Integral type huffing plate radiator

Abstract

The utility model relates to an integral type huffing plate radiator which comprises a plurality of huffing plates, protrusions are arranged on the surfaces of the huffing plates, substrates are arranged at the bottoms of the huffing plates, and the substrates and the huffing plates are connected through radiating assemblies. More importantly, the plurality of T-shaped heat dissipation shells are communicated with one another through the connecting pipes, so that the heat conduction liquid in the T-shaped heat dissipation shells can freely circulate, and the heat conduction liquid in each T-shaped heat dissipation shell can exchange heat with one another in the heat dissipation process, so that the uniform distribution of the temperature among the plurality of huffing plates is ensured, and the heat dissipation efficiency is improved. Heat accumulation and uneven temperature are effectively avoided, and the overall heat dissipation performance is improved.

Description

TECHNICAL FIELD

[0001] The utility model relates to the field of inflation plate radiator, concretely to a whole inflation plate radiator. BACKGROUND

[0002] In order to improve the efficiency of the radiator, the problem of uneven surface temperature distribution of the fin needs to be improved. Inflation plate, as another type of uniform plate, relies on the phase change of its internal refrigerant to realize heat transfer. Since the temperature difference of phase change is small, the surface temperature uniformity is good. Using inflation plate as the fin of the radiator can effectively improve the heat exchange efficiency of the radiator.

[0003] According to the disclosed patent 202222683548.3, a whole inflation plate radiator, the whole inflation plate radiator includes inflation plate and base plate. The number of inflation plate is several, which are fixedly installed on the top of the base plate. The inflation plate is evenly installed on the top of the base plate. The number of inflation plate and base plate is welded by brazing. The base plate is a rectangular structure. The bottom of the inflation plate is located inside the base plate. The inflation plate is provided with a plurality of small holes on the side. The side of the inflation plate is a rectangular structure. The whole inflation plate radiator solves the problem of conventional inflation plate radiator, which connects the inflation plate and the base plate by mechanical tight fit or adhesive method. The contact thermal resistance between the heat conduction base plate and the inflation plate is large, which affects the overall heat transfer effect.

[0004] However, in the conventional whole inflation plate radiator, the inner cavity of the base plate and the inner cavities of the individual inflation plates are directly interconnected. However, this interconnection is only a direct connection between the base plate and the individual inflation plates, and does not effectively connect multiple inflation plates, resulting in uneven temperature distribution of the individual inflation plates during heat conduction, which can affect the overall heat dissipation performance. In addition, due to the lack of effective heat dissipation in the gap between the multiple inflation plates, heat tends to accumulate in these areas, resulting in heat accumulation. Therefore, a new technical solution is needed to solve this problem. Utility model content

[0005] The utility model discloses a whole type blow -up plate radiator to overcome the prior art's insufficient, adapt to the reality needs, provide a whole type blow -up plate radiator to solve the current in traditional whole type blow -up plate radiator, the inner chamber of base plate and the inner chamber of each blow -up plate are direct interpenetration, however, this interpenetration is only the direct communication between base plate and each independent blow -up plate, has not effectively made the communication between multiple blow -up plates, has led to the uneven temperature distribution of each blow -up plate in the heat conduction process, is easy to influence the overall heat dissipation performance, and, due to the gap between multiple blow -up plates lacks effective heat dissipation, and heat is easy to accumulate in these areas, thereby leading to the technical problem of heat accumulation.

[0006] In order to realize the utility model discloses the technical scheme that the utility model adopts for: design a whole type blow -up plate radiator, including multiple blow -up plate, multiple blow -up plate surface all is provided with the protruding, blow -up plate bottom is provided with base plate, and base plate and blow -up plate between through heat dissipation subassembly connection.

[0007] Preferably, the heat dissipation assembly includes a T-shaped groove, a T-shaped heat dissipation housing and a groove.

[0008] Preferably, the T-shaped groove is provided on the top surface of the base plate, and the T-shaped heat dissipation housing is clamped in the T-shaped groove.

[0009] Preferably, the T-shaped heat dissipation housing extends into the groove provided at the bottom of the blow -up plate, and the T-shaped heat dissipation housing is filled with heat-conducting liquid.

[0010] Preferably, the T-shaped heat dissipation housings in the multiple T-shaped grooves are connected by a connecting pipe, so that the heat-conducting liquid in the multiple T-shaped heat dissipation housings is connected.

[0011] Preferably, the side surface of each blow -up plate is provided with a clamping groove, and one end of a metal heat-conducting block is clamped and fixed in the clamping groove.

[0012] Preferably, the other end of the metal heat-conducting block is fixed with a heat dissipation fin, and the heat dissipation fin is provided with a fan-shaped metal heat dissipation fin at both ends.

[0013] Compared with the prior art, the utility model has the beneficial effects that:

[0014] 1.The utility model discloses a combination of T-shaped groove, T-shaped heat dissipation shell and recess, adopts T-shaped heat dissipation shell as the connecting piece between the substrate and the inflation plate, and fills the heat-conducting liquid in the T-shaped heat dissipation shell, which not only realizes the rapid conduction of the substrate heat to multiple inflation plates, but also greatly improves the heat dissipation efficiency, and more importantly, the multiple T-shaped heat dissipation shells are mutually penetrated through the connecting pipe, so that the heat-conducting liquid in the internal can flow freely, and the heat-conducting liquid in each T-shaped heat dissipation shell can exchange heat with each other during the heat dissipation process, thereby ensuring the uniform distribution of temperature between the multiple inflation plates, effectively avoiding heat accumulation and temperature unevenness, improving the overall heat dissipation performance, and solving the technical problem that in the traditional integrated inflation plate radiator, the inner cavity of the substrate and the inner cavities of the multiple inflation plates are directly penetrated with each other.

[0015] 2.The utility model discloses a combination of metal heat-conducting block, heat dissipation fin and fan-shaped metal heat sink, which can not only use the metal heat-conducting block fixed at both ends of the heat dissipation fin to be clamped in the clamping groove between the multiple inflation plates, thereby limiting the multiple inflation plates, but also use the metal heat-conducting block to penetrate into the inflation plate to conduct the heat of the inflation plate to the heat dissipation fin for rapid heat dissipation, thereby dissipating the heat between the multiple inflation plates, and further improving the heat dissipation effect by setting the fan-shaped metal heat sink on the upper and lower positions of the heat dissipation fin to conduct the heat of the heat dissipation fin to the surface of the fan-shaped metal heat sink with a larger area, thereby solving the technical problem that the heat is easily accumulated in the gaps between the multiple inflation plates due to the lack of effective heat dissipation. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0017] Figure 2 It is a schematic diagram of the side view structure of the utility model;

[0018] Figure 3 It is a schematic diagram of the enlarged structure of A in the utility model.

[0019] In the figure: 1, substrate; 2, inflation plate; 201, protrusion; 202, recess; 203, T-shaped groove; 204, T-shaped heat dissipation shell; 205, connecting pipe; 3, clamping groove; 301, metal heat-conducting block; 302, heat dissipation fin; 303, fan-shaped metal heat sink. DETAILED DESCRIPTION

[0020] The utility model will be further described in combination with the drawings and examples:

[0021] Embodiment one:

[0022] A whole type blow plate radiator, see Figure 1 , comprising a plurality of blow plate 2, a plurality of blow plate 2 surface is provided with convex 201, blow plate 2 bottom is provided with base plate 1.

[0023] Embodiment two:

[0024] See Figures 2 to 3 , on the basis of embodiment one, the utility model provides a technical scheme: base plate 1 and blow plate 2 are connected through heat dissipation assembly, heat dissipation assembly includes T type groove 203, T type heat dissipation shell 204 and recess 202, first, the heat generated on base plate 1 is rapidly conducted to the heat-conducting liquid filled in T type heat dissipation shell 204, T type heat dissipation shell 204 is used as connecting piece, plays the role of structural support, also effectively transfers heat from base plate 1 to heat-conducting liquid, in T type heat dissipation shell 204, heat-conducting liquid is guided to other T type heat dissipation shell 204 through connecting pipe 205 after absorbing heat, in the process of heat-conducting liquid circulation, heat-conducting liquid in each T type heat dissipation shell 204 exchanges heat mutually, because heat-conducting liquid has good heat conduction performance, exchange can be carried out rapidly and effectively, to ensure that the temperature of multiple blow plate 2 is evenly distributed, through the rapid circulation and heat exchange of heat-conducting liquid, the heat on base plate 1 can be rapidly dispersed to multiple blow plate 2, and is radiated through the surface area of blow plate 2, improve the efficiency of heat dissipation, solve the technical problem that in the traditional whole type blow plate radiator, the inner cavity of base plate 1 and the inner cavity of each blow plate 2 are directly interconnected, however, this interpenetration is only the direct communication between base plate 1 and each independent blow plate 2, cannot effectively make multiple blow plate 2 communicate, lead to the uneven temperature distribution of each blow plate 2 in the heat conduction process, easy to affect the overall heat dissipation performance.

[0025] Specifically, see Figure 2 , T type groove 203 is opened in the top surface of base plate 1, and T type heat dissipation shell 204 is clamped in the T type groove 203.

[0026] Further, see Figure 2 , T type heat dissipation shell 204 top extends into the recess 202 opened at the bottom of blow plate 2, and heat-conducting liquid is filled in T type heat dissipation shell 204.

[0027] It is worth mentioning that, see Figure 2 , the T type heat dissipation shell 204 in a plurality of T type grooves 203 is communicated with connecting pipe 205, so that the heat-conducting liquid in a plurality of T type heat dissipation shell 204 is conducted.

[0028] It is worth noting that, seeFigure 2 and Figure 3 Each of the multiple blow-up plates 2 has a slot 3 on its side. A metal heat-conducting block 301 is fixedly engaged inside the slot 3. The metal heat-conducting blocks 301 at both ends of the heat dissipation fins 302 are engaged within the slots 3 between the multiple blow-up plates 2, achieving precise positioning between the blow-up plates 2 and ensuring the stability of the entire heat dissipation structure. Furthermore, the metal heat-conducting blocks 301 can penetrate deep into the blow-up plates 2, forming good thermal contact with them. This allows the heat generated on the blow-up plates 2 to be rapidly conducted to the heat dissipation fins 302 through the metal heat-conducting blocks 301. When the heat is transferred from the metal heat-conducting block 301 to the heat dissipation fins 302, the heat dissipation fins 302 utilize their large surface area to quickly dissipate heat into the surrounding environment. Fan-shaped metal heat dissipation fins 303 are provided at the upper and lower positions of the heat dissipation fins 302. These fan-shaped metal heat dissipation fins 303 not only increase the heat dissipation area, but also the fan-shaped design can more effectively guide the airflow and enhance the convective heat dissipation effect. This solves the technical problem that heat is easy to accumulate in these areas due to the lack of effective heat dissipation between multiple blow-out plates 2, thus causing heat accumulation.

[0029] It is worth mentioning that, see Figure 2 and Figure 3 The other end of the metal heat-conducting block 301 is fixed with a heat dissipation fin 302, and fan-shaped metal heat dissipation fins 303 are installed at both the upper and lower ends of the heat dissipation fin 302.

[0030] When using an integral blown-plate radiator, the heat generated on the substrate 1 is first rapidly conducted through the T-shaped heat sink 204 to the heat-conducting fluid filled inside it. The T-shaped heat sink 204 acts as a connector, providing structural support and effectively transferring heat from the substrate 1 to the heat-conducting fluid. Inside the T-shaped heat sink 204, the heat-conducting fluid absorbs heat and is then guided to other T-shaped heat sinks 204 through connecting pipes 205. During the circulation of the heat-conducting fluid, the heat-conducting fluids in each T-shaped heat sink 204 exchange heat with each other. Due to the excellent thermal conductivity of the heat-conducting fluid, the exchange can occur rapidly and effectively, ensuring a uniform temperature distribution among the multiple blown plates 2. Through the rapid circulation and heat exchange of the heat-conducting fluid, the heat on the substrate 1 can be quickly dispersed onto the multiple blown plates 2, and dissipated through the surface area of ​​the blown plates 2. The heat dissipation efficiency is improved. The metal heat-conducting blocks 301 at both ends of the heat dissipation fins 302 are snapped into the slots 3 between multiple blow-up plates 2, achieving precise positioning between the blow-up plates 2 and ensuring the stability of the entire heat dissipation structure. Moreover, the metal heat-conducting blocks 301 can penetrate deep into the blow-up plates 2, forming good thermal contact with the blow-up plates 2, so that the heat generated on the blow-up plates 2 can be quickly conducted to the position of the heat dissipation fins 302 through the metal heat-conducting blocks 301. When the heat is transferred to the heat dissipation fins 302 through the metal heat-conducting blocks 301, the heat dissipation fins 302 use their large surface area to quickly dissipate the heat to the surrounding environment. Fan-shaped metal heat dissipation fins 303 are set at the upper and lower positions of the heat dissipation fins 302. These fan-shaped metal heat dissipation fins 303 not only increase the heat dissipation area, but the fan-shaped design can also more effectively guide the airflow and enhance the convective heat dissipation effect.

[0031] In addition, all components designed in this utility model are general standard parts or components known to those skilled in the art. Their structure and principle can be learned by those skilled in the art through technical manuals or conventional experimental methods. Those skilled in the art can fully implement them, so there is no need to elaborate. The content protected by this utility model does not involve improvements to the internal structure and method.

[0032] The embodiments disclosed herein are preferred embodiments, but are not limited thereto. Those skilled in the art can readily grasp the spirit of this utility model based on the above embodiments and make different extensions and variations. However, as long as they do not depart from the spirit of this utility model, they are all within the protection scope of this utility model.

Claims

1. A unibody extruded finned radiator comprising a plurality of extruded fins (2) characterised in that, Multiple said inflation plate (2) surface is provided with convex (201), the bottom of the inflation plate (2) is provided with the base plate (1), and the base plate (1) and the inflation plate (2) are connected through the heat dissipation assembly.

2. The unitary blow plate radiator of claim 1, wherein, The heat dissipation assembly comprises a T-shaped groove (203), a T-shaped heat dissipation shell (204) and a groove (202).

3. The monolithic blown panel radiator of claim 2, wherein, The T-shaped groove (203) is opened on the top surface of the base plate (1), and the T-shaped heat dissipation shell (204) is clamped in the T-shaped groove (203).

4. The unitary blown panel radiator of claim 2, wherein, The top of the T-shaped heat dissipation shell (204) extends into the groove (202) opened on the bottom of the inflation plate (2), and the T-shaped heat dissipation shell (204) is filled with heat-conducting liquid.

5. The unitary blow-molded sheet radiator of claim 2, wherein, The T-shaped heat dissipation shells (204) in multiple T-shaped grooves (203) are communicated through a connecting pipe (205), so that the heat-conducting liquid in multiple T-shaped heat dissipation shells (204) is communicated.

6. The unitary blow-molded sheet radiator of claim 1, wherein, Multiple said inflation plate (2) side is provided with clamping groove (3), the one end of metal heat conduction block (301) is clamped and fixed in the clamping groove (3).

7. The monolithic blown panel radiator of claim 6, wherein, The other end of the metal heat conduction block (301) is fixed with a heat dissipation fin (302), and the upper and lower ends of the heat dissipation fin (302) are both mounted with a fan-shaped metal heat dissipation fin (303).

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