass door lock 234. One side of the bottom of the glass door panel 222 is rotatably connected to the splicing base frame 23 via the glass door hinge 235. The surface of the second plastic corner bracket 233 is provided with a second threaded hole that matches the internal thread at the bottom of the aluminum alloy structural column 224. After assembling the glass splicing piece 22 and the splicing base frame 23 together, the bolt threads are installed in the second threaded hole and the internal thread at the bottom of the aluminum alloy structural column 224 to strengthen the connection between the glass splicing piece 22 and the splicing base frame 23.

[0051] Specifically, the third aluminum alloy connector 231 has insertion holes at both ends, and the second plastic corner bracket 233 has locking blocks on both sides that cooperate with the insertion holes. By cooperating with the insertion holes, the second plastic corner bracket 233 is assembled between two adjacent third aluminum alloy connectors 231, thereby splicing the two adjacent third aluminum alloy connectors 231 together. In order to rotate and install the glass door panel 222 on the front of the glass splice 22, a glass door lower hinge 235 is snapped onto one end of the front third aluminum alloy connector 231. The glass door lower hinge 235 has a locking block on one side that cooperates with the insertion hole, and a slot on the other side that cooperates with the locking block on the third aluminum alloy connector 231. During assembly, the glass door lower hinge 235 is first installed on the left end of the front third aluminum alloy connector 231, and then the second plastic corner bracket 233 is assembled with the glass door lower hinge 235.

[0052] Among them, a U-shaped clip is rotatably installed on the top of the glass door lower hinge 235. The inner width of the U-shaped clip is adapted to the thickness of the glass door panel 222, so that the glass door panel 222 is installed on the glass door lower hinge 235 and the glass door panel 222 can rotate.

[0053] To ensure the glass door panel 222 remains closed, a glass door lock 234 is installed on the right end of the third aluminum alloy connector 231 on the front side. One end of the glass door lock 234 has a locking block that engages with a socket, and the other side has a slot that engages with the locking block on the second plastic angle bracket 233. During assembly, the glass door lock 234 is first installed on the right end of the third aluminum alloy connector 231 on the front side, and then the second plastic angle bracket 233 is assembled with the glass door lock 234. The glass door lock 234 has a limiting strip slidably installed on its front. When the glass door panel 222 needs to be opened, the limiting strip is in a downward retracted state and does not contact the glass door panel 222. Then the glass door panel 222 can rotate normally, thereby opening the glass door panel 222. When the glass door panel 222 needs to be closed, the glass door panel 222 is closed first, and then the limiting strip is slid to an upward unfolded state, so that the limiting strip contacts the bottom side of the surface of the glass door panel 222, preventing the glass door panel 222 from opening outward.

[0054] The third aluminum alloy connector 231 has a strip-shaped groove on its upper surface that matches the bottom edge of the glass side panel 221, which can snap the third aluminum alloy connector 231 onto the bottom of the glass side panel 221, thereby installing the splicing bottom frame 23 at the bottom of the glass splicing component 22.

[0055] Among them, the surface of the third aluminum alloy connector 231 on both sides is provided with ventilation holes, and the inner wall of the third aluminum alloy connector 231 on both sides is provided with a ventilation grid 232 covering the ventilation holes to ensure that the air inside the reptile tank can circulate with the outside.

[0056] Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

Claims

1. A detachable reptile tank, comprising a bottom main tank (1), characterized in that: The bottom main cylinder (1) is provided with a splicing part (2); The splicing part (2) includes a splicing top frame (24) and a splicing bottom frame (23) arranged from top to bottom. The splicing bottom frame (23) is positioned on top of the bottom main cylinder (1). A glass splicing component (22) is provided between the splicing top frame (24) and the splicing bottom frame (23). A detachable iron mesh splicing component (21) is placed on the splicing top frame (24).

2. The detachable reptile tank according to claim 1, characterized in that: The bottom main cylinder (1) includes a glass base plate (11) and glass side plates (12) arranged around the glass base plate (11). The glass side plates (12) are bonded to the glass base plate (11) with glass glue. An aluminum alloy edging (13) is provided at the joint between the glass side plates (12) and the glass base plate (11). A first plastic corner bracket (14) is provided between two adjacent aluminum alloy edgings (13).

3. The detachable reptile tank according to claim 1, characterized in that: The iron mesh splicing component (21) includes an iron mesh (211). The iron mesh (211) is provided with first aluminum alloy connectors (212) around its perimeter. A first corner bracket connector (213) is provided between the first aluminum alloy connector (212) on the rear side and the first aluminum alloy connector (212) on the left side. A spray pre-reserved opening corner bracket (214) is provided between the first aluminum alloy connector (212) on the front side and the first aluminum alloy connectors (212) on both sides. A plug (215) is provided at the spray pre-reserved opening on the surface of the spray pre-reserved opening corner bracket (214). A wire outlet box corner bracket (216) is provided between the first aluminum alloy connector (212) on the rear side and the first aluminum alloy connector (212) on the right side. A wire outlet cover plate (217) is provided at the wire outlet hole on the surface of the wire outlet box corner bracket (216).

4. A detachable reptile tank according to claim 1, characterized in that: The glass splicing component (22) includes three glass partitions (221) and a glass door panel (222) located on the front side. The three glass partitions (221) and the glass door panel (222) enclose a square frame. Vertical second aluminum alloy connectors (223) are provided at the four corners of the square frame. An aluminum alloy structural column (224) is inserted inside the second aluminum alloy connector (223). The glass door panel (222) is rotatably installed on the front side of the square frame. Both ends of the aluminum alloy structural column (224) are provided with internal threads.

5. A detachable reptile tank according to claim 4, characterized in that: The splicing top frame (24) includes four fourth aluminum alloy connectors (241) connected end to end. The four fourth aluminum alloy connectors (241) form a square structure. Two adjacent fourth aluminum alloy connectors (241) are connected by a third plastic corner bracket (242). One end of the front fourth aluminum alloy connector (241) is provided with a glass door hinge (243), and the other end of the front fourth aluminum alloy connector (241) is provided with a glass door limiting plate (244). One side of the top of the glass door panel (222) is rotatably connected to the splicing top frame (24) via a glass door hinge (243); The surface of the third plastic corner bracket (242) is provided with a first threaded hole that mates with the internal thread at the top of the aluminum alloy structural column (224).

6. A detachable reptile tank according to claim 5, characterized in that: The splicing base frame (23) includes four third aluminum alloy connectors (231) connected end to end. The four third aluminum alloy connectors (231) form a square structure. Two adjacent third aluminum alloy connectors (231) are connected by second plastic corner brackets (233). One end of the front third aluminum alloy connector (231) is provided with a glass door hinge (235), and the other end of the front third aluminum alloy connector (231) is provided with a glass door lock (234). One side of the bottom of the glass door panel (222) is rotatably connected to the splicing bottom frame (23) via the glass door lower hinge (235); The second plastic corner bracket (233) has a second threaded hole on its surface that matches the internal thread at the bottom of the aluminum alloy structural column (224).

7. A detachable reptile tank according to claim 6, characterized in that: Ventilation holes are provided on the surface of the third aluminum alloy connectors (231) on both sides, and ventilation mesh (232) covering the ventilation holes is provided on the inner wall of the third aluminum alloy connectors (231) on both sides.

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