TWM282236U - Improved structure of a heat dissipating device using a circulated heat pipe - Google Patents

Improved structure of a heat dissipating device using a circulated heat pipe Download PDF

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TWM282236U
TWM282236U TW94211000U TW94211000U TWM282236U TW M282236 U TWM282236 U TW M282236U TW 94211000 U TW94211000 U TW 94211000U TW 94211000 U TW94211000 U TW 94211000U TW M282236 U TWM282236 U TW M282236U
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Taiwan
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liquid
capillary
evaporator
main
tube
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TW94211000U
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Chinese (zh)
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Ke-Chin Li
Ji-De Jin
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Yeh Chiang Technology Corp
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M282236 八、新型說明: 【新型所屬之技術領域】 本創作係一種迴路式散熱器結構的改良,尤指一種利用主 結構體(包含蒸發器的二級多孔管芯、主管芯及補償室)與蒸 器管、冷凝器及回液管的結構設計,使其利於量產化製作,並 採氣液分離原理’以迴路式達到最佳的散熱效能。 【先前技術】 伴隨著科技的日新月異,電子產品迅速發展,在輕、薄、 短、小及精緻化的趨勢下,加上對性能之要求越來越高,相對 使用的功率必疋也越來越高。如此,體積變小、功率變大的要 求,電子元件表面的發熱密度將迅速增加,相對應的熱處理問 題就變得十分棘手;這可以從如電腦的c pu、VGA卡、南北 橋晶片組或軌元件等高功率“巾的聚熱效麟到驗證。因 此’如何於有限空間畴決賴散熱問題,確保電子產品的正 常操作成騎今亟需解決的_技額題和纏化需求。 要來源 情形 bk成其性能在某些操作情形下會有大幅度 傳統式熱管因其熱傳導性佳,現今已被廣泛應用於電子熱 =,如電腦内部中央處理器的散熱等。而由於其毛細結構 細力、貝:於整根熱管内部管壁,雖然提供了工質液體回流的毛 仁其在毛細結構内部的流動阻力,也成為流動壓降的主 遞減的 迴路熱管(L 〇 0 p 療發器、蒸氣段、冷凝器、M282236 8. Description of the new type: [Technical field to which the new type belongs] This creation is an improvement of a loop-type radiator structure, especially a main structure (a secondary porous tube core including an evaporator, a main core and a compensation chamber) and The structural design of the evaporator tube, condenser and liquid return tube makes it conducive to mass production, and the principle of gas-liquid separation is used to achieve the best heat dissipation efficiency in a loop type. [Previous technology] With the rapid development of science and technology, electronic products have developed rapidly. Under the trend of lightness, thinness, shortness, smallness and refinement, coupled with the increasing demand for performance, the relative power used must increase. The higher. In this way, the requirements for smaller size and greater power will increase the heating density of the surface of electronic components, and the corresponding heat treatment problems will become very difficult. This can be done from, for example, computer CPUs, VGA cards, North and South Bridge chip sets, or The high-efficiency heating effect of rail components such as rail components is verified. Therefore, 'how to rely on the heat dissipation problem in a limited space domain to ensure the normal operation of electronic products has become a _technical issue and entanglement needs that need to be addressed today. The source case bk has its performance. Under certain operating conditions, the traditional heat pipe has a large thermal conductivity and is now widely used in electronic heat, such as the heat dissipation of the computer's internal CPU. Due to its capillary structure Thin force and shell: Although the inner wall of the entire heat pipe provides the backflow of working fluid to the hair core, its flow resistance inside the capillary structure has also become the main decreasing loop heat pipe of the pressure drop (L 〇0 p Therapy Condenser, steam section, condenser,

Heat P i p e,LHP)由 回流段、補償室等五部分所組成, P94156a 5 M282236 ^參示,。為’物路熱_及操作原理示意 θ *發15 ( 1 a )内部有—組毛細結構(w i c k t U Γ e) (1b) °在蒸發器(1 a)壁或毛細 …構_(lb)上有許多槽道—蒸氣通道(1〇,如A-A截 r二〇 7本的工作原理疋毛細結構(1 b )本身可以將 液船上吸,使得毛細結構(i b )充滿巧液體,而當基發 器(! a)被加熱時,毛細結構(lb)也被加熱,毛細結構 b )㈣㈣便會蒸發成績,同畴祕量;當氣體沿 著蒸氣段(2 a )來浙凝n ( 3 a )的時候,氣體被冷凝成 液體,毛細結構(i b)的毛細力再使液體沿著回流段(4㈧ 回流到補償室(5 a ),制達毛細結構(i b )。如此形成 了-個迴圈。此-迴路熱管内工質迴_驅動力,主要來自於 毛細結構(1b)所產生的毛細力,因此毛細力必須大於工質 在系統各元狀間流騎造成賴降,柯確㈣統可以穩定 地操作。這就是所謂的毛細極限。如果輸人熱量造成的流動超 過毛細極限時’ _工質的迴圈失敗,補魅無法適時提供工 質液體回流,迴路熱管將出現乾涸(d r v ^ +、a各 1 y 〇 u t)現象。 由於傳統熱管存在有上述的缺點,因此αΗ Ρ)的設計提供了-種良好的改進方式。由於其毛細結構(丄 b)只存在於蒸發器(1a)内,而傳輪路徑採用平滑管路, 相對於整個傳輸雜,内部液態工質在毛崎如之流動僅占 -小部分’如此可以纽地齡提高毛細力,同料會增加液 體工質在毛細管加的流動阻力’目此能有效地克服逆重力操 作及長距離熱輸送的流動阻力等問題。本創作和傳統熱管主要 P94156a 6 M282236 2不同疋⑭路熱官是基於氣液通道分離的 =向與冷凝後的賴工質平行,便财魏熱管攜帶 ^ ’因此能承受比熱管更高的瓦特數’且由於其管路的二 广j ’所以可鮮_情況進行不_設計,相當具有彈 卜能符合現今電子產^高效能及輕薄則、的趨 【創作目的】 本創作人有鐘於上述習用熱導管效能的開發幾乎已達 頸’而習知的迴路熱管受限於小型化的量產技術及價格因素, 尚未普及應用於民間電子產業;故提出可量產並可達高效能的 迴路熱管整體設計結構,並航達顺佳的散熱效能,為其主 要創作目的。 【新型内容】 -種迴路式散熱&結構之改良,主要包括_主結構體,該 主結構體係一平板形真空密封的金屬殼體,一冷凝器,其一邊 以蒸氣管與主結構體的主管芯底部的液態工質槽道相連接,另 邊以一回液管連接於主結構體的補償室,該主結構體包含作 為蒸發器的二級多孔管芯、主管芯及補償室所構成,當該蒸發 器吸收外界的熱量時,毛細結構内的液體工質也被加熱,蒸發 成蒸氣且處於飽和溫度及壓力下,氣體乃從蒸發器底部主管芯 的液悲工質槽道菜"U·入蒸氣管,並經冷凝器,氣體被冷凝成液 體,經回液管回流至主結構體的補償室,並到達毛細結構層, 如此形成一個迴圈反覆作工,以達到迴路式散熱器高效能的散 熱效果者。 【實施方式】 P94156a 7 M282236 為使錢-舞解摘作吨朗敍其_ 作較具體的實施例,並配合附圖 牛本創 ^ μ θ _的實施例誶細·如以下所述。 心見第-〜四圖所不,本創作為平板形迴路哭社 構的改良設計,錢作原理騎㈣知__鱗轉^。 而本創作主要係由主結構體⑴、蒸氣管⑵、冷凝门。 =液管⑷等所構成;其中,該主結構體⑴為L平板 =真空密侧金屬殼體,其包含鱗蒸發器的二級多孔管芯(工 2)主管芯(13)及補償室(11 ) 屬陰U所構成。其中該蒸發器 為金屬燒結體(如銅、銻、鈦等),而補償室為液態工質(如水、 =_等)⑽齡;又贿發ϋ包含二種柯倾的毛細 ^構’-為主管芯(i 3 ),底部為液態巧槽道(i 3丄), 1-為二級多孔管芯(i 2 ),含多個蒸氣孔道所構成。當蒸發 器,收外界的熱量時,毛細結構内的液體巧也被加熱,蒸發 成療氣且處於飽和溫度,但由於在槽道中被持續加熱,使蒸發 ^的主g心(1 3 )的液紅質槽道(i 3 i )為過熱蒸氣。 氣體從溝槽沿蒸發器駐管芯(1 3 )的鶴工諸道(工3 1)移動彙整至蒸氣管(2)的蒸氣彙聚點(2 i),蒸氣經 歷了-個突然變大的過程,所以溫度和壓力都有釘降,但仍 然是過熱的。賴過程因耗減構_加熱卿在這過程中 會被加熱成過熱的蒸氣。從上述蒸氣彙聚點(2 i)的過熱氣 體移動到②氣官(3)的蒸氣段末端(2 2)處,過熱的蒸氣 逐漸變成飽和蒸氣。如果在這個過程中為絕熱,過熱氣體會因 ^路體賴大產生等溫賴現象。等溫膨脹紐從蒸氣段末 ^(2 2)移動至冷凝器(3)的冷凝段(31)(冷凝段最 P94156a 8 M282236 1 一個蒸氣節點)時,因為氣體將熱制外界,部分蒸氣冷凝 變成▲了液體即冷凝段第-個液體節點(3 2 ),但還是纽飽 =態(需要注意的是’冷凝段(31)(冷赌最後一個蒸 ,節點)與冷凝段第-個液體節點(3 2)並不是氣液分界的 氣相介面和液相介面)。在冷凝段第一個液體節點(3 2)的 ^液體被持續的冷卻至全部變成了更低溫度的過冷液體即回 “又别端(41),並在毛細力的作用下,液體從回流段前端 j 41)向補償室(丄丄)移動,更由於存在阻力損失,補償 至(1 1)為瞒中的壓力最低點。也由於毛崎構持續被加 熱的原因’使得熱量被反傳到補償t (工丄),故從回流段前 端(4 1 )到補償室(i i )是_加溫的過程。因為毛細力 將補償室(1 1 )處驗體往毛細結射吸1毛細結構 續加熱’故從補償室(i i)到二級多孔管芯(i 2)是加⑺ _過程。但由於補償室(1 1 )與高溫的毛崎構以及;; 器相連,故其溫度不是最低的。需要注意的是,補償室(工/ 也是氣液兩相共存,所以也在飽和線上。二級多孔管芯( 處的液體_加_蒸發溫鱗,職生的驗便杜細 中脫離跑到液態工質槽道(丄3丄)處。 、、、口傅 迴路式散熱H中的毛細管芯—二級多孔找(1 2 )、 管芯(1 3 )駐要作用和傳統式鮮—樣,主要 = 壤提供毛細鷄力以及賴流動的通道 1 中,理想的管芯應該同時擁有較高的毛細力和===統 然而,較糾毛細力通常要求有較小的孔徑,但較小的 意味較低的渗透率。因此,為了有效達成最鲜_毛細= P94156a 9 M282236 滲透率需求,本創作的毛崎糾_金屬粉 發器内複合式燒結管芯:主找(13)(“二= 微米孔徑物質,極細孔經)+二級多孔營弋 疋早、及 粗燒細賴。咖(i 3)底部的'猶)(= 能有效且迅速鑛缝至統管⑵魏行餘H) ::!芯(2,較大毛細孔徑可降低其導熱 ?备範走向減官(2 )端,另外較大之貫穿孔(& 巧 以有效提升補償室(1 ;L)駐質㈣鱗透 ^ 第四圖為主管芯⑴)的底部結構圖。其目的第在二於圖將)燒 域溝槽化’贱使主結碰⑴接麵源H氣能迅速 ⑵_作,_下,迴路熱管補償 至(1 1)”冷綠(3 )之間有著液體重新分佈的交互作用, 此作用造成迴路熱管的自動調節(a U t 〇 g 1 a t 1 Q n)特性’在此特性之下,鱗熱管為可 =熱阻;在實務上’適當的設計參射蚊此自_節的行為 、、可,由控制回流液體溫度,達到主動調節温度的目的。 、綜上所述,本創作所設計的結構確實可利於量產化製造, 並達到迴路式散熱n高效能的餘效果,功能上遠勝於習式 者’具進步性及產業彻價值,爰依法提出新型專利的申請。 上述的具體實施例是用來詳細說明本創作的目的、特徵及 j效僅為本|彳作的部分實施例,當不能以此限定本創作的實 &範圍凡熟悉此類技藝之人仕,根據上述說明,及依以下申 睛專利範騎飾結構概及在功效上所作等效㈣變換或修 P94156a 10 M282236 改八本貝未脫離出本創作的精神範脅者,皆應包含在本創作 的專利權範圍。 【圖式簡單說明】 第一圖係習用迴路熱管示意圖。 第二圖係本創作平板形迴路熱管之操作原理圖。 弟二圖係本創作二級多孔管芯結構圖。 第四圖係本創作主管芯底部結構圖。 【主要元件符號說明】Heat P i p e (LHP) is composed of five parts, such as the return section and compensation chamber. P94156a 5 M282236 For 'object road heat' and the principle of operation θ * hair 15 (1 a) inside there is a group of capillary structures (wickt U Γ e) (1b) ° on the wall of the evaporator (1 a) or capillary ... structure_ (lb) There are many channels—the vapor channel (10, such as the working principle of AA truncated 2007). The capillary structure (1 b) itself can suck up the tanker, so that the capillary structure (ib) is filled with clever liquid, and when the base When the hair dryer (! A) is heated, the capillary structure (lb) is also heated, and the capillary structure b) will evaporate, with the same domain secret amount; when the gas is condensed along the vapor section (2 a), n (3 a), the gas is condensed into a liquid, and the capillary force of the capillary structure (ib) causes the liquid to flow back to the compensation chamber (5a) along the return section (4㈧) to obtain the capillary structure (ib). Loop. The driving force of the working medium in the loop heat pipe mainly comes from the capillary force generated by the capillary structure (1b), so the capillary force must be greater than the flow of the working medium between the various elements of the system, resulting in a drop. The system can operate stably. This is the so-called capillary limit. If the flow caused by heat input exceeds the capillary Time-Limited _ Circulation of the working medium fails, and the charm can not provide the working medium liquid to return in time, and the circuit heat pipe will dry out (drv ^ +, a each 1 y 〇ut) phenomenon. Because the traditional heat pipe has the above disadvantages, so αΗ P) The design provides a good way to improve. Because its capillary structure (丄 b) exists only in the evaporator (1a), and the transmission path uses a smooth pipeline, compared to the entire transmission complex, the internal liquid working fluid only accounts for-a small part of the flow in Maozuru The capillary force can be increased at the new age, and the same material will increase the flow resistance of the liquid working medium in the capillary tube. This can effectively overcome the problems of anti-gravity operation and long-distance heat transfer flow resistance. This creation and the traditional heat pipe are mainly P94156a 6 M282236 2 Different Kushiro heat officials are based on the separation of the gas-liquid channel = parallel to the condensed Lai working medium, which is carried by the Weiwei heat pipe ^ 'so it can withstand higher watts than the heat pipe It can be used for designing, and it can be used in various situations because of its pipeline. It is quite capable of conforming to the current electronic production. It is highly efficient, thin and light. [Creation purpose] The author has Zhong Yu The development of the efficiency of the conventional heat pipe has almost reached the neck level, and the conventional loop heat pipe is limited by the miniaturized mass production technology and price factors, and has not yet been widely used in the folk electronics industry; therefore, it is proposed that mass production can reach high efficiency. The overall design of the loop heat pipe and the heat dissipation efficiency of Hangda Shunjia are its main creative purposes. [New content]-An improvement of the loop-type heat dissipation & structure, mainly including the main structure, the main structure system is a flat vacuum-sealed metal shell, a condenser, and a steam tube on one side of the main structure The liquid working medium channel at the bottom of the main core is connected, and the other side is connected to the compensation chamber of the main structure by a liquid pipe. The main structure includes a secondary porous tube core as an evaporator, a main core and a compensation chamber. When the evaporator absorbs external heat, the liquid working medium in the capillary structure is also heated, evaporates into vapor and is at a saturated temperature and pressure, and the gas is a liquid working medium channel dish from the main core of the evaporator & quot U · Into the steam pipe, and through the condenser, the gas is condensed into a liquid, returned to the compensation chamber of the main structure through the liquid return pipe, and reaches the capillary structure layer, so as to form a loop to work repeatedly to achieve the loop type High-efficiency heat sink. [Embodiment] P94156a 7 M282236 In order to make the money-dance solution to make a more specific embodiment, and cooperate with the drawings Niu Benchuang ^ μ θ _ The embodiment is detailed as described below. Seeing the first-four pictures, this creation is an improved design of the flat-shaped circuit crying organization. Qian Zuo's principle rides __scale Zhuan ^. This work is mainly composed of the main structure ⑴, the steam pipe ⑵, and the condenser door. = Liquid pipe ⑷, etc .; where the main structure ⑴ is L flat plate = vacuum-tight side metal shell, which contains the secondary porous tube core of the scale evaporator (Work 2), the main core (13) and the compensation chamber ( 11) It is composed of Yin U. The evaporator is a metal sintered body (such as copper, antimony, titanium, etc.), and the compensation chamber is a liquid working medium (such as water, = _, etc.); and the bribe contains two kinds of capillary wicks. It is the main core (i 3), the bottom is the liquid channel (i 3 丄), and 1- is the secondary porous tube core (i 2), which is composed of multiple vapor channels. When the evaporator receives external heat, the liquid in the capillary structure is also heated, evaporates into healing gas and is at a saturated temperature, but because of continuous heating in the channel, the main g of the evaporation ^ (1 3) The liquid red matter channel (i 3 i) is superheated vapor. The gas moves from the groove along the crane's ditch (1 3) of the evaporator to the condensing point (2 i) of the vapor tube (2), and the vapor has undergone a sudden enlargement process. , So the temperature and pressure have dropped, but still overheated. The Lai process is depleted due to the structure loss. The heating element will be heated into superheated steam during this process. The superheated gas from the steam convergence point (2 i) moves to the end (2 2) of the steam section of ② Qiguan (3), and the superheated steam gradually becomes saturated steam. If it is adiabatic in this process, the superheated gas will produce isothermal lye due to the large size of the road. When the isothermal expansion button moves from the end of the steam section ^ (2 2) to the condensation section (31) of the condenser (3) (the condensation section is the most P94156a 8 M282236 1 a steam node), because the gas will heat the outside, part of the steam condenses Becomes ▲ the liquid is the first liquid node (3 2) in the condensation section, but it is still full = state (note that the 'condensation section (31) (the last steaming node of the cold bet) and the first liquid in the condensation section Node (3 2) is not the gas-phase interface or the liquid-phase interface at the gas-liquid boundary). At the first liquid node (3 2) in the condensation section, the liquid is continuously cooled to all become colder liquid at a lower temperature, and then returns to the other end (41), and under the action of capillary force, the liquid from The front end of the return section j 41) moves to the compensation chamber (丄 丄), and because of the resistance loss, the compensation is to the lowest point of the pressure in (1 1). Also because of the continuous heating of Maozaki structure, the heat is reversed. Passed to the compensation t (work), so the process from the front end of the return section (4 1) to the compensation chamber (ii) is _ warming. Because the capillary force sucks the test object at the compensation chamber (1 1) toward the capillary knot and sucks 1 The capillary structure continues to be heated, so the compensation chamber (ii) to the secondary porous wick (i 2) is a process of adding 但. However, because the compensation chamber (1 1) is connected to the high-temperature Maozaki structure and; The temperature is not the lowest. It should be noted that the compensation chamber (the gas / liquid two-phase coexistence, so it is also on the saturation line. The secondary porous tube core (the liquid _ plus _ evaporation temperature scale at the place, the occupational examination of the students Run away to the liquid working medium channel (丄 3 丄). Capillary tube in the loop heat sink H Core-secondary porous finding (1 2), die (1 3) and the traditional fresh-like function, mainly = soil provides capillary chicken power and depends on the flow channel 1, the ideal core should also have more High capillary force and === system However, more capillary force usually requires smaller pore size, but smaller means lower permeability. Therefore, in order to effectively achieve the freshest _capillary = P94156a 9 M282236 permeability requirements , This creation by Mao Qiqiu_Metal powder hair dryer composite sintered die: the main search (13) ("two = micron pore material, ultra-fine pore warp) + two-stage porous camping early, and coarse burn fine . '(J) at the bottom of the coffee (i 3) (= can effectively and quickly sew to the management tube Wei Xingyu H) ::! Core (2, larger capillary pore size can reduce its thermal conductivity? Ready to reduce to the (2) end The bottom structure of the other large through hole (& it is used to effectively improve the compensation chamber (1; L) to accumulate the lumps (the fourth picture is the main core). Its purpose is to be burned in the second picture) The field trenching is so low that the main junction can meet the source H gas quickly. Next, the loop heat pipe is compensated to (1 1) "cold green (3). The interaction of liquid redistribution, this effect causes the automatic adjustment of the loop heat pipe (a U t 〇g 1 at 1 Q n) characteristic 'Under this characteristic, the scale heat pipe is possible = thermal resistance; in practice,' appropriate design The behavior of the mosquito shooter can be controlled by controlling the temperature of the returning liquid to achieve the purpose of actively adjusting the temperature. In summary, the structure designed by this creation is indeed conducive to mass production, and achieves the circuit type. The heat dissipation n high-efficiency residual effect is far superior to the habitualist in terms of its progressiveness and industrial value, and it has applied for a new patent application according to law. The specific embodiments described above are used to explain the purpose, characteristics and The j effect is only part of the embodiment of this work. When it is not possible to limit the scope of this creation & anyone who is familiar with such skills, according to the above description, and according to the following general patent patent riding structure Equivalent transformations or amendments to the effectiveness of P94156a 10 M282236 have been included in the scope of the patent rights of this creation without departing from the spirit of this creation. [Schematic description] The first diagram is a schematic diagram of a conventional loop heat pipe. The second diagram is the operation principle of the flat-plate loop heat pipe. The second figure is the structure diagram of the secondary porous core. The fourth picture is the structure of the bottom of the creative core. [Description of main component symbols]

(131)· (2 1) Q丄).......主結構體 (1 2 ) · · · ·二級多孔管芯 (1 3 )·······主管芯 (2 )........蒸氣管 (2 2).....蒸氣段末端 (31).....••冷凝段 (4 )......••回液管 •··補償室 • · ·貫穿孔 液態工質槽道 •蒸氣彙聚點 •··冷凝器 (3 2 )·冷凝段第一個液體節點 (41)......回流段前端 P94156a 11(131) · (2 1) Q 丄) .... Main structure (1 2) · · · · Secondary porous core (1 3) ······ Main core (2) ........ Steam tube (2 2) ..... End of steam section (31) ..... •• Condensation section (4) ...... •• Return pipe • · · Compensation chamber ··· through-hole liquid working medium channel · condensation point of vapor ··· condenser (3 2) · the first liquid node of the condensation section (41) ...... the front end of the return section P94156a 11

Claims (1)

M282236 九、申請專利範圍: 1 -種娜式散熱$結構之改良,其主要包括_主結構體、一 蒸氣管、-冷凝器及一回液管所構成,其特徵在於:該主結 構體為-平板形真空密封之金胁體,其巾包含蒸發器及補 償室,當該蒸發器吸收外界之熱量時,毛細結構内之液體工 質被加熱’蒸發成蒸氣且處於飽和溫度及壓力下,氣體從蒸 發器底。卩之液恶工質槽道彙流人蒸氣管,並經冷凝器,氣體 被冷凝成液體’經回液管回流至補償室,並到達毛細結構層, 如此形成-個迴圈反覆作工,以達到迴路式散熱器高效能之 散熱效果者。 2 ·如申請專利範圍第丄項所述之迴路式散熱器結構之改良,其 中,該蒸發器包含二種不同孔徑之毛細結構,一為主管芯, 其底部為溝槽結構,另-為二級多孔管芯,含多個液態工質 槽道所構成者。 〜、 P94156a 12M282236 9. Scope of patent application: 1-An improvement of a type of heat sink structure, which mainly consists of a main structure, a steam tube, a condenser, and a liquid return pipe, which is characterized in that the main structure is -A flat-plate vacuum-sealed gold threat body, whose towel includes an evaporator and a compensation chamber. When the evaporator absorbs external heat, the liquid working medium in the capillary structure is heated and 'evaporates into vapor and is under saturated temperature and pressure. The gas comes from the bottom of the evaporator. The trough of the liquid refrigerant converges into the vapor tube, and through the condenser, the gas is condensed into a liquid, and then returns to the compensation chamber through the liquid return tube, and reaches the capillary structure layer, thus forming a loop to work repeatedly. In order to achieve the high-efficiency cooling effect of the loop type radiator. 2 · The improvement of the loop type radiator structure described in item 丄 of the patent application scope, wherein the evaporator includes two capillary structures with different apertures, one is the main core, the bottom is a groove structure, and the other is two. Grade porous tube core, consisting of multiple liquid working fluid channels. ~, P94156a 12
TW94211000U 2005-06-30 2005-06-30 Improved structure of a heat dissipating device using a circulated heat pipe TWM282236U (en)

Priority Applications (1)

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Application Number Priority Date Filing Date Title
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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101026946B (en) * 2006-02-22 2010-09-15 业强科技股份有限公司 Loop heat-conducting device
TWI461145B (en) * 2012-02-24 2014-11-11 Delta Electronics Inc Heat-exchanged cabinet structure
CN113758324A (en) * 2020-06-03 2021-12-07 Abb瑞士股份有限公司 Loop type heat pipe for low-voltage driver
CN114614152A (en) * 2022-03-22 2022-06-10 深圳市科信通信技术股份有限公司 Battery box and radiator thereof

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101026946B (en) * 2006-02-22 2010-09-15 业强科技股份有限公司 Loop heat-conducting device
TWI461145B (en) * 2012-02-24 2014-11-11 Delta Electronics Inc Heat-exchanged cabinet structure
CN113758324A (en) * 2020-06-03 2021-12-07 Abb瑞士股份有限公司 Loop type heat pipe for low-voltage driver
CN114614152A (en) * 2022-03-22 2022-06-10 深圳市科信通信技术股份有限公司 Battery box and radiator thereof

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