技术领域technical field
本发明涉及制冷装置，尤其涉及一种制冷设备用箱体及半导体制冷设备。The invention relates to a refrigeration device, in particular to a box body for refrigeration equipment and a semiconductor refrigeration equipment.
背景技术Background technique
目前，制冷设备（例如冰箱、冷柜、酒柜）是人们日常生活中常用的电器，制冷设备中通常具有制冷系统，一般情况下制冷系统由压缩机、冷凝器和蒸发器构成，能够实现较低温的制冷。然而，随着半导体制冷技术的发展，采用半导体制冷模块进行制冷的制冷设备也被广泛使用。现有技术中的半导体制冷设备通过半导体制冷模块的冷端释放冷量对箱体内的储物空间进行制冷。在实际使用过程中，半导体制冷模块的冷端通常连接有热管，通过热管将冷量传递到半导体制冷设备的内胆中进行制冷，而内胆一般为注塑形成的塑料胆体，内胆内的制冷温度单一，不能实现多温区制冷，无法满足不同物品的制冷要求。如何设计一种能够实现多温区制冷以满足不同物品的制冷要求的半导体制冷设备是本发明所要解决的技术问题。At present, refrigeration equipment (such as refrigerators, freezers, and wine cabinets) is an electrical appliance commonly used in people's daily life. Refrigeration equipment usually has a refrigeration system. Generally, the refrigeration system is composed of a compressor, a condenser, and an evaporator, which can achieve a lower temperature. of refrigeration. However, with the development of semiconductor refrigeration technology, refrigeration equipment using semiconductor refrigeration modules for refrigeration is also widely used. The semiconductor refrigeration equipment in the prior art releases cold energy through the cold end of the semiconductor refrigeration module to cool the storage space in the box. In the actual use process, the cold end of the semiconductor refrigeration module is usually connected with a heat pipe, and the cold energy is transferred to the inner tank of the semiconductor refrigeration equipment through the heat pipe for cooling. The inner tank is generally a plastic tank formed by injection molding. The refrigeration temperature is single, and it cannot realize multi-temperature zone refrigeration, and cannot meet the refrigeration requirements of different items. How to design a semiconductor refrigeration device capable of realizing multi-temperature zone refrigeration to meet the refrigeration requirements of different items is the technical problem to be solved by the present invention.
发明内容Contents of the invention
本发明所要解决的技术问题是：提供一种制冷设备用箱体及半导体制冷设备，实现多温区制冷以满足不同物品的制冷要求。The technical problem to be solved by the present invention is to provide a box body for refrigeration equipment and semiconductor refrigeration equipment to realize multi-temperature zone refrigeration to meet the refrigeration requirements of different items.
本发明提供的技术方案是，一种制冷设备用箱体，包括外壳和至少两个彼此间隔的金属内胆，相邻两个所述金属内胆之间设置有隔热连接件，相邻两个所述金属内胆通过所述隔热连接件连接在一起；所述金属内胆位于所述外壳中，所述金属内胆与所述外壳之间设置有保温层。The technical solution provided by the present invention is a box body for refrigeration equipment, which includes an outer shell and at least two metal inner tanks spaced apart from each other, and a heat insulating connector is arranged between two adjacent metal inner tanks, and two adjacent metal inner tanks are arranged The two metal inner tanks are connected together through the heat insulation connector; the metal inner tank is located in the outer shell, and an insulating layer is arranged between the metal inner tank and the outer shell.
本发明还提供一种半导体制冷设备，包括多个半导体制冷模块，所述半导体制冷模块的冷端热连接有热管，还包括上述制冷设备用箱体；所述半导体制冷模块上连接的所述热管贴在所述制冷设备用箱体中对应的金属内胆上The present invention also provides a semiconductor refrigeration device, including a plurality of semiconductor refrigeration modules, the cold end of the semiconductor refrigeration module is thermally connected with a heat pipe, and also includes the above-mentioned refrigeration equipment box; the heat pipe connected to the semiconductor refrigeration module Paste on the corresponding metal liner in the box for the refrigeration equipment
本发明提供的半导体制冷设备，通过采用多个间隔设置的金属内胆，可以在每个金属内胆上设置独立的半导体制冷模块进行制冷，在半导体制冷模组工作过程中，半导体制冷模组将对与之对应的金属内胆释放冷量，而金属内胆将冷量直接散发到其内部的储物空间，由于金属内胆之间相互隔离，使得不同金属内胆所形成的储物空间能够形成独立的温区范围，从而可以根据需要控制半导体制冷模组的制冷量以实现多温区制冷，满足了不同物品的制冷要求。In the semiconductor refrigeration equipment provided by the present invention, by using a plurality of metal inner tanks arranged at intervals, an independent semiconductor refrigeration module can be set on each metal inner tank for refrigeration. During the working process of the semiconductor refrigeration module, the semiconductor refrigeration module will Release cold energy to the corresponding metal inner tank, and the metal inner tank directly distributes the cold energy to its internal storage space. Since the metal inner tanks are isolated from each other, the storage space formed by different metal inner tanks can An independent temperature zone range is formed, so that the cooling capacity of the semiconductor refrigeration module can be controlled according to needs to achieve multi-temperature zone refrigeration, which meets the refrigeration requirements of different items.
附图说明Description of drawings
为了更清楚地说明本发明实施例或现有技术中的技术方案，下面将对实施例或现有技术描述中所需要使用的附图作一简单地介绍，显而易见地，下面描述中的附图是本发明的一些实施例，对于本领域普通技术人员来讲，在不付出创造性劳动性的前提下，还可以根据这些附图获得其他的附图。In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings that need to be used in the description of the embodiments or the prior art. Obviously, the accompanying drawings in the following description These are some embodiments of the present invention. For those skilled in the art, other drawings can also be obtained according to these drawings without any creative effort.
图1为本发明半导体制冷设备实施例的结构示意图；Fig. 1 is the structural representation of the semiconductor refrigeration equipment embodiment of the present invention;
图2为本发明半导体制冷设备实施例的爆炸图；Figure 2 is an exploded view of an embodiment of a semiconductor refrigeration device of the present invention;
图3为本发明半导体制冷设备实施例中箱体的结构示意图；Fig. 3 is a schematic structural view of a box body in an embodiment of a semiconductor refrigeration device of the present invention;
图4为本发明半导体制冷设备实施例中箱体的局部剖视图；Fig. 4 is a partial cross-sectional view of a box body in an embodiment of a semiconductor refrigeration device of the present invention;
图5为本发明半导体制冷设备实施例中安装板的结构示意图；Fig. 5 is a structural schematic diagram of a mounting plate in an embodiment of a semiconductor refrigeration device of the present invention;
图6为本发明半导体制冷设备实施例中冷端散热器的结构示意图；Fig. 6 is a schematic structural view of the cold end radiator in the embodiment of the semiconductor refrigeration device of the present invention;
图7为本发明半导体制冷设备实施例中冷端散热器与金属内胆的组装图；Fig. 7 is an assembly diagram of the cold end radiator and the metal liner in the embodiment of the semiconductor refrigeration device of the present invention;
图8为本发明半导体制冷设备实施例中第一导热体的剖视图；Fig. 8 is a cross-sectional view of the first heat conductor in the semiconductor refrigeration device embodiment of the present invention;
图9为本发明半导体制冷设备实施例中第一导热体与定位件的组装关系图；Fig. 9 is an assembly relationship diagram of the first heat conductor and the positioning member in the embodiment of the semiconductor refrigeration device of the present invention;
图10为本发明半导体制冷设备实施例中热端散热器的结构示意图一；Fig. 10 is a structural schematic diagram 1 of the hot end radiator in the semiconductor refrigeration device embodiment of the present invention;
图11为本发明半导体制冷设备实施例中热端散热器的结构示意图二；Fig. 11 is a schematic diagram 2 of the structure of the hot end radiator in the embodiment of the semiconductor refrigeration device of the present invention;
图12为图11中风在散热片组的流动原理图；Fig. 12 is a schematic diagram of the flow of wind in the heat sink group in Fig. 11;
图13为本发明半导体制冷设备实施例中第二导热体的结构示意图。Fig. 13 is a schematic structural diagram of the second heat conductor in the embodiment of the semiconductor refrigeration device of the present invention.
具体实施方式detailed description
为使本发明实施例的目的、技术方案和优点更加清楚，下面将结合本发明实施例中的附图，对本发明实施例中的技术方案进行清楚、完整地描述，显然，所描述的实施例是本发明一部分实施例，而不是全部的实施例。基于本发明中的实施例，本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例，都属于本发明保护的范围。In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments It is a part of embodiments of the present invention, but not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by persons of ordinary skill in the art without making creative efforts belong to the protection scope of the present invention.
如图1-图2所示，本实施例半导体制冷设备，包括制冷设备用箱体，其中，制冷设备用箱体包括外壳101至少两个彼此间隔的金属内胆100，每个所述金属内胆100上设置有一半导体制冷模组，所述半导体制冷模组包括半导体制冷模块200、冷端散热器300和热端散热器400，所述冷端散热器300连接在所述半导体制冷模块200的冷端，所述热端散热器400连接在所述半导体制冷模块200的热端，所述冷端散热器300还与所述金属内胆100连接。As shown in Figures 1-2, the semiconductor refrigeration equipment in this embodiment includes a box for refrigeration equipment, wherein the box for refrigeration equipment includes an outer shell 101 at least two metal inner tanks 100 spaced apart from each other, and each of the metal inner tanks A semiconductor refrigeration module is arranged on the tube 100, and the semiconductor refrigeration module includes a semiconductor refrigeration module 200, a cold end radiator 300 and a hot end radiator 400, and the cold end radiator 300 is connected to the semiconductor refrigeration module 200. The cold end, the hot end radiator 400 is connected to the hot end of the semiconductor refrigeration module 200 , and the cold end radiator 300 is also connected to the metal liner 100 .
具体而言，本实施例半导体制冷设备包括多个金属内胆100而金属内胆100外设置有外壳101，外壳101与金属内胆100之间设置有保温层，金属内胆100形成储物空间用于冷藏或冷冻物品。其中，每个金属内胆100对应有半导体制冷模组，半导体制冷模组将对应的制冷金属内胆100内的储物空间，而半导体制冷模组中半导体制冷模块200的冷端产生的冷量通过冷端散热器300传递到金属内胆100上，由金属内胆100将迅速的将冷量释放到其内形成的储物空间中进行制冷，而半导体制冷模块200的热端产生的热量通过热端散热器400散热。而由于多个金属内胆100间隔设置，同时，每个金属内胆100由对应半导体制冷模块200进行独立的制冷，在实际使用过程中，能够根据不同金属内胆100中所存储的物品制冷要求不同，控制对应的半导体制冷模块200释放适应量的冷量，实现多温区制冷。Specifically, the semiconductor refrigeration device in this embodiment includes a plurality of metal inner tanks 100 and an outer shell 101 is arranged outside the metal inner tank 100, and an insulating layer is arranged between the outer shell 101 and the metal inner tank 100, and the metal inner tank 100 forms a storage space. For refrigerated or frozen items. Wherein, each metal liner 100 corresponds to a semiconductor refrigeration module, and the semiconductor refrigeration module will correspond to the storage space in the cooling metal liner 100, and the cooling capacity generated by the cold end of the semiconductor refrigeration module 200 in the semiconductor refrigeration module The cold end radiator 300 is transferred to the metal inner tank 100, and the metal inner tank 100 will quickly release the cold energy into the storage space formed in it for refrigeration, while the heat generated by the hot end of the semiconductor refrigeration module 200 passes through the metal inner tank 100. The hot end heat sink 400 dissipates heat. And because a plurality of metal inner tanks 100 are arranged at intervals, and at the same time, each metal inner tank 100 is independently refrigerated by the corresponding semiconductor refrigeration module 200, in the actual use process, it can meet the refrigeration requirements of items stored in different metal inner tanks 100 Differently, the corresponding semiconductor refrigeration module 200 is controlled to release an appropriate amount of cold energy, so as to realize multi-temperature zone refrigeration.
其中，相邻两个所述金属内胆100之间设置有隔热连接件102，相邻两个所述金属内胆100通过所述隔热连接件102连接在一起。具体的，如图3-图5所示，隔热连接件102一方面能够起到将相邻的两个金属内胆100连接在一起，另一方面还能够通过隔热连接件102减少或阻断相邻两个金属内胆100之间发生热传导，从而使得各个金属内胆100所形成的温区更加的独立。隔热连接件102可以采用多种方式，例如：所述隔热连接件102设置有背向布置的插槽1021，所述金属内胆100插在所述插槽1021中，在组装两个金属内胆100时，将金属内胆100的边沿插入到插槽1021中，实现两个金属内胆100连接在一起，而金属内胆100插在所述插槽1021中后可以采用涂胶、螺钉固定等方式紧固，优选的，所述金属内胆100卡装在插槽1021中，具体的，所述金属内胆100插在所述插槽1021的端部设置有倒刺结构1001，所述插槽1021的侧壁设置有与所述倒刺结构1001配合的卡块1022，所述倒刺结构1001卡在所述卡块1022上。另外，本实施例中的多个金属内胆100之间可以采用水平排布，优选的，多个所述金属内胆100由上至下堆叠布置，而半导体制冷模块200均位于最上部的所述金属内胆100上。具体的，半导体制冷模块200统一安装在最上部的金属内胆100上，而为了方便安装均半导体制冷模块200，位于最上部的所述金属内胆上100设置有安装板103，所述半导体制冷模块200固定在所述安装板103上。安装板103可以采用隔热材料支撑，以避免金属内胆100通过安装板103与半导体制冷模块200之间发生热传递，而安装板103中还可以设置有加强板1031，通过加强板1031增强安装板103的结构强度。金属内胆100可以为横截面为U型的围挡结构，位于最上部的所述金属内胆100还具有顶盖，位于最上部的所述金属内胆100还具有底板，从而实现多个金属内胆100形成储物空间贯通的结构，而隔热连接件102减少或阻断相邻两个金属内胆100之间发生热传导，使得不同金属内胆100区域中形成不同温区。而为了避免排水，位于底部的金属内胆100的底板上还设置有排水孔（未图示）。Wherein, a heat insulating connector 102 is provided between two adjacent metal inner containers 100 , and two adjacent metal inner containers 100 are connected together through the thermal insulating connector 102 . Specifically, as shown in FIGS. 3-5 , on the one hand, the heat insulating connector 102 can connect two adjacent metal liners 100 together; Heat conduction occurs between two adjacent metal inner tanks 100, so that the temperature zones formed by each metal inner tank 100 are more independent. The heat insulation connector 102 can be adopted in various ways, for example: the heat insulation connector 102 is provided with a slot 1021 arranged backwards, the metal liner 100 is inserted into the slot 1021, and two metal liners are assembled When the inner container 100 is used, the edge of the metal inner container 100 is inserted into the slot 1021 to realize that the two metal inner containers 100 are connected together, and after the metal inner container 100 is inserted in the slot 1021, glue or screws can be used. fastened by means of fixing or the like, preferably, the metal liner 100 is clamped in the slot 1021, specifically, the end of the metal liner 100 inserted in the slot 1021 is provided with a barb structure 1001, so The side wall of the slot 1021 is provided with a locking block 1022 matched with the barb structure 1001 , and the barb structure 1001 is locked on the locking block 1022 . In addition, the plurality of metal inner tanks 100 in this embodiment can be arranged horizontally. Preferably, the plurality of metal inner tanks 100 are stacked from top to bottom, and the semiconductor refrigeration modules 200 are all located at the uppermost part. Above the metal liner 100. Specifically, the semiconductor refrigeration module 200 is uniformly installed on the uppermost metal liner 100, and in order to facilitate the installation of the semiconductor refrigeration module 200, the uppermost metal liner 100 is provided with a mounting plate 103. The module 200 is fixed on the installation board 103 . The mounting plate 103 can be supported by heat insulating materials to avoid heat transfer between the metal liner 100 and the semiconductor refrigeration module 200 through the mounting plate 103, and the mounting plate 103 can also be provided with a reinforcing plate 1031 to enhance the installation. Structural strength of the plate 103. The metal liner 100 can be a U-shaped enclosure structure in cross section, and the metal liner 100 at the top also has a top cover, and the metal liner 100 at the top also has a bottom plate, so that multiple metal lines can be realized. The inner tank 100 forms a structure through which the storage space is connected, and the heat insulating connector 102 reduces or blocks heat conduction between two adjacent metal inner tanks 100 , so that different temperature zones are formed in different metal inner tanks 100 . In order to avoid water drainage, drainage holes (not shown) are also provided on the bottom plate of the metal liner 100 at the bottom.
在实际使用过程中，现有采用半导体制冷的设备通常采用散热片进行强制对流，以将冷量通过散发到储物空间中，而为了使得半导体制冷模块200冷端的热量更有效的对储物空间进行制冷，并确保冷量的分布均匀，如图6-图9所示，本实施例中的所述冷端散热器300包括第一导热体31和多根第一热管32，所述第一导热体31中形成有腔体（未图示），所述第一热管32密封插在所述第一导热体31中并与所述腔体连通；所述第一导热体31贴在所述半导体制冷模块200的冷端，所述第一热管32贴在所述金属内胆100上，第一热管32通过第一导热体31实现与半导体制冷模块200的冷端热连接。具体的，半导体制冷模块200的冷端产生的冷量通过第一导热体31传递给第一热管32，而第一热管32能够快速的将冷量分散到金属内胆100上，金属内胆100能够直接将冷量释放到其内部形成的储物空间进行制冷，有效的提高了制冷效率，避免了半导体制冷模块200的冷端产生的冷量采用散热片进行散冷而出现制冷效率低的现象。其中，第一导热体31上开设有多个插孔311，所述第一热管32密封插在所述插孔311中，相邻两个所述插孔311之间设置有第一贯通孔312，所述第一热管32插在所述插孔311中的端部开设有第二贯通孔（未图示），所述第一贯通孔与所述第二贯通孔相互连通形成通道，所述通道为所述腔体。在冷端散热器300实际组装过程中，第一热管32插入到插孔311中，通过合理设计插孔311的深度以及第一热管32上第二贯通孔的位置，使得第一贯通孔312与第二贯通孔连通形成通道，或者，在实际组装过程中，第一导热体31上先设置有插孔311，在将第一热管32插入到插孔311中后，从第一导热体31的侧壁上开设有贯通第一导热体31和第一热管32的贯通孔，以在第一导热体31中形成腔体，然后，再将用于热管中气液相变制冷剂灌注到第一热管32以及腔体中，使得第一热管32具有热管速热的性能。而为了便于液化后的制冷剂能够快速的进入到第一热管32中进行制冷，所述第一导热体31的下端部开设有所述插孔311。其中，所述第一导热体31上还设置有可开关的加注口313，所述加注口313与所述腔体连通，通过加注口313能够方便的向第一热管32中灌注制冷剂，而在实际使用过程中，为了避免因故障使得半导体制冷模块200不能正常运行而导致第一热管32内的压力过大发生炸管，第一导热体31上还设置有安全压力阀314，所述安全压力阀314与所述腔体连通，当第一热管32中的压力超过设定值后，安全压力阀314将打开释放压力，以确保使用安全。对于灌注的制冷剂，第一热管32中需要灌注制冷剂工质可以为冰箱制冷系统常用制冷剂，如R134a、R600a、CO2等均可，具体制冷剂工质的选取可根据通用性要求、系统压力要求、冷量传递要求、工质物性、环保等因素综合确定。优选的，为了减少第一热管32的数量，同时，满足散冷均匀的要求，冷端散热器300包括两根所述第一热管32，所述第一导热体31上开设有四个所述插孔311，所述第一热管32的两端部均插在对应的所述插孔311中；其中一第一热管32弯曲分布在所述金属内胆100的两侧部，另一所述第一热管32弯曲分布在所述金属内胆100的背部。具体的，第一热管32的两端部均插在插孔311中，使得第一热管32实现两根热管的散冷能力，而其中一第一热管32弯曲分布在金属内胆100的两侧部，另一第一热管32弯曲分布在金属内胆100的背部，在通过第一热管32散冷过程中，弯曲分布的第一热管32与金属内胆100的接触面积更大，从而使得金属内胆100能够更加均匀的获取冷量，同时，金属内胆100的两侧部和背部均分布有第一热管31进行散冷，使得金属内胆100形成环抱式的散冷表面，从而确保内部的储物空间制冷均匀。而为了使得第一热管31能够快速的将冷量从其端部延伸传递，第一热管32从其两端部分别倾斜向下地弯折延伸，具体的，第一热管32中的制冷剂在受冷后液化成液体、而在受热时气化成气体，通过将第一热管32采用倾斜向下地弯折的方式延伸，而在第一热管32散冷过程中，液化的制冷剂能够在重力作用下向下流动，而气化的制冷剂能够沿着倾斜的第一热管32上升到第一导热体31形成的腔体中进行制冷，其中，第一热管32在弯曲延伸后将形成直管段和弯管段，对于第一热管32的直管段的倾斜角度为：第一热管32的以毫米为单位的管路直径（以下简称管径）被配置成大于或等于第一热管32的以度为单位的相对于水平方向的倾角θ的1.2-1.3倍，在实际生产中，每个第一热管32的直管段以相对于水平面呈10°至70°的角度倾斜设置以保证液态制冷剂在其内依靠重力自由流动，以提高第一热管32的散冷效率。另外，对于单根第一热管32，第一热管32的两端部呈对称方式向下倾斜弯曲延伸。In actual use, existing semiconductor refrigeration equipment usually uses cooling fins for forced convection to dissipate the cold energy into the storage space, and in order to make the heat of the cold end of the semiconductor refrigeration module 200 more effective for the storage space refrigerate, and ensure that the cold distribution is uniform, as shown in Figure 6-Figure 9, the cold end radiator 300 in this embodiment includes a first heat conductor 31 and a plurality of first heat pipes 32, the first A cavity (not shown) is formed in the heat conductor 31, and the first heat pipe 32 is sealed and inserted in the first heat conductor 31 and communicated with the cavity; the first heat conductor 31 is attached to the At the cold end of the semiconductor refrigeration module 200 , the first heat pipe 32 is pasted on the metal liner 100 , and the first heat pipe 32 is thermally connected to the cold end of the semiconductor refrigeration module 200 through the first heat conductor 31 . Specifically, the cold generated by the cold end of the semiconductor refrigeration module 200 is transferred to the first heat pipe 32 through the first heat conductor 31, and the first heat pipe 32 can quickly disperse the cold to the metal inner tank 100, and the metal inner tank 100 It can directly release the cold energy to the storage space formed inside it for cooling, which effectively improves the cooling efficiency and avoids the phenomenon of low cooling efficiency due to the cooling generated by the cold end of the semiconductor refrigeration module 200 using the heat sink for cooling . Wherein, the first heat conductor 31 is provided with a plurality of insertion holes 311, the first heat pipe 32 is sealed and inserted in the insertion holes 311, and a first through hole 312 is provided between two adjacent insertion holes 311. , the end of the first heat pipe 32 inserted into the insertion hole 311 is provided with a second through hole (not shown), the first through hole and the second through hole communicate with each other to form a channel, the The channel is the cavity. During the actual assembly process of the cold end radiator 300, the first heat pipe 32 is inserted into the insertion hole 311, and the depth of the insertion hole 311 and the position of the second through hole on the first heat pipe 32 are reasonably designed so that the first through hole 312 is connected to the first through hole 311. The second through hole communicates to form a channel, or, in the actual assembly process, the first heat conductor 31 is provided with an insertion hole 311 first, and after the first heat pipe 32 is inserted into the insertion hole 311, from the first heat conductor 31 The side wall is provided with a through hole through the first heat conductor 31 and the first heat pipe 32, so as to form a cavity in the first heat conductor 31, and then, the gas-liquid phase change refrigerant used in the heat pipe is poured into the first heat pipe. In the heat pipe 32 and the cavity, the first heat pipe 32 has the performance of heat pipe rapid heating. In order to facilitate the liquefied refrigerant to quickly enter the first heat pipe 32 for refrigeration, the lower end of the first heat conductor 31 is provided with the insertion hole 311 . Wherein, the first heat conductor 31 is also provided with a switchable filling port 313, and the filling port 313 communicates with the cavity, through which the first heat pipe 32 can be conveniently poured into the first heat pipe 32. In the actual use process, in order to avoid the explosion of the first heat pipe 32 caused by the excessive pressure in the first heat pipe 32 caused by failure of the semiconductor refrigeration module 200, the first heat conductor 31 is also provided with a safety pressure valve 314, The safety pressure valve 314 communicates with the cavity, and when the pressure in the first heat pipe 32 exceeds a set value, the safety pressure valve 314 will be opened to release the pressure to ensure safe use. For the injected refrigerant, the first heat pipe 32 needs to be filled with a refrigerant working medium that can be a commonly used refrigerant in the refrigeration system of a refrigerator, such as R134a, R600a, CO2, etc. The selection of the specific refrigerant working medium can be based on the general requirements, system Factors such as pressure requirements, cooling capacity transfer requirements, working fluid properties, and environmental protection are comprehensively determined. Preferably, in order to reduce the number of first heat pipes 32 and at the same time meet the requirement of uniform cooling, the cold end radiator 300 includes two first heat pipes 32, and four of the first heat pipes 32 are opened on the first heat conductor 31. Insertion holes 311, both ends of the first heat pipe 32 are inserted into the corresponding insertion holes 311; one of the first heat pipes 32 is bent and distributed on both sides of the metal liner 100, and the other is The first heat pipe 32 is bent and distributed on the back of the metal inner container 100 . Specifically, both ends of the first heat pipe 32 are inserted into the insertion hole 311, so that the first heat pipe 32 realizes the cooling capacity of the two heat pipes, and one of the first heat pipes 32 is bent and distributed on both sides of the metal liner 100 part, another first heat pipe 32 is bent and distributed on the back of the metal liner 100. During the cooling process through the first heat pipe 32, the contact area between the curved first heat pipe 32 and the metal liner 100 is larger, so that the metal The inner tank 100 can obtain cooling energy more evenly. At the same time, the first heat pipes 31 are distributed on both sides and the back of the metal inner tank 100 for cooling, so that the metal inner tank 100 forms an enveloping cooling surface, thereby ensuring the internal The storage space is cooled evenly. In order to enable the first heat pipe 31 to quickly extend and transfer cold energy from its ends, the first heat pipe 32 bends and extends obliquely downward from its two ends, specifically, the refrigerant in the first heat pipe 32 is subjected to Liquefied into liquid after cooling, and gasified into gas when heated, by extending the first heat pipe 32 in an obliquely downward manner, during the cooling process of the first heat pipe 32, the liquefied refrigerant can be released under the action of gravity The gasified refrigerant can rise along the inclined first heat pipe 32 to the cavity formed by the first heat conductor 31 for cooling, wherein the first heat pipe 32 will form a straight pipe section and a bent pipe section after being bent and extended. For the pipe section, the inclination angle of the straight pipe section of the first heat pipe 32 is: the pipe diameter of the first heat pipe 32 in millimeters (hereinafter referred to as the pipe diameter) is configured to be greater than or equal to that of the first heat pipe 32 in degrees 1.2-1.3 times the inclination angle θ relative to the horizontal direction. In actual production, the straight pipe section of each first heat pipe 32 is inclined at an angle of 10° to 70° relative to the horizontal plane to ensure that the liquid refrigerant is inside. Free flow depends on gravity to improve the cooling efficiency of the first heat pipe 32 . In addition, for a single first heat pipe 32 , both ends of the first heat pipe 32 extend downward in a symmetrical manner and obliquely.
而在需要将半导体制冷模块200安装到金属内胆100的过程中，金属内胆100上的安装板103又形成有卡槽1032，第一导热体31插在插槽1032中，而半导体制冷模块200与第一导热体31之间设置导热硅脂并通过第一导热体31安装到安装板103上。优选的，半导体制冷模块200的周边套有密封圈201，安装板103上还固定设置有辅助安装架202，辅助安装架202上设置有安装口2021，密封圈201位于安装口2021中，通过密封圈201和辅助安装架202能够更加牢固的将半导体制冷模块200进行安装固定，同时，密封圈201又能够将半导体制冷模块200的周边密封，避免冷量从半导体制冷模块200的周边散失。而为了对第一热管32进行定位，避免在对金属内胆100和外壳101之前进行发泡处理时第一热管32受力移位，第一热管32的弯折处设置有定位件104，所述定位件104固定在所述金属内胆100上。第一热管32的弯折处通过定位件104进行定位，定位件104能够保持第一热管32的弯折状态，使得在发泡过程以及日常使用中，第一热管32的弯曲状态保持不变，同时避免出现第一热管32移位。其中，定位件104包括定位块1041和连接柱1042，所述定位块1041连接在所述连接柱1042上，所述连接柱1042固定在所述金属内胆100上，所述第一热管32绕在所述连接柱1042上并位于所述定位块1041和所述金属内胆100之间，在组装过程中，第一热管32绕在连接柱1042弯折，而第一热管32的弯折处夹在定位块1041和所述金属内胆100之间，对于定位件104与金属内胆100之间的连接，金属内胆100上铆接有铆螺母105，所述定位件104开设有通孔1043，所述铆螺母105位于所述通孔1043中，螺钉106插在所述通孔1043并螺纹连接在所述铆螺母105中。In the process of installing the semiconductor refrigeration module 200 into the metal liner 100, the mounting plate 103 on the metal liner 100 is formed with a slot 1032, and the first heat conductor 31 is inserted into the slot 1032, and the semiconductor refrigeration module Thermal conductive silicone grease is provided between the 200 and the first heat conductor 31 and installed on the mounting board 103 through the first heat conductor 31 . Preferably, the periphery of the semiconductor refrigeration module 200 is covered with a sealing ring 201, and an auxiliary mounting frame 202 is fixedly arranged on the mounting plate 103. The auxiliary mounting frame 202 is provided with a mounting port 2021, and the sealing ring 201 is located in the mounting port 2021. The ring 201 and the auxiliary mounting frame 202 can more firmly install and fix the peltier refrigerating module 200 , and at the same time, the sealing ring 201 can seal the periphery of the peltier refrigerating module 200 to prevent cooling from being lost from the periphery of the peltier refrigerating module 200 . In order to position the first heat pipe 32 and avoid the force displacement of the first heat pipe 32 when the metal liner 100 and the outer shell 101 are foamed, a positioning member 104 is provided at the bend of the first heat pipe 32 . The positioning piece 104 is fixed on the metal inner container 100 . The bending position of the first heat pipe 32 is positioned by the positioning piece 104, and the positioning piece 104 can maintain the bending state of the first heat pipe 32, so that the bending state of the first heat pipe 32 remains unchanged during the foaming process and daily use. At the same time, displacement of the first heat pipe 32 is avoided. Wherein, the positioning member 104 includes a positioning block 1041 and a connecting column 1042, the positioning block 1041 is connected to the connecting column 1042, the connecting column 1042 is fixed on the metal liner 100, and the first heat pipe 32 is wound around On the connecting column 1042 and between the positioning block 1041 and the metal liner 100 , during the assembly process, the first heat pipe 32 is bent around the connecting column 1042 , and the bending position of the first heat pipe 32 Sandwiched between the positioning block 1041 and the metal liner 100, for the connection between the positioning piece 104 and the metal liner 100, the metal liner 100 is riveted with a rivet nut 105, and the positioning piece 104 is provided with a through hole 1043 , the rivet nut 105 is located in the through hole 1043 , the screw 106 is inserted into the through hole 1043 and screwed into the rivet nut 105 .
在实际使用过程中，现有采用半导体制冷的设备通常采用风扇对半导体制冷模块200的热端进行风冷散热，需要消耗大量的电能且风扇一直工作噪音较为严重，如图2和图10所示，本实施例中的热端散热器400包括第二导热体41、多根第二热管42和散热片组43，所述第二热管42连接在所述第二导热体41上，所述散热片组43连接在所述第二热管42上。具体的，第二导热体41贴在半导体制冷模块200的热端，而散热片组43贴在外壳101上，半导体制冷模块200的热端产生的热量通过第二导热体41传递给第二热管42，第二热管42能够快速的将热量传递给散热片组43中，而散热片组43能够根据需要制成较大面积的散热体，散热片组43能够利用自身较大的散热面积对第二热管42传递的热量进行快速散热，从而无需通过风扇直接对半导体制冷模块200的热端进行散热。其中，为了充分的利用各个散热片组43进行散热，第二导热体41上还连接有第三热管44，任一所述热端散热器400中的所述第三热管44还与其余所述热端散热器400中的所述散热片组43连接。在实际使用过程中，当各个半导体制冷模块200工作产生的热量相同时，各个半导体制冷模块200通过各自的散热片组43进行散热，而当某一个半导体制冷模块200的散热量较大时，连接在该半导体制冷模块200热量的第二导热体41通过第三热管44将热量传递到其他半导体制冷模块200对应的散热片组43中，从而可以利用全部散热片组43更加高效的进行散热；在设计过程中，每个第二导热体41可以通过第三热管44与其余的散热片组43进行热连接，供用全部散热片组43的散热能力，从而实现自然冷却。而为了增强散热片组43的通风能力，散热片组43包括多片散热翅片431，所述散热翅片431上设置有通风孔432，位于同一轴线上的多个所述通风孔432形成风道，散热片组43除了利用散热翅片431之间的间隔进行通风外，还利用通风孔432形成风道进行通风，从而可以有效的增强散热片组43的通风能力。而当各个半导体制冷模块200处于较大功率下运行，为了满足大功率散热的要求，风扇45与散热片组43并排设置并位于风道的一侧，风扇45朝向风道延伸的方向出风，风扇45吹出的风进入到风道中以加快风道中风的流动，而由于热空气较轻容易朝上流动，在通风孔432中穿流的风将使得热空气在两个散热翅片431之间涡旋流动，最大程度的利用散热翅片431的面积进行散热。如图10-图12所示，为了更充分的利用散热翅片431进行散热，除了位于外侧的散热翅片431外，其余散热翅片431开设有缺口433，位于同一高度位置上的缺口433形成辅助风道，散热翅片竖向布置431均竖向布置，散热翅片竖向布置431均竖向布置，散热片组43上还设置有罩体46，所述风扇45还位于辅助风道的内侧并固定在罩体46上，罩体46遮盖在散热片组43上，罩体46的下端部形成进风口，而罩体46的上端部形成出风口，风扇45启动后向辅助风道内吹风，加速散热翅片431之间的空气流动，而热空气上升从出风口输出，使得外界的冷空气从底部的进风口进入到散热翅片431之间，使得冷风能够从下至上运动过程中，经过散热翅片431的整个表面，以充分利用散热翅片431的散热能力；而罩体46上用于安装风扇45的位置还开设有通风口461，风扇45通过通风口461将外界的风进一步的引入到散热翅片431中。其中，每个第二导热体41的两侧分别设置有散热片组43，而风扇45同时位于两个散热片组43之间。而为了便于热管与第二导热体41连接，如图13所示，第二导热体41上形成有多个安装孔410，所述第二热管42和所述第三热管44插在对应的所述安装孔410中，热管插在安装孔410中能够增大与第二导热体41之间的接触面积，提高热传导效率；而第二导热体41包括两个表面设置有凹槽的压块411，两个所述压块411固定连接在一起，对应的两个所述凹槽形成所述安装孔410，采用两个压块411组成第二导热体41，能够便于热管与第二导热体41之间的组装连接。In actual use, the existing semiconductor refrigeration equipment usually uses a fan to cool and dissipate the hot end of the semiconductor refrigeration module 200, which requires a lot of power consumption and the noise of the fan is relatively serious, as shown in Figure 2 and Figure 10 , the hot end radiator 400 in this embodiment includes a second heat conductor 41, a plurality of second heat pipes 42 and a fin group 43, the second heat pipes 42 are connected to the second heat conductor 41, and the heat dissipation The sheet group 43 is connected to the second heat pipe 42 . Specifically, the second heat conductor 41 is attached to the hot end of the semiconductor refrigeration module 200, and the cooling fin group 43 is attached to the casing 101, and the heat generated by the hot end of the semiconductor refrigeration module 200 is transferred to the second heat pipe through the second heat conductor 41 42. The second heat pipe 42 can quickly transfer heat to the cooling fin group 43, and the cooling fin group 43 can be made into a large-area radiator according to needs, and the cooling fin group 43 can utilize its larger heat dissipation area to the first The heat transferred by the second heat pipe 42 is rapidly dissipated, so that the hot end of the semiconductor cooling module 200 does not need to be dissipated directly by a fan. Wherein, in order to fully utilize each fin group 43 to dissipate heat, the second heat conductor 41 is also connected with a third heat pipe 44, and the third heat pipe 44 in any one of the hot end radiators 400 is also connected with the rest of the heat sinks. The heat sink group 43 in the hot end heat sink 400 is connected. In actual use, when the heat generated by each semiconductor refrigeration module 200 is the same, each semiconductor refrigeration module 200 dissipates heat through its own heat sink group 43, and when the heat dissipation of a certain semiconductor refrigeration module 200 is large, the connection The second heat conductor 41 of the heat of the semiconductor refrigeration module 200 transfers heat to the heat sink group 43 corresponding to other semiconductor refrigeration modules 200 through the third heat pipe 44, so that all heat sink groups 43 can be used to dissipate heat more efficiently; During the design process, each second heat conductor 41 can be thermally connected to the rest of the heat sink groups 43 through the third heat pipe 44 to provide the heat dissipation capacity of all the heat sink groups 43 to realize natural cooling. In order to enhance the ventilation capacity of the heat sink group 43, the heat sink group 43 includes a plurality of heat dissipation fins 431, and the heat dissipation fins 431 are provided with ventilation holes 432, and a plurality of the ventilation holes 432 on the same axis form a wind. In addition to using the space between the cooling fins 431 for ventilation, the cooling fin group 43 also uses the ventilation holes 432 to form air channels for ventilation, so that the ventilation capacity of the cooling fin group 43 can be effectively enhanced. And when each semiconductor refrigeration module 200 is running under relatively high power, in order to meet the requirements of high-power heat dissipation, the fan 45 and the cooling fin group 43 are arranged side by side and are located on one side of the air duct, and the fan 45 is directed towards the direction where the air duct extends. The wind blown by the fan 45 enters the air duct to speed up the flow of the wind in the air duct, and because the hot air is lighter and easily flows upward, the wind passing through the air vent 432 will make the hot air between the two cooling fins 431 The vortex flow maximizes the use of the area of the cooling fins 431 to dissipate heat. As shown in Figures 10-12, in order to more fully utilize the heat dissipation fins 431 for heat dissipation, except for the heat dissipation fins 431 located on the outside, the remaining heat dissipation fins 431 are provided with notches 433, and the notches 433 at the same height position form In the auxiliary air duct, the vertical arrangement of cooling fins 431 is arranged vertically, and the vertical arrangement of cooling fins 431 is arranged vertically. The cooling fin group 43 is also provided with a cover 46, and the fan 45 is also located at the side of the auxiliary air duct. The inner side is fixed on the cover body 46, and the cover body 46 is covered on the cooling fin group 43. The lower end of the cover body 46 forms an air inlet, and the upper end of the cover body 46 forms an air outlet. After the fan 45 starts, it blows air into the auxiliary air duct. , to accelerate the air flow between the heat dissipation fins 431, and the hot air rises and is output from the air outlet, so that the external cold air enters between the heat dissipation fins 431 from the air inlet at the bottom, so that the cold air can move from bottom to top. Through the entire surface of the heat dissipation fin 431, to make full use of the heat dissipation capacity of the heat dissipation fin 431; is introduced into the cooling fins 431. Wherein, the two sides of each second heat conductor 41 are respectively provided with cooling fin groups 43 , and the fan 45 is located between the two cooling fin groups 43 at the same time. In order to facilitate the connection of the heat pipe with the second heat conductor 41, as shown in FIG. In the installation hole 410, the heat pipe inserted in the installation hole 410 can increase the contact area with the second heat conductor 41 and improve the heat conduction efficiency; and the second heat conductor 41 includes a pressing block 411 with grooves on both surfaces , the two pressing blocks 411 are fixedly connected together, and the corresponding two grooves form the installation hole 410, and the second heat conducting body 41 is composed of two pressing blocks 411, which can facilitate the connection between the heat pipe and the second heat conducting body 41. assembly connection between.
最后应说明的是：以上实施例仅用以说明本发明的技术方案，而非对其限制；尽管参照前述实施例对本发明进行了详细的说明，本领域的普通技术人员应当理解：其依然可以对前述各实施例所记载的技术方案进行修改，或者对其中部分技术特征进行等同替换；而这些修改或者替换，并不使相应技术方案的本质脱离本发明各实施例技术方案的精神和范围。Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit them; although the present invention has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that: it can still be Modifications are made to the technical solutions described in the foregoing embodiments, or equivalent replacements are made to some of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the spirit and scope of the technical solutions of the various embodiments of the present invention.
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201410711517.1ACN105627677B (en) | 2014-12-01 | 2014-12-01 | Refrigeration equipment cabinet and semiconductor refrigerating equipment |
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201410711517.1ACN105627677B (en) | 2014-12-01 | 2014-12-01 | Refrigeration equipment cabinet and semiconductor refrigerating equipment |
| Publication Number | Publication Date |
|---|---|
| CN105627677Atrue CN105627677A (en) | 2016-06-01 |
| CN105627677B CN105627677B (en) | 2019-03-05 |
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201410711517.1AActiveCN105627677B (en) | 2014-12-01 | 2014-12-01 | Refrigeration equipment cabinet and semiconductor refrigerating equipment |
| Country | Link |
|---|---|
| CN (1) | CN105627677B (en) |
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