Water quality detection box body device

Abstract

The utility model provides a water quality detection box body device, which relates to the technical field of water quality detection, and comprises a support frame, a storage box, a water inlet pipe, a water outlet pipe and a water outlet pipe, the supporting frame is arranged in a T shape and comprises a main vertical rod, and a bearing rod is installed on the upper portion of the main vertical rod in an inserted mode and welded to the main vertical rod. The bearing rod is hollow, the storage box is welded to the upper portion of the bearing rod, and a third wire hole communicated with the storage box is formed in the bearing rod. According to the technical scheme, an integrated structure and pipeline integrated design is adopted, and the Qinhan-hainan-imitated shape is presented; the main vertical rod and the bearing rod are welded in an inserted mode, the storage box is fixed to the top to form a stable whole, loads are conducted and dispersed through the structure, and shaking of the split structure is avoided. The bearing rod is hollow and provided with a through wire hole, hidden wiring of pipelines is achieved, and the protection performance is improved; the integrated design facilitates maintenance, and the beast-shaped line decoration is combined, so that deep integration of culture and functions is achieved.

Description

Technical Field

[0001] This utility model relates to the field of water quality testing technology, and in particular to a water quality testing chamber device. Background Technology

[0002] As the core placement structure of the onshore unit of the water quality testing system, the design of the water quality testing box must take into account functionality, safety and environmental adaptability.

[0003] The storage box is mainly used to integrate onshore equipment such as water quality monitoring sensors, data acquisition modules, and power supply systems. It must be moisture-proof, sun-proof, shockproof, and anti-theft to ensure that the precision instruments inside can operate stably in the outdoor environment.

[0004] Existing water quality testing products generally adopt a separate product design for the pole and the storage tank, which often results in inconsistent overall appearance and style. In addition, the pole may sway significantly in extreme environments such as strong winds due to the addition of the storage tank, leading to risks such as poor overall structural safety. Utility Model Content

[0005] The purpose of this invention is to address the shortcomings of existing technologies that employ separate pole and storage box designs, which result in poor stability.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: a water quality testing box device, including a support frame and a storage box, wherein the storage box is fixedly installed on the upper part of the support frame; the support frame is T-shaped and includes a main upright, wherein a bearing rod is inserted and installed on the upper part of the main upright, and the bearing rod is welded to the main upright; the bearing rod is hollow inside, the storage box is welded and installed on the upper part of the bearing rod, and the bearing rod has a third wire hole that communicates with the storage box.

[0007] In at least some embodiments, the main upright is hollow, and a first wire hole is provided on the upper part of the main upright. The bearing rod is inserted into and welded to the first wire hole position of the main upright. A support block is also welded to the storage box position of the bearing rod, and the upper part of the support block is welded to the storage box.

[0008] In at least some embodiments, the support rod is further provided with a second wire hole, and after the support rod is welded to the main upright, the second wire hole communicates with the inner cavity of the main upright.

[0009] In at least some embodiments, a support plate is fixedly connected between the main upright and the load-bearing rod. The support plate is stepped and located at the lower part of the load-bearing rod. The support plate, together with the main upright and the load-bearing rod, forms a triangular support structure.

[0010] In at least some embodiments, the upper part of the main pole is integrally formed with a mounting base, which is used to expand the installation equipment and realize the lightning protection and power generation function. A fourth wire hole is opened on one side of the mounting base, and the fourth wire hole communicates with the inner cavity of the main pole.

[0011] In at least some embodiments, a support base is provided at the lower part of the main upright, and the main upright is inserted into and welded to the upper part of the support base. The support base has a fifth wire hole that communicates with the inner cavity of the main upright. Bolts are inserted into the four corners of the support base for installation and fixation. In use, the underground mains power line passes through the fifth wire hole, the inner cavity of the main upright, and the inner cavity of the bearing rod in sequence to connect with the storage tank, thereby powering the integrated water quality monitoring sensor and data acquisition module integrated inside the storage tank.

[0012] Compared with the prior art, the advantages and positive effects of this utility model are as follows:

[0013] In this utility model, structurally, the integrated design and rigid connection significantly improve wind and earthquake resistance and reduce the risk of equipment damage; the concealed pipeline layout enhances protection performance, reduces failures caused by cable problems, and lowers maintenance costs; and the access door design improves operation and maintenance efficiency.

[0014] In terms of appearance, the design imitates the shape of Qin and Han dynasty halberds and features animal-shaped patterns, echoing regional culture and endowing the product with cultural connotations. This makes the equipment both functional and artistic, meeting the market's demand for diversified and high-quality products and enhancing product competitiveness. Attached Figure Description

[0015] Figure 1 This utility model provides a three-dimensional structural schematic diagram of a water quality testing box device.

[0016] Figure 2 This utility model provides an exploded three-dimensional schematic diagram of the support frame in a water quality testing box device;

[0017] Figure 3 This utility model provides a three-dimensional structural diagram of the support base in a water quality testing box device;

[0018] Figure 4 This utility model provides a three-dimensional structural diagram of the cross-section of the main support rod in a water quality testing box device.

[0019] Legend: 1. Support frame; 2. Storage box; 3. Support base; 4. Bolt; 5. Support block; 6. Fifth wire hole;

[0020] 101. Main upright; 102. First wire hole; 103. Bearing rod; 104. Second wire hole; 105. Third wire hole; 106. Support plate; 107. Mounting base; 108. Fourth wire hole. Detailed Implementation

[0021] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described below with reference to the accompanying drawings and embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0022] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the present invention is not limited to the specific embodiments disclosed in the following specification.

[0023] Example, according to Figures 1-4 As shown, the water quality testing box device provided by this utility model embodiment systematically solves the problems of style disconnect and structural safety of existing separate uprights and boxes by integrating the integrated structure design of Qin and Han halberds and hollow pipeline integration design.

[0024] Specifically, it includes a support frame 1 and a storage box 2, which is fixedly installed on the upper part of the support frame 1. The support frame 1 is T-shaped and includes a main upright 101. A bearing rod 103 is inserted and installed on the upper part of the main upright 101 and welded to the main upright 101. The bearing rod 103 is hollow inside. The storage box 2 is welded and installed on the upper part of the bearing rod 103, and the bearing rod 103 has a third wire hole 105 that communicates with the storage box 2.

[0025] The support frame 1 adopts an integrated design in which the T-shaped main upright 101 and the bearing rod 103 are plugged and welded together. The main upright 101 and the bearing rod 103 form a "handle-blade" structure similar to a halberd. The storage box 2 is directly welded to the top of the bearing rod 103, forming a biomimetic support system of "a guard holding a halberd standing on the shore".

[0026] Unlike existing separate designs, the storage tank 2 and the main support pole 101 are welded together by the support pole 103 to form a single load-bearing unit, eliminating the connection gaps of traditional separate structures. When encountering extreme environments such as strong winds, the wind load is evenly transmitted to the support pole 103 through the surface of the storage tank 2, and then synchronously transmitted to the main support pole 101 through the welded joints. The rigid connection of the overall structure reduces the sway amplitude compared to the traditional separate structure, significantly reducing the risk of equipment damage caused by structural sway.

[0027] The support rod 103 has a hollow through-hole design and a third wire hole 105 that runs through the bottom of the storage tank 2. The signal wires, power wires and other pipelines of the water quality monitoring sensor can be directly inserted from the bottom of the main support rod 101 and extended through the internal space of the support rod 103 to the measurement and control module in the storage tank 2.

[0028] This internal concealed wiring mode avoids the problem of exposed pipelines caused by the separation of the uprights and the box in the traditional split structure. It not only prevents the cables from aging and being damaged by wind and sun, but also reduces the number of external interfaces by reusing the structural space, and improves waterproof and dustproof performance.

[0029] Maintenance personnel can directly access the internal equipment through the inspection door on the side of the storage box 2 without disassembling the uprights, thus improving maintenance efficiency.

[0030] The storage box 2, designed in the style of a Qin and Han dynasty halberd, is placed at the "halberd head" position—the intersection of the main upright 101 and the support rod 103. Through the visual guidance of the symmetrical halberd-blade-shaped support rod 103, the storage box 2 becomes the visual center, echoing the cultural connotation of "protecting water conservancy" in Dujiangyan, like the guards protecting it. This design transforms the equipment from a single functional tool into a "cultural carrier," realizing the visual transmission of regional culture in water quality monitoring scenarios and solving the problem of "monotonous style and lack of culture" in existing products.

[0031] During installation, the bottom of the main pole 101 is first fixed to the concrete foundation on the bank of the monitoring point using pre-embedded bolts 4. Then, the bearing pole 103 is inserted into and welded to the main pole 101 to form a rigid support structure. The storage box 2 is then hoisted to the top of the bearing pole 103 and welded.

[0032] During the commissioning phase, technicians accessed the sensor pipeline through the maintenance door of storage box 2, introduced it into the bearing rod 103 through the third line hole 105, and finally exited from the bottom of the main upright 101 to connect to the underwater monitoring unit. During operation, the integrated structure resists extreme weather, the internal pipeline system ensures stable data transmission, and the appearance design visually echoes cultural scenes such as Dujiangyan, achieving a triple innovation of "functional safety, symbolic image, and cultural scene".

[0033] In this embodiment, the main upright 101 is hollow, and a first wire hole 102 is provided on the upper part of the main upright 101. The support rod 103 is inserted into and welded to the position of the first wire hole 102 on the main upright 101. A support block 5 is also welded to the storage box 2 position of the support rod 103, and the upper part of the support block 5 is welded to the storage box 2. The support rod 103 also has a second wire hole 104. After the support rod 103 is welded to the main upright 101, the second wire hole 104 communicates with the inner cavity of the main upright 101. The main upright 101 and the support rod 103 are connected. A support plate 106 is fixedly connected between them. The support plate 106 is stepped and located at the lower part of the support rod 103. The support plate 106, together with the main upright 101 and the support rod 103, forms a triangular support frame 1. The upper part of the main upright 101 is integrally formed with a mounting base 107. The mounting base 107 is used to expand the installation of equipment, such as solar panels and lightning rods, to realize the lightning protection and power generation function. A fourth wire hole 108 is opened on one side of the mounting base 107, and the fourth wire hole 108 communicates with the inner cavity of the main upright 101.

[0034] The main support pole 101 adopts a hollow design, forming a through cavity inside. The first wire hole 102 opened at the top serves as the insertion and positioning reference for the support pole 103. After the support pole 103 is inserted into the first wire hole 102, it is fixed by welding, so that the two form a rigid connection, effectively avoiding the connection loosening problem of traditional split structures. After the support pole 103 is welded to the main support pole 101, the second wire hole 104 opened on it is connected to the inner cavity of the main support pole 101, forming a continuous pipeline channel. This allows for the concealed wiring of water quality monitoring sensors, power cables, etc., to pass through the bottom of the main support pole 101, extend through the support pole 103 to the measurement and control module in the storage box 2. This design not only avoids the cables from aging and damage due to exposure to the external environment, but also achieves centralized management of pipelines through the integrated internal space, significantly improving waterproof and dustproof performance.

[0035] The support block 5 welded to the bottom of the storage tank 2 by the support rod 103 further enhances the connection strength between the storage tank 2 and the support rod 103, so that the loads such as gravity and wind force on the storage tank 2 can be evenly distributed to the support rod 103 and the main upright 101 through the support block 5. At the same time, the stepped support plate 106 fixedly connected between the main upright 101 and the support rod 103 forms a triangular support frame 1 with the two. Utilizing the stability principle of triangles, the external load is decomposed into pressure along each side through the triangular structure, effectively dispersing stress concentration and greatly improving the overall structure's anti-overturning ability and seismic performance in extreme environments such as strong winds and earthquakes, ensuring the stable operation of the equipment.

[0036] The integrated mounting base 107 on the upper part of the main pole 101 provides a standardized installation interface for extended equipment such as solar panels and lightning rods, realizing the integration of lightning protection and photovoltaic power generation functions. The fourth wire hole 108 on one side of the mounting base 107 is connected to the inner cavity of the main pole 101, allowing the cables of the extended equipment to be connected to the power supply system and data processing module in the storage box 2 through the internal channel of the main pole 101, avoiding additional external wiring. For example, the electrical energy generated by the solar panel is transmitted to the battery in the storage box 2 for storage through the fourth wire hole 108 and the internal channel of the main pole 101. The lightning rod is grounded through the main pole 101 to safely conduct the lightning current to the ground. While ensuring the safe operation of the equipment, it realizes the modular expansion of functions and energy self-sufficiency, and improves the intelligence and sustainability of the water quality detection system.

[0037] In this embodiment, a support base 3 is provided at the lower part of the main support rod 101. The main support rod 101 is inserted and welded to the upper part of the support base 3. The support base 3 has a fifth wire hole 6 that communicates with the inner cavity of the main support rod 101. Bolts 4 are inserted and installed at the four corners of the support base 3 for installation and fixation. In use, the underground mains power line passes through the fifth wire hole 6, the inner cavity of the main support rod 101, and the inner cavity of the bearing rod 103 in sequence to connect with the storage tank 2, thereby powering the integrated water quality monitoring sensor and data acquisition module integrated inside the storage tank 2.

[0038] The support base 3 at the bottom of the main pole 101 serves as a basic connecting component. It is fixed to the ground or mounting base by four corner bolts 4 to form a stable bottom support structure, which can effectively distribute the overall weight of the equipment and external loads. The main pole 101 is inserted and welded to the upper part of the support base 3. The two are connected through the fifth wire hole 6 to form a continuous cable transmission channel.

[0039] During the power supply process, the underground mains power line enters from the fifth wire hole 6 of the support base 3, extends upward along the hollow inner cavity of the main upright 101, passes through the through structure at the welded joint of the main upright 101 and the bearing rod 103, continues to extend into the inner cavity of the bearing rod 103, and finally connects to the power supply interface in the storage box 2 to provide stable power to the internally integrated water quality monitoring sensors, data acquisition modules and other equipment.

[0040] This concealed, integrated cabling design not only avoids the risks of aging and damage caused by exposed external cables, but also effectively improves waterproof and dustproof performance through the enclosed space, reducing the probability of equipment failure due to wiring problems. At the same time, the rigid connection between the support base 3 and the main pole 101, combined with the stable base fixed by bolts 4, further enhances the equipment's wind and shock resistance in outdoor environments, ensuring a stable power supply even in extreme weather conditions, and guaranteeing the continuity and reliability of water quality monitoring work.

[0041] The working principle of this utility model is to solve existing problems through integrated structure and pipeline design.

[0042] Presented in the shape of a Qin and Han dynasty halberd, the support frame 1 is T-shaped, the main upright 101 and the bearing rod 103 are plugged and welded together, and the storage box 2 is fixed to the top of the bearing rod 103 to form a stable whole;

[0043] Wind loads are transmitted from the storage box 2 to the main support 101 via the support rod 103, and then dispersed by the bottom fixing structure to avoid swaying of the split structure due to the connection gap;

[0044] The support rod 103 is hollow inside, with a third wire hole 105 that communicates with the storage box 2. The pipeline enters from the bottom of the main upright 101, extends through the support rod 103 to the measurement and control module inside the storage box 2, and the hidden wiring prevents the cable from aging and breaking, and improves the waterproof and dustproof performance.

[0045] Meanwhile, the integrated design makes maintenance more convenient, and the combination of the Qin and Han dynasty halberd shape with animal-shaped decorations achieves a fusion of culture and function.

[0046] The above are merely preferred embodiments of this utility model and are not intended to limit the utility model in any other way. Any person skilled in the art may make changes or modifications to the above-disclosed technical content to create equivalent embodiments for application in other fields. However, any simple modifications, equivalent changes, and modifications made to the above embodiments based on the technical essence of this utility model without departing from the technical solution of this utility model shall still fall within the protection scope of this utility model.

Claims

1. A water quality testing chamber device, comprising a support frame (1), characterized in that, Also includes: Storage box (2), which is fixedly installed on the upper part of the support frame (1); The support frame (1) is T-shaped and includes a main upright (101). A bearing rod (103) is inserted and installed on the upper part of the main upright (101). The bearing rod (103) is welded to the main upright (101). The support rod (103) is hollow inside, the storage box (2) is welded and installed on the upper part of the support rod (103), and the support rod (103) has a third wire hole (105) that communicates with the storage box (2).

2. The water quality testing chamber device according to claim 1, characterized in that: The main support pole (101) is hollow, and a first wire hole (102) is opened on the upper part of the main support pole (101). The bearing pole (103) is inserted into and welded to the position of the first wire hole (102) of the main support pole (101). A support block (5) is also welded to the storage box (2) position of the bearing pole (103). The upper part of the support block (5) is welded to the storage box (2).

3. The water quality testing chamber device according to claim 2, characterized in that: The support rod (103) is also provided with a second wire hole (104). After the support rod (103) is welded to the main upright (101), the second wire hole (104) communicates with the inner cavity of the main upright (101).

4. The water quality testing chamber device according to claim 1, characterized in that: A support plate (106) is fixedly connected between the main upright (101) and the bearing rod (103). The support plate (106) is stepped and located at the lower part of the bearing rod (103). The support plate (106) and the main upright (101) and the bearing rod (103) are formed into a triangular support frame (1).

5. The water quality testing chamber device according to claim 1, characterized in that: The main pole (101) has an integrally formed mounting base (107) on its upper part. The mounting base (107) is used to expand the installation equipment and realize the lightning protection and power generation function. A fourth wire hole (108) is opened on one side of the mounting base (107), and the fourth wire hole (108) is in communication with the inner cavity of the main pole (101).

6. The water quality testing chamber device according to claim 1, characterized in that: The main upright (101) is provided with a support base (3) at the lower part. The main upright (101) is inserted into and welded to the upper part of the support base (3). The support base (3) is provided with a fifth wire hole (6) that communicates with the inner cavity of the main upright (101). Bolts (4) are inserted into the four corners of the support base (3) for the installation and fixing of the support base (3). In use, the underground mains power line passes through the fifth wire hole (6), the inner cavity of the main pole (101), and the inner cavity of the bearing pole (103) in sequence to connect with the storage box (2), thereby powering the integrated water quality monitoring sensor and data acquisition module integrated inside the storage box (2).

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