M397487 五、新型說明： 【新型所屬之技術領域】 本新型係關於一種散熱結構，特別是關於一種燈具 之散熱燈杯結構。 【先前技術】 電子器材在運作時，大多會因為系統中的電阻而額 外產生非必要的「熱」。通常，會隨著電子器材的功率 越高，所產生的熱也越多。可是，一般而言，隨著操作 環境的溫度提升，電子器材的使用壽命也將隨著縮短。 因此，「散熱」與如何降低熱的產生，是各種電子器材 在開發過程必須附帶思考的問題。 以燈具為例，使用「鰭片」來作為協助散熱的設計， 已是燈具設計中，廣為使用的方式。第一圖係一種習知 技藝的鰭片散熱結構100。上述的鰭片散熱結構100具 有一實心管壁所形成之過線孔120,以及複數個鰭片 140。其中，上述鰭片140係以過線孔120為圓心，向 外輻射延伸。 上述之鰭片散熱結構100常見的使用方式為，將燈 具的電性組件貼附於過線孔120之截面，電性組件的導 線穿過過線孔120以連接至外部之電源供應裝置或是 其他電子裝置。根據此一設置方式，上述電性組件所產 3 M397487 生的熱量，將先傳導至與電性組件所接觸之截面，再傳 導至鰭片140,以達到為電性組件降溫之效果。上述之 鰭片散熱結構100之另一種常見的使用方式為，將部分 電性組件容置於過線孔120内，且部分電性組件貼附於 上述過線孔之截面。 上述之鰭片散熱結構100的功能，都是為了降低電 性組件的使用之溫度。上述之鰭片散熱結構100的熱傳 導方式，是藉由電性組件與截面的接觸，把熱量導離電 性組件，以免電性組件因過熱而故障或縮短使用壽命。 然而，有限的接觸面積，在單位時間中的熱傳導量也將 隨之受限。 因此，如何在有限的燈具空間設計中，開發一種可 有效地協助電性組件快速散熱的散熱燈杯結構係一重 要且具產業價值之工作。 【新型内容】 鑒於上述之背景中，為了符合產業上的需求，本新 型提供一種散熱燈杯結構，上述之散熱燈杯結構不僅可 有效的增進散熱效率，更好的是，根據本說明書的設 計，並不會增大燈具的體積。 本新型之一目的係提供一種散熱燈杯結構，藉由根 據本說明書的散熱燈杯結構之設計，可同時以傳導與空 4 M397487 氣對流來疏導燈具的發光元件所產生之熱量，進而達到 快速散熱之效果。 根據前述目的，本說明書提供一散熱燈杯結構，前 述之散熱燈杯結構包含一燈杯部、複數個各自獨立延伸 自上述容置部的鰭片、以及一環狀部。上述燈杯部的第 一側具有一第一容置空間，用以容置燈具之發光元件。 每一上述鰭片之第一端連接於上述燈杯部，且每一鰭片 之第二端係獨立朝上述燈杯部之第二側延伸。其中，任 兩個相鄰之鰭片間具有一空隙。上述鰭片與燈杯部可在 燈杯部的第二侧形成一第二容置空間，以容置燈具之電 性組件。上述之環狀部係設置於上述鰭片的第二端。藉 由相鄰鰭片間的空隙設計，上述燈具之電性組件將可有 效達到散熱、降溫之效果。 【實施方式】 本新型在此所探討的方向為一種散熱燈杯結構。為 能徹底地瞭解本新型，將在下列的描述中提出詳盡的步 驟及其組成。顯然地，本新型的施行並未限定於此領域 技藝者所熟習的特殊細節。另一方面，眾所周知的組成 或步驟並未描述於細節中，以避免造成本新型不必要之 限制。本新型的較佳實施例會詳細描述如下，然而除了 這些詳細描述之外’本新型還可以廣泛地施行在其他的 5 實施例中，且本新型的範圍不受限定，其以之後的專利 範圍為準。 根據本說明書之一實施例，係揭露一種散熱燈杯結 構。上述之散熱燈杯結構主要包含一燈杯部、複數個鰭 片、以及一環狀部。上述的燈杯部之第一侧包含一第一 容置空間，上述之第一容置空間可用以容置燈具之發光 元件。上述之燈杯部可以更包含複數個安裝孔，用以將 上述之發光元件固定於上述燈杯部之第一容置空間内。 每一上述鰭片之第一端連接於上述之燈杯部，且每 一鰭片之第二端係獨立延伸向燈杯部之第二側。根據本 實施例之設計，上述的複數個鰭片中，任兩相鄰之鰭片 間具有一空隙。上述的複數個鰭片與燈杯部可在燈杯部 的第二側形成一第二容置空間。上述之第二容置空間可 用以容置燈具之電性組件。上述之電性組件可經由燈杯 部的過線孔來電性耦合於燈具之發光元件。根據本實施 例，上述之環狀部可以是連接於上述的每一個鰭片之第 二端。 在根據本實施例之一較佳範例中，上述之燈杯部可 以更包含至少一凸起部。上述凸起部可以是設置於上述 燈杯部的第二側。根據本範例之設計，上述燈具之電性 組件可以是固定於上述凸起部，使得電性組件不與燈杯 部直接接觸。上述的電性組件可以是整流器、控制器、 M397487 或是其他習知該項技藝者所熟知的電性組件。 在根據本實施例之另一較佳範例中，上述之環狀部 可以包含複數個固定孔，用以固定一上蓋於環狀部。上 述之上蓋可以包含複數個散熱孔與至少一過線孔。 在根據本實施例之另一較佳範例令，上述之散熱燈 杯結構可以更包含一燈具之電性連結元件。上述燈具之 電性連結元件可以是設置於上述之上蓋，且透過上蓋的 過線孔來電性耦合於設置於上述第二容置空間之電性 組件。根據本範例，上述燈具之發光元件、電性組件可 藉由上述燈具之電性連結元件來與一外界之電性裝置 電性耦合，其中，上述之電性裝置可以是一電力供應裝 置、一電性開關、一程式化電性控制裝置、一電子訊號 控制裝置、或是其他習知該項技藝者所熟知的電性裝 置。 根據本實施例之設計，上述之電性組件係放置於一 個具有複數個通風空隙的容置空間中。如此一來，除了 可以接觸傳導來透過鰭片進行散熱之外，更可藉由鰭片 間之空隙的空氣流動來加速降溫。所以，本實施例之設 計可提供一種更有效的散熱燈杯結構。 根據本說明書之另一實施例係關於一種散熱燈杯 結構。第二A圖與第二B圖係一根據本實施例的散熱 燈杯結構之示意圖。參考第二A圖與第二B圖，根據 7 M397487 * . 本實施例的散熱燈杯結構200包含一燈杯部220、複數 個各自獨立延伸自燈杯部220之鰭片240、以及環狀部 ' 260。在燈杯部220之第一側具有一第一容置空間210。 第一容置空間210可用來裝置燈具之發光元件。上述之 ' 發光元件可以是鎢絲燈、惰性氣體燈、發光二極體 ·. (LED)、有機發光元件（OLED)、或是其他習知該項技藝 . 者所熟知的發光設備。 φ 參考第二A圖與第二B圖，每一鰭片240的第一 端均連接於燈杯部220，且每一鰭片240的第二端獨立 延伸向燈杯部220之第二側。根據本實施例之設計，上 述鰭片240中，任兩相鄰的鰭片240之間具有一空隙。 如此一來，鰭片240與燈杯部220將可形成一杯狀之第 二容置空間230。上述之環狀部260係設置於上述鰭片 . 240之第二端。環狀部260可連接每一鰭片240之第二 φ 端，以維持上述第二容置空間230之形狀。上述之第二 容置空間230可以是用來容置燈具之電性組件。上述的 電性組件可以是整流器、控制器、或是其他習知該項技 藝者所熟知的電子組件。 在根據本實施例之一較佳範例中，上述之燈杯部 220可以更包含至少兩凸起部222。上述凸起部222可 以是設置於上述燈杯部220的第二側。根據本範例之設 計，參考第二B圖，上述之電性組件可以是藉由凸起部 8 M397487 222之固定孔224來固定於上述凸起部222，使得上述 之電性組件不與燈杯部220直接接觸。如此一來，上述 之電性組建在運作中所產生的熱，不僅可以接觸傳導的 方式經由鰭片來進行散熱’更可藉由鳍片間之空隙的空 氣流動來加速降溫。 ' 上述燈杯部220可以更包含至少一過線孔226。設 . 置於上述第一容置空間210中的發光元件與上述設置 • 於第二容置空間230中的電性組件之間，用以提供電力 或傳輸電性訊號的一條或複數條連接線可藉由上述的 過線孔226來連通。上述連接線的形式可以是任何一種 習知該項技藝者所熟知的模式。根據本實施例之設計， 上述燈杯部220可以更包含複數個可用以將發光元件 固定於第一容置空間210之固定孔。 、 如第一 B圖所示，上述之環狀部260可以包含複數 籲 個固疋孔262。上述環狀部260之固定孔262可用以固 . I上蓋於環狀部細。上述之上蓋可以包含複數個散 熱孔與至少一過線孔。 * 為能進-步_本說明書之設計，第三圖係一應用 根據本說明書之散熱燈杯結構的照明燈具之分解示音 圖。然而，第三圖之設計僅用以說明根據本說明書之一 %、用模式纟說明書所揭露的散熱燈杯結構不應以第三 圖為限。 9 M397487 本創作之另一較佳實施例係關於一燈具結構。參考 第二圖’政熱燈杯結構31 〇的第一侧包含一發光元件 320、與一透光罩330。上述之發光元件32〇可以是設 置於散熱燈杯結構310的第一容置空間中。發光元件 320可以是鎢絲燈、惰性氣體燈、發光二極體(LED)、 有機發光元件（OLED)、或是其他習知該項技藝者所熟 知的發光設備。上述之透光罩33〇可以是固定於散熱燈 杯結構3U)。透光罩33〇可以遮蓋於發光元件32〇外側， 以保護發光元件320。更好的是，在根據本實施例之一 =範射，透光罩33G可依實際需“更具有聚光、 變焦、或其他習知該項技藝者所熟知的光學效果。 參考第三圖所示，散熱燈杯社盖 _ Φ ,, , 7+、、、。構310的第二側包含 電性組件350、一上蓋36〇、 上汗沾带k 與一電性連結元件370。 上述的電性組件35〇可以是 第-六番咖β U弋於散熱燈杯結構310的 乐一奋置空間之凸起部。上 a _ 的電性組件350電性可以 疋電性耗合於發光元件32〇 器、批座> €性組件350可以是整流 控制裔、或是其他習知該項 件。Ma m 1夜藝者所熟知的電性組 卞藉由固定於散熱燈杯結構 350 a播从士 ^ U的凸起部’電性組件 υ在運作時所產生的熱除了 燈杯站棋。Μ接觸傳導來透過散熱 杯、，，◎構Μ0的鰭片進行散熱 Ήλ ^ j 夂外，更可藉由散熱燈杯 碼3〗〇的鰭片間之空隙的空 μ、+、 虱凃動來加速降溫。 上迷的上蓋360可以是固定 &於散熱燈杯結構310的 10 M397487 環狀部。上蓋360可以包含複數個散熱孔，與至少一過 線孔。上述之散熱孔可用以協助提升散熱燈杯結構310 藉由空氣流動來降溫的效果。參照第三圖，上述之電性 連結元件370可以是設置於上蓋360之過線孔，且電性 耦合於上述之電性組件350。上述之發光元件320、電 性組件350可藉由上述之電性連結元件370來與一外界 之電性裝置電性耦合，其中，上述之電性裝置可以是一 電力供應裝置、一電性開關、一程式化電性控制裝置、 一電子訊號控制裝置、或是其他習知該項技藝者所熟知 的電性裝置。在根據本實施例之一較佳範例中，上述之 電性連結元件370可以是如第三圖所示之燈具連接接 頭，如此一來，根據本實施例之燈具可以直接應用於傳 統的燈具連接座。 綜合上述，本說明書揭露了一種散熱燈杯結構。上 述之散熱燈杯結構包含一燈杯部、複數個鰭片、以及一 環狀部。上述燈杯部之第一側包含一第一容置空間，可 用以容置燈具之發光元件。每一上述的鰭片的第一端連 接於上述之燈杯部，且每一鰭片之第二端係獨立延伸向 燈杯部之第二側，並與燈杯部形成一第二容置空間。上 述環狀部係連接於上述鰭片的第二端。上述之第二容置 空間可用以容置燈具之電性組件。根據本說明書的設 計，任兩相鄰之上述鰭片間具有一空隙。此些空隙可提 11 M397487 供空氣對流，使得上述燈具之電性組件除了藉由接觸方 式，將運作中所產生的熱傳導至鰭片之外，更可藉由空 氣對流的方式快速散熱，以達到快速為燈具降溫的效 果，進而延長燈具之電性組件的使用壽命。 顯然地，依照上面實施例中的描述，本新型可能有 許多的修正與差異。因此需要在其附加的權利要求項之 範圍内加以理解，除了上述詳細的描述外，本新型還可 以廣泛地在其他的實施例中施行。上述僅為本新型之較 佳實施例而已，並非用以限定本新型之申請專利範圍； 凡其它未脫離本新型所揭示之精神下所完成的等效改 變或修飾，均應包含在下述申請專利範圍内。 【圖式簡單說明】 第一圖係一習知技藝的燈具散熱結構之示意圖； 第二A圖與第二B圖係一根據本說明書之一具體 實施例的散熱燈杯結構的示意圖；以及 第三圖係一根據本說明書之具體實施例的燈具結 構之示意圖。 散熱燈杯結構 發光元件 310 【主要元件符號說明】 100 鰭片散熱結構 120 過線孔 320 12 M397487 140 縛片 330 透光罩 200 散熱燈杯結構 350 電性組件 210 第一容置空間 360 上蓋 220 燈杯部 370 電性連結元件 222 凸起部 224 固定孔 226 過線孔 230 第二容置空間 240 結片 260 環狀部 262 環狀部之固定孔 300 具散熱燈杯結構 的照明燈具M397487 V. New description: [New technical field] The present invention relates to a heat dissipation structure, in particular to a heat dissipation lamp cup structure of a lamp. [Prior Art] When an electronic device is in operation, most of the "heat" is generated due to the resistance in the system. Usually, the higher the power of the electronic device, the more heat it generates. However, in general, as the temperature of the operating environment increases, the service life of electronic equipment will also decrease. Therefore, "heat dissipation" and how to reduce heat generation are issues that must be considered in the development process of various electronic devices. Taking luminaires as an example, the use of "fins" as a design to assist heat dissipation is already widely used in luminaire design. The first figure is a finned heat dissipation structure 100 of the prior art. The above fin heat dissipating structure 100 has a through hole 120 formed by a solid tube wall, and a plurality of fins 140. The fins 140 are centered on the via holes 120 and extend outwardly. The above-mentioned fin heat dissipation structure 100 is generally used by attaching the electrical component of the lamp to the cross section of the wire hole 120, and the wire of the electrical component passes through the wire hole 120 to be connected to an external power supply device or Other electronic devices. According to this arrangement, the heat generated by the above-mentioned electrical component 3 M397487 is first transmitted to the section in contact with the electrical component, and then transmitted to the fin 140 to achieve the effect of cooling the electrical component. Another common use of the above fin heat dissipating structure 100 is to accommodate a portion of the electrical component in the via hole 120, and a portion of the electrical component is attached to the cross section of the via hole. The function of the above fin heat dissipating structure 100 is to reduce the temperature of the use of the electrical component. The heat conduction mode of the above fin heat dissipating structure 100 is to conduct heat away from the electrical component by contacting the electrical component with the cross section, so as to prevent the electrical component from malfunctioning or shortening the service life due to overheating. However, with limited contact area, the amount of heat transfer per unit time will also be limited. Therefore, how to develop a heat-dissipating lamp cup structure that can effectively assist the rapid cooling of electrical components is an important and industrial value work in a limited design of the luminaire space. [New content] In view of the above background, in order to meet the industrial needs, the present invention provides a heat-dissipating lamp cup structure, and the above-mentioned heat-dissipating lamp cup structure can not only effectively improve heat dissipation efficiency, but better, according to the design of the present specification. Does not increase the size of the luminaire. One of the objects of the present invention is to provide a heat dissipating lamp cup structure. By designing the heat dissipating lamp cup structure according to the present specification, the heat generated by the illuminating elements of the luminaire can be simultaneously convected by conducting and convecting air, thereby achieving rapid The effect of heat dissipation. In accordance with the foregoing, the present specification provides a heat sink cup structure. The heat sink cup structure includes a lamp cup portion, a plurality of fins each extending independently from the receiving portion, and an annular portion. The first side of the lamp cup portion has a first accommodating space for accommodating the illuminating elements of the luminaire. The first end of each of the fins is connected to the lamp cup portion, and the second end of each fin extends independently toward the second side of the lamp cup portion. There is a gap between any two adjacent fins. The fin and the lamp cup portion may form a second accommodating space on the second side of the lamp cup portion to accommodate the electrical component of the lamp. The annular portion is provided at the second end of the fin. By designing the gap between adjacent fins, the electrical components of the above lamps can effectively achieve the effects of heat dissipation and temperature reduction. [Embodiment] The direction of the present invention discussed herein is a heat dissipating lamp cup structure. In order to thoroughly understand the novel, detailed steps and their composition will be presented in the following description. Obviously, the implementation of the present invention is not limited to the specific details familiar to those skilled in the art. On the other hand, well-known components or steps are not described in detail to avoid unnecessary limitations of the present invention. The preferred embodiment of the present invention will be described in detail below, but the present invention can be widely applied to other 5 embodiments in addition to the detailed description, and the scope of the present invention is not limited, and the scope of the following patent is quasi. According to one embodiment of the present specification, a heat sink cup structure is disclosed. The heat sink cup structure described above mainly comprises a lamp cup portion, a plurality of fins, and an annular portion. The first side of the lamp cup portion includes a first accommodating space, and the first accommodating space can be used to receive the illuminating element of the luminaire. The lamp cup portion may further include a plurality of mounting holes for fixing the light-emitting element to the first accommodating space of the lamp cup portion. The first end of each of the fins is connected to the lamp cup portion, and the second end of each fin extends independently to the second side of the lamp cup portion. According to the design of the embodiment, any one of the plurality of fins has a gap between two adjacent fins. The plurality of fins and the lamp cup portion may form a second accommodating space on the second side of the lamp cup portion. The second accommodating space described above can be used to accommodate the electrical components of the luminaire. The electrical component described above can be electrically coupled to the illuminating component of the luminaire via a via hole of the lamp cup. According to this embodiment, the annular portion may be connected to the second end of each of the fins. In a preferred embodiment of the present embodiment, the lamp cup portion may further include at least one raised portion. The raised portion may be provided on the second side of the lamp cup portion. According to the design of the present example, the electrical component of the luminaire may be fixed to the boss so that the electrical component does not directly contact the lamp cup. The electrical components described above may be rectifiers, controllers, M397487 or other electrical components well known to those skilled in the art. In another preferred embodiment of the present embodiment, the annular portion may include a plurality of fixing holes for fixing an upper cover to the annular portion. The upper cover may include a plurality of heat dissipation holes and at least one of the wire holes. In another preferred embodiment of the present embodiment, the heat sink cup structure may further include an electrical connecting component of the lamp. The electrical connecting component of the luminaire may be an electrical component disposed on the upper cover and electrically coupled to the second accommodating space via the via hole of the upper cover. According to the present example, the light-emitting element and the electrical component of the lamp can be electrically coupled to an external electrical device by the electrical connecting component of the lamp, wherein the electrical device can be a power supply device, An electrical switch, a stylized electrical control device, an electronic signal control device, or other electrical device known to those skilled in the art. According to the design of the embodiment, the above-mentioned electrical component is placed in an accommodating space having a plurality of ventilation gaps. In this way, in addition to being able to contact the conduction to dissipate heat through the fins, the cooling of the air can be accelerated by the air flow in the gap between the fins. Therefore, the design of this embodiment can provide a more efficient heat sink cup structure. Another embodiment in accordance with the present specification is directed to a heat sink cup structure. The second A diagram and the second B diagram are schematic views of the heat dissipating lamp cup structure according to the embodiment. Referring to FIG. 2A and FIG. 2B, according to 7 M397487*, the heat sink cup structure 200 of the present embodiment includes a lamp cup portion 220, a plurality of fins 240 each extending independently from the lamp cup portion 220, and a ring shape. Department '260. A first receiving space 210 is defined on the first side of the lamp cup portion 220. The first accommodating space 210 can be used to mount the illuminating elements of the luminaire. The above-mentioned 'light-emitting element may be a tungsten lamp, an inert gas lamp, a light-emitting diode (LED), an organic light-emitting element (OLED), or other known light-emitting device. φ Referring to the second A and second B, the first end of each fin 240 is connected to the lamp cup portion 220, and the second end of each fin 240 extends independently to the second side of the lamp cup portion 220. . According to the design of the embodiment, in the fin 240, there is a gap between any two adjacent fins 240. In this way, the fin 240 and the lamp cup portion 220 will form a cup-shaped second accommodating space 230. The annular portion 260 is disposed at the second end of the fins 240. The annular portion 260 can be connected to the second φ end of each of the fins 240 to maintain the shape of the second accommodating space 230. The second accommodating space 230 may be an electrical component for accommodating the luminaire. The electrical components described above can be rectifiers, controllers, or other electronic components well known to those skilled in the art. In a preferred embodiment of the present embodiment, the lamp cup portion 220 may further include at least two raised portions 222. The boss portion 222 may be disposed on the second side of the lamp cup portion 220. According to the design of the present example, referring to the second B, the above-mentioned electrical component may be fixed to the protrusion 222 by the fixing hole 224 of the protrusion 8 M397487 222, so that the above electrical component does not overlap with the lamp cup. The part 220 is in direct contact. In this way, the above-mentioned electrical heat generated in the operation can not only dissipate heat through the fins in a contact conduction manner, but also accelerate the cooling by the air flow in the gap between the fins. The lamp cup portion 220 may further include at least one wire hole 226. The light-emitting element disposed in the first accommodating space 210 and the electrical component disposed in the second accommodating space 230 for providing power or transmitting one or more connecting wires of the electrical signal The above-mentioned via holes 226 can be connected. The form of the above connecting line can be any of the patterns well known to those skilled in the art. According to the design of the embodiment, the lamp cup portion 220 may further include a plurality of fixing holes that can be used for fixing the light emitting element to the first accommodating space 210. As shown in FIG. B, the above-mentioned annular portion 260 may include a plurality of fixing holes 262. The fixing hole 262 of the annular portion 260 can be used to fix the upper portion of the annular portion. The upper cover may include a plurality of heat dissipation holes and at least one of the wire holes. * For the design of this manual, the third figure is an exploded view of the lighting fixture of the heat sink cup structure according to this specification. However, the design of the third figure is only used to illustrate that the heat sink cup structure disclosed in the specification of the specification according to one of the descriptions should not be limited to the third figure. 9 M397487 Another preferred embodiment of the present invention relates to a luminaire structure. Referring to the second figure, the first side of the heat lamp cup structure 31 包含 includes a light-emitting element 320 and a light-transmissive cover 330. The light-emitting element 32A described above may be disposed in the first accommodating space of the heat-dissipating cup structure 310. Light-emitting element 320 can be a tungsten filament lamp, an inert gas lamp, a light-emitting diode (LED), an organic light-emitting element (OLED), or other illuminating device known to those skilled in the art. The translucent cover 33A described above may be fixed to the heat dissipating cup structure 3U). The translucent cover 33A can be covered outside the light-emitting element 32 to protect the light-emitting element 320. More preferably, in accordance with one of the embodiments, the transmissive cover 33G can be "more focused, zoomed, or otherwise known to those skilled in the art." As shown, the second side of the heat sink cup cover _ Φ , , , 7+, , , 310 includes an electrical component 350, an upper cover 36, an upper sweat strip k, and an electrical coupling element 370. The electrical component 35〇 can be the protrusion of the first-six-color coffee β 弋 弋 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热 散热The illuminating element 32, the squaring, and the squaring component 350 may be rectifying control or other conventional components. The electrical group well known to the photographer is fixed to the heat sink cup structure. 350 a broadcast from the bulge of the ^ ^ U 'Electrical component υ in the operation of the heat generated in addition to the cup holder chess. Μ contact conduction through the heat sink, ◎ Μ 0 of the fins for heat dissipation Ή λ ^ j In addition, the air can be accelerated by the air gap μ, +, and 虱 of the gap between the fins of the heat sink cup code 3. The cover 360 may be a 10 M397487 annular portion that is fixed to the heat sink cup structure 310. The upper cover 360 may include a plurality of heat dissipation holes and at least one wire hole. The heat dissipation holes may be used to assist in lifting the heat dissipation lamp cup structure 310. The effect of cooling by air flow. Referring to the third figure, the electrical connecting component 370 may be a through hole provided in the upper cover 360 and electrically coupled to the electrical component 350. The light emitting component 320 and the electric The electrical component 350 can be electrically coupled to an external electrical device by the electrical connecting component 370, wherein the electrical device can be a power supply device, an electrical switch, and a programmable electrical control. A device, an electronic signal control device, or other electrical device known to those skilled in the art. In a preferred embodiment of the present embodiment, the electrical connection member 370 can be as shown in the third figure. The lamp connector is shown, so that the lamp according to the embodiment can be directly applied to a conventional lamp connector. In summary, the present specification discloses a heat lamp cup structure. The heat dissipation lamp cup structure includes a lamp cup portion, a plurality of fins, and an annular portion. The first side of the lamp cup portion includes a first accommodating space for accommodating the illuminating elements of the luminaire. The first end of the fin is connected to the lamp cup portion, and the second end of each fin extends independently to the second side of the lamp cup portion, and forms a second accommodating space with the lamp cup portion. The annular portion is connected to the second end of the fin. The second receiving space can be used to receive an electrical component of the lamp. According to the design of the specification, there is a gap between the two adjacent fins. These gaps can provide 11 M397487 for air convection, so that the electrical components of the above-mentioned lamps can transmit heat generated by the operation to the fins in addition to the contact mode, and can quickly dissipate heat by means of air convection. Achieve rapid cooling of the luminaire, thereby extending the life of the electrical components of the luminaire. Obviously, the present invention may have many modifications and differences as described in the above embodiments. It is therefore to be understood that within the scope of the appended claims, the invention may be The above are only the preferred embodiments of the present invention, and are not intended to limit the scope of the present invention; all other equivalent changes or modifications which are not departing from the spirit of the present invention should be included in the following patent application. Within the scope. BRIEF DESCRIPTION OF THE DRAWINGS The first drawing is a schematic diagram of a heat dissipation structure of a conventional art; the second A and second B are schematic views of a heat dissipation lamp cup structure according to an embodiment of the present specification; The three figures are schematic views of a luminaire structure in accordance with a specific embodiment of the present specification. Heat-dissipating lamp cup structure light-emitting element 310 [Main component symbol description] 100 Fin heat-dissipation structure 120 Through-hole hole 320 12 M397487 140 Baffle 330 Translucent cover 200 Heat-dissipating lamp cup structure 350 Electrical component 210 First accommodating space 360 Upper cover 220 Lamp cup portion 370 Electrical connection member 222 Raised portion 224 Fixing hole 226 Through hole 230 Second accommodating space 240 Tab 260 Annular portion 262 Fixed portion of annular portion 300 Lighting fixture with heat sink cup structure
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