201038861 -六、發明說明： • 【發明所屬之技術領域】 本發明涉及一種發光二極體燈具，特別涉及一種 具有可適配多種散熱器之燈架之發光二極體燈具。 【先前技術】 發光二極體作為一種高效之發光源，已被廣泛應 用於各個領域當中。然而，發光二極體工作時會產 〇 生大量之熱量，這些熱量如不能及時散發，易使發 光二極體產生過熱現象，進而導致其發光效率下 降。先前之發光二極體燈具包括一板狀散熱體及若 干安裝於散熱體一側之發光二極體。這些發光二極 體均勻地排列於若干直線上。當發光二極體被點亮 時’其產生之熱量經由板狀散熱體散發至周圍之空 氣當中。 ◎ 為滿足不同結構、尺寸之板狀散熱體之安裝，發 光二極體燈具之燈架亦要相應地改變結構、尺寸。 目前’燈架通常為擠型結構，其製作成本較高。 【發明内容】 有寥於此’有必要提供一種發光二極體燈具，其 燈架可適配多種結構、尺寸之散熱器。 一種發光二極體燈具包括：一燈架，其包括一容 置部及一懸掛部；所述容置部包括二開口相對之侧 4 201038861 板，每一側板具有一上固定部、一下固定部及連接 . 上固定部與下固定部之連接部，所述懸掛部連接於 二側板之二下固定部之間；一散熱板設置於所述二 側板之二連接部之間；一發光二極體模組設置於所 述散熱板之頂面；一反光模組設置於所述二側板之 間，用於給所述發光二極體模組反光；一燈罩設置 於所述二侧板之二上固定部之間；及一電源驅動模 組設置於所述懸掛部。 〇 與先前技術相比，容置部之二侧板間之距離可以 調整，以配合不同寬度之散熱板，這樣，二侧板之 結構具有通用性。相對於散熱板之製作成本來說， 容置部之二側板之擠型製程成本較高，因此，本實 施例中，通過調整二側板之間之距離，以配合不同 免度之散熱板以及所需之發光二極體模組、懸掛 部、燈罩等，便可得到不同結構之發光二極體燈具。 ® 【實施方式】 以下，將結合附圖及實施例對本技術方案之發光 二極體燈具進行詳細說明。 參閱圖1至3, 一種發光二極體燈具，其包括燈 架10、散熱器20、發光二極體模組3〇、反光模組 40、燈罩50以及電源驅動模組。 所述燈架10包括一縱長形容置部1 j以及一懸掛 部12。所述燈架10為擠型結構，其可由塑膠材料如 5 201038861 ' 聚礙酸酯、聚曱基丙烯酸甲酯製成，或由金屬材料 - 如鋁等製成。 所述容置部11包括二相對之縱長形侧板以 及二相對之擋板112。每一側板111橫斷面均為曲面 結構，本實施例中’每一側板之橫斷面大概呈 半橢圓形結構。二側板111之開口相對且間隔一定 距離設置，二擋板112分別設置於二側板U1之兩 Q 端部之間，這樣，二侧板111與二擋板112在水平 方向上圍合出一封閉空間。所述發光二極體模組30 及反光模組40設置於該封閉空間内。 每一側板111具有一上固定部1110、一下固定 部1120以及連接於上固定部111〇與下固定部112〇 之間之連接部1130。所述上固定部ul〇用於與燈罩 50配合，所述下固定部1120用於與懸掛部12配合。 所述上固疋部1110之厚度大於連接部113〇之厚 〇 度。所述上固定部ηιο沿其縱長方向開設一縱長: 溝槽1111’該溝槽1111具有上壁1112及下壁1113。 所述二侧板111之二上固定部1110之二溝槽U11 開口相對，用於收容燈罩50之二端緣，從而將燈罩 50固定於所述二側板111之二上固定部111〇之間。 所述下壁1113向下且向内傾斜延伸出一延伸板 1114,以供反光模組4〇抵靠。二側板ui之二上固 定部mo之二延伸板1114形成一倒錐形之開—口。 6 201038861 ' 所述連接部1130靠近下固定部1120之内表面沿 • 其縱長方向凸伸出二縱長之凸板1131，該二凸板 1131間隔設置，從而形成一縱長之凹槽1132，用以 收容散熱器20之二端緣。所述散熱器20包括一散 熱板21及自該散熱板21之底面延伸之複數個散熱 片22。所述散熱板21之二相對之端緣分別收容於二 侧板111之二連接部1130之二凹槽1132内，從而 將散熱器20固定於二側板111之二連接部1130之 〇 間。 所述發光二極體模組30設置於散熱器20之散熱 板21之頂面。所述發光二極體模組30包括一矩形 金屬基板31，複數個發光二極體32設置在基板31 之頂面。所述基板31之結構、尺寸與散熱器20之 散熱板21之結構、尺寸基本相同。所述基板31表 面佈設有線路，且該基板31之二對角處分別設置二 〇 接線端子33，以對線路通電。 所述反光模組40用於給發光二極體模組30反 光，其包括縱長之第一反光板41及第二反光板42。 所述第一反光板41與第二反光板42為矩形板體， 其分別固定於所述二側板111的二上固定部111之 二延伸板1114。由於二延伸板1114自下壁1113向 下且向内傾斜延伸，從而形成一倒錐形之開口，即， 二延伸板1114之間之開口從發光二極體模組30到 7 201038861 燈草50之豎直方向上逐漸變大，這樣，在避免發光 *二極體模組30所發出之光線因為散射而損失之同 時，可以擴大從燈罩50發射出之光線之發光角度。 具體地，所述第一反光板41之橫向上板體抵靠 於所述一側板1U之上固定部111〇之延伸板1114， 該第一反光板41之橫向下板體抵靠於二極體模組3〇 之基板31。且該第一反光板41之橫向下板體之一端 ❹ 角處切去一部分形成一缺口，以避讓該第一反光板 41所對應之接線端子33。同理，所述第二反光板42 之&向上板體抵罪於所述另一側板hi之上固定部 mo之延伸板1114,該第二反光板42之橫向下板 體抵靠於二極體模組30之基板31，且橫向下板體之 一端角處形成另一缺口，以避讓該第二反光板42所 對應之接線端子33。 為更好實現反光效果，該反光模組4〇可進一步 包括一第一側反光板43及第二側反光板44。所述第 一側反光板43與第二侧反光板44設置於第一反光 板41與第二反光板42之間’且位於該第一反光板 41與第二反光板42之兩端部。該第一侧反光板43 與弟一侧反光板44分別固定于容置部11之二擋板 112 ° 所述第一反光板41、第二反光板42、第一側反 光板43及第二側反光板44均由反光性能好之材料 8 201038861 製成’本實施例中，由聚碳酸酯（PC)製成。 所述懸掛部12為一塑膠材質之一體成型結構， 其包括一承載板121及自該承載板121之兩端分別 向上延伸之二支撐板122。所述電源驅動模組60設 置於承載板121之頂面且位於二支撐板122之間。 母一支樓板122包括一孤形本體i22a及自該本體 122a向外傾斜延伸之配合板122b。二支撐板ι22之 ❹ 二弧形本體122a開口相對設置，從而形成一中間直 徑大，兩端直徑小之結構。所述二支撐板122之二 弧形本體122a之上端失設於二側板ιη之二下固定 部1120之間’且二支撐板ι22之二配合板122b之 外表面分別與二侧板ηι的下固定部112〇之内表面 結合。 組裝時’將懸掛部12與容置部11進行組裝，即， ◎ 將懸掛部12之二支撐板122之二配合板122b之外 表面以鎖螺釘之方式與容置部U之二側板ln之二 下固疋部1120之内表面進行固定。將散熱器2〇之 散熱板21之二縱長之端緣沿容置部u之二側板^ 之縱長方向滑進二縱長凹槽1132中’將發光二極體 模組3〇设置於散熱板21之頂面，將二擋板112以 鎖螺釘之方式分別固定於二侧板111之兩端部，從 =使付散熱板21、發光二極體模組3()之兩端得以固 定將燈罩50之兩端緣收容至二侧板⑴之二上固 9 201038861 疋部1110之二溝槽1U1中。將電源驅動模組6〇固 . 疋於承載板121之頂面，從而完成整個發光二極體 燈具之組裝。 與先说技術相比，本實施例中，容置部i工之二 側板ill間之距離可以調整，以配合不同寬度之散 熱板21，這樣，二側板U1之結構具有通用性。相 對於散熱板21之製作成本來說，容置部n之二側 ❹ 板I11之擠型製私成本較高，本實施例中，通過調 整一側板111間之距離，以配合不同寬度之散熱板 21以及所需之發光二極體模組3〇、懸掛部12、燈罩 50等，便可得到不同結構之發光二極體燈具。 綜上所述，本發明確已符合發明專利之要件，遂 依法提出專利申請。惟，以上所述者僅為本發明之 較佳實施方式’自不能以此限制本案之中請專利範 圍。舉凡熟悉本案技藝之人士援依本發明之精神所 作之等效修飾或變化，皆應涵蓋於以下中請專 圍内。 【圖式簡單說明】 圖1為本技術方案實施例發光二極體燈具之立 體組合圖。 圖2為圖1之發光二極體燈具倒置之立體分 ° 201038861 圖3為圖1中發光二極體燈具之截面放大圖。 【主要元件符號說明】 燈架 10 容置部 11 懸掛部 12 側板 111 擋板 112 上固定部 1110 下固定部 1120 連結部 1130 溝槽 1111 上壁 1112 下壁 1113 延伸板 1114 散熱器 20 散熱板 21 散熱片 22 發光二極體模組 30 基板 31 發光二極體 32 接線端子 33 反光模組 40 第一反光板 41 第二反光板 42 第一側反光板 43 第二侧反光板 44 燈罩 50 承載板 121 支撐板 122 本體 122a 配合板 122b 電源驅動模組 60 11201038861 - VI. Description of the Invention: • Technical Field of the Invention The present invention relates to a light-emitting diode lamp, and more particularly to a light-emitting diode lamp having a lamp holder that can be adapted to a plurality of heat sinks. [Prior Art] As a highly efficient light source, light-emitting diodes have been widely used in various fields. However, when the light-emitting diode is in operation, a large amount of heat is generated, and if the heat is not dissipated in time, the light-emitting diode is easily overheated, which causes the luminous efficiency to decrease. The prior light-emitting diode lamp includes a plate-shaped heat sink and a light-emitting diode mounted on one side of the heat sink. These light-emitting diodes are evenly arranged on a plurality of straight lines. When the light-emitting diode is lit, the heat generated by it is dissipated into the surrounding air via the plate-shaped heat sink. ◎ In order to meet the installation of plate-shaped heat sinks of different structures and sizes, the lamp holder of the light-emitting diode lamp should also change the structure and size accordingly. At present, the light frame is usually an extruded structure, which is relatively expensive to manufacture. SUMMARY OF THE INVENTION It is necessary to provide a light-emitting diode lamp whose lamp holder can be adapted to a heat sink of various structures and sizes. A light-emitting diode lamp includes: a light stand comprising a receiving portion and a hanging portion; the receiving portion includes two opposite sides 4 201038861 plates, each side plate having an upper fixing portion and a lower fixing portion And a connection between the upper fixing portion and the lower fixing portion, the hanging portion is connected between the two lower fixing portions of the two side plates; a heat dissipation plate is disposed between the two connecting portions of the two side plates; a light emitting diode The body module is disposed on a top surface of the heat dissipation plate; a light reflection module is disposed between the two side plates for reflecting the light emitting diode module; and a light cover is disposed on the two side plates Between the upper fixing portions; and a power driving module disposed on the hanging portion. 〇 Compared with the prior art, the distance between the two side plates of the accommodating portion can be adjusted to match the heat dissipation plates of different widths, so that the structure of the two side plates is versatile. Compared with the manufacturing cost of the heat dissipation plate, the extrusion process of the two side plates of the accommodating portion is relatively high. Therefore, in this embodiment, by adjusting the distance between the two side plates, the heat dissipation plate and the different degree of dissipation are matched. Light-emitting diode modules with different structures can be obtained by using the LED module, the suspension part, the lamp cover and the like. ® Embodiments Hereinafter, a light-emitting diode lamp of the present technical solution will be described in detail with reference to the accompanying drawings and embodiments. Referring to Figures 1 to 3, a light-emitting diode lamp includes a lamp holder 10, a heat sink 20, a light-emitting diode module 3A, a reflective module 40, a lamp cover 50, and a power supply driving module. The lamp holder 10 includes an elongated receiving portion 1 j and a hanging portion 12. The lamp holder 10 is of an extruded structure which may be made of a plastic material such as 5 201038861 'polymeric acid ester, polymethyl methacrylate, or a metal material such as aluminum or the like. The accommodating portion 11 includes two opposite longitudinal side plates and two opposite baffles 112. The cross-section of each side plate 111 is a curved structure. In this embodiment, the cross-section of each side plate is approximately semi-elliptical. The two side plates 111 are disposed at a distance from each other, and the two baffles 112 are respectively disposed between the two Q end portions of the two side plates U1. Thus, the two side plates 111 and the two baffles 112 are enclosed in a horizontal direction. space. The LED module 30 and the reflective module 40 are disposed in the enclosed space. Each of the side plates 111 has an upper fixing portion 1110, a lower fixing portion 1120, and a connecting portion 1130 connected between the upper fixing portion 111A and the lower fixing portion 112A. The upper fixing portion ul is for engaging with the lamp cover 50, and the lower fixing portion 1120 is for engaging with the hanging portion 12. The thickness of the upper solid portion 1110 is greater than the thickness of the connecting portion 113. The upper fixing portion ηιο defines an elongated length along a longitudinal direction thereof: a groove 1111'. The groove 1111 has an upper wall 1112 and a lower wall 1113. The two grooves U11 of the two upper fixing portions 1110 of the two side plates 111 are oppositely opposed to receive the two end edges of the lamp cover 50, thereby fixing the lamp cover 50 between the two upper fixing portions 111〇 of the two side plates 111. . The lower wall 1113 extends obliquely downward and inwardly to extend an extension plate 1114 for the reflective module 4 to abut. The two extension plates 1114 of the two fixing portions mo of the two side plates ui form an inverted taper opening. 6 201038861 ' The connecting portion 1130 is adjacent to the inner surface of the lower fixing portion 1120 and protrudes from the longitudinal direction of the two longitudinally extending convex plates 1131. The two convex plates 1131 are spaced apart to form a longitudinally long groove 1132. It is used to receive the two end edges of the heat sink 20. The heat sink 20 includes a heat dissipation plate 21 and a plurality of heat dissipation fins 22 extending from a bottom surface of the heat dissipation plate 21. The opposite ends of the heat dissipating plate 21 are respectively received in the two grooves 1132 of the two connecting portions 1130 of the two side plates 111, so that the heat sink 20 is fixed between the two connecting portions 1130 of the two side plates 111. The LED module 30 is disposed on a top surface of the heat dissipation plate 21 of the heat sink 20. The LED module 30 includes a rectangular metal substrate 31, and a plurality of LEDs 32 are disposed on the top surface of the substrate 31. The structure and size of the substrate 31 are substantially the same as those of the heat sink 21 of the heat sink 20. Lines are arranged on the surface of the substrate 31, and two terminals 33 are respectively disposed at opposite corners of the substrate 31 to energize the lines. The retroreflective module 40 is configured to reflect the LED module 30, and includes a vertically long first reflector 41 and a second reflector 42. The first reflector 41 and the second reflector 42 are rectangular plates that are respectively fixed to the two extension plates 1114 of the two upper fixing portions 111 of the two side plates 111. Since the two extension plates 1114 extend downwardly and inwardly from the lower wall 1113, a reverse tapered opening is formed, that is, the opening between the two extension plates 1114 is from the light emitting diode module 30 to 7 201038861 The vertical direction gradually becomes larger, so that the light emitted from the lamp housing 50 can be enlarged while avoiding the loss of the light emitted by the LED module 30 due to scattering. Specifically, the lateral upper plate of the first reflector 41 abuts against the extension plate 1114 of the fixing portion 111 of the one side plate 1U, and the lateral lower plate of the first reflector 41 abuts against the pole The substrate 31 of the body module 3〇. And a portion of the first lower reflector of the first reflector 3 is cut away to form a notch to avoid the terminal 33 corresponding to the first reflector 41. Similarly, the upper plate of the second reflector 42 is in opposition to the extension plate 1114 of the fixing portion mo on the other side plate hi, and the lateral lower plate of the second reflector 42 abuts against the pole The substrate 31 of the body module 30 has another notch formed at one end corner of the lateral lower plate to avoid the terminal 33 corresponding to the second reflector 42. In order to achieve a better reflective effect, the reflective module 4 can further include a first side reflector 43 and a second side reflector 44. The first side reflector 43 and the second side reflector 44 are disposed between the first reflector 41 and the second reflector 42 and are located at both ends of the first reflector 41 and the second reflector 42. The first side reflector 43 and the second side reflector 44 are respectively fixed to the two baffles 112 of the accommodating portion 11. The first reflector 41, the second reflector 42, the first reflector 43 and the second The side reflectors 44 are each made of a material 8 201038861 having good light-reflecting properties. In this embodiment, it is made of polycarbonate (PC). The suspension portion 12 is a plastic body molding structure, and includes a carrier plate 121 and two support plates 122 extending upward from opposite ends of the carrier plate 121. The power driving module 60 is disposed on the top surface of the carrier board 121 and between the two supporting boards 122. The mother floor slab 122 includes a solitary body i22a and a mating plate 122b extending obliquely outwardly from the body 122a. The two supporting plates ι22 are disposed opposite to each other to form a structure having a large intermediate diameter and a small diameter at both ends. The upper ends of the two arcuate bodies 122a of the two supporting plates 122 are disposed between the two lower fixing portions 1120 of the two side plates, and the outer surfaces of the two supporting plates 122b and the two side plates are respectively lower than the two side plates ηι The inner surface of the fixing portion 112 is joined. When assembling, the suspension portion 12 and the accommodating portion 11 are assembled, that is, ◎ the outer surfaces of the two supporting plates 122b of the two supporting plates 122 of the hanging portion 12 are locked by screws and the two side plates of the accommodating portion U are The inner surface of the second lower solid portion 1120 is fixed. The two longitudinal ends of the heat sink 21 of the heat sink 2 are slid into the two longitudinal grooves 1132 along the longitudinal direction of the two side plates of the accommodating portion u. On the top surface of the heat dissipating plate 21, the two baffles 112 are respectively fixed to the two ends of the two side plates 111 by means of locking screws, and the two ends of the heat radiating plate 21 and the light emitting diode module 3 are provided. The two ends of the lamp cover 50 are fixedly received in the two grooves 1U1 of the two side plates (1). The power drive module 6 is clamped to the top surface of the carrier plate 121 to complete the assembly of the entire LED package. Compared with the prior art, in this embodiment, the distance between the two side plates ill of the accommodating portion i can be adjusted to match the heat radiating plates 21 of different widths, so that the structure of the two side plates U1 is versatile. Compared with the manufacturing cost of the heat dissipation plate 21, the extrusion cost of the two side slabs I11 of the accommodating portion n is relatively high. In this embodiment, the distance between the one side plates 111 is adjusted to match the heat dissipation of different widths. The plate 21 and the required light-emitting diode module 3〇, the hanging portion 12, the lamp cover 50, and the like can obtain a light-emitting diode lamp of different structure. In summary, the present invention has indeed met the requirements of the invention patent, and has filed a patent application according to law. However, the above description is only a preferred embodiment of the present invention, and it is not possible to limit the scope of the patent application in this case. Any equivalent modifications or variations made by those who are familiar with the skill of the present invention in accordance with the spirit of the present invention should be included in the following. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a perspective view of a combination of a light-emitting diode lamp according to an embodiment of the present technical solution. 2 is a perspective view of the inverted LED of the light-emitting diode of FIG. 1 201038861 FIG. 3 is an enlarged cross-sectional view of the light-emitting diode lamp of FIG. [Main component symbol description] Lamp holder 10 accommodating portion 11 Suspension portion 12 Side plate 111 Baffle 112 Upper fixing portion 1110 Lower fixing portion 1120 Connecting portion 1130 Groove 1111 Upper wall 1112 Lower wall 1113 Extension plate 1114 Heat sink 20 Heat sink 21 Heat sink 22 Light-emitting diode module 30 Substrate 31 Light-emitting diode 32 Terminal block 33 Reflective module 40 First reflector 41 Second reflector 42 First-side reflector 43 Second-side reflector 44 Lampshade 50 Carrier board 121 support plate 122 body 122a mating plate 122b power drive module 60 11