201128743 六、發明說明： 【發明所屬之技術領域】 本發明係關於具有進行彎曲加工來增大散熱面積的散 熱鰭片之散熱器。 【先前技術】 由於電腦的CPU等的電子零件、led、液晶、PDP、 EL、手機等的發光元件等的電子零件之小型化、高積體化 ’使得來自於各零件之發熱所引起的裝置的使用壽命降低 、產生錯誤作動等逐漸成爲一大問題，對電子零件之散熱 對策的要求逐年提高。作爲電子零件的散熱對策，除了使 用風扇等之強制冷卻以外，亦使用由金屬性的散熱鰭片所 構成之散熱用零件。散熱鰭片係可增大散熱面積，來提升 散熱特性。因此’將金屬板進行彎曲加工而增大散熱面積 之散熱鰭片被開發。（參照專利文獻1 ) 此散熱鰭片係將散熱鰭片固定在與熱源熱結合之熱傳 導部。散熱鰭片係設有：將薄金屬板形成爲與熱傳導部接 觸之谷部；自谷部形成爲起立姿勢之站立部；及以在站立 部的頂部折返的方式彎曲形成之山部。站立部係作爲使相 對向的金屬薄板彼此密接之構造。 〔專利文獻1〕日本特開2007-27544號公報 【發明內容】 〔發明所欲解決之課題〕 -5- 201128743 以上的散熱鰭片，雖具有可進行彎曲加工而增大散熱 面積之特徵，但是，因使用金屬板，所以會有變重之缺點 。特別是當將山部的間距縮窄、站立部的上下寬度增廣來 增大散熱面積時，則會有變重之缺點。又，由於使用寬廣 面積之金屬板，故也會有成本變高之缺點。重的散熱鰭片 ，爲了進行固定而被要求強大的強度，造成安裝部的成本 也變高。且，軽量化特別是在重要的用途例如代替電燈泡 而使用複數個LED的電燈泡形態的光源等，因代替輕量的 電燈泡來使用，所以，被要求其重量接近電燈泡。爲了減 少LED的溫度上升，當將以往的金屬板之散熱鰭片固定時 ，散熱鰭片會變重，造無法減輕光源等的問題產生。又， 在固定在電路基板的能量電晶體、能量FET等的半導體元 件，亦固定有散熱鰭片，但是，此散熱鰭片係藉由電路基 板支承半導體元件，所以被要求輕量且具有優良的散熱特 性。 本發明係爲了解決以上的問題點而開發完成的發明。 本發明之重要目的係在於可增大散熱鰭片的散熱面積而達 到優良的散熱特性，並可形成極輕之紙薄片的散熱器。 又’本發明的另一重要目的係在於提供可廉價地大量 生產的紙薄片的散熱器。 〔用以解決課題之手段及發明效果〕 本發明的請求項1的紙薄片的散熱器係將進行彎曲加 工所形成的散熱鰭片1、21、31固定於熱傳導部2、22、32 -6- 201128743 、42。紙薄片的散熱器中，散熱鰭片1、21、3 1係以對纖 維添加熱傳導粉末所形成的濕式抄紙的紙薄片3，將此散 熱鰭片1、21、31彎曲加工成鋸齒狀，而呈熱結合狀態予 以固定於熱傳導部2、22、32、42。 以上的紙薄片的散熱器係具有既可增大散熱鰭片的散 熱面積而達到優良的散熱特性’又可極輕化之特徵。這是 由於將散熱鰭片作爲以濕式抄紙之紙製。順便一提，未設 有散熱器之電燈泡形態的LED光源’其最高溫度會成爲極 高之大約l〇〇°C，但’相對於此’在相同的LED光源固定本 發明的紙薄片的散熱器，則可將該溫度作成爲5 2 °C〜6 3 °C ，可降低大約4 0 °C。又，由於將散熱鰭片作爲成紙薄片之 散熱器的重量僅有12g至90g，故，既可將各種形態的光源 減輕，又可有效地將LED的發熱予以散熱而減少溫度上升 。又，不僅是LED，半導體元件也有因溫度上升造成效率 降低的特性。例如，LED會隨著溫度上升，造成發光效率 降低，而相反地，當溫度自60°C降低至30°C時，則發光效 率會提高大約50%。且更有問題的是，當半導體元件因溫 度上升造成效率降低時，則電力損失變大而發熱量增加。 因此，半導體元件，雖然可藉由有效率地散熱來降低溫度 ，但是，當散熱不充分時，則溫度又會上升，且當溫度上 升則會造成發熱量進一步增加，使得溫度變得更高，降低 效率之惡性循環產生。本發明的紙薄片的散熱器係因輕量 且達到優良的散熱特性，所以，可達到固定於電燈泡形態 的LED光源，既可將全體輕量化，亦可減少溫度上升，能 201128743 夠提高發光效率之理想的特徵。且，以上的紙薄片的散熱 器係因將散熱鰭片從金屬板變換成紙薄片，除了輕量，亦 可達到可廉價地大量生產的特徵。 本發明的請求項2的紙薄片的散熱器，係將彎曲成鋸 齒狀之紙薄片3的彎曲緣4呈熱結合狀態予以固定於熱傳導 部 2、22、32、42爲佳。 本發明的請求項3的紙薄片的散熱器，係將彎曲加工 成鋸齒狀之紙薄片3作成爲平面狀而當作散熱鰭片1、21、 31，將由紙薄片3所構成的散熱鰭片1、21、31的與熱傳導 部2相對向之彎曲緣4呈熱結合狀態予以固定於熱傳導部2 爲佳。 此散熱器，因將由彎曲加工成鋸齒狀之紙薄片所構成 的散熱鰭片作成爲平面狀’所以，能夠以寬廣的傳熱面積 來與平面狀的發熱零件產生熱結合，可有效率地進行散熱 〇 本發明的請求項4的紙薄片的散熱器，將彎曲成鋸齒 狀之紙薄片3的彎曲端面5呈熱結合狀態予以固定於熱傳導 部2爲佳。 本說明書中，彎曲端面係指包含被彎曲加工成鋸齒狀 之紙薄片的端緣之面’即包含已被彎曲之複數個彎曲面的 端緣之面。 本發明的請求項5的紙薄片的散熱器，散熱鰭片1係將 彎曲加工成鋸齒狀而形成的紙薄片3作爲圓筒狀’再將已 被彎曲加工之紙薄片3的彎曲端面5呈熱結合狀態予以固定 201128743 於熱傳導部2。 此紙薄片的散熱器，因將彎曲加工成鋸齒狀之紙薄片 作成爲圓筒狀，所以，可有效率地與圓柱形狀的發熱零件 熱結合而進行散熱。 ' 本發明的請求項6的紙薄片的散熱器’將複數片補強 ' 薄片8相互地平行配設，並且在相對向的補強薄片8之間， 配置有將紙薄片3彎曲加工成鋸齒狀而形成的散熱鰭片1， 散熱鰭片1係將鋸齒狀的紙薄片3的雙方的彎曲緣4呈熱結 合狀態予以固定於補強薄片8，並且將彎曲成鋸齒狀之紙 薄片3的彎曲端面5呈熱結合狀態予以固定於熱傳導部2爲 佳。 此散熱器，因在複數個補強薄片之間配置鋸齒狀的紙 薄片，所以，具有可增大散熱面積，可有效率地進行散熱 之特徵。又，因在相對向的補強薄片之間，以夾持鋸齒狀 的紙薄片的方式進行配置，所以，亦可達到以補強薄片保 護配設於此部位的散熱鰭片之特徵。 本發明的請求項7的紙薄片的散熱器，將熱傳導部2、 22、32、42作爲紙薄片1 1、12，金屬板，熱傳導性塑膠薄 _ 片13中的任一者爲佳。此散熱器，係在由紙薄片，金屬板 ’熱傳導性塑膠薄片中的任一者所構成之熱傳導部固定散 熱鰭片’能夠以散熱鰭片將發熱部的熱予以散熱。 本發明的請求項8的紙薄片的散熱器，將散熱鰭片1、 21、31的紙薄片3的厚度作成爲lmrn以下、0.05mm以上爲 佳。此散熱器可達到既可將散熱鰭片作成具有充分的強度 -9- 201128743 ，亦可具有輕量且優良的散熱特性。 本發明的請求項9的紙薄片的散熱器，係將散熱鰭片1 、21、31之紙薄片3的纖維進行打漿而在表面設有無數個 微細纖維之打漿紙漿和未被打漿之非打漿纖維，對打漿紙 漿與非打漿纖維添加熱傳導粉末後再進行濕式抄紙之紙薄 片3作爲散熱鰭片1、21、31爲佳。 以上的紙薄片的散熱器，可提升使用於散熱鰭片之紙 薄片的耐彎曲強度，既可簡單地進行彎曲加工，又可提高 熱傳導率。能夠達到作爲紙薄片之理想的特性。又，亦可 達到使用於散熱鰭片之紙薄片對振動的強度之特徵。以上 的紙薄片，耐折強度可達到4 8 2 9次，又，熱傳導率也作爲 38.15W/m · K，可達到散熱鰭片的優良散熱特性。 以上的紙薄片的散熱器，使用於散熱鰭片1、21、31 之紙薄片3的打漿紙漿，係可將由合成纖維所構成的打漿 紙漿與天然紙漿中的任一種單獨或複數種混合來加以使用 。作爲合成纖維的打漿紙漿，可使用丙烯酸纖維、聚芳酯 纖維、聚醯胺纖維、聚乙烯纖維、聚丙烯纖維、PBO ( poly(p-phenylenebenzobisoxazole))纖維、嫘縈纖維中 的任一者。又，作爲天然紙漿，可使用木材紙漿、非木材 紙漿之其中任一者》 且’非打漿纖維，可使用聚酯纖維、聚醯胺纖維、聚 丙燃纖維、聚醯亞胺纖維、聚乙烯纖維、丙烯酸纖維、碳 纖維、PBO纖維、聚醋酸乙烯酯纖維、嫘縈纖維、聚乙烯 醇纖維、乙烯-乙烯醇纖維、聚芳酯纖維、金屬纖維、玻 -10 - 201128743 、氟素纖維中的任一者。BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a heat sink having a heat radiating fin which is subjected to bending processing to increase a heat radiating area. [Prior Art] A device caused by heat generated by each component due to the miniaturization and high integration of electronic components such as a CPU such as a CPU of a computer, LEDs, liquid crystals, PDPs, ELs, and light-emitting elements such as mobile phones The reduction in service life and the occurrence of erroneous actions have gradually become a major problem, and the requirements for heat dissipation measures for electronic components have been increasing year by year. As a countermeasure against heat dissipation of electronic components, in addition to forced cooling using a fan or the like, heat-dissipating components composed of metallic heat-dissipating fins are also used. The heat sink fins increase the heat dissipation area to improve heat dissipation. Therefore, a heat sink fin which is bent by a metal plate to increase a heat radiating area has been developed. (Refer to Patent Document 1) The heat radiating fins fix the heat radiating fins to a heat transfer portion thermally coupled to a heat source. The fins are formed by forming a thin metal plate into a valley portion that is in contact with the heat conducting portion, a standing portion that is formed in a standing position from the valley portion, and a mountain portion that is bent to be folded back at the top of the standing portion. The standing portion serves as a structure in which opposite metal thin plates are in close contact with each other. [Patent Document 1] JP-A-2007-27544 [Summary of the Invention] [Problems to be Solved by the Invention] -5-201128743 The above heat-dissipating fins are characterized in that they can be bent to increase the heat-dissipating area, but Because of the use of metal plates, there is a disadvantage of becoming heavy. In particular, when the pitch of the mountain portion is narrowed and the upper and lower widths of the standing portion are increased to increase the heat dissipation area, there is a disadvantage that the weight is increased. Moreover, since a wide-area metal plate is used, there is a disadvantage that the cost becomes high. The heavy fins are required to be strong for fixing, and the cost of the mounting portion is also increased. Further, 軽 軽 特别 特别 特别 特别 重要 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 。 In order to reduce the temperature rise of the LED, when the heat radiating fins of the conventional metal plate are fixed, the heat radiating fins become heavy, and the problem of the light source or the like cannot be reduced. Further, although the heat dissipating fins are fixed to the semiconductor elements such as the energy transistors and the energy FETs fixed to the circuit board, the heat dissipating fins are required to be lightweight and excellent in supporting the semiconductor elements by the circuit board. Thermal characteristics. The present invention has been developed in order to solve the above problems. An important object of the present invention is to provide a heat sink that can increase the heat dissipation area of the heat sink fins to achieve excellent heat dissipation characteristics and form an extremely light paper sheet. Further, another important object of the present invention is to provide a heat sink of a paper sheet which can be mass-produced inexpensively. [Means for Solving the Problem and Effect of the Invention] The heat sink of the paper sheet of claim 1 of the present invention is configured such that the heat radiating fins 1, 21, 31 formed by bending are fixed to the heat conducting portions 2, 22, 32 -6 - 201128743, 42. In the heat sink of the paper sheet, the heat radiating fins 1, 21, and 31 are made of a wet paper sheet 3 formed by adding heat conductive powder to the fibers, and the heat radiating fins 1, 21, and 31 are bent into a zigzag shape. In the state of thermal bonding, the heat conducting portions 2, 22, 32, and 42 are fixed. The heat sink of the above paper sheet has the feature of being able to increase the heat dissipation area of the heat radiating fins and achieve excellent heat dissipation characteristics, and is extremely light. This is because the heat sink fins are made of paper which is wet paper. By the way, the LED light source in the form of a light bulb without a heat sink will have a maximum temperature of about 10 ° C, but the relative heat dissipation of the paper sheet of the present invention is fixed in the same LED light source. The temperature can be set to 5 2 ° C ~ 6 3 ° C, which can be reduced by about 40 ° C. Further, since the weight of the heat sink fin as the heat sink of the paper sheet is only 12 g to 90 g, the light source of various forms can be lightened, and the heat generated by the LED can be efficiently dissipated to reduce the temperature rise. Further, not only LEDs but also semiconductor elements have characteristics in which the efficiency is lowered due to an increase in temperature. For example, an LED will decrease in luminous efficiency as temperature rises, and conversely, when the temperature is lowered from 60 ° C to 30 ° C, the luminous efficiency is increased by about 50%. Further, when the efficiency of the semiconductor element is lowered due to an increase in temperature, the power loss is increased and the amount of heat generation is increased. Therefore, although the semiconductor element can be cooled by efficient heat dissipation, when the heat dissipation is insufficient, the temperature rises again, and when the temperature rises, the heat generation further increases, and the temperature becomes higher. A vicious cycle of reducing efficiency arises. Since the heat sink of the paper sheet of the present invention has a light weight and excellent heat dissipation characteristics, the LED light source fixed in the form of a light bulb can be obtained, and the entire weight can be reduced, and the temperature rise can be reduced, and the luminous efficiency can be improved by 201128743. The ideal feature. Further, the heat sink of the above paper sheet is characterized in that it can be mass-produced at low cost, in addition to being lightweight, by converting the heat-dissipating fins from the metal sheet to the paper sheet. The heat sink of the paper sheet of claim 2 of the present invention is preferably such that the curved edges 4 of the paper sheet 3 bent in a sawtooth shape are thermally bonded to the heat conducting portions 2, 22, 32, and 42. The heat sink of the paper sheet of claim 3 of the present invention is a heat-dissipating fin formed by the paper sheet 3 by bending the paper sheet 3 which is bent into a zigzag shape into a planar shape as heat-dissipating fins 1, 21, and 31. It is preferable that the bending edges 4 of the first, the second, and the third portions 21 are fixed to the heat conducting portion 2 in a thermally bonded state. Since the heat sink has a flat fin formed by bending a paper sheet formed into a zigzag paper sheet, it can thermally combine with a planar heat generating component with a wide heat transfer area, and can be efficiently performed. In the heat sink of the paper sheet of claim 4 of the present invention, it is preferable that the curved end surface 5 bent into the zigzag paper sheet 3 is fixed to the heat conduction portion 2 in a thermally bonded state. In the present specification, the curved end surface means a surface including an end edge of a paper sheet which is bent into a zigzag shape, that is, a surface including an end edge of a plurality of curved surfaces which have been bent. In the heat sink of the paper sheet of claim 5, the heat dissipating fin 1 has a paper sheet 3 formed by bending into a zigzag shape as a cylindrical shape, and then the curved end surface 5 of the paper sheet 3 which has been bent and processed is The thermal bonding state is fixed to the heat transfer portion 2 at 201128743. Since the heat sink of the paper sheet is formed into a cylindrical shape by bending into a zigzag paper sheet, it can be efficiently combined with the cylindrical heat generating member to dissipate heat. The heat sink of the paper sheet of claim 6 of the present invention has a plurality of sheets of reinforcing sheets 8 arranged in parallel with each other, and between the opposing reinforcing sheets 8 is arranged to bend the paper sheet 3 into a zigzag shape. The heat dissipation fins 1 are formed, and the heat dissipation fins 1 are fixed to the reinforcing sheets 8 in a thermally bonded state by the curved edges 4 of the zigzag paper sheets 3, and are bent into the curved end faces 5 of the zigzag paper sheets 3. It is preferable to fix it to the heat conduction portion 2 in a thermally bonded state. Since the heat sink is provided with a zigzag paper sheet between a plurality of reinforcing sheets, it has a feature of increasing the heat dissipation area and efficiently dissipating heat. Further, since the zigzag paper sheets are sandwiched between the opposing reinforcing sheets, the heat dissipating fins provided in the reinforcing sheets can be protected. The heat sink of the paper sheet of claim 7 of the present invention preferably has the heat conducting portions 2, 22, 32, 42 as the paper sheets 1 1 and 12, the metal sheets, and the thermally conductive plastic sheet _ sheet 13. In the heat sink, the heat radiating fins fixed by any one of a paper sheet and a metal plate 'thermally conductive plastic sheet' can dissipate the heat of the heat generating portion by the heat radiating fins. In the heat sink of the paper sheet of claim 8, the thickness of the paper sheet 3 of the heat radiation fins 1, 21, 31 is preferably lmrn or less and 0.05 mm or more. The heat sink can achieve sufficient strength to make the heat sink fins -9-201128743, and it can also have light weight and excellent heat dissipation characteristics. The heat sink of the paper sheet of claim 9 of the present invention is characterized in that the fibers of the paper sheets 3 of the heat dissipation fins 1, 21, 31 are beaten, and the beating pulp having an innumerable number of fine fibers on the surface and the non-beating without beating are used. As the fiber, the paper sheet 3 which is subjected to wet papermaking after adding the heat conductive powder to the beaten pulp and the non-slurry fiber is preferably used as the heat radiating fins 1, 21, and 31. The above heat sink of the paper sheet can improve the bending strength of the paper sheet used for the heat sink fins, and can be easily bent and improved in thermal conductivity. It is possible to achieve the desired characteristics as a paper sheet. Further, the characteristics of the strength of the vibration of the paper sheet used for the heat dissipation fins can be achieved. The above paper sheet has a folding strength of up to 4 8 2 9 times, and the thermal conductivity is also 38.15 W/m · K, which can achieve excellent heat dissipation characteristics of the heat sink fins. The heat sink of the above paper sheet, the beaten pulp used for the paper sheets 3 of the heat radiating fins 1, 21, 31, may be mixed with any one of a plurality of beater pulps composed of synthetic fibers and natural pulp. use. As the pulping pulp of the synthetic fiber, any of acrylic fiber, polyarylate fiber, polyamide fiber, polyethylene fiber, polypropylene fiber, PBO (poly(p-phenylenebenzobisoxazole)) fiber, and ruthenium fiber can be used. Further, as the natural pulp, any of wood pulp and non-wood pulp can be used, and 'non-beating fibers can be used, and polyester fiber, polyamide fiber, polypropylene fiber, polyimide fiber, polyethylene fiber can be used. Acrylic fiber, carbon fiber, PBO fiber, polyvinyl acetate fiber, yttrium fiber, polyvinyl alcohol fiber, ethylene-vinyl alcohol fiber, polyarylate fiber, metal fiber, glass-10 - 201128743, fluorinated fiber One.
璃纖維、陶瓷纖維、 作爲非打發纖維 任一者。 添加至散熱鰭片1、2 1、3 1的紙薄片3之熱傳導粉末， 係可使用氮化矽、氮化鋁、鎂氧 '矽酸鋁、矽、鐵、碳化 砂、碳、氮化硼、氧化鋁、氧化矽、鋁、銅、銀、金粉末 。又’熱傳導粉末的平均粒徑係可作爲〇. 1μιη至5〇〇μηι。 且’散熱鰭片1、2 1、3 1的紙薄片3，係可使用添加作 爲黏結劑之合成樹脂來與纖維結合後再進行濕式抄紙來予 以製造者。作爲合成樹脂，可使用包含聚丙烯酸酸酯共聚 合物樹脂、聚醋酸乙烯酯樹脂、聚乙烯醇樹脂、NBR (丁 腈橡膠）樹脂、SBR (苯乙烯丁二烯橡膠）樹脂、聚胺甲 酸酯樹脂中的任一者之熱可塑性樹脂，或包含酚樹脂、環 氧樹脂中的任一者之熱硬化性樹脂中的任一者。 且’散熱鰭片1、21、3 1，亦可作成爲以對纖維添加 熱傳導粉末所形成的模具抄紙進行濕式抄紙所構成之紙薄 片3 〇 本發明的請求項2 1的紙薄片的散熱器，將散熱鰭片 1 〇 1固定於熱傳導部1 02爲佳。散熱鰭片1 0 1係以對纖維添 加熱傳導粉末所形成的濕式抄紙的紙薄片.1 03來構成。紙 -11 - 201128743 薄片1 〇 3係在彎曲線1 0 4彎曲，以彎曲線1 〇 4作爲境界，區 劃成散熱鰭片1 〇 1與固定紙薄片部1 0 6 °散熱器係將紙薄片 1 03的固定紙薄片部1 06呈熱結合狀態予以固定於熱傳導部 102，將熱傳導部102的熱自固定紙薄片部1〇6熱傳導到散 熱鰭片101來進行散熱。 以上的紙薄片的散熱器，具有既可增大散熱鰭片的散 熱面積而達到優良的散熱特性，又可達到極輕量化之特徵 。這是因爲將散熱鰭片作成爲進行濕式抄紙之紙製。進行 了濕式抄紙之紙薄片，由於在其表面方向顯示極優良之熱 傳導率，故，能夠將熱傳導部的發熱迅速地傳導到寬廣的 面積而可有效率地進行散熱。又，在表面具有無數個細微 的凹凸，實質上的表面積大，而散熱面積變得，使得從表 面可有效率地進行散熱。順便一提，設有鋁的散熱器之 LED光源，在將外氣溫度作成爲20°C之狀態下連續地點燈 ，使得LED的溫度上升至6TC爲止呈穩定狀態，相對於此 ，在相同的LED光源，藉由固定本發明的紙薄片的散熱器 ，能夠將LED的溫度散熱至55°C至62°C之不輸於重量重的 鋁之散熱器的低溫度。由於將散熱鰭片作爲成紙薄片之散 熱器的重量極輕，僅有大約1 〇〇g，故，既可將各種形態的 光源減輕，又可有效地將LED的發熱予以散熱而減少溫度 上升。又，不僅是LED，半導體元件也有因溫度上升造成 效率降低的特性。例如，LED會隨著溫度上升，造成發光 效率降低，而相反地，當溫度自60°C降低至30°C時，則發 光效率會提高大約5 0%。且更有問題的是，當半導體元件 -12- 201128743 因溫度上升造成效率降低時，則電力損失變大而發熱量增 加。因此，半導體元件，雖然可藉由有效率地散熱來降低 溫度，但是，當散熱不充分時，則溫度又會上升，且當溫 度上升則會造成發熱量進一步增加，使得溫度變得更高， 降低效率之惡性循環產生。本發明的紙薄片的散熱器係因 輕量且達到優良的散熱特性，所以，可達到固定於電燈泡 形態的LED光源，既可將全體輕量化，亦可減少溫度上升 ，能夠提高發光效率之理想的特徵。且，以上的紙薄片的 散熱器係因將散熱鰭片從金屬板變換成紙薄片，除了輕量 ，亦可達到可廉價地大量生產的特徵。 本發明的請求項22的紙薄片的散熱器，將紙薄片103 彎曲加工成L字狀而區劃成散熱鰭片101與固定紙薄片部 1 〇6，將固定紙薄片部1 06呈熱結合狀態予以固定於熱傳導 部102爲佳。 以上的散熱器，將固定紙薄片部以寬廣的面積來與熱 傳導部熱結合，使得可將熱傳導部的發熱有效率地傳導到 固定紙薄片部，藉由表面方向優良之熱傳導特性，可從固 定紙薄片部朝散熱鰭片迅速地進行熱傳導，而能有效率地 朝外部進行散熱。 本發明的請求項23的紙薄片的散熱器，將紙薄片103 以殘留彎曲線1 04的方式切削成特定的形狀，而區劃成複 數個切除部103c與固定紙薄片部106，將切除部103c以對 固定紙薄片部1 0 6呈預定角度的方式在彎曲線1 0 4進行彎曲 ’將切除部1 03 c作爲散熱鰭片1 0 1，而將固定紙薄片部1 06 -13- 201128743 呈熱結合狀態予以固定於熱傳導部1 02爲佳。 以上的散熱器，能夠達到以1片的紙薄片’將複數個 散熱鰭片連結於固定紙薄片部之構造’並且可將固定紙薄 片部作成爲寬廣的面積。因此，可將熱傳導部的發熱有效 率地熱傳導到具寬廣的面積且處於熱結合狀態之固定紙薄 片部，且藉由表面方向優良之熱傳導率，亦可自固定紙薄 片部朝複數個散熱鰭片有效率地進行熱傳導，可將熱傳導 部的發熱有效率地進行散熱。 本發明的請求項24的紙薄片的散熱器，將自外周緣分 離的位置作爲彎曲線1 04，而將紙薄片1 03連結於此彎曲線 104的兩端後，自彎曲線104到外周緣爲止進行裁斷，區劃 成切起部103b與固定紙薄片部106，將此切起部103b在彎 曲線104彎曲成對固定紙薄片部106呈預定角度之狀態，將 切起部l〇3b作爲散熱鰭片101，將固定紙薄片部106呈熱結 合狀態予以固定於熱傳導部1 〇2爲佳。 以上的散熱器，也能夠達到以1片的紙薄片將複數個 散熱鰭片連結於固定紙薄片部之構造，並且，可將固定紙 薄片部作成爲寬廣的面積。因此，可將熱傳導部的發熱有 效率地熱傳導到具寬廣的面積且處於熱結合狀態之固定紙 薄片部，且藉由表面方向優良之熱傳導率，亦可自固定紙 薄片部有效率地熱傳導到複數個散熱鰭片，能夠將熱傳導 部的發熱有效率地進行散熱。 本發明的請求項25的紙薄片的散熱器，具有將固定紙 薄片部106予以夾持並固定於熱傳導部102之固定板107, -14 - 201128743 藉由此固定板107與熱傳導部102夾持固定紙薄片部1 06， 將固定紙薄片部106呈熱結合狀態予以固定於熱傳導部102 爲佳。 以上的散熱器，可簡單且容易並且能夠以理想的狀態 ，將固定紙薄片部呈熱結合狀態予以固定於熱傳導部，熱 傳導部的發熱迅速地傳導到固定紙薄片部，從固定紙薄片 部熱傳導到散熱鰭片，可有效率地進行散熱。因該構造不 需使用接著劑即可將紙薄片固定於熱傳導部，所以，處於 不使用接著劑之狀態，可將全體輕量化。 本發明的請求項26的紙薄片的散熱器，將紙薄片1 03 彎曲加工成在相互平行地配設之複數列的固定紙薄片部 106之間具有呈山形突出之散熱鰭片101的形狀，並且固定 板107具有將固定紙薄片部106夾持於熱傳導部102之夾持 部107B、和使呈山形突出的散熱鰭片101突出之貫通孔 107C，此固定板107能夠將散熱鰭片101插入至貫通孔107C 後，將夾持部107B固定於熱傳導部102。 以上的散熱器，係可將固定紙薄片部在理想的狀態下 固定於熱傳導部，並且在散熱鰭片的兩側設置固定紙薄片 部，將各自的散熱鰭片在理想的狀態經由固定紙薄片部， 呈熱結合狀態連結於熱傳導部。因此，可將熱傳導部的發 熱迅速地傳導到固定紙薄片部，從固定紙薄片部熱傳導到 散熱鰭片，可有效率地進行散熱。 本發明的請求項2 7的紙薄片的散熱器，係將固定板 107的貫通孔107C作成爲四角形，將紙薄片103的散熱鰭片 -15- 201128743 101作成爲從四角形的貫通孔107C突出之垂直斷面形狀呈 三角形之山形爲佳。 以上的散熱器，既可將散熱鰭片作成爲穩定且自立之 狀態，又可將熱傳導部的發熱有效率地自固定紙薄片部傳 導到散熱鰭片，使得散熱效率變好。又，固定板7的貫通 孔7 C係可作成爲三角形、細縫形狀等。三角形的貫通孔係 使垂直斷面形狀與水平斷面形狀呈三角形之散熱鰭片突出 。細縫的貫通孔係使對折的散熱鰭片突出。 本發明的請求項28的紙薄片的散熱器’將固定板1〇7 金屬板、硬質的塑膠板、塡充有塡料之硬質的塑膠板、纖 維強化的塑膠板中中的任一者爲佳。 在將固定板作成爲金屬板之構造’可使固定紙薄片部 確實地密接於熱傳導部，達到理想的熱結合狀態’且’從 金屬板之固定板亦會進行散熱’能夠改善散熱特性。在將 固定板作成爲塑膠板之構造，既可輕量化，又可將固定紙 薄片部呈熱結合狀態確實地固定於熱傳導部。 本發明的請求項29的紙薄片的散熱器，將散熱鰭片 1 0 1在彎曲線1 04彎曲而可自由折疊地連結於固定紙薄片部 106爲佳。 以上的散熱器，係在折疊狀態進行捆包並進行搬運’ 在此行程既可達到極緊緻化又可達到優良的散熱特性。且 ，此構造能夠減低輸送成本。 本發明的請求項31的紙薄片的散熱器’將散熱嬉片 1 〇 1固定於熱傳導部1 〇2。散熱鰭片1 0 1係以對纖維添加熱 -16- 201128743 傳導粉末所形成的濕式抄紙的紙薄片1 03來構成。且 熱器係將散熱鰭片101的紙薄片103的切斷緣105呈熱 狀態予以固定於熱傳導部1 02，並且紙薄片的散熱鰭/ 是作成爲將切斷緣105載承於熱傳導部102而可自立之 爲佳。 以上的散熱器，係爲能夠藉由既可將散熱鰭片簡 固定於熱傳導部，又可將紙薄片的切斷緣呈熱結合狀 以固定於熱傳導部，並在表面方向顯示優良的熱傳導 之紙薄片，能夠將熱傳導部的熱有效率地傳導到散熱 而進行散熱。 本發明的請求項3 2的紙薄片的散熱器，係將切斷 承於熱傳導部而可自立之形狀作成爲筒狀、板狀、蜂 、波紋蜂巢狀、圍棋盤格子狀、錐狀中中的任一者。 以上的散熱器，可增大散熱鰭片的表面積，達到 的散熱特性。又，能夠以優良的強度將散熱鰭片保持 定形狀，在長期間，達到優良的散熱特性。 本發明的請求項3 3的紙薄片的散熱器，係將散熱 101固定於熱傳導部102。散熱鰭片101係以對纖維添 傳導粉末所形成的濕式抄紙的紙薄片1 〇 3來構成的。 散熱器係將散熱鰭片1 〇 1的紙薄片1 03作成爲圈狀或螺 ，將圈或螺旋之外周面呈熱結合狀態予以固定於熱傳 102° 以上的散熱器，可增廣固定紙薄片部與散熱鰭片 結合面積，也進一步增廣散熱面積，可自固定紙薄片 ，散 結合 1 0 1 形狀 單地 態予 特性 鰭片 緣載 巢狀 優良 成預 鰭片 加熱 且， 旋狀 導部 之埶 部朝 -17- 201128743 散熱鰭片迅速地進行熱傳導’可藉由散熱鰭片將熱傳導部 的發熱有效率地進行散熱。 本發明的請求項34的紙薄片的散熱器’將散熱鰭片 101固定於熱傳導部1〇2。散熱鰭片1〇1係以對纖維添加熱 傳導粉末所形成的濕式抄紙的紙薄片1 03來構成的。且’ 散熱器係將散熱鰭片101的紙薄片103插通於熱傳導部102 並呈熱結合狀態予以固定。 以上的散熱器，因將散熱鰭片插通於熱傳導部而作成 爲熱結合狀態，所以，能夠極其簡單地將散熱鰭片呈熱結 合狀態連結於熱傳導部。 本發明的請求項21至34的紙薄片的散熱器，將散熱鰭 片101的紙薄片103的厚度作成爲1mm以下、〇.〇5mm以上爲 佳。 此散熱器，既可將散熱鰭片作成具充分的強度，又可 達到輕量且優良的散熱特性。 本發明的請求項21至34的紙薄片的散熱器，將散熱鰭 片101之紙薄片103的纖維進行打漿而在表面設有無數個微 細纖維之打漿紙漿和未被打漿之非打漿纖維，對打漿紙漿 與非打漿纖維添加熱傳導粉末後再進行濕式抄紙之紙薄片 作爲散熱鰭片爲佳。 以上的紙薄片的散熱器，可提升使用於散熱鰭片之紙 薄片的耐彎曲強度，既可簡單地進行彎曲加工，又可提高 熱傳導率。能夠達到作爲紙薄片之理想的特性。又，亦可 達到使用於散熱鰭片之紙薄片對振動的強度之特徵。以上 -18- 201128743 的紙薄片，耐折強度可達到3 0 0 0次，又，熱傳導率也作爲 5 4.2W/m · Κ ’可達到散熱鰭片的優良散熱特性。 本發明的請求項2 1至3 4的紙薄片的散熱器，紙薄片的 散熱器中之使用於散熱鰭片1 〇 1之紙薄片1 03的打漿紙漿’ 係可將由合成纖維所構成的打漿紙漿與天然紙槳中的任一 種單獨或複數種混合來加以使用。作爲合成纖維的打漿紙 漿’可使用丙烯酸纖維、聚芳酯纖維 '聚醯胺纖維、聚乙 嫌纖維、聚丙燃纖維、PBO (poly(p-phenylenebenzobisoxazole) )纖維、嫘縈纖維、聚颯系纖維中的任一者。又，作爲天 然紙漿’可使用木材紙漿、非木材紙漿之其中任一者。 且’本發明的請求項2 1至3 4的紙薄片的散熱器，非打 漿纖維係可使用聚酯纖維、聚醯胺纖維、聚丙烯纖維、聚 醯亞胺纖維、聚乙烯纖維、丙烯酸纖維、碳纖維、PB0纖 維、聚醋酸乙烯酯纖維、嫘縈纖維、聚乙烯醇纖維、乙 烯-乙烯醇纖維、聚芳酯纖維、金屬纖維、玻璃纖維、陶 瓷纖維、氟素纖維、聚楓系纖維、聚苯硫酸系纖維中的任 一者使用。 本發明的請求項2 1至34的紙薄片的散熱器，作爲非打 漿纖維’可作成爲添加以熱加以熔融的黏結纖維，將進行 了抄紙之薄片進行加熱沖壓後，使黏結纖維熔融，再加工 成薄片狀來作成爲紙薄片。黏結纖維，可使用聚酯纖維、 聚丙烯纖維、聚醯胺纖維、聚乙烯纖維、聚醋酸乙燃醋纖 維、聚乙烯醇纖維、乙烯-乙烯醇纖維中的任一者。 本發明的請求項21至34的紙薄片的散熱器，添加至散 -19- 201128743 熱鰭片ιοί的紙薄片103之熱傳導粉末係可使用氮化矽、氮 化鋁、鎂氧、矽酸鋁、矽、鐵、碳化矽、碳'氮化硼、氧 化鋁、氧化矽、鋁、銅、銀、金、氧化辞、鋅的粉末中的 任—者。又，熱傳導粉末的平均粒徑係Ο.ίμηι至500μηι» 且，本發明的請求項21至34的紙薄片的散熱器，散熱 鰭片1 0 1的紙薄片1 〇 3係可使用添加作爲黏結劑之合成樹脂 來與纖維結合後再進行濕式抄紙加以製造者。作爲合成樹 脂，可使用包含聚丙烯酸酸酯共聚合物樹脂、聚醋酸乙烯 酯樹脂、聚乙烯醇樹脂、NBR (丁腈橡膠）樹脂、SBR ( 苯乙烯丁二烯橡膠）樹脂、聚胺甲酸酯樹脂中的任一者之 熱可塑性樹脂，或包含酚樹脂、環氧樹脂中的任一者之熱 硬化性樹脂中的任一者。 【實施方式】 以下，依據圖面，說明本發明的實施例。但是，在以 下所示的實施例，係用來表示將本發明的技術思想予以具 體化用之紙薄片的散熱器的例子，本發明之紙薄片的散熱 器不限於以下的方法、或條件等。且，此說明書中之申請 專利範圍所示的構件不限於實施例的構件。 圖1至圖9所示的散熱器，係將進行彎曲加工之散熱鰭 片1、21、31固定於熱傳導部2、22、32、42。散熱鰭片} 、2 1、3 1係爲對纖維添加熱傳導粉末之濕式抄紙所製造的 紙薄片3。散熱鰭片1、2 1、3 1係將紙薄片3彎曲加工成鋸 齒狀後呈熱結合狀態予以固定於熱傳導部2、22、3 2、42 -20- 201128743 。圖1至圖7所示的散熱器係將彎曲成鋸齒狀之紙薄片3的 彎曲緣4呈熱結合狀態予以固定於熱傳導部2、22、32、42 。圖8與圖9所示的散熱器係將彎曲成鋸齒狀之紙薄片3的 彎曲端面5呈熱結合狀態予以固定於熱傳導部。 將紙薄片3彎曲加工成鋸齒狀之散熱鰭片1、21、31係 藉由增廣彎曲加工之1片的彎曲面之橫寬度（W)、及彎 曲加工成鋸齒狀之間距（d )，即縮窄相鄰接的彎曲緣4之 間隔，不會增大熱傳導部2、22、3 2、42，而能夠增大散 熱鰭片1、21、31的散熱面積。1片的彎曲面之橫寬度（W )係依據所要求之熱抵抗，設定成最適値，例如，5mm至 30mm，又，間距（d)設定成2mm至30mm。散熱鰭片1、 21、31的紙薄片3之厚度理想爲作成0.2mm至0.3 mm，但能 夠使用較1mm薄、又較0.05mm厚者。因當紙薄片過薄時會 造成強度降低，而過厚時會造成製造成本變高且變重，所 以，考量用途和所要求的強度、熱抵抗等，使用前述範囲 中具最適値者。 圖1的散熱器係將彎曲加工成鋸齒狀之紙薄片3作成爲 圓筒狀，而將內側的彎曲緣4呈熱結合狀態予以固定於圓 筒狀的熱傳導部22的外側。圖1的散熱器係呈熱結合狀態 予以固定於外形呈圓柱狀之電燈泡形態的LED光源等的電 子零件的外周，將電子零件自外周面進行散熱。圖中之電 子零件的LED光源係在下面固定有複數個LED (未圖示） ，在其外周固定著紙薄片3的散熱鰭片1。圖1的散熱器係 將熱傳導部2 2並用於固定L E D之固定部1 〇。因此，此散熱 -21 - 201128743 器係不需要設置作爲熱傳導部之專用的零件，在固定led 之固定部1 0，將彎曲加工成鋸齒狀之紙薄片3的內側的彎 曲緣4呈熱結合狀態予以固定著。散熱鰭片1的紙薄片3係 將彎曲緣4接著於固定部1 0的外周面，而呈熱結合狀態予 以固定於熱傳導部22。 且，圖2的散熱器係將彎曲加工成鋸齒狀之紙薄片3作 成爲圓筒狀，外側的彎曲緣4呈熱結合狀態予以固定於圓 筒狀的熱傳導部42的內側。圖中的散熱器係將熱傳導部42 作成爲筒狀的紙薄片11。此散熱器係將彎曲加工成鋸齒狀 之紙薄片3的外側的彎曲緣4呈熱結合狀態予以固定於筒狀 的紙薄片11的內面，而將散熱鰭片1固定於筒狀的熱傳導 部42的內側。此散熱器係例如插入至形成於被固定在電路 基板等的複數個電子零件之間的間隙等，將圓筒狀的熱傳 導部42的外周面呈熱結合狀態予以固定於電子零件的表面 來將電子零件予以散熱。特別是將熱傳導部42作爲紙薄片 1 1之構造，能夠使外形簡單地變形，可容易地插入至形成 於複數個電子零件之間的各種間隔之間隙。但，熱傳導部 不限於紙薄片，亦可使用金屬板、熱傳導性塑膠薄片等。 圖3至圖6所示的散熱器係設有紙薄片1 2的熱傳導部2 ，在此部位固定鋸齒狀的紙薄片3，遭將由紙薄片1 2所構 成的熱傳導部2固定於電子零件的發熱部，將電子零件進 行散熱。這些圖所示的散熱器亦可採用金屬板的熱傳導部 ，來代替紙薄片1 2的熱傳導部。金屬板的熱傳導部係爲鋁 等的熱傳導率優良之平面狀的金屬板。圖中的熱傳導部2 -22- 201128743 係爲平面狀，但，熱傳導部2係被加工成密接於欲固定的 電子零件等的發熱部之形狀，呈熱結合狀態予以固定於發 熱部。熱傳導部2係經由熱傳導優良之接著劑接著於電子 零件的發熱部，而呈熱結合狀態下被固定，或經由熱傳導 優良之熱傳導膠、接著劑呈熱結合狀態接著於發熱部並加 以固定。又，金屬板的熱傳導部係以螺絲、其他的固定構 造等加以固定。 圖3的散熱器係將由彎曲加工成鋸齒狀之紙薄片3所構 成的散熱鰭片1的全體形狀作成爲平面狀，將由平面狀的 紙薄片1 2所構成之與熱傳導部2相對向之彎曲緣4呈熱結合 狀態予以固定於熱傳導部2的紙薄片1 2。此散熱器係被固 定於設置在電子零件之平面狀的散熱板的表面，將電子零 件進行散熱。此散熱器係被固定於電燈泡形態的L E D光源 的上面’或電晶體、FET等的電子零件的表面，可有效率 地進行散熱。 圖4與圖5的散熱器係將可散熱鰭片21的紙薄片3彎曲 加工成鋸齒狀之山形突出部的高度作成爲與鄰接者不同之 高度。即，在高山形突出部2 1 A之間，設置低山形突出部 21B。此散熱鰭片21’具有下述特徵，即，在高山形突出 部21A之間具有低山形突出部21B，在鄰接之高山形突出部 21A之間，藉由低山形突出部21B可形成谷部6。因此，此 構造的散熱鰭片21，既可縮窄彎曲加工成鋸齒狀之彎曲緣 4的間距（d )而增大散熱面積，亦可將空氣圓滑地換氣至 形成於高山形突出部2 1 A之間的谷部6，可良好地進行來自 -23- 201128743 於高山形突出部2 1 A之散熱。圖4的散熱鰭片2 1係將高山形 突出部2 1 A與低山形突出部2 1 B交互地配置。又’圖5的散 熱鰭片2 1係在相鄰的高山形突出部2 1 A之間配設有複數（ 圖中爲6個）的低山形突出部2 1 B。且，散熱鰭片係可將高 山形突出部與低山形突出部的排列方式、數量進行各種變 更，亦可設置高度無規地變化之山形突出部。 圖6的散熱器係在由彎曲加工成鋸齒狀之紙薄片3所構 成的散熱鰭片31設有複數個換氣孔7。換氣孔7係爲貫通孔 ，以預定之間隔排列設置於被彎曲加工成鋸齒狀之山形突 出部的頂上部。此散熱鰭片1係既可將熱傳導部2配置成水 平狀，又可達到優良的散熱特性。這是由於使在山形突出 部的內部加溫度之空氣通過換氣孔7後，圓滑地朝外部進 行換氣之故。 圖7的散熱器係將複數片熱傳導部3 2相互地分離而配 設成平行的姿勢，並在熱傳導部3 2之間配置由彎曲加工成 鋸齒狀之紙薄片3所構成的散熱鰭片1，並將彎曲加工成鋸 齒狀之紙薄片3的雙方的彎曲緣4呈熱結合狀態予以固定於 板狀的熱傳導部32。熱傳導部3 2係爲熱傳導性塑膠薄片13 、紙薄片、金屬板中的任一者。將熱傳導部32作爲紙薄片 、熱傳導性塑膠薄片1 3等之散熱器係可輕量化。將熱傳導 部作爲鋁等的金屬板之散熱器係可使熱傳導部的熱傳導變 得良好而可有效率地進行散熱。此散熱器，因以在複數片 熱傳導部32之間夾持彎曲加工成鋸齒狀的紙薄片3的方式 進行配置，所以，亦可增高全體的強度，亦可增大散熱面 -24- 201128743 積。 圖8的散熱器係將彎曲加工成鋸齒狀之紙薄片3作成爲 圓筒狀，將圓筒狀的紙薄片3的一方的彎曲端面5呈熱結合 狀態予以固定於平面狀的熱傳導部2。在此’彎曲端面5係 爲包含被彎曲加工成鋸齒狀之紙薄片3的端緣之面，且爲 包含已彎曲的複數個彎曲面之端緣的面。圖所示的熱傳導 部2係爲紙薄片1 2，在此此紙薄片1 2固定著圓筒狀的紙薄 片3的彎曲端面5，將由紙薄片12所構成的熱傳導部2固定 在電子零件的發熱部，來將電子零件進行散熱。圖所示的 散熱器係在圓筒狀的紙薄片3的內側配置圓筒狀的補強薄 片8，在此補強薄片8的外周面，將紙薄片3的內側的彎曲 緣4呈熱結合狀態予以固定著。此補強薄片8係例如，作爲 紙薄片、塑膠薄片等，即可減輕全體的重量，又可以補強 被彎曲加工成鋸齒狀之散熱鰭片1。且，藉由使用具優良 的熱傳導之紙薄片、熱傳導性塑膠薄片作爲補強薄片8, 能夠將熱傳導部2的熱有效率地熱傳導到散熱鰭片1。且， 雖未圖示，補強薄片，亦可設置於圓筒狀的紙薄片的外側 ，亦可設置於圓筒狀的紙薄片的內側與外側雙方。但，補 強薄片並非一定需要，亦可不在圓筒狀的紙薄片固定補強 薄片，而將圓筒狀的紙薄片的彎曲端緣呈熱結合狀態予以 固定於熱傳導部。 且，圖9的散熱器係將複數片補強薄片8相互地分離而 配設成平行的姿勢，在相對向的補強薄片8之間，配置由 彎曲加工成鋸齒狀之紙薄片3所構成的散熱鰭片1。散熱鰭 -25- 201128743 片1係將彎曲加工成鋸齒狀之紙薄片3的雙方的彎曲緣4固 定於補強薄片8，並且將一方的彎曲端面5呈熱結合狀態予 以固定於平面狀的熱傳導部2。圖所示的熱傳導部2係爲紙 薄片1 2，在此紙薄片的熱傳導部2固定紙薄片3的彎曲端面 5，將由紙薄片1 2所構成的熱傳導部2固定在電子零件的發 熱部，來將電子零件進行散熱。補強薄片8係例如，作成 爲紙薄片、塑膠薄片等，既可減輕全體的重量，又可補強 被彎曲加工成鋸齒狀之散熱鰭片1。且，藉由使用具優良 的熱傳導之紙薄片、熱傳導性塑膠薄片等作爲補強薄片8 ，能夠將熱傳導部2的熱有效率地熱傳導到散熱鰭片i。此 散熱器係在複數片補強薄片8之間，將由彎曲加工成鋸齒 狀之紙薄片3所構成的散熱鰭片1以夾持的方式進行配置， 再將散熱鰭片1的彎曲端面5呈熱結合狀態予以固定於平面 狀的熱傳導部2，因此，既可提高全體的強度，又可增大 散熱面積，能有效率地進行散熱。 使用於散熱鰭片1、2 1、3 1之紙薄片3係使纖維與熱傳 導粉末懸濁於水後作爲抄紙用漿體，對此抄紙用漿體進行 濕式抄紙，作成爲薄片狀，然後將其進行乾燥來予以製造 的。此紙薄片3理想爲使用下述紙薄片，即，對抄紙用漿 體，懸濁進行打漿後在表面設有無數個微細纖維而成的打 漿紙漿、和未進行打漿之非打漿纖維，藉由此打漿紙漿與 非打漿纖維，使懸濁於抄紙用漿體之熱傳導粉末與纖維結 合後抄紙成薄片狀加以製造者。以上的紙薄片3，因具有 優良的耐彎曲強度，所以，彎曲加工成鋸齒狀後，彎曲部 -26- 201128743 不會產生破損，又，即使在使用狀態，彎曲部也不會破損 ，能夠在理想的狀態下使用於各種用途。 以上的紙薄片3係能以以下的方式進行濕式抄紙來加 以製造。 將由碳化矽（平均粒子徑20μιη ) 100重量部、作爲打 漿紙漿之丙烯酸紙漿（游離度（C S F ) 5 0ml、平均纖維長 度1.45mm ) 21重量部、作爲非打漿纖維之聚酯纖維（ O.ldtex X 3mm) 7重量部、作爲黏結纖維之由聚酯纖維所 構成的黏結纖維（1.2dtex X 5mm) 14重量部所組成的組成 物混合分散至水中，調製由固形分1 %〜5 %所構成的漿體 。然後，作爲凝結劑，添加0.001重量部之陽離子系聚丙 烯酸酸鈉、0.00002重量部之陰離子系聚丙烯酸酸鈉添加 後’使用25cm見方角型薄片機器，將漿體予以薄片化，作 成爲抄紙薄片，對此抄紙薄片進行沖壓並使其乾燥後，將 此薄片在5Mpa的壓力、溫度180 °C下，沖壓2分鐘。 以上的製程所製造的紙薄片3，係爲厚度0.3 22mm、密 度〇.97g/cm3、耐折強度爲48 2 9次、熱傳導率爲38.15W/m • K。 熱傳導率係以以下的方法進行測定。 將裁切成7cm x9cm之測定試料浸漬於甘油後作成真空 狀態而將試料進行脫氣處理者，在25。(：下作成爲一定之恆 溫度室內靜置到溫度成爲一定。當溫度成爲一定時，在恆 溫度室內內將溫度作成爲一定之測定裝置上，將試料的短 片朝上方的方式朝縱方向插入。 -27- 201128743 圖1 〇係顯示測定裝置之槪略圖。此測定裝置係將試料 61從兩側以熱槽62予以夾持。熱槽62係將中心部作爲空洞 6 3 ’能夠將用來加熱試料6丨之加熱器64予以隔熱。在上部 具有供試料61插入之插入口 65，以熱槽62將兩側予以固定 ’再關閉上蓋（未圖示）加以密閉。當自試料6 1的中心部 以加熱器6 4進行加熱時’在中心部附近，藉由熱槽6 2的隔 熱效果’使得熱僅遍及試料61上，當熱到達端部時，藉由 位於兩側之熱槽62 ’來吸收熱，因此，隨著時間經過，溫 度曲線會成爲一定。從此時的中心部，測定外側的溫度曲 線。 藉由測定熱流Φ (由加熱器所衍生），當將樣品溫度 對時間變化之微分値設爲ΔΤ、樣品的厚度設爲Η時，相對 熱傳導率λ係能以下述的計算式所算出。 λ= φ /Η · ΔΤ 耐折強度的測定係以依據JIS Ρ8 1 1 5紙及板紙-耐折強 度實驗方法-ΜΙΤ實驗機法之方法來進行。此方法係準備切 斷成寬度15mm、長度110mm以上之長條帶狀的實驗片，將 長邊方向的兩端夾於實驗裝置。將此實驗片朝表裡折彎直 到破斷爲止，求出折彎到破斷爲止之次數。 以上的紙薄片，因既可達到優良的熱傳導特性，且具 有優良的耐彎曲強度，所以’能以與將紙薄片進行彎曲加 工之相同裝置和方法，簡單且容易’並且有效率地彎曲加 -28- 201128743 工成鋸齒狀而能夠廉價地製造散熱鰭片。 以上的紙薄片，打漿紙漿係使用丙烯酸紙漿，而非打 漿纖維使用聚酯纖維，但，打漿紙漿係可將由合成纖維所 形成的打漿紙漿、和天然紙漿中的任一者單獨或予以複數 種混合來加以使用。又，由合成纖維所形成的打漿紙漿， 係可使用丙烯酸纖維、聚芳酯纖維、聚醯胺纖維、聚乙烯 纖維、聚丙嫌纖維、PBO (poly(p-phenylenebenzobisoxazole)) 纖維、嫘縈纖維等，天然紙漿係可使用木材紙漿、非木材 紙漿等。又，非打漿纖維係可使用聚酯纖維、聚醯胺纖維 、聚丙烯纖維、聚醯亞胺纖維、聚乙烯纖維、丙烯酸纖維 、碳纖維、PBO纖維、聚醋酸乙烯酯纖維、嫘縈纖維、聚 乙烯醇纖維、乙烯-乙烯醇纖維、聚芳酯纖維、金屬纖維 、玻璃纖維、陶瓷纖維、氟素纖維等。 又’以上的紙薄片係使用以熱進行熔融之非打漿纖維 的黏結纖維’對進行了濕式抄紙之薄片進行加熱沖壓，使 黏結纖維熔融後再加工成薄片狀，但，黏結纖維係可使用 聚醋纖維、聚丙烯纖維、聚醯胺纖維、聚乙烯纖維、聚醋 酸乙烯酯纖維、聚乙烯醇纖維、乙烯-乙烯醇纖維等。 且’使用本發明的散熱器的散熱鰭片之紙薄片中，並 非在纖維一定要使用打漿紙漿與非打漿纖維，例如亦可僅 使用打漿紙漿來加以製造。 又’以上的紙薄片係使用薄片機器來將漿體薄片化製 作作爲抄紙薄片，但，亦可藉由模具抄紙來代替薄片機器 ’藉以製作作爲抄紙薄片。 -29 - 201128743 又，以上的紙薄片3中’熱傳導粉末係使用平均粒徑 爲20μηι之碳化矽’但’熱傳導粉末亦可使用氮化鋁、鎂氧 、砂酸銘、砂、鐵、碳化砂、碳、氮化硼、氧化銘、氧化 矽、鋁、銅、銀、金粉末等代替碳化矽’或對碳化矽加上 這些粉末。又，平均粒徑亦可作成爲至500^m。熱傳 導粉末，不論平均粒徑過大或過小’在進行濕式抄紙之製 程中，附著到纖維之比例會變少’造成利用效率變差’因 此，考量所使用之纖維的種類等’採用最適當的平均粒徑 者。 且，紙薄片能夠添加難燃劑來提升難燃特性》例如， 紙薄片可藉由含浸難燃劑，來提升難燃特性。例如，在難 燃劑使用磷酸胍，將其以1 〇重量％比例含浸所形成的紙薄 片係可達到UL94 V-0左右的難燃效果。 〔實施例〕 使用以上的方式所製造之紙薄片3，製作以下所示的 散熱器，比較其重量與散熱性能。 再者，以下的實施例所示的散熱器係使用尺寸 2 1 Omm X 5 Omm、厚度3mm之紙薄片作爲熱傳導部，將紙薄 片彎曲加工成鋸齒狀而設置的散熱鰭片呈熱結合狀態予以 固定於此熱傳導部的一方的面。且，散熱器係在熱傳導部 的另一方的面，即在與固定有散熱鰭片的面之相反側的面 ，固定有作爲發熱體的裝設有數個LED之電路基板。電路 基板係尺寸爲170mmx50mm，固定於作爲熱傳導部之紙薄 -30- 201128743 片的除了兩端部以外的中央部。測定被固定於此電路基板 之LED的溫度。 〔實施例1〕 將厚度〇.3mm、縱寬度（H ) 50mm之帶狀的紙薄片3 ’ 如圖3所示，彎曲加工成鋸齒狀，設置1片的彎曲面之橫寬 度（W )爲1 0mm、彎曲加工成鋸齒狀之間距（〇爲5mm 之散熱鰭片1，將其固定於由紙薄片所構成的熱傳導部2。 由彎曲加工成鋸齒狀之紙薄片3所構成的散熱鰭片1係將全 體形狀作成爲平面狀，將與熱傳導部2之紙薄片相對向的 彎曲緣4呈熱結合狀態予以固定於熱傳導部2的紙薄片。 〔實施例2〕 除了將彎曲加工成鋸齒狀之散熱鰭片1的1片的彎曲面 之橫寬度（W )作成爲20mm、彎曲加工成鋸齒狀之間距（ d )作成爲8mm以外，其餘與實施例1同樣地方式設置散熱 鰭片1，將與熱傳導部2之紙薄片相對向的彎曲緣4呈熱結 合狀態予以固定。 〔實施例3〕 彎曲加工成鋸齒狀之散熱鰭片1的1片的彎曲面之橫寬 度（w )作成爲3 0mm、彎曲加工成鋸齒狀之間距（d )作 成爲1 3.9mm以外，其餘與實施例〗同樣地方式設置散熱鰭 片1 ’將與熱傳導部2之紙薄片相對向的彎曲緣呈熱結合狀 -31 - 201128743 態予以固定。 〔實施例4〕 將厚度0.3mm、縱寬度（H) l〇mm之帶狀的紙薄片3， 圖9所示，彎曲加工成鋸齒狀’製作1片的彎曲面之橫寬度 (W )爲1 0mm、彎曲加工成鋸齒狀之間距（d)爲8 mm之 散熱鰭片1。如圖9所示，將縱寬度（Η )與散熱鰭片1相等 的6片補強薄片8相互地分離而配設成平行的姿勢’在相對 向的補強薄片8之間’配置由彎曲加工成鋸齒狀之紙薄片3 所構成的散熱鰭片1。散熱鰭片1係將彎曲加工成鋸齒狀之 紙薄片3的雙方的彎曲緣4固定於補強薄片8。將在6片補強 薄片8之間呈5列的方式配置之散熱鰭片1的一方的彎曲端 面5，呈熱結合狀態予以固定於平面狀的熱傳導部2之紙薄 片。 〔實施例5〕 除了將彎曲加工成鋸齒狀之散熱鰭片1的1片的彎曲面 之橫寬度（W )作成爲1 0mm、彎曲加工成鋸齒狀之間距（ d)作成爲1.2mm，層積多數個彎曲面之構造以外，其餘與 實施例1同樣地方式設置散熱鰭片1，將與熱傳導部2之紙 薄片相對向的彎曲緣4呈熱結合狀態予以固定。 〔實施例6〕 將厚度0.3 mm、縱寬度（H) 5 0mm之帶狀的紙薄片3， -32- 201128743 如圖5所示’彎曲加工成鋸齒狀，製作在高山形突出部21A 之間具有低山形突出部2 1 B的散熱鰭片2 1。此散熱鰭片2 1 係將高山形突出部21 A的橫寬度（W1 )作成爲20mm、低 山形突出部21B的橫寬度（W2)作成爲l〇mm、高山形突 出部2 1 A的間距（D )作成爲8mm，在這些高山形突出部之 間設置6個低山形突出部2 1 B，將與熱傳導部2之紙薄片相 對向的彎曲緣4呈熱結合狀態予以固定於熱傳導部2的紙薄 片。 〔比較例1〕 作爲比較例1，製作鋁製的散熱器。此散熱器係在將 厚度作成爲6mm、尺寸作成爲210mmx50mm之板狀的熱傳 導部的一方的面，一體成形地設置複數個散熱鰭片。複數 個散熱鰭片係將縱寬度設爲50mm、橫寬度設爲15mm、厚 度設爲2.5mm，以8mm的間距，以相互平行的姿勢一體成 形地設置。且，散熱器係在熱傳導部的另一方的面，即與 設有散熱鰭片的面相反側之面，固定有作爲發熱體之裝設 有複數個LED的電路基板，即與在實施例所使用的電路基 板相同之電路基板。電路基板係將尺寸作成爲 170mmx50mm，固定於板狀的熱傳導部的除了兩端部以外 的中央部。測定固定於此電路基板之LED的溫度。 〔比較例2〕 且，作爲比較例2，準備與在實施例所使用的電路基 -33- 201128743 板相同之電路基板，不將散熱器固定於此電路基板’而測 定LED的溫度。 將以上的實施例1至6、及比較例1的散熱器所進行散 熱後的LED的溫度與散熱鰭片的重量顯示於表1。 〔表1〕 LED溫度 散熱鰭片重量 實施例1 60°C 12g 實施例2 54.5〇C 21g 實施例3 52.2〇C 18g 實施例4 61.5〇C 16g 實施例5 62.3〇C 81g 實施例6 57. It： 91g 比較例1 53.3〇C 300g 比較例2 100°C - 由此表可得知，本發明的實施例的紙薄片的散熱器， 與比較例1的鋁製的散熱器進行比較，可將其重量予以 1 /2 5〜1 /3之輕量化，特別是關於實施例1至4，可將其重量 予以大約1/20之輕量化，在不固定散熱器之狀態，可將上 升到100°C之LED的溫度降低至52°C至63t，具有可匹敵鋁 製的散熱鰭片之優良的散熱特性。 且，圖11至圖26所示的散熱器係將紙薄片103在彎曲 線104予以彎曲，以彎曲線104作爲境界而區劃成散熱鰭片 101與固定紙薄片部106，將固定紙薄片部106呈熱結合狀 態予以固定於熱傳導部1 02，將熱傳導部1 02的熱自固定紙 薄片部1 06熱傳導到散熱鰭片1 0 1後進行散熱。 -34- 201128743 圖11至圖13的散熱器係將紙薄片103彎曲加工成L字狀 而區劃成散熱鰭片101與固定紙薄片部106 ’將固定紙薄片 部1 06呈熱結合狀態予以固定於熱傳導部1 〇2。此散熱器係 以散熱鰭片1 〇 1成爲相互平行的姿勢，將固定紙薄片部1 06 接著固定於熱傳導部102。此散熱器係可將各自的散熱鰭 片101的面積增大，並縮小固定於熱傳導部102之間距’而 能夠提升散熱特性。以上的散熱器係以將散熱鰭片101與 固定紙薄片部1 06之境界的彎曲線1 04作爲折疊線1 04a而進 行彎曲，藉此能夠將散熱鰭片1 〇 1可自由折疊地連結於固 定紙薄片部1 06。因此，具有當搬運散熱器時，可將散熱 鰭片1 01予以折疊達到緊緻化之特徵。 圖12的散熱器係將散熱鰭片101彎曲加工成鋸齒狀， 進一步增大散熱面積。又，圖1 3的散熱器係將散熱鰭片 101的橫寬度予以縮小，而將多數個散熱鰭片101接著固定 於熱傳導部102。 圖1 4的散熱器係將1片的細長的紙薄片1 03呈直角地彎 曲加工成形成有水平部分103A與垂直部分103B，將垂直部 分103B作爲散熱鰭片101、將水平部分103 A作爲固定紙薄 片部106。因垂直部分1(ΠΒ係以在上端折返的方式進行彎 曲加工，所以，2片的垂直部分103 B被接著，或未被接著 而相互地接近，藉以構成散熱鰭片101。特別是在未接著 之狀態，由紙薄片所構成的2片的垂直部分3 B，不會相互 地密接’而在此部位可形成間隙，讓空氣通過此間隙，可 更有效率地進行散熱。水平部分1 〇3 A係作爲固定紙薄片部 -35- 201128743 106，接著固定於熱傳導部102。以上的散熱器’雖將散熱 鰭片1 0 1作成爲四角形，但亦可如圖1 5所示，將散熱鰭片 1 〇 1作成爲三角形。 以上的散熱器也是藉由以散熱鰭片101與固定紙薄片 部106之境界的彎曲線104作爲折疊線l〇4a而進行彎曲，能 夠將散熱鰭片1 〇 1可自由折疊地連結於固定紙薄片部1 06。 因此，具有當搬運散熱器時，可將散熱鰭片101予以折疊 達到緊緻化之特徵。 圖16的散熱器係將1片的細長的紙薄片103彎曲加工成 具有水平部分103A與朝上下方向延伸的上下部分103C，將 上下部分103C作爲散熱鰭片101、將水平部分103A作爲固 定紙薄片部106。以上下部分103C成爲三角形的山形的方 式，將固定紙薄片部106相互地分離而固定於熱傳導部1〇2 。此散熱器係具有下述特徵，即，將2片的上下部分1〇3 C 作爲三角形而可自立，又朝三角形的內側送風，能有效率 地進行散熱。又，此散熱器亦可達到下述特徵，即，在上 下部分103C設置折疊線lCMa，藉由將其彎曲，可自由折曼 地連結於固定紙薄片部1 〇 6，使得當進行搬運時可緊緻化 〇 圖17的散熱器係在山形的頂上部分設有水平部i〇3d。 此構造的散熱器係具有下述特徵，即，可降低全體高度， 並可有效率地進行散熱。又，此散熱器亦可達到下述特徵 ，即，在散熱鰭片1 〇 1設置折疊線，藉由將其彎曲，可自 由折疊地連結於固定紙薄片部1 06，使得當進行搬運時可 -36- 201128743 緊緻化。 圖18至圖22的散熱器係具備有夾持固定紙薄片部106 並將其固定於熱傳導部102之固定板107。藉由固定板107 與熱傳導部102來夾持固定紙薄片部1〇6，再將固定紙薄片 部1 06呈熱結合狀態予以固定於熱傳導部1 02。固定板1 07 係能夠使用不銹鋼板、鋁板、或鐵合金等的金屬板’或硬 質塑膠板、塡充有塡料之硬質塑膠板、纖維強化塑膠板等 。此散熱器，不需要使用接著劑，能夠在長期間確實地保 持固定紙薄片部1 06之穩定，而能呈熱結合狀態予以固定 於熱傳導部1 02。但，亦可將固定紙薄片部予以接著後， 再以固定紙薄片部固定於熱傳導部。此散熱器亦可達到下 述特徵，即，在散熱鰭片1 0 1設置折疊線1 〇4a，藉由將其 彎曲，可自由折疊地連結於固定紙薄片部106，使得當進 行搬運時可緊緻化。 圖18與圖19所示的散熱器係將紙薄片103彎曲加工成 相互平行地配設之複數列的固定紙薄片部1 0 6之間具有呈 山形突出之散熱鰭片101的形狀，再以固定板107將固定紙 薄片部106固定於熱傳導部1〇2。固定板107係設有將固定 紙薄片部106夾持於熱傳導部1〇2之夾持部107B、和使呈山 形突出的散熱鰭片101突出之四角形的貫通孔]07 C。此固 定板107係作成爲以夾持部107B將周圍的框部107A連結成 橋接狀態之形狀。固定板107係在將散熱鰭片1〇1插入於貫 通孔107C之狀態下固定於熱傳導部1〇2。固定板107係藉由 固定用螺絲108將夾持部ι〇7Β、框部107A等固定於熱傳導 -37- 201128743 部102。圖19的散熱器係藉由固定用螺絲1〇8將夾持部1〇7Β 固定於熱傳導部102，再將固定板107固定於熱傳導部102 。固定板1 〇 7，亦可如圖2 0所示’藉由可彈性地進行夾持 的夾子狀的夾持具109固定於熱傳導部〗〇2。 圖21與圖22所示的散熱器係設有細縫狀的貫通孔l〇7C ，將板狀的散熱鰭片1〇1插通於貫通孔107C。此散熱器’ 因可增廣夾持部1 〇 7 B的寬度’所以’能夠將固定紙薄片部 1 06以寬廣的面積，呈理想的熱結合狀態的方式固定於熱 傳導部102。又，亦可達到下述特徵’即’既可利用固定 板1 07將紙薄片1 03確實地固定於熱傳導部1 02 ’亦可將彎 曲線1 04作爲折疊線1 04a，來將散熱鰭片1 0 1加以折疊。 圖23的散熱器係在薄片1 〇3的單一側設置細縫狀的缺 口 l〇3a，在缺口 103a之間設置散熱鰭片101。將不具有缺 口 103A的部分作爲固定紙薄片部106，固定於圓形的熱傳 導部102的表面。此散熱器係如圖中的鎖線所示，對LED 電燈泡110，以將固定紙薄片部106捲繞的方式進行接著固 定，再將散熱鰭片101自LED電燈泡1 10分離的方式進行彎 曲，可將LED電燈泡1 1 0等有效率地進行散熱。又，當收 納LED電燈泡時，將彎曲線1 04作爲折疊線1 〇4a，使散熱鰭 片1〇1折疊成密接於LED電燈泡，能夠緊緻地進行收納。 圖24的散熱器係將自四角形的紙薄片1〇3的相對向之 外周緣分離的位置作爲彎曲線104，連結於彎曲線104的兩 端而將自彎曲線1 0 4到外周緣爲止予以裁斷，而區劃成切 起部1 0 3 b與固定紙薄片部1 0 6，將切起部1 〇 3 b以彎曲線1 0 4 -38- 201128743 彎曲成對固定紙薄片部！06呈預定角g 1 〇3b作爲散熱鰭片1(H。固定紙薄片部 予以固定於熱傳導部102。圖中的散熱 兩側設置有散熱鰭片1 0 1，但，亦可僅 鰭片。 圖25的散熱器係將紙薄片103殘留 除成特定的形狀，區劃成複數個切除g 部1 0 6，將切除部丨〇 3 c以彎曲線1 〇 4彎由 106呈預定角度，將切除部103c作爲散 薄片部1 06係呈熱結合狀態予以固定於; 圖24與圖25的散熱器係藉由以彎 1 〇4a加以折疊，能夠緊緻地收納並進 1 〇 1係在使用之狀態呈直角或傾斜的姿 紙薄片部106的熱進行散熱。 圖26的散熱器係將預定寬度的紙 在固定紙薄片部1 06之間可形成山形的 的散熱鰭片1 〇 1係設有中間彎曲線1 1 1 ' 1 1 1可彎曲之細縫1 1 2，在細縫1 1 2之間 。被細縫1 1 2所分割的複數個中間彎曲 線111朝上下方向交互地彎曲。被朝 部1 1 3係在中間彎曲成山形來作爲散熱 彎曲之中間彎曲部1 1 3係彎曲成中間盘 固定於熱傳導部102的表面之固定紙薄 散熱器係在鄰接的中間彎曲線1 1 1之間 ί之狀態，將切起部 106係呈熱結合狀態 器係在紙薄片103的 ΐ在單一側設置散熱 彎曲線104的方式切 石1 0 3 c與固定紙薄片 &成對固定紙薄片部 熱鰭片1 〇 1。固定紙 熱傳導部102。 曲線1 〇 4作爲折疊線 行搬運。散熱鰭片 ;勢班區，來將固定 薄片103彎曲加工成 散熱鰭片〗〇 1。山形 和在此中間彎曲線 設有中間彎曲部1 1 3 部1 1 3係在中間彎曲 .方彎曲之中間彎曲 鰭片1 0 1。被朝下方 ;成爲水平，來作爲 片部1 0 6。圖所示的 ，平行地設置5條的 -39- 201128743 中間連接部113，在這些中間彎曲部113，交互地設有2個 山形的散熱鰭片1 〇 1、和3個固定紙薄片部1 06。以上的散 熱器係調整隔著中間彎曲線1 1 1而鄰接著固定紙薄片部1 06 之間隔，來特定山形的散熱鰭片101的突出高度與設置於 熱傳導部102之山形的散熱鰭片101的數量。即，此散熱器 係藉由縮小隔著中間彎曲線1 1 1而鄰接的固定紙薄片部1 06 之間隔，可增加設置於熱傳導部1 〇2之山形的散熱鰭片1 〇 1 的數量，亦可提高山形的散熱鰭片〗01的突出高度。 圖27至圖34所示的散熱器係作成爲將散熱鰭片101的 紙薄片1 03的切斷緣1 05呈熱結合狀態予以固定於熱傳導部 102，並且將紙薄片103的切斷緣105載承於熱傳導部102而 可自立之形狀。此散熱鰭片係可作成爲複數個筒狀、複數 個錐狀、蜂巢狀、波紋蜂巢狀、圍棋盤格子狀中的任一者 而可自立之形狀，能夠將散熱鰭片1〇1之紙薄片103的切斷 緣105呈熱結合狀態予以固定於熱傳導部1〇2。 圖27至圖29所示的散熱器係將紙薄片1〇3作成爲筒狀 ，而將其中一方的切斷緣105接著並固定於熱傳導部102的 表面。這些散熱器係將自熱傳導部1〇2突出的筒狀的紙薄 片1 03作爲散熱鰭片1 0 1，以預定之間隔固定於熱傳導部 102。圖27所示的散熱器係將紙薄片103的散熱鰭片101作 成爲圓筒狀，圖28所示的散熱器係將紙薄片1〇3的散熱鰭 片1 0 1作成爲角筒狀。且，圖2 9所示的散熱器係將紙薄片 1 03的散熱鰭片1 0 1作成爲流線形的筒狀。流線形的散熱鰭 片1 〇 1，在其橫斷面形狀，將一方的側面作爲銳角的彎曲 -40- 201128743 部1 03d ’將其相反側的側面作成爲彎曲面i 03 e。此散熱器 係將散熱鰭片1 01的銳角的彎曲部丨〇3d配置於風上側，而 將彎曲面103e配置於風下側，可對複數個散熱鰭片1〇丨圓 滑地送風而進行散熱。 圖30與圖3 1所示的散熱器係將紙薄片1 〇3作成爲錐狀 ’將底面側的切斷緣105接著並固定於熱傳導部1〇2的表面 。這些散熱器係將自熱傳導部102突出之錐狀的紙薄片103 作爲散熱鰭片1 〇 1 ’以預定之間隔固定於熱傳導部1 02。且 ’將紙薄片作成爲錐狀之散熱鰭片係無間隙地配置於熱傳 導部的表面，亦可增大表面積。圖29所示的散熱器係將紙 薄片103的散熱繪片101作成爲圓錐狀，圖30所示的散熱器 係將紙薄片1 〇3的散熱鰭片1 〇 1作成爲三角錐狀。但，雖未 圖示，將紙薄片作成爲錐狀之散熱鰭片，亦可作成爲將底 面之形狀成楕圓形、或長圓形之錐狀，亦可作成爲四角形 以上的多角形之角錐狀。紙薄片，即使加工成錐狀，也不 會如鋁這樣硬，因此具有可安全地使用之特徵。 圖3 2的散熱器係將紙薄片1 〇 3作成爲蜂巢狀，而將切 斷緣1 05固定於熱傳導部1 〇2。蜂巢狀的紙薄片1 〇3係在相 互平行地配設之平行薄片3 X之間’接著有成爲區劃壁之區 劃紙薄片1 03Z，在內部設有六角柱狀的空間，而作成爲蜂 巢狀的散熱鰭片1 0 1。蜂巢狀的散熱鰭片1 〇 1係將紙薄片 103的一方的切斷緣1〇5接著並固定於熱傳導部1〇2的表面 〇 圖3 3的散熱器係將紙薄片1 〇3作成爲波紋蜂巢狀，而 -41 - 201128743 將切斷緣1 05固定於熱傳導部1 02。波紋蜂巢狀的紙薄片 103係在相互平行地配設之平行紙薄片103X之間，將彎曲 加工成波紋狀之波紋紙薄片1 03Y夾持的方式接著而作成爲 散熱鰭片101。波紋蜂巢狀的散熱鰭片101係將紙薄片103 的一方的切斷緣105接著並固定於熱傳導部102的表面。 且，圖34的散熱器係將複數片紙薄片1〇3連結成圍棋 盤格子狀，而將切斷緣1 05固定於熱傳導部1 02。圖中的散 熱鰭片101係將縱紙薄片103T與橫紙薄片103S連結成圍棋 盤格子狀。縱紙薄片103 T與橫紙薄片103 S係在上下寬度的 一半位置設置細縫，對一方的細縫插入紙薄片1 03，連結 成圍棋盤格子狀。且，圖中的散熱鰭片101係貫通縱紙薄 片103T，設有複數個散熱用的換氣孔。圖中的縱紙薄片 103T係在橫紙薄片103 S之間的上下設有換氣孔。此構造的 散熱鰭片1 〇 1係藉由換氣孔，對橫紙薄片1 03 S之間進行換 氣，能更有效率地進行散熱。此形狀的圍棋盤格子狀的散 熱鰭片101係將縱紙薄片103T與橫紙薄片103S的下端的切 斷緣105接著並固定於熱傳導部102。 圖32至圖34的散熱器，因將複數片紙薄片1〇3相互地 呈立體狀連結而作成爲預定立體形狀，所以，既可增廣散 熱鰭片的表面積，亦可以優良的強度將散熱鰭片保持成預 定形狀。因此，在長期間，可達到優良之散熱特性。 且，散熱器’雖未圖示，將紙薄片的散熱鰭片作成爲 複數個板狀，並將切斷緣呈熱結合狀態予以固定於熱傳導 部。此散熱器係將例如加工成波紋狀、或鋸齒狀而成之複 -42- 201128743 數個紙薄片以預定之間隔加以配置，即，可將紙薄片的散 熱鰭片作成爲複數個板狀而固定於熱傳導部。這些散熱鰭 片，亦可將紙薄片的一方的切斷緣接著並固定於熱傳導部 的表面。 圖35與圖36所示的散熱器係將散熱鰭片101的紙薄片 1 03作成爲圏狀或螺旋狀，將圈或螺旋之外周面呈熱結合 狀態予以固定於熱傳導部102。此散熱鰭片，雖未圖示， 可作成爲在紙薄片，與熱傳導部平行地設置複數個折疊線 而可折疊之形狀。 圖35所示的散熱器係將細長的帶狀的紙薄片103的兩 端予以連結而成形爲圈狀，將此圈的外周面固定於熱傳導 部102後作成爲散熱鰭片101。圖所示的散熱器係將圈狀的 散熱鰭片作成爲楕圓形狀。散熱器係在使複數個圈位於同 一平面的姿勢，將下端的外周面作爲固定紙薄片部106並 接著於熱傳導部102。且，圖中的散熱器係將複數個散熱 鰭片1 〇 1呈複數列排列，在相互地接觸的狀態下接著於熱 傳導部1 02。鄰接之複數列的散熱鰭片1 0 1係相互地配置成 接著位置朝長方向偏移，而將圈狀的散熱鰭片101予以固 疋。 圖3 6所示的散熱器係將紙薄片103捲繞成螺旋狀之筒 狀的螺旋之外周面固定於熱傳導部102來作爲散熱鰭片101 。圖所示的散熱器係將螺旋之捲繞結束的端部作爲固定紙 薄片部106，將此固定紙薄片部106的外周面接著於熱傳導 部1 02。散熱器係將複數個螺旋以相互平行的姿勢排列， -43- 201128743 而固定於熱傳導部102。 圖3 7所示的散熱器係將散熱鰭片1 0 1的紙薄片1 03插通 於熱傳導部1 0 2，而呈熱結合狀態予以固定。圖所示的散 熱器係將紙薄片1 0 3彎曲成山形’作成爲呈山形突出的散 熱鰭片1〇1。山形的散熱鰭片101係將相對向之下端緣插通 於熱傳導部102並固定。熱傳導部102係開口有供彎曲成山 形之紙薄片1 〇3的雙方的下端部插入之細縫1 〇2 A。此散熱 器係在熱傳導部1 〇2的相對向之細縫1 02 A ’將山形的散熱 鰭片101的雙方的下端部插入並固定。散熱鰭片1〇1的下端 部係接著並固定於熱傳導部1 〇2的細縫1 〇2 A，或不進行接 著而藉由壓入、卡止構造予以固定。 以上的散熱器係將散熱鰭片1 〇 1呈熱結合狀態予以固 定於熱傳導部102。散熱鰭片101係以對纖維添加熱傳導粉 末之濕式抄紙所製造的紙薄片1 〇3來構成的。使用於散熱 鰭片1 0 1之紙薄片1 03係將纖維與熱傳導粉末懸濁於水，作 成爲抄紙用漿體，將此抄紙用漿體進行濕式抄紙後作成爲 薄片狀，再將其予以乾燥加以製造。此紙薄片1 03，理想 爲使用對抄紙用漿體使進行打漿後在表面設置無數個微細 纖維之打漿紙漿、與未打漿的非打漿纖維懸濁，藉由此打 漿紙漿與非打漿纖維，使懸濁於抄紙用漿體之熱傳導粉末 與纖維結合後抄紙成薄片狀所製造者。以上的紙薄片1 03 ，因具有優良的耐彎曲強度，所以，即使彎曲加工成鋸齒 狀，彎曲部不會產生破損，又，即使在使用狀態，彎曲部 也不會破損，能夠在理想的狀態下使用於各種用途。 -44- 201128743 使用於圖1 1至圖37所示的散熱鰭片101之紙薄片l〇3係 能如以下的方式進行濕式抄紙來加以製造。 將由石墨100重量部（添加平均粒子徑ΙΟΟμιη者50重量 部與平均粒徑者40μηι5()重量部）、作爲打漿紙漿之丙烯酸 紙漿（游離度（CSF) 5 0ml、平均纖維長1.45mm) 21重量 部、作爲非打漿纖維之聚酯纖維（0.1dtexx3mm ) 4重量部 、作爲黏結纖維之由聚酯纖維所構成的黏結纖維（ 1 ,2dtexx5mm ) 14重量部、碳纖維（直徑7μπι) 2.9重量部 所組成之組成物混合分散於水中，調製由固形分1 %〜5% 所形成之漿體。對此漿體，藉由已作爲濕式紙製造機被使 用之短網抄紙機進行濕式抄紙來作成爲抄紙薄片1 03，對 此抄紙薄片103進行沖壓並使其乾燥後，藉由使其通過2支 的熱滾子間之熱壓處理，作成爲高密度化之紙薄片1 03。 熱壓處理係以5m/min的速度通過表面溫度180°C '外徑 250mm、滾子間的壓力150kg/cm之金屬滾子之間。 以上的製程所製造之紙薄片103，係形成爲厚度 0.26mm、密度1.155g/cm3、基量294g/m3、耐折強度大約 3000次、熱傳導率54.2W/m. K。 熱傳導率係以與使用於圖1至圖9的散熱器之紙薄片同 樣地，以前述的方法進行測定。 耐折強度之測定係以與使用於圖1至圖9的散熱器之紙 薄片同樣地，以前述的方法進行測定。 以上的紙薄片’因既可達到優良的熱傳導特性，且具 有優良的耐彎曲強度，所以，能夠以與將紙薄片進行彎曲 -45- 201128743 加工之相同的裝置與方法，簡單且容易地進行彎曲加工， 並且可廉價地製造散熱鰭片101。 使用於圖1 1至圖37的散熱器之紙薄片係使用丙烯酸紙 漿作爲打漿紙漿，使用聚酯纖維作爲非打漿纖維，但作爲 打漿紙漿，可將由合成纖維所形成的打漿紙漿、與天然紙 漿之其中任一者單獨或複數種混合來使用。又，作爲由合 成纖維所形成的打漿紙漿，可使用丙烯酸纖維、聚芳酯纖 維、聚醯胺纖維、聚乙烯纖維、聚丙烯纖維、PBO ( poly (p-phenylenebenzobisoxazole))纖維、嫘縈纖維、聚颯 系纖維等，而作爲天然紙漿，可使用木材紙漿、非木材紙 漿等。又’作爲非打漿纖維，可使用聚酯纖維、聚醯胺纖 維、聚丙烯纖維、聚醯亞胺纖維、聚乙烯纖維、丙烯酸纖 維、碳纖維、PB0纖維、聚醋酸乙烯酯纖維、嫘縈纖維、 聚乙烯醇纖維、乙烯-乙烯醇纖維、聚芳酯纖維、金屬纖 維、玻璃纖維、陶瓷纖維、氟素纖維、聚碾系纖維、聚苯 硫醚系纖維等。 又，使用於圖11至圖37的散熱器之紙薄片，使用以熱 加以熔融的作爲非打漿纖維之黏結纖維，將進行了抄紙之 薄片進行加熱沖壓後’使黏結纖維熔融，再加工成薄片狀 來作成爲紙薄片’但作爲黏結纖維，可使用聚酯纖維、聚 丙烯纖維、聚醯胺纖維、聚乙烯纖維、聚醋酸乙烯酯纖維 、聚乙烯醇纖維、乙烯-乙烯醇纖維、聚颯系纖維、聚苯 硫醚系纖維等。 且’使用於圖11至圖37的散熱器之紙薄片，並非在纖 -46 - 201128743 維一定需要使用打漿紙漿與非打漿纖維，例如亦可僅使用 打漿紙漿來加以製造。 又，以上的紙薄片，係使用薄片機器，將漿體予以薄 片化後，作爲抄紙薄片來製作，但亦可藉由模具抄紙來代 替薄片機器，作爲抄紙薄片予以製作。 且，使用於圖11至圖37的散熱器之紙薄片係藉由包含 黏結的合成樹脂，能夠提升作爲散熱鰭片所成形之狀態的 強度。此黏結的合成樹脂，能夠使用包含聚丙烯酸酸酯共 聚合物樹脂、聚醋酸乙烯酯樹脂、聚乙烯醇樹脂、N B R ( 丁腈橡膠）樹脂、SBR (苯乙烯丁二烯橡膠）樹脂、聚胺 甲酸酯樹脂、氟素系樹脂中中的任一者之熱可塑性樹脂， 或包含酚樹脂、環氧樹脂、矽系樹脂中中的任一者之熱硬 化性樹脂的其中一者。 又，使用於圖11至圖37的散熱器之紙薄片，作爲熱傳 導粉末’氮化鋁、鎂氧、矽酸鋁、矽、鐵、、碳、氮化硼 、氧化鋁、氧化矽、鋁、銅、銀、金、氧化鋅、鋅的粉末 ’或對碳化砂又添加這些粉末者，來代替碳化砂，平均粒 徑係可作爲Ο.ίμιη至500μηι。熱傳導粉末，不論平均粒徑過 大或過小’在進行濕式抄紙之製程中，附著到纖維之比例 會變少’造成利用效率變差，因此，考量所使用之纖維的 種類等’採用最適當的平均粒徑者。 且，紙薄片係能夠添加難燃劑來提升難燃特性。例如 ，紙薄片可藉由含浸難燃劑，來提升難燃特性。例如，在 難燃劑使用磷酸胍，將其以1 0重量％比例含浸所形成的紙 -47- 201128743 薄片係可達到UL94 V-Ο左右的難燃效果。 使用以上的方式所製造之紙薄片1 〇3，製作以下所示 的散熱器，比較其重量與散熱性能。 再者，以下的實施例所示的散熱器係使用尺寸 210mmx50mm、厚度3mm之鋁板作爲熱傳導部，將紙薄片 彎曲加工成鋸齒狀而設置的散熱鰭片呈熱結合狀態予以固 定於此熱傳導部的一方的面。且，散熱器係在熱傳導部的 另一方的面，即在與固定有散熱鰭片的面之相反側的面， 固定有作爲發熱體的裝設有數個LED之電路基板。電路基 板係尺寸爲170mmx50mm，固定於作爲熱傳導部之紙薄片 的除了兩端部以外的中央部。測定被固定於此電路基板之 LED的溫度。 再者’以下的實施例所示的散熱器，使用將尺寸作成 爲210mmx50mm'厚度3mm之鋁板作爲熱傳導部。在此熱 傳導部的一方的面’將本發明的以下所記載的實施例和比 較例之散熱鰭片呈熱結合狀態予以固定。且，散熱器係在 熱傳導部的另一方的面，即與固定著散熱鰭片的面相反側 之面’固定著固定有作爲發熱體之18個1£〇所形成的電路 基板。電路基板係固定在將尺寸作成爲170mmx50mm之作 爲熱傳導部的鋁板的除了兩端部以外的中央部。此電路基 板係將晶片型、型之^018個固定在表面。18個LED係 呈成行連接（串聯），將供給電壓68·3ν、供給電流作爲 〇·3Α，供給大約20W的電力。測定固定於此電路基板之 LED的溫度。 -48- 201128743 〔實施例7〕 如圖1 4所示，將1片的細長的紙薄片1 〇3呈直角地進行 彎曲加工，形成水平部分103A與垂直部分i〇3B，將垂直部 分1 0 3 B作爲散熱鰭片1 0 1，將水平部分1 〇 3 A作爲固定紙薄 片部1 06，而將固定紙薄片部1 06呈熱結合狀態接著於熱傳 導部102。垂直部分103B係以兩面接著膠帶將內面予以接 著而作成爲1片的散熱鰭片。散熱鰭片1 0 1係將高度與橫寬 度作成爲5cm、固定紙薄片部106係將長方向的尺寸作成爲 與散熱鰭片10〗的橫寬度相同的5cm、而寬度作成爲lcm， 來將固定紙薄片部1〇6無間隙地接著，以lcm間隔固定21片 的散熱鰭片1 〇 1。 〔實施例8〕 如圖18與圖19所示，將紙薄片103彎曲加工成在相互 平行地配設之複數列的固定紙薄片部1 06之間設置呈山形 突出的散熱鰭片1 〇 1之形狀，再以軟鋼的固定板1 07，將固 定紙薄片部106夾持並固定於熱傳導部102。固定板107的 軟鋼係設有使山形的散熱鰭片1 〇 1突出之四角形的貫通孔 107C。紙薄片103的橫寬度係爲50mm，而呈山形突出之散 熱鰭片101的橫寬度爲50mm，而朝上方突出的傾斜方向之 長度作成爲30mm。固定板107的外形係與熱傳導部102的 外形相等，貫通孔107C的內形係作成爲1 1mm X 50mm，將 設置於貫通孔107C之間的固定紙薄片部106夾持於熱傳導 49 · 201128743 部102之夾持部1〇7Β的寬度係作成爲2mm ’而位於周圍之 四角形的框形部分之橫寬度作成爲3mm。固定紙薄片部 106係不需接著劑’被固定板1〇7夾持而固定於熱傳導部 102° 〔實施例9〕 如圖33所示，將紙薄片103作成爲波紋蜂巢狀，而將 切斷緣105固定於熱傳導部102。波紋蜂巢狀的紙薄片103 係以將彎曲加工成波紋狀之波紋紙薄片1 Y夾持的方式， 接著於相互平行地配設之平行紙薄片1 〇3 X之間。波紋紙薄 片103係彎曲加工成高度3mm、橫寬度6mm之波紋狀，接著 成夾持於平行紙薄片1 〇3之間。平行紙薄片1 〇3之間隔係成 爲波紋紙薄片1 的高度，所以作成爲3mm。此波紋蜂巢 狀的散熱器係切斷成高度成爲5 cm，將切斷緣105接著於熱 傳導部1 02，使得平行紙薄片1 03與波紋紙薄片1 03對熱傳 導部102呈垂直姿勢予以固定著。接著劑係使用對環氧系 塡充氧化鐵系的塡料者。波紋蜂巢狀的散熱器係將其外形 作成爲與熱傳導部1 02的外形相等。 〔實施例1 0〕 如圖34所示，將縱紙薄片103T與橫紙薄片103S連結成 圍棋盤格子狀來作爲散熱器。縱紙薄片103 T與橫紙薄片 1 〇3 S係在上下寬度的一半位置設置細縫，將其他的紙薄片 1 〇3插入到該細縫來連結成圍棋盤格子狀。縱紙薄片1 03係 -50- 201128743 在上下方向設有圓形的貫通孔。貫通孔係內徑作成爲6 m m ，上部的貫通孔係設置於自上端到貫通孔的中心爲止之間 隔分離13mm之位置，而下部的貫通孔係設置於自下端到 中心爲止之間隔分離1 3 m m之位置。縱紙薄片1 0 3之間隔係 爲5mm，橫紙薄片1 03之間隔係爲1 cm，縱紙薄片1 03與橫 紙薄片103的上下寬度係爲5cm。縱紙薄片103與橫紙薄片 1 03的下端緣係經由接著劑接著於熱傳導部1 〇2，對熱傳導 部1 02呈垂直姿勢固定。接著劑係使用與實施例7相同者。 〔實施例1 1〕 如圖35所示，將紙薄片103裁斷成lcm寬度的帶狀將其 作成爲高度方向之長徑爲40mm、寬度方向之短徑爲1 5mm 之楕圓形的圈狀的散熱鰭片1 〇 1。散熱鰭片1 〇 1係以使圈位 於同一平面的姿勢排列成5列，在相互地接觸的狀態下接 著於熱傳導部1 02。鄰接之5列的散熱鰭片1 0 1，相互地接 著成接著位置朝長方向偏移，即朝長方向偏移7.5mm之位 置，將14個與15個的圈狀的散熱鰭片101接著成1列。接著 劑係使用與實施例7相同者。 〔比較例3〕 作爲比較例3，製作鋁製的散熱器。此散熱器係在厚 度6mm、尺寸作成爲210mmx50mm之板狀的熱傳導部102的 一方的面，將複數個散熱鰭片101—體成形地設置者。複 數個散熱鰭片101係將作成爲縱寬度5 0mm、橫寬度1 5mm、 -51 - 201128743 厚度2.5mm，以8mm的間距，相互呈平行的姿勢一體成形 設置著。且，散熱器係在熱傳導部102的另一方的面，即 與設有散熱鰭片101的面相反側的面，固定有固定著作爲 發熱體之複數個LED所形成的電路基板，即與在實施例所 使用的電路基板相同之電路基板。電路基板係將尺寸作成 爲170mmx50mm，固定於板狀的熱傳導部1〇2的除了兩端 部以外的中央部。測定固定於此電路基板之LED的溫度。 藉由以上的實施例7至11、及比較例3的散熱器進行了 散熱之LED的溫度顯示於表2。 〔表2〕Glass fiber, ceramic fiber, or non-firing fiber. The heat conductive powder of the paper sheet 3 added to the heat dissipating fins 1, 2 1, and 3 1 may be tantalum nitride, aluminum nitride, magnesium oxy-aluminum silicate, antimony, iron, carbonized sand, carbon, boron nitride. , alumina, yttria, aluminum, copper, silver, gold powder. Also, the average particle size of the thermally conductive powder can be used as a crucible. 1μιη to 5〇〇μηι. Further, the paper sheet 3 of the heat-dissipating fins 1, 2 1 and 3 1 can be bonded to a fiber by adding a synthetic resin as a binder, followed by wet papermaking. As the synthetic resin, a polyacrylate copolymer resin, a polyvinyl acetate resin, a polyvinyl alcohol resin, a NBR (nitrile rubber) resin, an SBR (styrene butadiene rubber) resin, or a polycarbamic acid can be used. Any of the thermoplastic resins of the ester resin or any of the thermosetting resins of any one of a phenol resin and an epoxy resin. Further, the heat-dissipating fins 1, 21, and 3 may be used as a paper sheet 3 which is formed by wet papermaking by a mold paper formed by adding heat-conductive powder to the fiber, and heat dissipation of the paper sheet of claim 2 of the present invention. Preferably, the heat dissipating fins 1 〇 1 are fixed to the heat conducting portion 102. 1. The heat sink fins 1 0 1 are paper sheets of wet papermaking formed by heating the conductive powder to the fibers. 1 03 to form. Paper-11 - 201128743 Sheet 1 〇3 series is bent at 1 0 4 in the bending line, with the bending line 1 〇 4 as the boundary, and is divided into heat-dissipating fins 1 〇 1 and fixed paper sheets 1 0 6 ° heat sink paper sheets The fixed paper sheet portion 106 of 1300 is fixed to the heat conduction portion 102 in a thermally bonded state, and heat of the heat conduction portion 102 is thermally transferred from the fixed paper sheet portion 1〇6 to the heat dissipation fins 101 to dissipate heat. The heat sink of the above paper sheet has the characteristics of not only increasing the heat radiating area of the heat radiating fin but also achieving excellent heat dissipation characteristics and achieving extremely light weight. This is because the heat sink fins are made of paper for wet papermaking. Since the paper sheet subjected to wet papermaking exhibits extremely excellent thermal conductivity in the surface direction, heat generation in the heat conduction portion can be quickly conducted to a wide area, and heat can be efficiently dissipated. Further, the surface has an infinite number of fine concavities and convexities, and the surface area is substantially large, and the heat dissipating area becomes so that heat can be efficiently dissipated from the surface. By the way, the LED light source provided with the aluminum heat sink is continuously placed in a state where the outside air temperature is 20 ° C, so that the temperature of the LED rises to 6 TC until it is stable, and the same is true. The LED light source, by fixing the heat sink of the paper sheet of the present invention, can dissipate the temperature of the LED to a low temperature of 55 ° C to 62 ° C which is not lost to the heavy aluminum heat sink. Since the heat sink fin is extremely light as a heat sink of the paper sheet, it is only about 1 〇〇g, so that the light source of various forms can be lightened, and the heat generated by the LED can be effectively dissipated to reduce the temperature rise. . Further, not only LEDs but also semiconductor elements have characteristics in which the efficiency is lowered due to an increase in temperature. For example, the LED will decrease in luminous efficiency as the temperature rises, and conversely, when the temperature is lowered from 60 ° C to 30 ° C, the luminous efficiency will increase by about 50%. What is more problematic is that when the efficiency of the semiconductor element -12-201128743 is lowered due to an increase in temperature, the power loss is increased and the amount of heat generation is increased. Therefore, although the semiconductor element can be cooled by efficient heat dissipation, when the heat dissipation is insufficient, the temperature rises again, and when the temperature rises, the heat generation further increases, and the temperature becomes higher. A vicious cycle of reducing efficiency arises. Since the heat sink of the paper sheet of the present invention has excellent heat dissipation characteristics, it can achieve an LED light source fixed in the form of a light bulb, and can reduce the overall weight and reduce the temperature rise, thereby improving the luminous efficiency. Characteristics. Further, the heat sink of the above paper sheet is characterized in that it can be mass-produced at low cost, in addition to being lightweight, by converting the heat-dissipating fins from the metal sheet to the paper sheet. In the heat sink of the paper sheet of the claim 22 of the present invention, the paper sheet 103 is bent into an L shape to be partitioned into the heat dissipation fins 101 and the fixed paper sheet portion 1 〇6, and the fixed paper sheet portion 106 is thermally bonded. It is preferable to fix it to the heat conduction portion 102. In the above heat sink, the fixed paper sheet portion is thermally coupled to the heat conducting portion over a wide area, so that the heat of the heat conducting portion can be efficiently conducted to the fixed paper sheet portion, and can be fixed by the heat conduction property excellent in the surface direction. The paper sheet portion is thermally transferred to the heat radiating fins to be efficiently radiated toward the outside. In the heat sink of the paper sheet of claim 23 of the present invention, the paper sheet 103 is cut into a specific shape so as to have a residual bending line 104, and is divided into a plurality of cut portions 103c and a fixed paper sheet portion 106, and the cut portion 103c is cut. The curved line 104 is bent at a predetermined angle to the fixed paper sheet portion 106. The cut portion 1 03 c is taken as the heat sink fin 10 1 and the fixed paper sheet portion is 1 06 -13 - 201128743 It is preferable that the thermal bonding state is fixed to the heat conduction portion 102. In the above heat sink, it is possible to achieve a structure in which a plurality of heat radiating fins are connected to the fixed paper sheet portion by one sheet of paper sheets, and the fixed paper sheet portion can be made into a wide area. Therefore, the heat of the heat conduction portion can be efficiently thermally transferred to the fixed paper sheet portion having a wide area and in a thermally bonded state, and the heat transfer rate excellent in the surface direction can also be used to fix the plurality of heat dissipation fins from the fixed paper sheet portion. The sheet is efficiently thermally conducted, and the heat of the heat conduction portion can be efficiently dissipated. The heat sink of the paper sheet of claim 24 of the present invention has a position separated from the outer periphery as a bending line 104, and after the paper sheet 030 is joined to both ends of the bending line 104, from the bending line 104 to the outer periphery. The cut portion 103b and the fixed paper sheet portion 106 are cut out, and the cut and raised portion 103b is bent at a predetermined angle to the fixed paper sheet portion 106 at the bending line 104, and the cut-and-raised portion 10b is used as a heat sink. The fin 101 is preferably fixed to the heat conduction portion 1 〇 2 in a state in which the fixed paper sheet portion 106 is thermally coupled. In the above heat sink, the structure in which a plurality of heat radiating fins are connected to the fixed paper sheet portion by one sheet of paper can be achieved, and the fixed paper sheet portion can be made into a wide area. Therefore, the heat of the heat conduction portion can be efficiently thermally transferred to the fixed paper sheet portion having a wide area and in a thermally bonded state, and the heat transfer rate excellent in the surface direction can be efficiently conducted from the fixed paper sheet portion to the heat. The plurality of heat dissipation fins can efficiently dissipate heat generated in the heat conduction portion. The heat sink of the paper sheet of claim 25 of the present invention has a fixing plate 107 for holding and fixing the fixed paper sheet portion 106 to the heat conducting portion 102, and the fixing plate 107 is held by the heat conducting portion 102 by the fixing plate 107. It is preferable that the fixed paper sheet portion 106 is fixed to the heat conduction portion 102 in a thermally bonded state. The above heat sink can be easily and easily fixed in a state in which the fixed paper sheet portion is thermally bonded to the heat conduction portion, and the heat of the heat conduction portion is quickly transmitted to the fixed paper sheet portion to be thermally conducted from the fixed paper sheet portion. To the heat sink fins, heat can be efficiently dissipated. Since the paper sheet can be fixed to the heat conduction portion without using an adhesive, the entire structure can be reduced in weight without using an adhesive. The heat sink of the paper sheet of claim 26 of the present invention is formed by bending a paper sheet 030 into a shape of a heat sink fin 101 protruding in a mountain shape between a plurality of fixed paper sheet portions 106 arranged in parallel with each other. Further, the fixing plate 107 has a nip portion 107B that sandwiches the fixed paper sheet portion 106 between the heat conduction portion 102, and a through hole 107C that protrudes from the heat dissipation fin 101 that protrudes in a mountain shape. The fixing plate 107 can insert the heat dissipation fin 101. After the through hole 107C is reached, the sandwiching portion 107B is fixed to the heat conduction portion 102. In the above heat sink, the fixed paper sheet portion can be fixed to the heat conduction portion in an ideal state, and the fixed paper sheet portion is provided on both sides of the heat dissipation fin, and the respective heat dissipation fins are placed in a desired state via the fixed paper sheet. The portion is connected to the heat conduction portion in a thermally coupled state. Therefore, the heat of the heat conduction portion can be quickly conducted to the fixed paper sheet portion, and the heat can be efficiently radiated from the fixed paper sheet portion to the heat dissipation fin. In the heat sink of the paper sheet of the present invention, the through hole 107C of the fixing plate 107 is formed into a square shape, and the heat radiating fins -15 to 201128743 101 of the paper sheet 103 are formed to protrude from the through hole 107C of the square shape. It is preferable that the vertical cross-sectional shape is a triangular mountain shape. In the above heat sink, the heat radiating fins can be made stable and self-standing, and the heat of the heat conducting portion can be efficiently transferred from the fixed paper sheet portion to the heat radiating fins, so that the heat dissipation efficiency is improved. Further, the through hole 7 C of the fixing plate 7 can be formed into a triangular shape, a slit shape or the like. The through hole of the triangle protrudes from the fin of the vertical cross section and the triangular shape of the horizontal cross section. The through-hole of the slit is such that the fins that are folded in half protrude. The heat sink of the paper sheet of claim 28 of the present invention is any one of a fixing plate 1〇7 metal plate, a rigid plastic plate, a hard plastic plate filled with a dip, and a fiber-reinforced plastic plate. good. In the structure in which the fixing plate is made into a metal plate, the fixed paper sheet portion can be surely adhered to the heat conducting portion to achieve a desired thermal bonding state, and the heat radiating from the fixing plate of the metal plate can improve heat dissipation characteristics. In the structure in which the fixing plate is made of a plastic plate, it is possible to reduce the weight and securely fix the fixed paper sheet portion to the heat conduction portion in a thermally bonded state. In the heat sink of the paper sheet of claim 29 of the present invention, it is preferable that the heat radiating fins 101 are bent at a bending line 104 to be detachably coupled to the fixed paper sheet portion 106. The above heat sinks are bundled and transported in a folded state. In this stroke, both the extremely compact and the excellent heat dissipation characteristics can be achieved. Moreover, this configuration can reduce the transportation cost. The heat sink ' of the paper sheet of the claim 31 of the present invention fixes the heat-dissipating fins 1 〇 1 to the heat-conducting portion 1 〇2. The heat dissipating fins 10 1 are composed of a paper sheet 103 of wet paper formed by adding heat-16-201128743 conductive powder to the fibers. The heat exchanger fixes the cutting edge 105 of the paper sheet 103 of the heat dissipation fin 101 to the heat conduction portion 102 in a hot state, and the heat dissipation fin of the paper sheet is configured to carry the cutting edge 105 to the heat conduction portion 102. It is better to be self-reliant. In the above heat sink, the heat dissipating fin can be simply fixed to the heat conducting portion, and the cutting edge of the paper sheet can be thermally coupled to be fixed to the heat conducting portion, and the heat conduction can be excellent in the surface direction. The paper sheet can efficiently dissipate the heat of the heat conduction portion to dissipate heat. The heat sink of the paper sheet of claim 3 of the present invention is formed into a tubular shape, a plate shape, a bee, a corrugated honeycomb shape, a checkerboard lattice shape, or a cone shape in a shape that can be cut by the heat conduction portion. Any of them. The above heat sink can increase the surface area of the heat sink fins and achieve the heat dissipation characteristics. Further, the heat dissipating fins can be shaped with excellent strength, and excellent heat dissipation characteristics can be achieved over a long period of time. The heat sink of the paper sheet of claim 3 of the present invention fixes the heat radiation 101 to the heat conduction portion 102. The heat radiating fins 101 are constituted by a paper sheet 1 〇 3 of wet paper formed by adding powder to the fibers. In the heat sink, the paper sheet 103 of the heat-dissipating fin 1 〇1 is made into a ring shape or a screw, and the outer surface of the ring or the spiral is thermally bonded to the heat sink having a heat transfer of 102° or more, and the fixed paper can be augmented. The combination area of the sheet portion and the heat dissipating fin further enlarges the heat dissipating area, and can self-fix the paper sheet, and combines the shape of the single layer with the shape of the single fin to the characteristic fin edge to be well-formed into a pre-fin heating and a spiral guide.埶部部部-17- 201128743 The heat-dissipating fins rapidly conduct heat conduction. The heat-dissipating fins can efficiently dissipate heat from the heat-conducting portion. The heat sink ' of the paper sheet of claim 34 of the present invention fixes the heat radiating fins 101 to the heat conducting portion 1〇2. The heat dissipating fins 1〇1 are constituted by a paper sheet 103 of wet paper formed by adding a heat conductive powder to the fibers. Further, the heat sink inserts the paper sheet 103 of the heat radiation fin 101 into the heat conduction portion 102 and is fixed in a thermally bonded state. In the above heat sink, since the heat radiating fins are inserted into the heat conducting portion to be in a thermally bonded state, the heat radiating fins can be connected to the heat conducting portion in a thermally bonded state with great ease. In the heat sink of the paper sheet of claims 21 to 34 of the present invention, the thickness of the paper sheet 103 of the heat radiation fin 101 is made 1 mm or less. 〇 5mm or more is preferred. This heat sink can make the heat sink fins have sufficient strength, and can achieve lightweight and excellent heat dissipation characteristics. The heat sink of the paper sheet of claims 21 to 34 of the present invention, which beats the fibers of the paper sheet 103 of the heat dissipation fin 101, and has a plurality of fine fibers of beaten pulp and unbeaten non-beating fibers on the surface, It is preferred that the heat-transfer powder is added to the beaten pulp and the non-slurry fiber, and then the wet paper sheet is used as the heat-dissipating fin. The above heat sink of the paper sheet can improve the bending strength of the paper sheet used for the heat sink fins, and can be easily bent and improved in thermal conductivity. It is possible to achieve the desired characteristics as a paper sheet. Further, the characteristics of the strength of the vibration of the paper sheet used for the heat dissipation fins can be achieved. The paper sheet above -18-201128743 has a folding strength of up to 300 times, and the thermal conductivity is also 5 4. 2W/m · Κ ' can achieve excellent heat dissipation characteristics of heat sink fins. The heat sink of the paper sheet of claim 2 to 3 4 of the present invention, the beater pulp used in the heat sink fin 1 〇1 of the heat sink fin 1 可1 can be beaten by synthetic fibers The pulp is used alone or in combination with any one of natural pulp. As the pulping pulp of synthetic fiber, acrylic fiber, polyarylate fiber polyamide fiber, polystyrene fiber, polypropylene fiber, PBO (poly(p-phenylenebenzobisoxazole) fiber, bismuth fiber, polyfluorene fiber can be used. Any of them. Further, as the natural pulp, any of wood pulp and non-wood pulp can be used. And the heat sink of the paper sheet of claims 2 to 3 of the present invention, the non-beating fiber type may be a polyester fiber, a polyamide fiber, a polypropylene fiber, a polyimide fiber, a polyethylene fiber, or an acrylic fiber. , carbon fiber, PB0 fiber, polyvinyl acetate fiber, yttrium fiber, polyvinyl alcohol fiber, ethylene-vinyl alcohol fiber, polyarylate fiber, metal fiber, glass fiber, ceramic fiber, fluorocarbon fiber, poly maple fiber, Any of polyphenylsulfuric acid fibers is used. The heat sink of the paper sheet of the claims 2 to 34 of the present invention can be used as a non-slurry fiber' as a bonded fiber to be melted by heat, and the sheet which has been subjected to papermaking is heated and pressed, and then the bonded fiber is melted, and then the bonded fiber is melted. It is processed into a sheet to form a paper sheet. As the binder fiber, any of polyester fiber, polypropylene fiber, polyamide fiber, polyethylene fiber, polyvinyl acetate vinegar fiber, polyvinyl alcohol fiber, and ethylene-vinyl alcohol fiber can be used. The heat sink of the paper sheet of claims 21 to 34 of the present invention, which is added to the paper sheet 103 of the dispersion -19-201128743 hot fin ιοί, may use tantalum nitride, aluminum nitride, magnesium oxide, aluminum silicate. Any of the powders of bismuth, antimony, iron, niobium carbide, carbon, boron nitride, aluminum oxide, antimony oxide, aluminum, copper, silver, gold, oxidized, and zinc. Moreover, the average particle size of the thermally conductive powder is Ο. Ίμηι to 500μηι» Furthermore, the heat sink of the paper sheet of claims 21 to 34 of the present invention, the paper sheet 1 〇3 of the heat radiating fin 10 1 can be bonded to the fiber using a synthetic resin added as a binder. Wet papermaking is made by the manufacturer. As the synthetic resin, a polyacrylate copolymer resin, a polyvinyl acetate resin, a polyvinyl alcohol resin, a NBR (nitrile rubber) resin, an SBR (styrene butadiene rubber) resin, or a polycarbamic acid can be used. Any of the thermoplastic resins of the ester resin or any of the thermosetting resins of any one of a phenol resin and an epoxy resin. [Embodiment] Hereinafter, embodiments of the present invention will be described based on the drawings. However, the embodiment shown below is an example of a heat sink for expressing a paper sheet for embodying the technical idea of the present invention, and the heat sink of the paper sheet of the present invention is not limited to the following methods, conditions, and the like. . Also, the members shown in the scope of the patent application in this specification are not limited to the members of the embodiments. The heat sink shown in Figs. 1 to 9 is fixed to the heat conducting portions 2, 22, 32, 42 by the heat radiating fins 1, 21, 31 which are bent. The heat radiating fins}, 2 1 and 3 1 are paper sheets 3 produced by wet papermaking in which heat conductive powder is added to the fibers. The heat dissipating fins 1, 2 1 and 3 1 are formed by bending the paper sheet 3 into a sawtooth shape and then being thermally bonded to the heat conducting portions 2, 22, 3 2, 42 -20-201128743. The heat sink shown in Figs. 1 to 7 is fixed to the heat conducting portions 2, 22, 32, 42 in a thermally bonded state by bending the curved edges 4 of the paper sheet 3 which is bent into a zigzag shape. The heat sink shown in Fig. 8 and Fig. 9 fixes the curved end surface 5 of the paper sheet 3 bent in a zigzag shape to the heat transfer portion in a thermally bonded state. The heat dissipating fins 1, 21, and 31 which are formed by bending the paper sheet 3 into a zigzag shape are the transverse width (W) of the curved surface of one sheet which is augmented and bent, and are bent into a zigzag distance (d). That is, the interval between the adjacent curved edges 4 is narrowed, and the heat conduction portions 2, 22, 32, 42 are not increased, and the heat dissipation areas of the heat dissipation fins 1, 21, 31 can be increased. The lateral width (W) of the curved surface of one sheet is set to an optimum size according to the required thermal resistance, for example, 5 mm to 30 mm, and the pitch (d) is set to 2 mm to 30 mm. The thickness of the paper sheet 3 of the heat dissipating fins 1, 21, 31 is desirably 0. 2mm to 0. 3 mm, but can be used thinner than 1mm and more than 0. 05mm thick. When the paper sheet is too thin, the strength is lowered, and when it is too thick, the manufacturing cost becomes high and the weight becomes heavy. Therefore, the most suitable one is used in consideration of the use and the required strength and heat resistance. In the heat sink of Fig. 1, the paper sheet 3 which is bent into a zigzag shape is formed into a cylindrical shape, and the inner curved edge 4 is fixed to the outside of the cylindrical heat conduction portion 22 in a thermally bonded state. The heat sink of Fig. 1 is thermally coupled to the outer periphery of an electronic component such as an LED light source in the form of a cylindrical light bulb, and the electronic component is radiated from the outer peripheral surface. In the LED light source of the electronic component shown in the drawing, a plurality of LEDs (not shown) are fixed on the lower surface, and the heat radiating fins 1 of the paper sheet 3 are fixed to the outer periphery thereof. The heat sink of Fig. 1 uses the heat conducting portion 22 for fixing the fixing portion 1 of the L E D . Therefore, the heat dissipation-21 - 201128743 does not need to be provided as a dedicated component of the heat conduction portion, and the bent edge 4 bent to the inner side of the zigzag paper sheet 3 is thermally bonded at the fixing portion 10 of the fixed led. It is fixed. The paper sheet 3 of the heat radiating fin 1 is attached to the outer peripheral surface of the fixing portion 10, and is fixed to the heat conducting portion 22 in a thermally bonded state. Further, in the heat sink of Fig. 2, the paper sheet 3 which is bent into a zigzag shape is formed into a cylindrical shape, and the outer curved edge 4 is fixed to the inside of the cylindrical heat conduction portion 42 in a thermally bonded state. The heat sink in the figure is a paper sheet 11 in which the heat conduction portion 42 is formed into a cylindrical shape. This heat sink is fixed to the inner surface of the cylindrical paper sheet 11 in a thermally bonded state by bending the curved edge 4 of the outer side of the zigzag paper sheet 3, and fixes the heat dissipation fin 1 to the cylindrical heat conduction portion. The inside of 42. The heat sink is inserted, for example, into a gap formed between a plurality of electronic components fixed to a circuit board or the like, and the outer peripheral surface of the cylindrical heat conducting portion 42 is thermally coupled to the surface of the electronic component. Electronic parts are cooled. In particular, the heat conduction portion 42 is a structure of the paper sheet 1 1 , and the outer shape can be easily deformed, and can be easily inserted into the gaps formed at various intervals between the plurality of electronic components. However, the heat transfer portion is not limited to a paper sheet, and a metal plate, a thermally conductive plastic sheet, or the like can be used. The heat sink shown in FIGS. 3 to 6 is provided with a heat conduction portion 2 of the paper sheet 12, and the zigzag paper sheet 3 is fixed at this portion, and the heat conduction portion 2 composed of the paper sheet 12 is fixed to the electronic component. In the heating part, the electronic parts are dissipated. The heat sink shown in these figures may also use a heat conducting portion of a metal plate instead of the heat conducting portion of the paper sheet 12. The heat conducting portion of the metal plate is a flat metal plate having excellent thermal conductivity such as aluminum. In the heat conduction portion 2 -22-201128743 in the figure, the heat conduction portion 2 is formed into a shape of a heat generating portion such as an electronic component to be fixed, and is thermally coupled to the heat generating portion. The heat-conductive portion 2 is fixed in a thermally bonded state via an adhesive agent having excellent heat conduction, and is thermally bonded to each other, or thermally bonded to the heat-generating portion via a heat-conductive adhesive excellent in heat transfer. Further, the heat transfer portion of the metal plate is fixed by screws, other fixed structures, or the like. In the heat sink of Fig. 3, the entire shape of the heat radiating fin 1 formed by bending the paper sheet 3 which is formed into a zigzag shape is formed into a flat shape, and the flat paper sheet 12 is bent to face the heat conducting portion 2 The edge 4 is fixed to the paper sheet 12 of the heat conduction portion 2 in a thermally bonded state. The heat sink is fixed to the surface of the heat sink which is disposed on the planar surface of the electronic component to dissipate heat from the electronic component. This heat sink is fixed to the upper surface of the L E D light source in the form of a light bulb or the surface of an electronic component such as a transistor or an FET, so that heat can be efficiently dissipated. The heat sink of Figs. 4 and 5 has a height at which the paper sheet 3 of the heat dissipating fin 21 is bent into a zigzag-shaped projecting portion to have a height different from that of the adjacent one. That is, a low-mountain projection 21B is provided between the mountain-shaped projections 2 1 A. This heat radiating fin 21' has a feature that a low mountain-shaped projecting portion 21B is provided between the mountain-shaped projecting portions 21A, and a valley portion can be formed by the low-mountain-shaped projecting portion 21B between the adjacent mountain-shaped projecting portions 21A. 6. Therefore, the heat dissipation fins 21 of this configuration can narrow the pitch (d) of the curved edges 4 which are bent into a zigzag shape to increase the heat dissipation area, and can also smoothly ventilate the air to the mountain-shaped protrusions 2 The valley portion 6 between 1 A can perform heat dissipation from the -23-201128743 at the high-altitude protrusion 2 1 A. The fins 2 1 of Fig. 4 are arranged such that the alpine-shaped projections 2 1 A and the low-mountain projections 2 1 B are alternately arranged. Further, the heat radiating fins 2 1 of Fig. 5 are provided with a plurality of (six in the figure) low mountain-shaped projecting portions 2 1 B between adjacent mountain-shaped projecting portions 2 1 A. Further, the fins can be variously changed in the arrangement and number of the high-mountain-shaped projections and the low-mountain-shaped projections, and the mountain-shaped projections in which the height is randomly changed can be provided. The heat sink of Fig. 6 is provided with a plurality of ventilation holes 7 in the heat dissipation fins 31 which are formed by bending the paper sheets 3 which are formed in a zigzag shape. The ventilating holes 7 are through holes, and are arranged at predetermined intervals in a top portion of a mountain-shaped projection which is bent into a zigzag shape. This heat radiating fin 1 can arrange the heat conducting portion 2 in a horizontal shape and achieve excellent heat dissipation characteristics. This is because the air which is heated inside the mountain-shaped projecting portion passes through the ventilating hole 7, and is ventilated smoothly toward the outside. The heat sink of FIG. 7 is disposed in a parallel posture in which a plurality of heat conduction portions 32 are separated from each other, and a heat dissipation fin 1 composed of a paper sheet 3 which is bent into a zigzag shape is disposed between the heat conduction portions 32. The curved edges 4 which are bent into the zigzag paper sheet 3 are fixed to the plate-shaped heat conduction portion 32 in a thermally bonded state. The heat conduction portion 32 is any one of the heat conductive plastic sheet 13, the paper sheet, and the metal plate. The heat conduction portion 32 can be made lightweight as a heat sink of a paper sheet or a thermally conductive plastic sheet 13 or the like. By using the heat transfer portion as a heat sink for a metal plate such as aluminum, the heat conduction of the heat conduction portion can be made good, and heat can be efficiently dissipated. Since the heat sink is disposed so as to sandwich the paper sheet 3 which is bent and formed into a zigzag pattern between the plurality of heat conducting portions 32, the total strength can be increased, and the heat radiating surface can be increased by -24-201128743. . In the heat sink of Fig. 8, the paper sheet 3 which is bent into a zigzag shape is formed into a cylindrical shape, and one curved end surface 5 of the cylindrical paper sheet 3 is fixed to the planar heat conduction portion 2 in a thermally bonded state. Here, the curved end surface 5 is a surface including the edge of the paper sheet 3 which is bent into a zigzag shape, and is a surface including the end edges of the plurality of curved curved surfaces. The heat transfer portion 2 shown in the drawing is a paper sheet 12, and the paper sheet 12 is fixed to the curved end surface 5 of the cylindrical paper sheet 3, and the heat conduction portion 2 composed of the paper sheet 12 is fixed to the electronic component. The heat part is used to dissipate heat from electronic components. In the heat sink shown in the drawing, a cylindrical reinforcing sheet 8 is disposed inside the cylindrical paper sheet 3, and the outer peripheral surface of the reinforcing sheet 8 is placed thereon, and the curved edge 4 of the inner side of the sheet 3 is thermally bonded. Fixed. The reinforcing sheet 8 is, for example, a paper sheet, a plastic sheet or the like, and can reduce the total weight, and can reinforce the heat-dissipating fin 1 which is bent into a zigzag shape. Further, by using the paper sheet having excellent heat conduction and the thermally conductive plastic sheet as the reinforcing sheet 8, heat of the heat conduction portion 2 can be thermally conducted to the heat dissipation fins 1 efficiently. Further, although not shown, the reinforcing sheet may be provided on the outer side of the cylindrical paper sheet, or may be provided on both the inner side and the outer side of the cylindrical paper sheet. However, the reinforcing sheet is not necessarily required, and the reinforcing sheet is not fixed to the cylindrical paper sheet, and the curved end edge of the cylindrical paper sheet is thermally bonded to the heat conducting portion. Further, in the heat sink of Fig. 9, the plurality of sheets of the reinforcing sheets 8 are separated from each other and arranged in a parallel posture, and heat dissipation constituted by the paper sheet 3 which is bent into a zigzag shape is disposed between the opposing reinforcing sheets 8. Fin 1. Heat-dissipating fin-25- 201128743 Sheet 1 is a bending edge 4 which is bent into a zigzag paper sheet 3, is fixed to the reinforcing sheet 8, and is fixed to a planar heat-conducting portion by thermally bonding one curved end surface 5 2. The heat conduction portion 2 shown in the drawing is a paper sheet 12, and the heat conduction portion 2 of the paper sheet fixes the curved end surface 5 of the paper sheet 3, and the heat conduction portion 2 composed of the paper sheet 12 is fixed to the heat generating portion of the electronic component. To dissipate heat from electronic components. The reinforcing sheet 8 is formed, for example, as a paper sheet or a plastic sheet, and can reduce the weight of the entire sheet, and can reinforce the heat-dissipating fin 1 which is bent into a zigzag shape. Further, by using a paper sheet having excellent heat conduction, a thermally conductive plastic sheet or the like as the reinforcing sheet 8, heat of the heat conduction portion 2 can be efficiently conducted to the heat dissipation fins i. The heat sink is disposed between the plurality of sheets of reinforcing sheets 8, and the heat dissipating fins 1 formed by bending the paper sheets 3 formed in a zigzag shape are disposed in a sandwiched manner, and the curved end faces 5 of the heat radiating fins 1 are heated. Since the joint state is fixed to the planar heat transfer portion 2, the entire strength can be increased, the heat radiation area can be increased, and heat can be efficiently dissipated. The paper sheet 3 used for the fins 1, 2 1 and 31 is used to suspend the fibers and the heat-conducting powder in water as a slurry for papermaking, and the papermaking slurry is subjected to wet papermaking to form a sheet, and then It is dried by drying it. The paper sheet 3 is preferably a paper sheet which is obtained by using a paper sheet for slurrying, a beating pulp which is provided with a plurality of fine fibers on the surface after the suspension is beaten, and a non-beating fiber which is not beaten by the pulp. The beaten pulp and the non-slurry fiber are produced by combining the heat-conductive powder suspended in the slurry for papermaking with the fiber and then making paper into a sheet. Since the above-mentioned paper sheet 3 has excellent bending strength, the bent portion -26-201128743 is not damaged after being bent into a zigzag shape, and the bent portion is not damaged even in the use state. Ideal for a variety of uses. The above paper sheet 3 can be produced by wet papermaking in the following manner. An acrylic pulp (freeness (C S F ) 50 ml, average fiber length) of 100 parts by weight of niobium carbide (average particle diameter 20 μmη) was used as pulp pulp. 45mm) 21 parts by weight, polyester fiber as non-beating fiber (O. Ldtex X 3mm) 7-weight, bonded fiber composed of polyester fiber as a bonded fiber (1. 2dtex X 5mm) The composition of 14 parts by weight is mixed and dispersed into water to prepare a slurry composed of solid parts of 1% to 5%. Then, as a coagulant, add 0. 001 weight part of the cationic sodium polyacrylate, 0. After the 00002 weight portion of the anionic polysodium acrylate was added, the slurry was flaky using a 25 cm square-angle sheet machine to form a paper sheet. After the paper sheet was pressed and dried, the sheet was placed at 5 MPa. The pressure and temperature were 180 ° C and punched for 2 minutes. The paper sheet 3 manufactured by the above process is a thickness of 0. 3 22mm, density 〇. 97g/cm3, the folding strength is 48 2 9 times, and the thermal conductivity is 38. 15W/m • K. The thermal conductivity was measured by the following method. The test sample cut into 7 cm x 9 cm is immersed in glycerin and then vacuumed, and the sample is degassed, at 25. (: The temperature is constant until the temperature is constant. When the temperature is constant, the temperature is set to a constant temperature in the constant temperature chamber, and the short piece of the sample is inserted upward in the vertical direction. -27- 201128743 Fig. 1 shows a schematic diagram of the measuring device. The measuring device holds the sample 61 from the both sides by a heat sink 62. The heat sink 62 uses the center portion as a cavity 6 3 ' The heater 64 for heating the sample 6 is insulated, and the insertion port 65 into which the sample 61 is inserted is provided on the upper portion, and both sides are fixed by the heat groove 62, and the upper cover (not shown) is closed to be sealed. When the self-test material 6 1 When the center portion is heated by the heater 64, 'in the vicinity of the center portion, by the heat insulating effect of the heat groove 62, the heat is only applied to the sample 61, and when the heat reaches the end portion, the heat is located on both sides. The groove 62' absorbs heat, so the temperature curve becomes constant as time passes. From the center of the time, the outer temperature curve is measured. By measuring the heat flow Φ (derived by the heater), when the sample temperature is time When the differential 値 is ΔΤ and the thickness of the sample is Η, the relative thermal conductivity λ can be calculated by the following calculation formula: λ = φ / Η · Δ Τ The bending strength is measured in accordance with JIS Ρ 8 1 1 5 Paper and board - the flexural strength test method - the method of the test machine method is carried out. This method is prepared by cutting into a long strip-shaped test piece having a width of 15 mm and a length of 110 mm or more, and sandwiching both ends of the long side direction The experimental apparatus bends the test piece toward the front until it breaks, and obtains the number of times until the bending is broken. The above paper sheet can achieve excellent heat conduction characteristics and excellent bending strength. Therefore, it is possible to inexpensively manufacture the heat dissipating fins in the same manner and in the same apparatus and method as the bending process of the paper sheet, which is simple and easy to 'bend and efficiently. -28-201128743. The above paper sheet is beaten. Acrylic pulp is used for the pulp, and polyester fiber is used for the non-pulped fiber, but the pulping pulp can be used alone or in combination with either the pulped pulp formed of synthetic fibers and the natural pulp. Mixing and use. In addition, the pulping pulp formed by synthetic fibers can be made of acrylic fiber, polyarylate fiber, polyamide fiber, polyethylene fiber, polyacryl fiber, PBO (poly(p-phenylenebenzobisoxazole)). Fiber, rayon fiber, etc., natural pulp can use wood pulp, non-wood pulp, etc. In addition, non-beating fiber can use polyester fiber, polyamide fiber, polypropylene fiber, polyimine fiber, polyethylene fiber Acrylic fiber, carbon fiber, PBO fiber, polyvinyl acetate fiber, rayon fiber, polyvinyl alcohol fiber, ethylene-vinyl alcohol fiber, polyarylate fiber, metal fiber, glass fiber, ceramic fiber, fluorocarbon fiber, and the like. Further, 'the above-mentioned paper sheet is obtained by heat-pressing a sheet which has been subjected to wet papermaking by using a binder fiber which is melted by heat, and the binder fiber is melted and then processed into a sheet shape. However, the binder fiber can be used. Polyacetate fiber, polypropylene fiber, polyamide fiber, polyethylene fiber, polyvinyl acetate fiber, polyvinyl alcohol fiber, ethylene-vinyl alcohol fiber, and the like. Further, in the paper sheet using the heat dissipating fin of the heat sink of the present invention, it is not necessary to use the pulping pulp and the non-slurry fiber in the fiber, for example, it is also possible to use only the pulping pulp. Further, the above paper sheet is formed by using a sheet machine to form a sheet as a paper sheet. However, it is also possible to produce a paper sheet by replacing the sheet machine with a mold. -29 - 201128743 In addition, in the above paper sheet 3, 'the heat-conducting powder is made of tantalum carbide having an average particle diameter of 20 μm. 'But the heat-conducting powder may also use aluminum nitride, magnesium oxide, sand acid, sand, iron, carbonized sand. , carbon, boron nitride, oxidized, yttrium oxide, aluminum, copper, silver, gold powder, etc. instead of carbonized ruthenium or added to these powders. Further, the average particle diameter can be made up to 500 μm. Heat-conducting powder, regardless of whether the average particle size is too large or too small, 'the ratio of adhesion to fibers will decrease during the process of wet papermaking', resulting in poor utilization efficiency. Therefore, consider the type of fiber used, etc. The average particle size. Moreover, the paper sheet can be added with a flame retardant to enhance the flame retardant property. For example, the paper sheet can be enhanced by the impregnation of the flame retardant. For example, a paper sheet formed by impregnating a hardly flammable agent with barium phosphate at a ratio of 1% by weight can achieve a flame retardant effect of about UL94 V-0. [Examples] Using the paper sheet 3 produced in the above manner, a heat sink shown below was produced, and the weight and heat dissipation performance were compared. Further, the heat sink shown in the following examples uses a paper sheet having a size of 2 1 Omm X 5 Omm and a thickness of 3 mm as a heat conduction portion, and the heat dissipation fins which are formed by bending the paper sheet into a zigzag shape are thermally bonded. It is fixed to one surface of the heat conduction portion. Further, the heat sink is fixed on the other surface of the heat conducting portion, that is, on the surface opposite to the surface on which the heat radiating fins are fixed, and a circuit board on which a plurality of LEDs are mounted as a heat generating body is fixed. The circuit board has a size of 170 mm x 50 mm and is fixed to a central portion of the paper sheet -30-201128743 which is a heat conduction portion except for both end portions. The temperature of the LEDs fixed to the circuit board was measured. [Example 1] The thickness is 〇. A strip-shaped paper sheet 3' of 3 mm and a vertical width (H) of 50 mm is bent into a zigzag shape as shown in Fig. 3, and the lateral width (W) of the curved surface provided with one sheet is 10 mm, and is bent into a zigzag shape. The heat dissipating fin 1 having a pitch of 5 mm is fixed to the heat conducting portion 2 composed of a paper sheet. The heat dissipating fin 1 formed by bending the zigzag paper sheet 3 has a planar shape as a whole. The curved edge 4 facing the paper sheet of the heat conduction portion 2 is thermally bonded to the paper sheet of the heat conduction portion 2. [Example 2] A sheet of the heat dissipation fin 1 which is bent into a zigzag shape is used. The heat radiating fin 1 is provided in the same manner as in the first embodiment except that the lateral width (W) of the curved surface is 20 mm and the distance between the saw teeth (b) is 8 mm, and the heat radiating portion 2 is opposed to the paper sheet of the heat conducting portion 2. The curved edge 4 is fixed in a thermally bonded state. [Embodiment 3] The lateral width (w) of one curved surface of the heat radiating fin 1 which is bent into a zigzag shape is made 30 mm, and is bent into a zigzag shape. The spacing (d) is made to be 1. The heat-dissipating fins 1' are disposed in the same manner as in the embodiment except that the heat-dissipating fins 1' are thermally bonded to the curved edges of the paper sheets of the heat-conducting portion 2 in a state of -31 - 201128743. [Example 4] The thickness was 0. A strip-shaped paper sheet 3 of 3 mm and a vertical width (H) l〇mm, as shown in Fig. 9, is bent into a zigzag shape. The width of the curved surface (W) for making one sheet is 10 mm, and the bending is processed into a zigzag shape. The fins 1 with a distance (d) of 8 mm. As shown in FIG. 9, the six sheets of reinforcing sheets 8 having the vertical width (Η) and the heat radiating fins 1 are separated from each other and arranged in a parallel posture 'between the opposing reinforcing sheets 8'. A fin 1 formed by a zigzag paper sheet 3. The heat radiating fin 1 is fixed to the reinforcing sheet 8 by bending edges 4 of both of the paper sheets 3 which are bent into a zigzag shape. One of the curved end faces 5 of the heat radiating fins 1 arranged in five rows between the six reinforcing sheets 8 is fixed to the paper sheet of the planar heat conducting portion 2 in a thermally bonded state. [Embodiment 5] The lateral width (W) of one curved surface of the heat-dissipating fin 1 which was bent into a zigzag shape was made 10 mm, and the distance between the bending and the saw-toothed shape (d) was 1. The heat radiating fins 1 are provided in the same manner as in the first embodiment except that the structure of the plurality of curved surfaces is laminated, and the curved edges 4 opposed to the paper sheets of the heat conducting portion 2 are thermally coupled. [Example 6] The thickness was 0. 3 mm, longitudinal width (H) 50 mm strip-shaped paper sheet 3, -32- 201128743 'bending into a zigzag shape as shown in Fig. 5, and having a low mountain-shaped projection 2 1 between the mountain-shaped projections 21A B's heat sink fins 2 1. In the heat dissipating fins 2 1 , the lateral width (W1 ) of the alpine-shaped protruding portion 21 A is made 20 mm, and the lateral width (W2 ) of the low-mounting-shaped protruding portion 21 B is made to be 10 mm, and the pitch of the alpine-shaped protruding portion 2 1 A is (D) 8 mm, six low-mounting protrusions 2 1 B are provided between the high-altitude protrusions, and the curved edge 4 opposed to the paper sheet of the heat conduction part 2 is thermally bonded to the heat conduction part 2 Sheet of paper. [Comparative Example 1] As Comparative Example 1, a heat sink made of aluminum was produced. This heat sink is provided on one surface of a plate-shaped heat transfer portion having a thickness of 6 mm and a size of 210 mm x 50 mm, and a plurality of heat radiating fins are integrally formed. The plurality of fins have a vertical width of 50 mm, a lateral width of 15 mm, and a thickness of 2. 5 mm, which is integrally formed in parallel with each other at a pitch of 8 mm. Further, the heat sink is fixed to the other surface of the heat conduction portion, that is, the surface opposite to the surface on which the heat dissipation fins are provided, and a circuit board on which a plurality of LEDs are mounted as a heating element is fixed, that is, in the embodiment. The circuit board used is the same as the circuit board. The circuit board has a size of 170 mm x 50 mm and is fixed to a central portion of the plate-shaped heat conduction portion except for both end portions. The temperature of the LED fixed to this circuit substrate was measured. [Comparative Example 2] As Comparative Example 2, a circuit board similar to that of the circuit board-33-201128743 used in the example was prepared, and the temperature of the LED was measured without fixing the heat sink to the circuit board ’. The temperatures of the LEDs obtained by dissipating the heat sinks of the above Examples 1 to 6 and Comparative Example 1 and the weight of the heat dissipation fins are shown in Table 1. [Table 1] LED temperature Heat sink fin weight Example 1 60 ° C 12 g Example 2 54. 5〇C 21g Example 3 52. 2〇C 18g Example 4 61. 5〇C 16g Example 5 62. 3〇C 81g Example 6 57. It: 91g Comparative Example 1 53. 3〇C 300g Comparative Example 2 100 ° C - It can be seen from the table that the heat sink of the paper sheet of the embodiment of the present invention can be compared with the aluminum heat sink of Comparative Example 1 to give a weight of 1 / 2 5 to 1 / 3 lightweight, especially with respect to the examples 1 to 4, the weight can be reduced by about 1/20, and the LED can be raised to 100 ° C without fixing the heat sink. The temperature is reduced to 52 ° C to 63 t, which has excellent heat dissipation characteristics comparable to aluminum fins. Further, the heat sink shown in FIGS. 11 to 26 bends the paper sheet 103 on the bending line 104, and divides the heat radiation fin 101 and the fixed paper sheet portion 106 with the bending line 104 as a boundary, and fixes the paper sheet portion 106. The heat conducting portion is fixed to the heat conducting portion 102, and the heat of the heat conducting portion 102 is thermally transferred from the fixed paper sheet portion 106 to the heat radiating fins 101, and then radiated. -34- 201128743 The heat sink of FIGS. 11 to 13 bends the paper sheet 103 into an L shape and is divided into the heat dissipation fins 101 and the fixed paper sheet portion 106' to fix the fixed paper sheet portion 106 in a thermally bonded state. In the heat conduction part 1 〇2. In the heat sink, the heat radiating fins 1 〇 1 are placed in parallel with each other, and the fixed paper sheet portion 106 is then fixed to the heat conducting portion 102. This heat sink can increase the area of the respective heat radiating fins 101 and reduce the distance between the heat conducting portions 102 to improve the heat dissipation characteristics. The above heat sink is formed by bending the bending line 104 of the boundary between the heat radiating fin 101 and the fixed paper sheet portion 106 as the folding line 104a, whereby the heat radiating fin 1 〇1 can be freely folded and coupled. The paper sheet portion 106 is fixed. Therefore, when the heat sink is carried, the heat radiating fins 101 can be folded to be compacted. The heat sink of FIG. 12 bends the heat dissipation fins 101 into a zigzag shape to further increase the heat dissipation area. Further, the heat sink of Fig. 13 reduces the lateral width of the heat radiating fins 101, and a plurality of heat radiating fins 101 are subsequently fixed to the heat conducting portion 102. The heat sink of Fig. 14 is formed by bending one piece of the elongated paper sheet 103 at right angles to form a horizontal portion 103A and a vertical portion 103B, using the vertical portion 103B as the heat dissipation fin 101 and fixing the horizontal portion 103 A as a fixed portion. Paper sheet portion 106. Since the vertical portion 1 (the lanthanum is bent in such a manner as to be folded back at the upper end, the two vertical portions 103 B are followed, or are not adjacent to each other, thereby forming the heat dissipation fins 101. Especially in the case of not In this state, the two vertical portions 3B composed of the paper sheets are not in close contact with each other, and a gap can be formed at this portion, so that air can pass through the gap, and heat can be dissipated more efficiently. Horizontal portion 1 〇 3 A is used as the fixed paper sheet portion -35- 201128743 106, and is then fixed to the heat conducting portion 102. Although the above heat sink 'is made the heat radiating fin 10 1 into a square shape, it can also be a heat sink fin as shown in FIG. The sheet 1 is formed into a triangle. The above heat sink is also bent by using the bending line 104 of the boundary between the heat radiating fin 101 and the fixed paper sheet portion 106 as the folding line 104a, and the heat sink fin 1 can be set. It is freely foldably coupled to the fixed paper sheet portion 106. Therefore, when the heat sink is carried, the heat radiating fins 101 can be folded to be compacted. The heat sink of Fig. 16 is a sheet of elongated paper. Sheet 103 bend The curved portion is formed into a horizontal portion 103A and an upper and lower portion 103C extending in the vertical direction, and the upper and lower portions 103C are used as the heat radiation fins 101 and the horizontal portion 103A is used as the fixed paper sheet portion 106. The upper and lower portions 103C are formed in a triangular mountain shape. The fixed paper sheet portions 106 are separated from each other and fixed to the heat conducting portion 1〇2. The heat sink has the feature that the upper and lower portions 1〇3 C of the two sheets can be self-supporting as a triangle and blow the air toward the inner side of the triangle. Further, the heat sink can also be characterized in that the folding line lCMa is provided in the upper and lower portions 103C, and by bending it, it can be freely folded to the fixed paper sheet portion 1 6. The heat sink of FIG. 17 can be tightened when carrying it. The heat sink of FIG. 17 is provided with a horizontal portion i 〇 3d at the top portion of the mountain shape. The heat sink of this configuration has the feature that the overall height can be lowered, and The heat sink can be efficiently dissipated. Further, the heat sink can also be characterized in that a folding line is provided on the heat dissipating fin 1 〇1, and by bending it, it can be freely folded and coupled to The paper sheet portion 106 is made to be compacted when transporting - 36 - 201128743. The heat sink of Figs. 18 to 22 is provided with a fixing plate for holding and fixing the paper sheet portion 106 to the heat conducting portion 102. 107. The fixed paper sheet portion 1〇6 is held by the fixing plate 107 and the heat conducting portion 102, and the fixed paper sheet portion 106 is thermally bonded to the heat conducting portion 102. The fixing plate 107 can be made of stainless steel. A metal plate such as a plate, an aluminum plate, or a ferroalloy, or a hard plastic plate, a hard plastic plate filled with a material, a fiber-reinforced plastic plate, etc. This heat sink does not require an adhesive and can be reliably fixed for a long period of time. The paper sheet portion 106 is stable and can be fixed to the heat conduction portion 102 in a thermally bonded state. However, the fixed paper sheet portion may be attached to the heat transfer portion by the fixed paper sheet portion. The heat sink can also be characterized in that the folding line 1 〇 4a is provided on the heat dissipating fin 101, and by bending it, it can be freely folded and coupled to the fixed paper sheet portion 106 so that it can be carried when being carried. Tightening. The heat sink shown in FIG. 18 and FIG. 19 is formed by bending the paper sheet 103 into a plurality of rows of fixed paper sheet portions 106 which are arranged in parallel with each other to have a shape of a heat sink fin 101 which protrudes in a mountain shape, and The fixing plate 107 fixes the fixed paper sheet portion 106 to the heat conduction portion 1〇2. The fixing plate 107 is provided with a sandwiching portion 107B for holding the fixed paper sheet portion 106 between the heat conducting portions 1 and 2, and a rectangular through hole 07C for projecting the heat radiating fins 101 projecting in a mountain shape. This fixing plate 107 is formed in a shape in which the surrounding frame portion 107A is joined to the bridge portion by the sandwiching portion 107B. The fixing plate 107 is fixed to the heat conduction portion 1〇2 in a state in which the heat dissipation fins 1〇1 are inserted into the through holes 107C. The fixing plate 107 is fixed to the heat transfer member-37-201128743 portion 102 by the fixing screw 108 by the holding portion ι7, the frame portion 107A, and the like. In the heat sink of Fig. 19, the nip portion 1〇7Β is fixed to the heat conduction portion 102 by the fixing screws 1〇8, and the fixing plate 107 is fixed to the heat conduction portion 102. The fixing plate 1 〇 7 can also be fixed to the heat conducting portion 〇 2 by a clip-like holder 109 elastically held as shown in Fig. 20 . The heat sink shown in FIG. 21 and FIG. 22 is provided with a slit-like through hole 10N, and the plate-shaped heat radiating fin 1〇1 is inserted into the through hole 107C. The heat sink ‘ can widen the width of the nip portion 1 〇 7 B so that the fixed paper sheet portion 106 can be fixed to the heat conduction portion 102 in a desired thermal bonding state with a wide area. Further, it is also possible to achieve the following feature, that is, the paper sheet 103 can be surely fixed to the heat conducting portion 102 by the fixing plate 107, and the bending line 104 can be used as the folding line 104a to dissipate the heat sink fins. 1 0 1 to fold. The heat sink of Fig. 23 is provided with a slit-like opening l〇3a on a single side of the sheet 1 3, and heat-dissipating fins 101 are provided between the notches 103a. A portion having no opening 103A is fixed as a fixed paper sheet portion 106 to the surface of the circular heat transfer portion 102. The heat sink is bent as shown by the lock line in the figure, and the LED light bulb 110 is fixed by winding the fixed paper sheet portion 106, and then the heat sink fin 101 is bent away from the LED light bulb 110. The LED light bulb 110 and the like are efficiently dissipated. Further, when the LED light bulb is received, the bending line 104 is used as the folding line 1 〇 4a, and the heat radiating fin 1〇1 is folded into close contact with the LED light bulb, so that it can be stored tightly. The heat sink of Fig. 24 is a bending line 104 which is a position separated from the outer peripheral edge of the rectangular paper sheet 1 3 as a bending line 104, and is connected to the both ends of the bending line 104 from the bending line 104 to the outer periphery. Cutting, and dividing into the cut-and-raised portion 1 0 3 b and the fixed paper sheet portion 1 0 6, the cut-and-raised portion 1 〇 3 b is bent in pairs to fix the paper sheet portion by the bending line 1 0 4 -38- 201128743! 06 is a predetermined angle g 1 〇 3b as the heat dissipation fin 1 (H. The fixed paper sheet portion is fixed to the heat conduction portion 102. The heat dissipation fins 10 1 are provided on both sides of the heat dissipation in the drawing, but only the fins may be used. The heat sink of Fig. 25 divides the paper sheet 103 into a specific shape, and divides into a plurality of cut g portions 106, and cuts the cut portion 丨〇3c by a bending line 1 〇4 by 106 at a predetermined angle, which will be cut off. The portion 103c is fixed as a loose-sheet portion 106 in a thermally coupled state; the heat sinks of Figs. 24 and 25 are folded by a bend 1 〇 4a, and can be tightly accommodated and inserted into the state of use. The heat of the paper sheet portion 106 at right angles or inclinations is dissipated. The heat sink of Fig. 26 is a heat dissipating fin which can form a mountain shape between the fixed paper sheet portions 106 in a predetermined width. The bending line 1 1 1 ' 1 1 1 is a bendable slit 1 1 2 between the slits 1 1 2 . The plurality of intermediate bending lines 111 divided by the slits 1 1 2 are alternately curved in the up and down direction. The 1 1 3 system is curved in the middle to form a mountain shape as a middle portion of the heat-curved portion. The fixed paper thin heat sink fixed to the surface of the heat conducting portion 102 is in a state of being between the adjacent intermediate bending lines 1 1 1 , and the cut-and-raised portion 106 is in a thermal bonding state on the side of the paper sheet 103 on a single side. The heat-shrinking line 104 is provided by cutting the stone 1 0 3 c with the fixed paper sheet & fixing the paper sheet portion heat fin 1 〇 1. Fixing the paper heat conducting portion 102. Curve 1 〇 4 is carried as a folding line. In the potential area, the fixed sheet 103 is bent into a heat-dissipating fin 〇1. The mountain shape and the intermediate bending line are provided with an intermediate curved portion 1 1 3 portion 1 1 3 is bent in the middle. The middle of the square bend bends the fin 1 0 1. Being turned down; becoming level, coming as a piece 1 0 6 . As shown in the figure, five -39-201128743 intermediate connecting portions 113 are provided in parallel, and in these intermediate curved portions 113, two mountain-shaped heat radiating fins 1 and 1, and three fixed paper sheets 1 are alternately provided. 06. The above heat sink adjusts the interval between the fixed heat sink fins 101 and the heat sink fins 101 provided in the mountain shape of the heat conduction portion 102 by adjusting the interval between the fixed paper sheet portions 106 by the intermediate bending line 1 1 1 . quantity. That is, the heat sink can increase the number of the fins 1 〇 1 of the mountain shape provided in the heat conducting portion 1 〇 2 by reducing the interval between the fixed paper sheet portions 106 adjacent to each other via the intermediate bending line 1 1 1 , It can also increase the protruding height of the mountain-shaped fins 01. The heat sink shown in FIGS. 27 to 34 is fixed to the heat conducting portion 102 in a state in which the cutting edge 105 of the paper sheet 103 of the heat radiating fin 101 is thermally bonded, and the cutting edge 105 of the paper sheet 103 is cut. The shape that can be self-supporting is carried by the heat conducting portion 102. The heat-dissipating fins can be made into a shape of a plurality of cylindrical shapes, a plurality of tapered shapes, a honeycomb shape, a corrugated honeycomb shape, and a checkerboard grid shape, and can be used as a heat-dissipating fin 1〇1 paper. The cut edge 105 of the sheet 103 is fixed to the heat conduction portion 1〇2 in a thermally bonded state. In the heat sink shown in Figs. 27 to 29, the paper sheet 1〇3 is formed into a cylindrical shape, and one of the cutting edges 105 is attached to the surface of the heat conduction portion 102. These heat sinks are fixed to the heat transfer portion 102 at a predetermined interval by the cylindrical paper sheets 103 protruding from the heat transfer portion 1〇2 as heat dissipation fins 101. In the heat sink shown in Fig. 27, the heat radiating fins 101 of the paper sheet 103 are formed into a cylindrical shape, and the heat sink shown in Fig. 28 has a heat sink fin 10 of the paper sheet 1〇3 in a rectangular tube shape. Further, in the heat sink shown in Fig. 29, the heat radiating fins 101 of the paper sheet 103 are formed into a streamlined cylindrical shape. The streamlined fins 1 〇 1, in the cross-sectional shape, one side is bent as an acute angle -40-201128743 part 1 03d', and the side on the opposite side is the curved surface i 03 e. In this heat sink, the curved portion 丨〇3d of the acute angle of the heat radiating fin 101 is disposed on the upper side of the wind, and the curved surface 103e is disposed on the lower side of the wind, so that a plurality of heat radiating fins 1 can be smoothly blown to dissipate heat. The heat sink shown in Fig. 30 and Fig. 31 has a tapered shape of the paper sheet 1 〇 3. The cutting edge 105 on the bottom surface side is then fixed to the surface of the heat conducting portion 1〇2. These heat sinks fix the tapered paper sheet 103 protruding from the heat conducting portion 102 as a heat radiating fin 1 〇 1 ' at a predetermined interval to the heat conducting portion 102. Further, the heat dissipating fins in which the paper sheets are tapered may be disposed on the surface of the heat transfer portion without a gap, and the surface area may be increased. In the heat sink shown in Fig. 29, the heat-dissipating sheet 101 of the paper sheet 103 is formed into a conical shape, and the heat sink shown in Fig. 30 has a heat-dissipating fin 1 〇 1 of the paper sheet 1 〇3 in a triangular pyramid shape. However, although not shown, the paper sheet may be formed into a tapered heat-dissipating fin, or may have a circular shape or an oblong shape as a bottom surface, or may be a polygonal shape having a square shape or more. Pyramid. The paper sheet, even if it is processed into a tapered shape, is not as hard as aluminum, and therefore has a feature that it can be used safely. The heat sink of Fig. 3 2 has a paper sheet 1 〇 3 in a honeycomb shape, and the cutting edge 105 is fixed to the heat conducting portion 1 〇2. The honeycomb paper sheet 1 〇3 is arranged between the parallel sheets 3 X arranged in parallel with each other. 'There is a zonal paper sheet 103Z which becomes a partition wall, and a hexagonal columnar space is provided inside to form a honeycomb shape. The heat sink fins 1 0 1. The honeycomb fins 1 〇 1 are formed by fixing one of the cutting edges 1 〇 5 of the paper sheet 103 to the surface of the heat conducting portion 1 〇 2, and the heat sink system of FIG. 3 3 is used to make the paper sheet 1 〇 3 The corrugated honeycomb is shaped, and -41 - 201128743 fixes the cut edge 105 to the heat conducting portion 102. The corrugated honeycomb paper sheet 103 is sandwiched between the parallel paper sheets 103X disposed in parallel with each other, and the corrugated paper sheets 103Y which are bent into a corrugated shape are sandwiched to form the heat dissipation fins 101. The corrugated honeycomb fins 101 are attached to the surface of the heat conduction portion 102 by one of the cutting edges 105 of the paper sheet 103. Further, the heat sink of Fig. 34 is formed by connecting a plurality of sheets of paper sheets 1〇3 to a checkerboard grid shape, and fixing the cut edge 105 to the heat conducting portion 102. The heat radiating fin 101 in the drawing connects the vertical paper sheet 103T and the paper sheet 103S in a checkerboard grid shape. The vertical paper sheet 103 T and the horizontal paper sheet 103 S are provided with slits at a half position of the upper and lower widths, and the paper sheets 103 are inserted into one of the slits, and are joined to form a checkerboard grid. Further, the heat radiating fins 101 in the drawing pass through the longitudinal paper sheets 103T, and are provided with a plurality of ventilation holes for heat dissipation. The vertical paper sheet 103T in the figure is provided with ventilation holes on the upper and lower sides between the horizontal paper sheets 103 S. The heat dissipating fins 1 〇 1 of this structure are ventilated between the horizontal paper sheets 103S by the ventilating holes, so that heat can be dissipated more efficiently. The grid-shaped heat-dissipating fins 101 of this shape are attached to the heat-conducting portion 102 by the cutting edge 105 of the lower end of the paper sheet 103T and the paper sheet 103S. The heat sink of FIGS. 32 to 34 has a predetermined three-dimensional shape by connecting a plurality of sheets of paper sheets 1 to 3 in a three-dimensional shape. Therefore, the surface area of the fins can be increased, and heat can be dissipated with excellent strength. The fins are maintained in a predetermined shape. Therefore, excellent heat dissipation characteristics can be achieved over a long period of time. Further, although the heat sink ‘ is not shown, the heat radiating fins of the paper sheet are formed into a plurality of plate shapes, and the cutting edges are thermally bonded to the heat conducting portion. The heat sink is formed, for example, in a corrugated shape or a zigzag shape. The plurality of paper sheets are arranged at predetermined intervals, that is, the heat dissipation fins of the paper sheet can be formed into a plurality of plate shapes. Fixed to the heat transfer section. These heat radiating fins may also be used to fix and fix one of the cutting edges of the paper sheet to the surface of the heat conducting portion. In the heat sink shown in Fig. 35 and Fig. 36, the paper sheet 103 of the heat radiating fin 101 is formed into a meandering shape or a spiral shape, and the outer peripheral surface of the ring or the spiral is thermally bonded to the heat conducting portion 102. Although not shown, the heat dissipating fins can be formed into a shape in which a plurality of folding lines are provided in parallel with the heat conducting portion in the paper sheet. In the heat sink shown in Fig. 35, both ends of the elongated strip-shaped paper sheet 103 are joined to each other to form a loop shape, and the outer peripheral surface of the ring is fixed to the heat conducting portion 102 to be the heat radiating fin 101. The heat sink shown in the figure has a circular fin shape in a rounded shape. The heat sink is in a posture in which a plurality of loops are located on the same plane, and the outer peripheral surface of the lower end is used as the fixed paper sheet portion 106 and is followed by the heat conduction portion 102. Further, the heat sink in the figure has a plurality of heat radiating fins 1 〇 1 arranged in a plurality of rows, and is followed by the heat conducting portion 102 in a state of being in contact with each other. The heat radiating fins 101 of the adjacent plurality of columns are arranged to be mutually displaced so that the position is shifted in the longitudinal direction, and the fin-shaped fins 101 are fixed. In the heat sink shown in Fig. 36, the outer peripheral surface of the spirally wound cylindrical sheet 103 is fixed to the heat conducting portion 102 as the heat radiating fin 101. The heat sink shown in the drawing is a fixed paper sheet portion 106 at the end where the winding of the spiral is completed, and the outer peripheral surface of the fixed paper sheet portion 106 is followed by the heat conducting portion 102. The heat sink is configured such that a plurality of spirals are arranged in parallel with each other, and are fixed to the heat transfer portion 102 at -43 to 201128743. The heat sink shown in Fig. 37 is inserted into the heat conducting portion 102 by the paper sheet 030 of the heat radiating fins 101, and is fixed in a thermally bonded state. The heat sink shown in the figure is formed by bending the paper sheet 110 into a mountain shape as a heat radiating fin 1〇1 which protrudes in a mountain shape. The mountain-shaped fins 101 are inserted into the heat conducting portion 102 and fixed to the lower end edge. The heat transfer portion 102 is provided with slits 1 〇 2 A into which the lower end portions of both of the paper sheets 1 and 3 which are bent into a mountain shape are inserted. This heat sink is inserted and fixed to the lower end portions of both the mountain-shaped heat radiating fins 101 at the opposite slits 102 A of the heat conducting portions 1 〇2. The lower end portion of the heat radiating fin 1〇1 is attached to and fixed to the slit 1 〇 2 A of the heat conducting portion 1 〇 2, or is fixed by press-fitting or locking structure without being attached. The above heat sink fixes the heat radiating fins 1 〇 1 to the heat conducting portion 102 in a thermally bonded state. The heat radiating fins 101 are composed of a paper sheet 1 〇 3 made of wet papermaking which adds heat conductive powder to the fibers. The paper sheet 1300 used for the heat dissipation fins 101 suspends the fibers and the heat conductive powder in water to form a slurry for papermaking, and the papermaking slurry is subjected to wet papermaking to form a sheet, and then It is dried and manufactured. The paper sheet 103 is preferably a pulping pulp which is provided with a plurality of fine fibers on the surface after the beating of the papermaking pulp, and suspended with the unbeaten non-slurry fibers, thereby pulping the pulp and the non-slurry fibers. A heat-transfer powder suspended in a slurry for papermaking is combined with a fiber and then produced into a sheet. Since the above-mentioned paper sheet 101 has excellent bending strength, even if it is bent into a zigzag shape, the bent portion is not damaged, and the bent portion is not broken even in the use state, and can be in an ideal state. Used for a variety of purposes. -44- 201128743 The paper sheet 10 3 used for the heat radiation fins 101 shown in Figs. 1 to 37 can be manufactured by wet papermaking as follows. 100 parts by weight of graphite (50 parts by weight of the average particle diameter ΙΟΟμηη and 40 μηι 5 (weight part) of the average particle diameter), acrylic pulp as a pulping pulp (freeness (CSF) 50 ml, average fiber length 1. 45mm) 21 parts by weight, polyester fiber as non-beating fiber (0. 1dtexx3mm) 4 parts by weight, as a bonded fiber composed of polyester fiber (1, 2dtexx5mm) 14 parts by weight, carbon fiber (diameter 7μπι) 2. The composition of the 9 parts by weight is mixed and dispersed in water to prepare a slurry formed of a solid content of 1% to 5%. This slurry is subjected to wet papermaking by a short-web paper machine which has been used as a wet paper manufacturing machine to form a paper sheet 103, and the paper sheet 103 is pressed and dried, thereby The paper sheet 103 having a high density is formed by hot pressing between two hot rollers. The hot press treatment was carried out at a speed of 5 m/min between metal rollers having a surface temperature of 180 ° C 'outer diameter of 250 mm and a pressure between rollers of 150 kg / cm. The paper sheet 103 manufactured by the above process is formed to have a thickness of 0. 26mm, density 1. 155g/cm3, base amount 294g/m3, folding strength about 3000 times, thermal conductivity 54. 2W/m. K. The thermal conductivity was measured by the aforementioned method in the same manner as the paper sheet of the heat sink used in Figs. 1 to 9 . The measurement of the folding strength was carried out by the above method in the same manner as the paper sheet of the heat sink used in Figs. 1 to 9 . Since the above paper sheet can achieve excellent heat conduction characteristics and has excellent bending strength, it can be easily and easily bent in the same apparatus and method as the paper sheet is bent-45-201128743. The heat sink fins 101 are processed and inexpensively manufactured. The paper sheet used in the heat sink of FIGS. 11 to 37 uses acrylic pulp as the beaten pulp, polyester fiber as the non-slurry fiber, but as the beaten pulp, the beaten pulp formed of the synthetic fiber and the natural pulp can be used. Any one of them may be used alone or in combination of plural kinds. Further, as the pulping pulp formed of synthetic fibers, acrylic fibers, polyarylate fibers, polyamide fibers, polyethylene fibers, polypropylene fibers, PBO (poly(p-phenylenebenzobisoxazole)) fibers, fluorene fibers, and the like can be used. As the natural pulp, wood pulp, non-wood pulp, or the like can be used. 'As a non-beating fiber, polyester fiber, polyamide fiber, polypropylene fiber, polyimine fiber, polyethylene fiber, acrylic fiber, carbon fiber, PB0 fiber, polyvinyl acetate fiber, ray fiber, Polyvinyl alcohol fiber, ethylene-vinyl alcohol fiber, polyarylate fiber, metal fiber, glass fiber, ceramic fiber, fluorocarbon fiber, polycrystalline fiber, polyphenylene sulfide fiber, and the like. Further, in the paper sheet of the heat sink used in Figs. 11 to 37, a bonded fiber which is melted by heat is used as a non-slurry fiber, and the sheet which has been subjected to papermaking is heated and pressed, and then the bonded fiber is melted and processed into a sheet. As a paper sheet, but as a bonding fiber, polyester fiber, polypropylene fiber, polyamide fiber, polyethylene fiber, polyvinyl acetate fiber, polyvinyl alcohol fiber, ethylene-vinyl alcohol fiber, polyfluorene can be used. A fiber, a polyphenylene sulfide fiber, or the like. Moreover, the paper sheets used in the heat sinks of Figs. 11 to 37 do not necessarily require the use of beaten pulp and non-slurry fibers in the fiber, and may be produced, for example, using only beaten pulp. Further, the above-mentioned paper sheet is produced by using a sheet machine and thinning the slurry, and then it is produced as a paper sheet. However, it can also be produced as a paper sheet by replacing the sheet machine with a mold paper. Further, the paper sheet of the heat sink used in Figs. 11 to 37 can increase the strength of the state in which the heat radiating fin is formed by including the bonded synthetic resin. The bonded synthetic resin can be used to contain a polyacrylate copolymer resin, a polyvinyl acetate resin, a polyvinyl alcohol resin, a NBR (nitrile rubber) resin, an SBR (styrene butadiene rubber) resin, a polyamine. A thermoplastic resin of any one of a formate resin and a fluororesin, or one of a thermosetting resin containing any one of a phenol resin, an epoxy resin, and a lanthanum resin. Further, the paper sheet of the heat sink used in FIGS. 11 to 37 is used as a heat conduction powder 'aluminum nitride, magnesium oxide, aluminum niobate, tantalum, iron, carbon, boron nitride, aluminum oxide, lanthanum oxide, aluminum, Copper, silver, gold, zinc oxide, zinc powder 'or add carbon powder to these carbon powder instead of carbonized sand, the average particle size can be used as a Ο. Μμηη to 500μηι. Heat-conducting powder, whether the average particle size is too large or too small, 'the ratio of adhesion to fibers will decrease during the process of wet papermaking', resulting in poor use efficiency. Therefore, consider the type of fiber used, etc. The average particle size. Moreover, the paper sheet can be added with a flame retardant to enhance the flame retardant properties. For example, paper flakes can be upgraded with flame retardant properties by impregnating a flame retardant. For example, in the case of a flame retardant, strontium phosphate is used, and the paper formed by impregnation at a ratio of 10% by weight is used to achieve a flame retardant effect of about UL94 V-Ο. Using the paper sheet 1 〇 3 manufactured by the above method, the heat sink shown below was produced, and the weight and heat dissipation performance were compared. Further, in the heat sink shown in the following embodiments, an aluminum plate having a size of 210 mm×50 mm and a thickness of 3 mm is used as a heat conduction portion, and the heat dissipation fins which are formed by bending the paper sheet into a zigzag shape are fixed to the heat conduction portion in a thermally bonded state. The face of one side. Further, the heat sink is fixed on the other surface of the heat conduction portion, that is, on the surface opposite to the surface on which the heat radiation fins are fixed, and a circuit board on which a plurality of LEDs are mounted as a heat generating body. The circuit board has a size of 170 mm x 50 mm and is fixed to a central portion of the paper sheet as a heat conduction portion except for both end portions. The temperature of the LED fixed to the circuit board was measured. Further, in the heat sink shown in the following examples, an aluminum plate having a size of 210 mm x 50 mm and a thickness of 3 mm was used as the heat transfer portion. The one surface of the heat conducting portion is fixed in a state in which the heat radiating fins of the embodiment of the present invention and the comparative example are thermally bonded. Further, the heat sink is fixed to the other surface of the heat conducting portion, i.e., the surface of the opposite side to the surface on which the heat radiating fin is fixed, to which a circuit board formed of 18 heat generating bodies is fixed. The circuit board was fixed to a central portion other than the both end portions of the aluminum plate as the heat conducting portion having a size of 170 mm x 50 mm. This circuit board is fixed to the surface of the wafer type and type 018. The 18 LEDs are connected in series (series), and supply a voltage of 68·3 ν and a supply current of 〇·3 Α to supply approximately 20 W of electric power. The temperature of the LED fixed to this circuit substrate was measured. -48- 201128743 [Embodiment 7] As shown in Fig. 14, a piece of elongated paper sheet 1 〇 3 is bent at a right angle to form a horizontal portion 103A and a vertical portion i 〇 3B, and a vertical portion 10 3 B as the heat radiation fins 101, the horizontal portion 1 〇3 A is used as the fixed paper sheet portion 106, and the fixed paper sheet portion 106 is thermally coupled to the heat conduction portion 102. The vertical portion 103B is formed by bonding the inner surface on both sides of the tape to form one fin. The fins 1 0 1 have a height and a lateral width of 5 cm, and the fixed paper sheet portion 106 has a length in the longitudinal direction of 5 cm which is the same as the lateral width of the fins 10 and a width of 1 cm. The fixed paper sheet portion 1〇6 was subsequently fixed without a gap, and 21 pieces of heat radiating fins 1 〇1 were fixed at intervals of 1 cm. [Embodiment 8] As shown in Fig. 18 and Fig. 19, the paper sheet 103 is bent to form a heat sink fin 1 in a mountain shape between the fixed paper sheet portions 106 of a plurality of columns arranged in parallel with each other. The shape is further sandwiched and fixed to the heat conduction portion 102 by the fixing plate 107 of the mild steel. The mild steel of the fixing plate 107 is provided with a through-hole 107C having a square shape in which the mountain-shaped fins 1 〇 1 protrude. The paper sheet 103 has a width of 50 mm, and the lateral width of the heat-dissipating fin 101 which is a mountain-shaped projection is 50 mm, and the length of the oblique direction which protrudes upward is 30 mm. The outer shape of the fixing plate 107 is equal to the outer shape of the heat conduction portion 102, and the inner shape of the through hole 107C is set to be 1 mm × 50 mm, and the fixed paper sheet portion 106 provided between the through holes 107C is sandwiched between the heat conduction 49 · 201128743 The width of the grip portion 1〇7Β of 102 is set to be 2 mm', and the width of the frame portion of the square which is located around is made 3 mm. The fixed paper sheet portion 106 is fixed to the heat conducting portion 102° without the adhesive agent 'clamped by the fixing plate 1〇7. [Embodiment 9] As shown in Fig. 33, the paper sheet 103 is formed into a corrugated honeycomb shape, and will be cut. The flange 105 is fixed to the heat conduction portion 102. The corrugated honeycomb paper sheet 103 is sandwiched between corrugated paper sheets 1 Y which are bent into a corrugated shape, and then placed between the parallel paper sheets 1 〇 3 X arranged in parallel with each other. The corrugated paper sheet 103 is bent into a corrugated shape having a height of 3 mm and a lateral width of 6 mm, and is then sandwiched between the parallel paper sheets 1 and 3. The interval between the parallel paper sheets 1 and 3 was set to be the height of the corrugated paper sheet 1, so that it was made 3 mm. The corrugated honeycomb-shaped heat sink is cut to a height of 5 cm, and the cutting edge 105 is followed by the heat conducting portion 102 so that the parallel paper sheet 103 and the corrugated paper sheet 103 are fixed in a vertical posture to the heat conducting portion 102. . The subsequent agent used was an epoxy-based iron oxide-based material. The corrugated honeycomb-shaped heat sink has its outer shape equal to the outer shape of the heat conducting portion 102. [Embodiment 10] As shown in Fig. 34, the vertical paper sheet 103T and the paper sheet 103S are joined to form a checkerboard grid shape as a heat sink. The vertical paper sheet 103 T and the horizontal paper sheet 1 〇 3 S are provided with slits at half positions of the upper and lower widths, and the other paper sheets 1 〇 3 are inserted into the slits to be joined into a checkerboard lattice shape. Vertical paper sheet 1300 series -50- 201128743 A circular through hole is provided in the vertical direction. The through hole has an inner diameter of 6 mm, and the upper through hole is provided at a position separated by 13 mm from the upper end to the center of the through hole, and the lower through hole is provided at an interval from the lower end to the center. The position of mm. The interval between the longitudinal paper sheets 1 0 3 is 5 mm, the interval between the horizontal paper sheets 1300 is 1 cm, and the vertical width of the longitudinal paper sheets 103 and the horizontal paper sheets 103 is 5 cm. The lower end edge of the longitudinal paper sheet 103 and the horizontal paper sheet 103 is fixed to the heat conduction portion 102 in a vertical posture via the adhesive followed by the heat conduction portion 1 〇2. The same procedure as in Example 7 was used for the subsequent agent. [Embodiment 1 1] As shown in Fig. 35, the paper sheet 103 is cut into a strip shape having a width of 1 cm, and is formed into a circular shape having a long diameter of 40 mm in the height direction and a short diameter of 15 mm in the width direction. The heat sink fins 1 〇1. The heat radiating fins 1 〇 1 are arranged in five rows in a posture in which the circles are located on the same plane, and are connected to the heat conducting portion 102 in a state of being in contact with each other. The adjacent five rows of heat-dissipating fins 101 are mutually connected so that the subsequent positions are shifted toward the long direction, that is, shifted toward the long direction by 7. At a position of 5 mm, 14 and 15 ring-shaped fins 101 are connected in a row. The same procedure as in Example 7 was followed. [Comparative Example 3] As Comparative Example 3, a heat sink made of aluminum was produced. This heat sink is formed on one surface of a plate-shaped heat conduction portion 102 having a thickness of 6 mm and a size of 210 mm x 50 mm, and a plurality of heat dissipation fins 101 are integrally formed. The plurality of heat dissipating fins 101 will have a vertical width of 50 mm, a lateral width of 15 mm, a thickness of -51 - 201128743, and a thickness of 2. 5mm, integrally formed in a parallel posture with a pitch of 8mm. Further, the heat sink is fixed to a surface of the other side of the heat conduction portion 102, that is, a surface opposite to the surface on which the heat dissipation fins 101 are provided, and a circuit board formed by fixing a plurality of LEDs that are used as heat generating bodies is fixed. The circuit board used in the embodiment is the same circuit board. The circuit board has a size of 170 mm x 50 mm and is fixed to a central portion of the plate-shaped heat conduction portion 1 2 except for both end portions. The temperature of the LED fixed to this circuit substrate was measured. The temperatures of the LEDs which were subjected to heat dissipation by the heat sinks of Examples 7 to 11 and Comparative Example 3 are shown in Table 2. 〔Table 2〕
LED溫度 實施例7 55.2〇C 實施例8 62.8〇C 實施例9 58.2〇C 實施例10 62.3〇C 實施例11 55.7〇C 比較例3 61.3〇C 由此表可得知，本發明的實施例7至11的紙薄片10 3的 散熱器係可將LED的溫度降低到55。(：至63。(：，具有可匹敵 比較例3的鋁製的散熱器之優良的散熱特性。 〔產業上的利用可能性〕 本發明的紙薄片的散熱器係除了以往所使用之LED等 的照明器具、電腦的CPU、電晶體、FET等的電子零件、 -52- 201128743 液晶、PDP、EL等的面板等的散熱以外，亦可使用於手機 之液晶的散熱、筆記型電腦的電子基板、液晶的散熱，汽 車內的電子零件、照明的散熱等的被要求輕量化之部位， 能夠有效地使用於各種領域。因將紙薄片作成爲散熱鰭片 ’所以’可取代現在之以鋁等的金屬作爲散熱鰭片的散熱 器來使用’有助於電子零件的輕量化。 【圖式簡單說明】 圖1係本發明的一實施例之紙薄片的散熱器的斜視圖 〇 圖2係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖3係本發明的其他實施例之紙薄片的散熱器的斜視 圖4係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖5係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖6係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 . 圖7係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖8係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 -53- 201128743 圖9係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 0係熱傳導率的測定裝置之槪略斷面圖。 圖11係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 2係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 3係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 Η 1 4係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 Η 1 5係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 6係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 7係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 8係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖1 9係圖1 8所示的紙薄片的散熱器的分解斜視圖。 圖2 0係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 圖2 1係本發明的其他實施例之紙薄片的散熱器的斜視 圖。 -54- 201128743 圖2 2係圖2 1所示的紙薄片的散熱器的分解斜視圖。 圖2 3係顯示本發明的其他實施例之紙薄片的散熱器的 使用例之斜視圖。 圖24係本發明的其他實施例之紙薄片的散熱器的斜視 圖 圖2 5係本發明的 其他實施例之紙薄片的散熱器的斜視 圖 圖 圖 圖 圖 圖 圖26係本發明的其他實施例之紙薄片的散熱器的斜視 圖27係本發明的其他實施例之紙薄片的散熱器的斜視 圖2 8係本發明的其他實施例之紙薄片的散熱器的斜視 圖29係本發明的其他㈣例之紙薄㈣斜視 圖3。係本發明的其他實施例之紙薄片的散熱器的斜視 圖”係本發明的其他實施例之紙薄片的散熱器的斜視 圖 圖32係本發明的其$ 實施例之紙薄片的散熱器的斜視 圖 圖33係本發明的其他實施例之紙薄片的散熱器的斜視 圖 圖 34係本發明的其他實施例之紙薄片的散熱器的斜視 •55- 201128743 圖。 圖35係本發明的其他實 圖。 圖36係本發明的其他實 圖。 圖37係本發明的其他實 圖。 施例之紙薄片的散熱器的斜視 施例之紙薄片的散熱器的斜視 施例之紙薄片的散熱器的斜視 【主要元件符號說明】 1 :散熱鰭片 2 :熱傳導部 3 :紙薄片 4 :彎曲緣 5 :彎曲端面 6 :谷部 7 :換氣孔 8 :補強薄片 1〇 :固定部 1 1 :紙薄片 1 2 :紙薄片 1 3 :熱傳導性塑膠薄片 2 1 :散熱鰭片 2 1 A :高山形突出部 2 1 B :低山形突出部 -56- 201128743 22 :熱傳導部 3 1 :散熱鰭片 3 2 ’·熱傳導部 42 :熱傳導部 61 :試料 62 :熱槽 63 :空洞 6 4 :加熱器 65 :插入口 1 〇 1 :散熱鰭片 102 :熱傳導部 1 0 2 A :細縫 103 :紙薄片 1 0 3 A :水平部分 1 0 3 B :垂直部分 103C :上下部分 1 0 3 D :水平部 1 〇 3 T :縱紙薄片 1 0 3 S :橫紙薄片 103X :平行紙薄片 103Y :波紋紙薄片 1 0 3 Z :區劃紙薄片 1 0 3 a :缺口 1 〇 3 b :切起部 201128743 1 0 3 c :切除部 1 0 3 d :彎曲部 1 03 e :彎曲面 1 0 4 :彎曲線 1 0 4 a :折疊線 105 :切斷緣 1 0 6 :固定紙薄片部 1 〇 7 :固定板 107A ：框部 1 0 7 B :夾持部 1 0 7 C :貫通孔 1 〇 8 :固定用螺絲 109 :夾持具 1 1 0 : L E D電燈泡 1 1 1 :中間彎曲線 1 1 2 :細縫 1 1 3 :中間彎曲部 -58LED Temperature Example 7 55.2〇C Example 8 62.8〇C Example 9 58.2〇C Example 10 62.3〇C Example 11 55.7〇C Comparative Example 3 61.3〇C From this table, it is understood that the embodiment of the present invention The heat sink of the paper sheet 103 of 7 to 11 can reduce the temperature of the LED to 55. (: to 63. (:: Excellent heat dissipation characteristics of the heat sink made of aluminum comparable to Comparative Example 3. [Industrial Applicability] The heat sink of the paper sheet of the present invention is an LED or the like which has been conventionally used. Lighting equipment, computer CPU, transistor, FET and other electronic components, -52- 201128743 LCD, PDP, EL and other panels, etc., can also be used for mobile phone LCD heat dissipation, notebook computer electronic substrate The heat dissipation of the liquid crystal, the electronic components in the car, and the heat dissipation of the illumination, which are required to be lightweight, can be effectively used in various fields. Since the paper sheet is used as a heat sink fin, it can replace aluminum, etc. The metal is used as a heat sink for the heat sink fins to help reduce the weight of the electronic components. [Schematic Description of the Drawings] Fig. 1 is a perspective view of a heat sink of a paper sheet according to an embodiment of the present invention. FIG. 3 is a perspective view of a heat sink of a paper sheet of another embodiment of the present invention. FIG. 3 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Figure 5 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Figure 6 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Figure 7 is a perspective view of the present invention. Figure 8 is a perspective view of a heat sink of a paper sheet of another embodiment of the present invention. -53 - 201128743 Figure 9 is a sheet of paper of another embodiment of the present invention. Figure 10 is a schematic cross-sectional view of a heat transfer rate measuring device. Figure 11 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Figure 1 2 is another embodiment of the present invention. Fig. 1 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Η 1 4 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Η 1 5 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Fig. 16 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Fig. 1 7 is another embodiment of the present invention. Example of a paper sheet of a radiator Figure 1 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. Figure 1 is an exploded perspective view of the heat sink of the paper sheet shown in Figure 18. Figure 2 is another embodiment of the present invention. Fig. 2 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. -54- 201128743 Fig. 2 2 is a heat dissipation of the paper sheet shown in Fig. Fig. 2 is a perspective view showing a use case of a heat sink of a paper sheet according to another embodiment of the present invention. Fig. 24 is a perspective view showing a heat sink of a paper sheet according to another embodiment of the present invention. 5 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. FIG. 26 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention, and is a paper of another embodiment of the present invention. The oblique view of the heat sink of the sheet is an oblique view 29 of the heat sink of the paper sheet of the other embodiment of the present invention, which is a paper thin (four) oblique view 3 of another (four) example of the present invention. An oblique view of a heat sink of a paper sheet according to another embodiment of the present invention is a perspective view of a heat sink of a paper sheet of another embodiment of the present invention. FIG. 32 is a heat sink of a paper sheet of the present invention. 3 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. FIG. 34 is a perspective view of a heat sink of a paper sheet according to another embodiment of the present invention. FIG. 35 is a view of the present invention. Figure 36 is another embodiment of the present invention. Figure 37 is another embodiment of the present invention. Example of a heat sink of a paper sheet of a slanting embodiment of a heat sink of a paper sheet Strabismus of the device [Description of main component symbols] 1 : Heat sink fin 2 : Heat conduction portion 3 : Paper sheet 4 : Curved edge 5 : Curved end face 6 : Valley portion 7 : Ventilation hole 8 : Reinforcement sheet 1 : Fixing portion 1 1 : Paper sheet 1 2 : Paper sheet 1 3 : Thermally conductive plastic sheet 2 1 : Heat sink fin 2 1 A : Alpine-shaped protrusion 2 1 B : Low mountain-shaped protrusion - 56 - 201128743 22 : Heat conduction portion 3 1 : Heat sink fin Sheet 3 2 '·heat conducting portion 42 : heat conducting portion 61 : sample 62 : Heat sink 63 : Cavity 6 4 : Heater 65 : Insert port 1 〇 1 : Heat sink fin 102 : Heat conduction portion 1 0 2 A : Slit 103 : Paper sheet 1 0 3 A : Horizontal portion 1 0 3 B : Vertical Part 103C: upper and lower parts 1 0 3 D : horizontal part 1 〇 3 T : longitudinal paper sheet 1 0 3 S : horizontal paper sheet 103X: parallel paper sheet 103Y: corrugated paper sheet 1 0 3 Z : zonal paper sheet 1 0 3 a : notch 1 〇3 b : cut-and-raised portion 201128743 1 0 3 c : cut-away portion 1 0 3 d : bent portion 1 03 e : curved surface 1 0 4 : curved line 1 0 4 a : folding line 105: cut-off edge 1 0 6 : Fixed paper sheet part 1 〇7 : Fixed plate 107A : Frame part 1 0 7 B : Clamping part 1 0 7 C : Through hole 1 〇 8 : Fixing screw 109 : Clamp 1 1 0 : LED light bulb 1 1 1 : Intermediate bending line 1 1 2 : Slit 1 1 3 : Intermediate bending - 58