Active chilled beam structure

Abstract

The utility model relates to an active chilled beam structure which comprises an outer shell, a chilled beam coil pipe and a nozzle assembly are arranged in the outer shell, the chilled beam coil pipe is obliquely arranged in the outer shell, a water inlet pipe and a water return pipe are arranged on one side of the chilled beam coil pipe and extend out of one side of the outer shell in the width direction, and the nozzle assembly is arranged in the outer shell. A primary air inlet and a water outlet used for discharging condensate water in the shell are formed in one side of the shell in the width direction. The air return opening is formed in the side, in the length direction, of the shell, and an air supply opening is formed in the bottom of the shell. Primary air entering the shell forms high-speed jet flow through the nozzle assembly, meanwhile, the return air inlet is induced to suck indoor return air, the primary air and the indoor return air are mixed, finally, the air is supplied indoors through the air supply outlet, and temperature and humidity adjustment of indoor air is achieved. And the chilled beam coil pipe is arranged in the shell, the indoor temperature is adjusted through cold water circulation, and the higher energy efficiency ratio and the better indoor environment control capacity are achieved.

Description

Technical Field

[0001] This utility model relates to the field of building ventilation and air conditioning technology, and in particular to an active cooling beam structure. Background Technology

[0002] In the field of building ventilation and air conditioning technology, traditional cold beam technology is mainly used to regulate indoor air temperature and humidity to achieve a comfortable indoor environment. However, these traditional technologies have some limitations and shortcomings. Traditional cold beam technology performs poorly in terms of energy efficiency, often consuming a lot of energy, which is not conducive to energy conservation, emission reduction and sustainable development; existing technologies have limitations in optimizing indoor environmental comfort, and cannot effectively balance temperature, humidity and air quality, resulting in poor indoor environmental quality; many traditional cold beam devices generate a lot of noise during operation, affecting the comfort of the indoor environment; installation and maintenance: the installation and maintenance process of traditional cold beam technology is complicated, which not only increases the difficulty of construction, but also increases the later operating costs. Utility Model Content

[0003] Therefore, the technical problem to be solved by this utility model is to overcome the shortcomings of the prior art and provide an active cooling beam structure. The primary air entering the shell is formed into a high-speed jet through the nozzle assembly, and at the same time, the return air is induced to draw in the indoor return air. The primary air and the indoor return air are mixed and finally delivered to the room through the air outlet to achieve the regulation of indoor air temperature and humidity. In addition, the cooling beam coil is arranged inside the shell and the indoor temperature is regulated by the circulation of cold water. Compared with the traditional central air conditioning system, it has a higher energy efficiency ratio and better indoor environmental control capability.

[0004] To solve the above-mentioned technical problems, this utility model provides an active cooling beam structure, including a shell, a cooling beam coil and a nozzle assembly inside the shell, and the cooling beam coil is inclinedly arranged inside the shell. A water inlet pipe and a water return pipe are provided on one side of the cooling beam coil, and the water inlet pipe and the water return pipe extend out of the shell along its width direction. A primary air inlet and a drain outlet for discharging condensate from the shell are provided on the width direction of the shell. The return air outlet is provided on one side of the shell along its length direction, and an air supply outlet is provided at the bottom of the shell.

[0005] In one embodiment of the present invention, the outer shell includes an upper shell and a lower shell. The bottom of the upper shell is provided with positioning blocks around its perimeter, and the top of the lower shell is provided with positioning grooves around its perimeter. The upper shell and the lower shell are fastened together and connected by fasteners.

[0006] In one embodiment of the present invention, the inner side of the lower shell is provided with an inclined support frame for supporting the cold beam coil and a mounting groove for installing the nozzle assembly.

[0007] In one embodiment of this utility model, a condensate recovery tank is provided at the lowest end of the inclined support frame inside the lower shell, and the water in the condensate recovery tank is discharged as condensate through the drain outlet.

[0008] In one embodiment of the present invention, the condensate recovery tank includes a collection tank one and a collection tank two, the collection tank one and the collection tank two are arranged in a stepped manner, and the collection tank two is connected to the drain outlet.

[0009] In one embodiment of this utility model, the upper shell has upper stepped fastening surfaces on both sides, and the lower shell has lower stepped fastening surfaces on both sides. When the upper shell and the lower shell are fastened together, the upper stepped fastening surfaces and the lower stepped fastening surfaces abut against each other.

[0010] In one embodiment of this utility model, an upper groove is provided on the upper stepped fastening surface, and a lower groove is provided on the lower stepped fastening surface. The upper groove and the lower groove form a through hole for accommodating the water inlet pipe and the water outlet pipe.

[0011] In one embodiment of this utility model, the number of air outlets is at least two, which are arranged side by side on the side of the outer casing along its length.

[0012] In one embodiment of the present invention, the nozzle assembly includes a substrate and a plurality of nozzles, the nozzles being arranged side by side at equal intervals on the substrate.

[0013] In one embodiment of this utility model, the total area of ​​the plurality of nozzles is set in proportion to the area of ​​the return air inlet, such that the fresh air / return air induction ratio is 1:4.

[0014] Compared with the prior art, the above-mentioned technical solution of this utility model has the following beneficial effects:

[0015] The active cooling beam structure described in this utility model, when primary air enters the casing, is formed into a high-speed jet through the nozzle assembly, simultaneously inducing return air for mixing, and then delivered into the room through the air outlet to regulate the indoor air temperature and humidity. Cooling beam coils are arranged inside the casing, utilizing chilled water circulation to regulate indoor temperature. Compared with traditional central air conditioning systems, it has a higher energy efficiency ratio and better indoor environmental control capabilities. Furthermore, the cooling beam coils are installed at a certain angle, which has better drainage performance, reduces condensate backflow, improves heat exchange efficiency to a certain extent, and helps guide air more evenly through the cooling beam coils, reducing dead zones and short-circuit phenomena. Moreover, the superior drainage performance of the inclined coil structure improves the reliability of the active cooling beam structure and extends the system's service life. Attached Figure Description

[0016] To make the content of this utility model easier to understand, the present utility model will be further described in detail below with reference to specific embodiments and accompanying drawings.

[0017] Figure 1 This is a schematic diagram of an active cold beam structure in a preferred embodiment of the present invention;

[0018] Figure 2 for Figure 1 A schematic diagram of the active cold beam structure from another angle;

[0019] Figure 3 for Figure 1 The exploded structural diagram of the active cold beam structure is shown.

[0020] Figure 4 yes Figure 1 A schematic diagram of the upper shell of the active cold beam structure shown;

[0021] Figure 5 yes Figure 1 A schematic diagram of the lower shell of the active cold beam structure shown;

[0022] Explanation of reference numerals in the accompanying drawings: 1. Outer shell; 11. Upper shell; 111. Positioning block; 112. Upper stepped snap-fit ​​surface; 12. Lower shell; 121. Positioning groove; 122. Lower stepped snap-fit ​​surface; 2. Cooling beam coil; 3. Nozzle assembly; 31. Plate; 32. Nozzle; 4. Water inlet pipe; 5. Water return pipe; 6. Primary air inlet; 7. Drain outlet; 8. Return air outlet; 9. Air supply outlet; 10. Inclined support frame; 13. Mounting groove; 14. Condensate recovery tank; 141. Collection tank one; 142. Collection tank two. Detailed Implementation

[0023] The present invention will be further described below with reference to the accompanying drawings and specific embodiments, so that those skilled in the art can better understand and implement the present invention. However, the embodiments are not intended to limit the present invention.

[0024] Reference Figure 1-5 As shown, the present invention discloses an active cooling beam structure, comprising a housing 1, wherein the housing 1 includes a cooling beam coil 2 and a nozzle assembly 3. The cooling beam coil 2 is obliquely disposed inside the housing 1. A water inlet pipe 4 and a water return pipe 5 are provided on one side of the cooling beam coil 2, and the water inlet pipe 4 and the water return pipe 5 extend out of the housing 1 along its width direction. A primary air inlet 6 and a drain outlet 7 for discharging condensate from the housing 1 are provided on one side of the housing 1 along its width direction. A return air outlet 8 is provided on one side of the housing 1 along its length direction, and an air supply outlet 9 is provided at the bottom of the housing 1.

[0025] During operation, external air (fresh air) is introduced through the primary air inlet 6 and enters the interior of the casing 1. The cooling coil circulates chilled water through the water inlet pipe 4 and the return water pipe, using the chilled water to cool the air and regulate its temperature. When the air flows through the nozzle assembly 2, a pressure difference is generated, forming a high-speed jet that provides strong power for the air supply. At the same time, it induces the return air to mix, achieving effective air mixing. The mixed air is then delivered into the room through the air outlet 9, achieving temperature and humidity regulation of the indoor air. This structural design improves the efficiency of airflow and heat exchange, while optimizing the comfort of the indoor environment. Furthermore, the cooling coil 2 is installed at a certain angle, which has better drainage performance, reduces condensate backflow, and can improve heat exchange efficiency to a certain extent. It also helps guide air to pass through the cooling coil more evenly, reducing dead zones and short-circuit phenomena.

[0026] Furthermore, the outer shell 1 includes an upper shell 11 and a lower shell 12. Positioning blocks 111 are provided around the bottom perimeter of the upper shell 11, and positioning grooves 121 are provided around the top perimeter of the lower shell 12. The upper shell 11 and lower shell 12 are fastened together and connected by fasteners. The fastening design of the upper shell 1 and lower shell 2, along with the fastener connection, enhances the stability and sealing of the cold beam structure. The use of positioning blocks 111 and positioning grooves 121 simplifies the installation process, improves installation accuracy and efficiency, and reduces maintenance difficulty. Simultaneously, the modular design of the upper shell 11 and lower shell 12 facilitates installation, disassembly, and maintenance, reducing subsequent operating costs. Furthermore, both the upper shell 11 and lower shell 12 are provided with insulation layers. These insulation layers reduce heat loss, improve insulation efficiency, and simplify installation. Moreover, the integrated design of the insulation layer and the cold beam structure avoids the thermal bridge effect between the insulation layer and the pipes in traditional cold beam systems, further reducing heat loss.

[0027] In this embodiment, the lower shell 12 is provided with an inclined support frame 10 for supporting the cold beam coil 2 and a mounting groove 13 for mounting the nozzle assembly 2 on its inner side. The inclined support frame 10 and mounting groove 13 on the inner side of the lower shell 2 provide stable support for the cold beam coil and the nozzle assembly, ensuring the stability and reliability of the structure. This design helps to improve the durability and service life of the cold beam.

[0028] In addition, a condensate recovery tank 4 is provided inside the lower shell 12 at the lowest end of the inclined support frame 10. The water in the condensate recovery tank 14 is discharged as condensate through the drain outlet 7. The condensate recovery tank 13 is provided at the lowest end of the inclined support frame 10, and the condensate is discharged through the drain outlet 7, which effectively prevents the accumulation and backflow of condensate, reduces potential corrosion and bacterial growth problems, and improves the hygiene and safety of the system.

[0029] Preferably, the condensate recovery tank 14 includes a first collection tank 141 and a second collection tank 142, which are arranged in a stepped manner, and the second collection tank 142 is connected to the drain outlet 7.

[0030] In this embodiment, the upper shell 11 has upper stepped fastening surfaces 112 on both sides, and the lower shell 2 has lower stepped fastening surfaces 122 on both sides. When the upper shell 11 and the lower shell 12 are fastened together, the upper stepped fastening surfaces 112 and the lower stepped fastening surfaces 122 abut against each other. The stepped fastening surface design of the upper shell 11 and the lower shell 12 enhances the sealing performance of the outer shell 1 and the stability of the overall structure, while simplifying the fastening process and reducing the assembly difficulty.

[0031] Furthermore, the upper stepped engagement surface 112 is provided with an upper groove, and the lower stepped engagement surface 122 is provided with a lower groove. The upper and lower grooves form a through hole to accommodate the inlet pipe 4 and the outlet pipe 5. The through hole design formed by the upper and lower grooves provides a stable channel for the inlet pipe 4 and the outlet pipe 5, reduces the vibration and noise of the water pipes, and simplifies the installation and maintenance of the water pipes.

[0032] In this embodiment, there are at least two air outlets 9, which are arranged side by side on the side of the outer casing 1 along its length.

[0033] Furthermore, the nozzle assembly 3 includes a substrate 31 and a plurality of nozzles 32, which are arranged side by side at equal intervals on the substrate 31. The substrate 31 and the equally spaced nozzles 32 of the nozzle assembly 3 achieve uniform air distribution and high-speed jet, thereby improving air mixing efficiency and temperature control accuracy.

[0034] Preferably, the total area of ​​the nozzles is proportional to the area of ​​the return air inlet, resulting in a fresh air / return air induction ratio of 1:4. By designing the size and number of nozzles 32, the total area of ​​the nozzles 32 is proportional to the area of ​​the bottom return air inlet 8, utilizing the Venturi effect to achieve a fresh air induction ratio of 1:4. Setting this fresh air induction ratio optimizes the mixing efficiency of primary and return air. By accurately calculating the area ratio of the nozzles and the return air inlet, the uniformity and efficiency of air conditioning are improved.

[0035] In this embodiment, the cold beam coil 2 adopts a four-pipe coil structure to achieve simultaneous hot and cold water supply for precise regulation of ambient temperature and humidity. Furthermore, the four-pipe coil structure can meet the diverse temperature and humidity settings of different rooms, achieving personalized and comfortable adjustments. Based on the cold beam in this embodiment, indoor air quality is significantly improved, while maintenance and operation convenience are optimized, resulting in a green, efficient, and comfortable indoor environment.

[0036] Obviously, the above embodiments are merely illustrative examples for clear explanation and are not intended to limit the implementation. Those skilled in the art will recognize that other variations or modifications can be made based on the above description. It is neither necessary nor possible to exhaustively list all possible implementations here. However, obvious variations or modifications derived therefrom are still within the protection scope of this invention.

Claims

1. An active cold beam structure, characterized in that: The device includes an outer casing, inside which a cooling coil and a nozzle assembly are provided. The cooling coil is inclinedly disposed inside the outer casing. A water inlet pipe and a water return pipe are provided on one side of the cooling coil, and the water inlet pipe and the water return pipe extend out of the width direction of the outer casing. A primary air inlet and a drain outlet for discharging condensate from the outer casing are provided on the width direction of the outer casing. An air vent is provided on one side of the outer casing along its length direction, and an air supply vent is provided at the bottom of the outer casing.

2. The active cold beam structure according to claim 1, characterized in that: The outer shell includes an upper shell and a lower shell. The bottom of the upper shell is provided with positioning blocks around its perimeter, and the top of the lower shell is provided with positioning grooves around its perimeter. The upper shell and the lower shell are fastened together and connected by fasteners.

3. The active cold beam structure according to claim 2, characterized in that: The lower shell has an inclined support frame for supporting the cold beam coil and a mounting groove for installing the nozzle assembly on its inner side.

4. The active cold beam structure according to claim 3, characterized in that: The lower shell is equipped with a condensate recovery tank at the lowest end of the inclined support frame, and the water in the condensate recovery tank is discharged through the drain outlet.

5. The active cold beam structure according to claim 4, characterized in that: The condensate recovery tank includes a collection tank 1 and a collection tank 2, which are arranged in a stepped manner. The collection tank 2 is connected to the drain outlet.

6. The active cold beam structure according to claim 2, characterized in that: The upper shell has upper stepped fastening surfaces on both sides, and the lower shell has lower stepped fastening surfaces on both sides. When the upper shell and the lower shell are fastened together, the upper stepped fastening surfaces and the lower stepped fastening surfaces abut against each other.

7. The active cold beam structure according to claim 6, characterized in that: The upper stepped fastening surface is provided with an upper groove, and the lower stepped fastening surface is provided with a lower groove. The upper groove and the lower groove form a through hole to accommodate the water inlet pipe and the water outlet pipe.

8. The active cold beam structure according to claim 7, characterized in that: The number of air outlets is at least two, arranged side by side on the side of the outer casing along its length.

9. An active cold beam structure according to claim 8, characterized in that: The nozzle assembly includes a substrate and a plurality of nozzles, which are arranged side by side at equal intervals on the substrate.

10. An active cold beam structure according to claim 9, characterized in that: The total area of ​​the nozzles is set in proportion to the area of ​​the return air inlet, so that the fresh air / return air induction ratio is 1:4.

Images