1377721 六、發明說明： 【發明所屬之技術領域】 本發明係以非焊接、不易氧化結構型態，進行單—電 池與外部負載電路的高導電率接續的技術結構。 【先前技術】 明參閱第1圖所7F’目前單顆電池1〇與負載u電路的電 ϋ連接’主要係在電池1Q外部的正極極頭及負極極頭13 處以金屬端子14直接接觸連接後，再透過金屬端子14將電力 導出連接至負載11電路，前述时屬端子直接與電池極頭接_ 觸導電者’錢屬端子與電池極頭制部位會造成高接觸阻 抗，所以電池導通後雜觸部位會因阻抗而發生溫度上升及消 耗電池電力關題。為解決前述接觸阻抗的問題，請參閱第2 圖所不’電池產業界亦有以鎳金屬# 15透過點焊接而將電池 10電力連接導出者，主要是取錄金屬月15與電池1〇正極極 頭12與負極極頭13點焊錄接後，可大幅降低接觸電阻的優 · 點’且鎳金屬的抗氧化性較高。 值得注意的是，透過點焊方式將電池電力導出者，焊接過 程的高溫會透過電池的金屬極頭傳導進入電池内部造成電池 内。卩的損壞如：電池密封塾損壞漏氣，正、負極材料隔離層破 裂等，導致電池無法使用或電池使用一段時間後發生故障而無 法使用，此外，焊接工序的成本亦極高。 緣此’本案發明人認為’傳統單顆電池與外部負載電路的 4 (S) 電性接續麟’尚無法同哺合成本經濟、具有高導電率及高 ^電可#性的基本需求，而設想如果在不需透過焊接工序的前 提下’而能提高電池的接料電率，卿僅突破了傳統技術的 發展_ ’更是大幅推進了既有的電池接續技術的發展，此即 為本案發明的主要動機。 【發明内容】 本發明之主要目的在於提供一種透過二石墨進行單顆 電池外部高導電率接續的結構，主要係以第一、二石墨接 塊分別直接設置於該電池的正、負極極頭，再透過該第一、 一石墨接塊與負載電路接通，由於不需透過焊接工序，即 传以高導電型態達成電性連接，且^墨取得成本低，所以 對於產業界而言可大幅降低生產製造成本。 本發明之另一目的在於提供一種透過二石墨進行單顆 電池外部高導電率接續的結構，主要係以第一、二石墨接 塊分別直接設置於該電池的正、負極極頭，再透過該第一、 二石墨接塊與負載電路接通，由於該第一、二石墨接塊與含 鎳金屬的電池正、負極極頭相接觸後會產生『互溶現象』，亦 即該第一、二石墨接塊的碳微粒會取代含鎳金屬正、負極極 頭表面的雜質，使該第一、二石墨接塊的碳微粒位於正、負極 極頭的金屬表面凹洞中，形成碳鎳互溶合金狀態，而降低接觸 電阻，藉此解決電池外部接續阻抗過高無法順利放電的問題。 緣是，為了達成前述目的，依據本發明所提供之透過 石墨進仃單顆f池外部高導電率接續的結構，主要是透 過石墨將電池與負载進行魏接觸者，包括：1池，該電 池的外。(^有含錄金屬的正極極頭及貞極極頭，作為該電 池的電力輸出端；—第-石墨接塊，接設於該電池的正極 枉碩’並與負載電性連接；_第二石墨接塊，接設於該電 的^極極頭，亚與負載電性連接；藉此，該電池的電力 透過第一、二石墨接塊與負載連接。 有關本發明為達成上述目的，所_之技術、手段及其他 之力放’⑵舉-較佳可行實施例並配合圖式詳細說明如后。 【實施方式】 本發明實施例所提供的一種透過二石墨進行單顆電池 外部高導電率接續的結構，請參閱第3圖，進行該單顆電 池2〇與負載30電路的電性連接作業時係以—第—石墨 接塊40及-第二石墨接塊5Q分別與該電池2q的正、負極 極頭21，22作電性接續，再透過該第-、二石墨40, 50與 負載30電路連接’藉使該電池2〇與負載3〇電路之間導通 後具有較高的接續導電率，其中： 該電池20,係圓筒型態的電池，於該電池外部二端分 別設有含鎳金屬的正極極頭21及負極極頭22，該電池2〇 並透過該正、負極極頭21，22作為該電池的電力輸出^ *該第-石墨接塊4〇，可選用純石墨或合金石墨或導電 碳’其中該合金石墨，例如可為：銀石墨（銀碳合金）或銅石 墨（銅碳合金）等，將該坌― 墨接塊40與該電池2〇的正 極極頭21相接觸後電性接設； 該第二石墨接塊50，可選用純石墨或合金石墨或導電 碳補第^石墨接塊5G與該電池㈣負極極頭22相接 觸後電性接设，再透過該第一、二 一石墨接塊40，50將該電 池20的電力與負載3〇電路相連接。 。w'二石墨接塊’50於製造成型時，即 内設有-導線60作為該電池的電力輸出導線，而可透過該 導線60與負載3〇電路相接設。 …以上舰即林發明實_各主要構件之結構及其組態 忒明，至於本發明實施例的功效，說明如下. 该電池20外部的正、幽_ 21，&皆為含屬的極 頭結構，請參閱第4—1圖所示，在鎳金屬正、負極極頭21， 22表面會附著有雜f 7G或氧化物，該雜f 7()或氧化物會造 成該電㈣與㈣3〇電路連接放電_卜部接觀抗升高而 降低電池20的放電效能，請參閱第4_2騎*，此即為透過 本發明結觀計，崎以高導群進行電池外部接續者，其 中’該第一、二石墨接塊40，50係分別與該電池2〇的金屬正、 負極極頭2卜22電性接設’該第―、二石墨接塊4〇，5〇本身 並不容倾氧化，且該第…二石墨接塊4G，5G與含錄金屬 的該電池2G it、貞極極頭21 ’22她觸齡纽『互溶現象』， 亦即，該第-、二石墨接塊40，50的碳微粒8〇會取代含鎳金 屬正、負極極頭21，22表面的雜質70或氧化物，使該第一、 一石墨接塊40，50的碳微粒8〇位於正、負極極頭21，22的 金屬表面的凹洞中，而形成碳鎳互溶合金狀態，藉此即可提高 該第一、二石墨接塊4〇 , 5〇與該電池2〇之間的接續導電率， 換。之，透過本發明結構電池2〇導通後電流不會受到氧化物 或雜質70所造成的位能阻礙影響，而能順利導通於該電池2〇 與第―、二石墨接塊40 ’ 50，不僅降低了該電池20與負載30 電路的外部接續阻抗，並有輕促使魏池順利放電。 此外，目前電池個體的型態除了如前述的金屬圓罐結 構以外’請參閱第5圖所示，在呂箱袋裝電池9〇亦可適用本 發明的技術，麵Μ裝電池⑽的外部延伸有含鎳金屬的 正極極柄91及負極極柄92，透過本發明的技術進行銘箱 袋裝電池90與負載30電路的連接作業時，可將該第三、 四石墨接塊1GG ’ 2G0分別與該銘箱錄電池⑽的含錄金 属正、負極極柄9卜92進行電性接續連接即可，值得一提 者是’金屬殼電池與料妓電池僅電池外觀型式不同， 但實質電性連接效果並無差異，換言之本發明的技術與 電池内部結構無關，只要電池的正、負極極頭為含鎳金屬 者’即可透過本發明心顯塊騎高導電率的電池外部 接續。1377721 VI. Description of the Invention: [Technical Field of the Invention] The present invention is a technical structure in which a high conductivity of a single-cell and an external load circuit is connected in a non-welded, non-oxidizable structure. [Prior Art] Referring to Figure 7F, the current single cell 1〇 and the load u circuit are connected by the metal terminal 14 directly after the metal terminal 14 is directly connected and connected to the positive pole and the negative pole 13 outside the battery 1Q. Then, the power is led out through the metal terminal 14 to the circuit of the load 11, and the terminal is directly connected to the battery pole. The contactor's money terminal and the battery pole portion cause high contact resistance, so the battery is turned on. The contact area will rise due to impedance and consume battery power. In order to solve the above problem of contact resistance, please refer to Figure 2. The battery industry also has a nickel-metal #15 through spot welding to export the battery 10 power, mainly to take the metal month 15 and the battery 1 After the pole tip 12 and the negative pole tip 13 are spot-welded, the contact resistance is greatly reduced, and the nickel metal has high oxidation resistance. It is worth noting that by spot welding, the battery power is exported, and the high temperature of the soldering process is transmitted through the metal tip of the battery into the battery to cause the battery to be inside. The damage of the crucible is as follows: the battery seal is damaged, the gas barrier is broken, and the separator of the positive and negative electrodes is broken, which causes the battery to be unusable or the battery to be used for a period of time and fails to be used. In addition, the cost of the welding process is extremely high. Therefore, the inventor of this case believes that 'the traditional single battery and the external load circuit of the 4 (S) electrical connection Lin 'can not be combined with the basic needs of the economy, high conductivity and high power, and Imagine that if you can improve the battery's receiving power rate without the need of a welding process, Qing only broke through the development of traditional technology _ 'more is to greatly promote the development of existing battery connection technology, this is the case The main motivation of the invention. SUMMARY OF THE INVENTION The main object of the present invention is to provide a structure in which a high-conductivity connection of a single battery is performed through two graphites, and the first and second graphite blocks are directly disposed on the positive and negative poles of the battery. Further, the first and a graphite block are connected to the load circuit, and since the soldering process is not required, that is, the high-conductivity type is electrically connected, and the ink is low in cost, the industry can greatly Reduce manufacturing costs. Another object of the present invention is to provide a structure for high-conductivity connection of a single cell through two graphites, which is mainly provided by first and second graphite blocks directly disposed on the positive and negative poles of the battery, and then through the The first and second graphite blocks are connected to the load circuit. Since the first and second graphite blocks are in contact with the positive and negative poles of the nickel-containing metal, a mutual solubility phenomenon occurs, that is, the first and second The carbon particles of the graphite block replace the impurities on the surface of the positive and negative poles of the nickel-containing metal, so that the carbon particles of the first and second graphite blocks are located in the recesses of the metal surface of the positive and negative poles to form a carbon-nickel miscible alloy. The state, and the contact resistance is lowered, thereby solving the problem that the external connection resistance of the battery is too high to be discharged smoothly. Therefore, in order to achieve the foregoing objective, the structure of the high conductivity continuous connection of the single f-cell through the graphite is provided according to the present invention, and the battery is mainly contacted with the load through the graphite, including: 1 cell, the battery Outside. (^The positive pole and the drain pole of the recorded metal are used as the power output end of the battery; the first-graphite block is connected to the positive pole of the battery and electrically connected with the load; The graphite block is connected to the electric pole of the electric pole, and is electrically connected to the load; thereby, the power of the battery is connected to the load through the first and second graphite blocks. The present invention aims to achieve the above object. The present invention provides a high-conductivity external electrical conductivity of a single cell through two graphites provided by the embodiment of the present invention. For the connection structure, please refer to FIG. 3, when the electrical connection between the single battery 2〇 and the load 30 circuit is performed, the first-graphene block 40 and the second graphite block 5Q are respectively connected to the battery 2q. The positive and negative poles 21, 22 are electrically connected, and then connected to the load 30 through the first and second graphites 40, 50. 'Because the battery is connected to the load 3〇 circuit, the connection is high. Conductivity, wherein: the battery 20 is cylindrical a positive electrode tip 21 and a negative electrode tip 22 containing nickel metal are respectively disposed at the outer two ends of the battery, and the battery 2 is passed through the positive and negative poles 21, 22 as the power output of the battery. - graphite block 4 〇, optional pure graphite or alloy graphite or conductive carbon 'where the alloy graphite, for example, may be: silver graphite (silver carbon alloy) or copper graphite (copper carbon alloy), etc., the 坌 - ink connection The block 40 is electrically connected to the positive electrode 21 of the battery 2〇; the second graphite block 50 may be made of pure graphite or alloy graphite or conductive carbon to make the graphite block 5G and the battery (4) negative electrode. After the poles 22 are in contact with each other, the electrodes are electrically connected, and the power of the battery 20 is connected to the load 3 〇 circuit through the first and second graphite blocks 40, 50. The w's two graphite blocks '50 are manufactured. When forming, the wire 60 is provided as the power output wire of the battery, and the wire 60 can be connected to the load 3〇 circuit through the wire 60. The above ship is a forest invention _ the structure and configuration of each main component The effect of the embodiment of the present invention is as follows. The battery 20 is external. Both positive and negative _ 21, & are all polar structures with genus, please refer to Figure 4-1, where the surface of the nickel metal positive and negative poles 21, 22 will be mixed with f 7G or oxide. Miscellaneous f 7 () or oxide will cause the electrical (four) and (four) 3 〇 circuit connection discharge _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ , Saki conducts battery external splicers with high-conductivity group, in which 'the first and second graphite blocks 40 and 50 are respectively electrically connected to the metal positive and negative poles 2 and 22 of the battery 2'. 2, graphite block 4〇, 5〇 itself does not allow tilting oxidation, and the second... graphite block 4G, 5G and the metal containing the metal 2G it, the bungee pole 21 '22 her contact age That is, the carbon particles 8〇 of the first and second graphite blocks 40, 50 replace the impurities 70 or oxides on the surface of the nickel-containing metal positive and negative poles 21, 22, so that the first and the graphite are connected. The carbon particles 8 of the blocks 40, 50 are located in the recesses of the metal surfaces of the positive and negative poles 21, 22 to form a carbon-nickel miscible alloy state, thereby Increase the first and second conductivity graphite connecting block connecting between the battery 2〇 4〇 5〇,, change. After passing through the structure battery 2 of the present invention, the current is not hindered by the potential energy caused by the oxide or the impurity 70, and can be smoothly conducted to the battery 2〇 and the first and second graphite blocks 40' 50, not only The external connection resistance of the battery 20 and the load 30 circuit is lowered, and the Wei pool is smoothly discharged. In addition, the current type of the battery is not limited to the metal round can structure described above. Please refer to FIG. 5, and the technology of the present invention can be applied to the battery of the Rupee bag. The external extension of the face-mounted battery (10) The positive electrode pole piece 91 and the negative electrode pole piece 92 containing nickel metal can be connected to the load 30 circuit by the technology of the present invention, and the third and fourth graphite blocks 1GG ' 2G0 can be respectively It can be electrically connected with the recording metal positive and negative pole handles 9 and 92 of the battery (10). It is worth mentioning that the metal shell battery and the battery are only different in appearance, but the electrical properties are different. There is no difference in the connection effect. In other words, the technology of the present invention is independent of the internal structure of the battery. As long as the positive and negative poles of the battery are nickel-containing metal, the battery of the present invention can be connected to the outside of the battery with high conductivity.