M336537 八、新型說明： 【新型所屬之技術領域】 本創作係有關一種LED照明燈，特別是一種可模擬自然光之LED照 明燈。 【先前技術】 隨著生活品質逐漸受到重視的趨勢，愈來愈多人會在家中或辦公室桌 上擺設水闕養魚、養水草，藉以美化室内環境，同時作駐作閒暇之休 閒樂趣。 使用者多會於水補上裝設照具，讀她縣具之照射而使魚 群水草、小石子、飾品、背景能更清晰美麗。習知的水族箱照明燈具係 將曰光燈安裝於燈座内，並於燈座一側設置變壓器等電氣組件。使用時直 接將燈座跨置於水族箱上方，祕由日光燈投射日㈣絲，但由於日紐 所投射之燈光為屬於單-色系，不僅树單調，亦無法製造出自然光的效 果’因此不縣魚類、水草生長活賴需求，導致水顧内所養殖之魚類、 水卓成長、繁殖遲緩，缺乏生命力。 因此，如何改良水族箱照明燈具之結構，使其所發出之光可近似自然 光’以經由独自絲的光_射喊進鱗、水草的生躲動，進而提 升魚群、水草本身色彩的雜度，使其更具觀紐，是—個财容緩的待 解決課題。 【新型内容】 有鑑於此，本創作提出一種可模擬自然光之led照明燈，包含：燈板； 5 M336537 複數白光LED，配置於燈板上；複數藍光LED，配置於燈板上；複數補光 led，配置於燈板上；及控制模組，以複數控制模式控制白光、藍光 LED及補光LED，融合白光LED、藍光LED及補光LED所發出之光而形 成複數種融合光。 本創作亦提出一種可模擬自然光之LED照明燈，包含：燈板；複數白 光LED，配置於燈板上；複數藍光LED，配置於燈板上；及控制模組，以 複數控制模式控制白光LED與藍光LED，融合白光LED與藍光LED所發 出之光而形成複數種融合光。 本創作提供近似不同種類之自然光的融合光，並可依據魚類、水草生 長活動的需求投射合適的融合光，促進魚群活動及增進水草加速光合作 用，並可藉由不同種類之融合光改變魚群、水草本身色彩的鮮豔度，使水 族養殖更具觀賞性。 有關本創作的較佳實施例及其功效，茲配合圖式說明如後。 【實施方式】 請參照第1圖、第2圖及第3圖為本創作之第一實施例，第1圖為結 構方塊圖，第2圖為立體示意圖，第3圖為平面圖。 可模擬自然光之LED照明燈包含：燈板10、複數白光LED 20、複數 藍光LED 30、複數補光LED 40、控制模組50。 燈板10，概呈矩形之印刷電路板（PCB)，並於燈板10上設置有相關 電路及電氣元件。 複數白光LED 20，配置於燈板10上，白光LED 20之發光角度為120 6 M336537 度，且可發出波長介於400 nm〜800 nm的白光，此外，白光LED 20之色 溫為5600K。經由白光led 20模擬日光光譜達到仿真及照明強度，使水中 生物具有類似日光之視覺效果。 複數藍光LED 30，配置於燈板1〇上，藍光LED 3〇之發光角度為12〇 .，度’且可發出波長介於45〇皿1〜55〇11111的藍光。經由藍光1^)30加強全 光譜中56〇〇K之演色及能量強度，並可模擬夜相，且其短波長而達到穿透 深度，此外，柔和的藍色夜光亦可促進水中生物繁殖。 複數補光1^}40，具有透鏡結構（1^)，配置於燈板1〇上，其可為 RGB LED或紅光LED，其中，補光發光二極體33較佳地為紅光LED，紅 光LED之發光角度為60度’且可發出波長介於550 rnn〜650 nm的紅光。 藉由紅光LED之紅光滋潤水中生物，使其在外觀上更加美麗、優雅，甚至 部分水草或特定魚種，在成長或繁殖時必須吸收紅色光譜，否則無法生長 良好或繁延次代，再者，亦可經由紅光LED之紅光達到均勻補色吸收效果。 I 前述之白光LED20之數量為六顆，藍光LED3〇之數量為三顆，補光 LED40之數量為八顆，且複數白光LED2〇、複數藍光LED3〇及複數補光 LED40以間隔方式配置於燈板10上，其中，複數白光LED20、複數藍光 ，LED3〇位於同一直線上，排列順序為白光LED20、藍光LED30、白光 LED20、白光 LED20、藍光 LHD30、白光 LHD20、白光 LED20、藍光 LED30、 白光LED20，複數補光LED40則分別配置於直線之二侧，此外，部分補光 LED40以父錯方式佈設於白光LED20與藍光LED30之間，部分補光LED40 以交錯方式佈設於二個白光LED20之間。 7 M336537 再者，佈設於同一直線上的之複數白光LED20、複數藍光乙扭^如，兩 兩之間的間距為25mm (兩者中心點的間距），位於直線二側之複數補光 LED40之間的垂直間距為26_ (兩者中心點的垂直間距），而位於直線同 側之複數補光LED40之間的間距為50mm (兩者中心點的間距）。 本創作可以真线鏡、真^級、電鍍或鱗鍍等方祕燈板1〇、複 數白光LED 20、複數藍光LED 30、複數補光LED 40之表面上鍍上隔離層， 藉以隔離水族箱内蒸發之水氣直接接觸燈板1〇等元件，避免水氣腐蝕燈板 10等元件而造成損壞。 控制模組50，以複數控制模式控制複數白光LED 2〇、複數藍光LED3〇 及複數補光LED40，融合複數白光LED 20、複數藍光LED 30及複數補光 LED40所發出之光而形成複數種融合光，且不同翻之融合光分別近似於 不同之自然光，並能有效由水族箱之上方投射至水族箱底部。再者，控制 模組50包含驅動單元51與微▲理器52，其中，驅動單元51用以設定複 數白光LED、複數藍光LED及複數補光LED所需的工作職，微處理器 52用以控制驅動單元51驅動複數白光LED 20、複數藍光LED 30及複數 補光LED4G少-者發光，並控他動單元51 _於複健健式之 間。 於刚述之微處理器52可控制驅動單元5丨切換於第一模式、第二模式、 第三模式、第四模#、第五模式及第六模式等六種控纖式，且每一種控 制模式對應一種融合光。 當微處㈣52控獅動單元Μ城於第_模鱗，隨斜間調整複 8 M336537 數白光LED20、複數藍光LED30及複數補光LED40之亮度，且複數白光 LED20、複數藍光LED30及複數補光LED40之亮度隨著時間的改變而呈 線性變化。如藍光LED30在開始時發出約1/3亮度，一小時後遞增至2/3 亮度’並於三小時候遞增至全亮度，此後藍光LED30之亮度則開始逐漸遞 減’於六小時後遞減至2/3亮度，九小時後則遞減至1/3亮度，並於十小時 後停止發光；白光LED20的亮度變化與藍光LED30相同；補光LED40在 開始時發出約1/6亮度，一小時後遞增至1/3亮度，並於三小時候遞增至全 亮度，此後藍光LED30之亮度則開始逐漸遞減，於六小時後遞減至2/3亮 度’並維持相同亮度至九小時後，並於十小時後停止發光，藉此可模擬從 曰出至曰落的日光亮度變化。再者，複數白光LED20、複數藍光LED30 及複數補光LED40之發光時間與亮度可依據四季時序調整。 當驅動單元51於第二模式時，會同時驅動複數白光LED2〇、複數藍 光LED30及複數補光LED40發光，藉此可模擬白天日照的情形；當驅動 單元51於第三模式時，僅會驅動複數白光LED20、複數藍光LED30發光， 而不會驅動複數補光LED40發光，藉此可模擬海水生物（包含無脊椎動 物、鹽度高之淡水生物）所需的光照條件；當驅動單元51於第四模式時， 僅會驅動複數白光LED20、複數補光LED40發光，而不會驅動複數藍光 LED30發光，藉此可模擬淡水生物、淡水水生植物所需的光照條件；當驅 動單元51於第五模式時，僅會驅動複數藍光LED3〇發光，而不會驅動複 數白光LED20、複數補光LED40發光，藉此可模擬夜光照的情形；當驅動 單元51於第六模式時，則會同時停止驅動複數白光LED2〇、複數藍光 9 M336537 LED30及複數補光LED40發光。 請參照第4圖為本創作第二實施例之結構方塊圖。 本創作更可包含切換開關60與記憶體70，其中，切換開關6〇可供使 用者控制驅動單元51切換控制模式，記憶體70儲存驅動單元51所切換之 控制模式，當斷電後重新啟動時，即可由記憶體7〇内讀取驅動單元51於 斷電前之控制模式，並依此控制模式驅動複數白光LED2〇、複數藍光 及複數補光LED40發光。 請參照第5圖為本創作第三實施例之立體示意圖。 本創作更可包含燈座80與跨架81，燈座80底面即可裝置燈板1〇，且 燈座80兩端分別跨架81，藉以跨置於水族箱上。使用者即可經由切換開 關60切換控制模式，以將與控制模式相對應之融合光投射至水族箱。 請參照第6圖與第7圖為本創作第四實施例，第6圖為結構方塊圖， 第7圖為立體示意圖。 本創作之可模擬自然光之LED照明燈亦可僅設置複數白光LED 20與 複數藍光LED 30，而不設置複數補光LED 40。經由控制模組5〇以複數控 制模式控制複數白光LED 20與複數藍光LED30，融合兩者所發出之光而 形成複數種融合光。其中，控制模組5〇之驅動單元51用以設定複數白光 LED與複數藍光LED所需的工作電流，控制模組5〇之微處理器52用以控 制驅動單元51驅動複數白光LED20與複數藍光LED 30之至少一者發光， 並控制驅動單元51切換於複數控制模式之間。 微處理器52可控制驅動單元51切換於第一模式、第二模式、第三模 M336537 式第四核式及第五模式等五種控制模式，且每一種控制模式對應一種融 口光其中，第一模式係隨著時間調整複數白光乙迅^如與複數藍光LED3〇 之冗度，且複數白光LED20與複數藍光LED30之亮度為呈線性變化；第 -模式係啊驅動魏域LED2G與減魏led3g發光；帛三模式係 •，驅動複數白光LED2G發光，而不會驅動複數藍光LED3G發光；第四模式 …係驅動複數藍光LED3〇發光，而不會驅動複數白光LED2〇發光；當第五 模式係同時停止驅動複數白光LED20與複數藍光LED30。 在本實施例中，亦設有切換開關60與記憶體70，切換開關60可供使 用者控制驅動單元51切換控制模式，記憶體7〇儲存驅動單元51所切換之 控制模式，當斷電後重新啟動時，即可由記憶體7〇内讀取驅動單元51於 斷電前之控制模式，並依此控制模式驅動複數白光LED2〇與複數藍光 LED30發光。 本創作以不同控制模式提供近似不同種類之自然光的融合光，並可依 據魚類、水草生長活動的需求投射合適的融合光，促進魚群活動及增進水 草加速光合作用，如使用者可以第一模式模擬從日出至日落的日光亮度變 -化，提供魚類、水草更合適的成長、繁殖環境，並可藉由其他控制模式改 .變魚群、水草本身色彩的鮮齄度，使水族養殖多樣化而更具觀賞性。再者， . 本創作之可模擬自然光之LED照明燈，在照射時並不會產生uv光，因而 長時間照射使用者，亦不會對使用者造成危害。 雖然本創作的技術内容已經以較佳實施例揭露如上，然其並非用以限 定本創作，任何熟習此技藝者，在不脫離本創作之精神所作些許之更動與 11 M336537 潤飾，皆應涵蓋於本創作的範疇内，因此本創作之保護範圍當視後附之申 請專利範圍所界定者為準。M336537 VIII. New description: [New technical field] This creation is about a kind of LED lighting, especially a kind of LED lighting that can simulate natural light. [Prior Art] With the trend of increasing quality of life, more and more people will set up water, fish, and water plants at home or on the office table to beautify the indoor environment and make leisure leisure activities. Most of the users will install the equipment on the water, and read the radiation from her county to make the fish, grass, pebbles, ornaments and background more clear and beautiful. Conventional aquarium lighting fixtures are equipped with a neon light in a lamp holder and an electrical component such as a transformer on the side of the lamp holder. When used, the lamp holder is placed directly above the aquarium, and the fluorescent lamp projects the day (four) wire. However, since the light projected by the Japanese and New Zealand is a single-color system, not only the tree is monotonous, but also the effect of natural light cannot be produced. The growth of fish and aquatic plants in the county has led to the growth of fish, water, and slow growth in the water, which lacks vitality. Therefore, how to improve the structure of the aquarium lighting fixtures, so that the light emitted by the aquarium can be approximated by natural light's light through the filaments of the individual filaments, the growth of the aquatic plants, and the color of the fish and the grass itself. Making it more interesting is a problem that needs to be solved. [New content] In view of this, this creation proposes a led illumination lamp that can simulate natural light, including: light board; 5 M336537 complex white light LED, arranged on the light board; complex blue light LED, arranged on the light board; multiple fill light Led, disposed on the light board; and the control module controls the white light, the blue light LED and the fill light LED in a plurality of control modes, and combines the light emitted by the white light LED, the blue light LED and the fill light LED to form a plurality of fused lights. The present invention also proposes an LED illumination lamp capable of simulating natural light, comprising: a light panel; a plurality of white LEDs disposed on the light panel; a plurality of blue LEDs disposed on the light panel; and a control module for controlling the white LEDs in a plurality of control modes With the blue LED, the light emitted by the white LED and the blue LED is combined to form a plurality of fused lights. This creation provides condensed light of approximately different types of natural light, and can project suitable fused light according to the needs of fish and aquatic growth activities, promote fish activity and enhance water photosynthesis, and change fish by different types of fused light. The vividness of the color of the water grass makes the aquaculture more ornamental. The preferred embodiment of the present invention and its effects are described below in conjunction with the drawings. [Embodiment] Please refer to Fig. 1, Fig. 2, and Fig. 3 for a first embodiment of the present invention. Fig. 1 is a block diagram of the structure, Fig. 2 is a perspective view, and Fig. 3 is a plan view. The LED illumination lamp capable of simulating natural light comprises: a light board 10, a plurality of white light LEDs 20, a plurality of blue light LEDs 30, a plurality of complementary light LEDs 40, and a control module 50. The light panel 10 is a rectangular printed circuit board (PCB), and the associated circuit and electrical components are disposed on the light board 10. The plurality of white LEDs 20 are disposed on the light panel 10. The white LEDs 20 have an illumination angle of 120 6 M336537 degrees and emit white light having a wavelength between 400 nm and 800 nm. In addition, the white LED 20 has a color temperature of 5600 K. Simulate and illuminate the intensity through the white light led 20 analog daylight spectrum, giving the aquatic creatures a sun-like visual effect. The plurality of blue LEDs 30 are disposed on the light panel 1 ,, and the blue LEDs 3 发光 have an illumination angle of 12 〇 , and emit blue light having a wavelength of 45 1 1 to 55 〇 11111. Enhance the color and energy intensity of 56〇〇K in the whole spectrum via blue light 1^)30, and simulate the night phase, and its short wavelength to reach the penetration depth. In addition, the soft blue luminous light can promote the biological reproduction in water. The plurality of fill light 1^}40 has a lens structure (1^) disposed on the light panel 1〇, which may be an RGB LED or a red LED, wherein the fill light emitting diode 33 is preferably a red LED The red LED has an illumination angle of 60 degrees and emits red light with a wavelength between 550 rnn and 650 nm. The red light of red LEDs moisturizes aquatic organisms, making them more beautiful and elegant in appearance. Even some aquatic plants or specific fish species must absorb red spectrum when growing or breeding, otherwise they will not grow well or prolong the second generation. The red light of the red LED can also achieve a uniform complementary color absorption effect. I The number of white LEDs 20 is six, the number of blue LEDs is three, the number of fill LEDs is eight, and the plurality of white LEDs, the plurality of blue LEDs, and the plurality of complementary LEDs 40 are arranged at intervals in the light. On the board 10, a plurality of white LEDs 20, a plurality of blue lights, and LEDs 3 are located on the same straight line, and the order is white LED 20, blue LED 30, white LED 20, white LED 20, blue light LHD 30, white light LHD 20, white LED 20, blue LED 30, white LED 20, The plurality of fill LEDs 40 are disposed on the two sides of the straight line. In addition, the partial fill LEDs 40 are disposed between the white LEDs 20 and the blue LEDs 30 in a parent-to-error manner, and the partial fill LEDs 40 are interleaved between the two white LEDs 20 in a staggered manner. 7 M336537 Furthermore, the plurality of white LEDs 20 and the complex blue LEDs arranged on the same line have a pitch of 25 mm (the distance between the center points), and the plurality of fill LEDs 40 on the two sides of the line The vertical spacing between the two is 26_ (the vertical spacing between the center points), and the spacing between the plurality of fill LEDs 40 on the same side of the line is 50 mm (the spacing between the center points). The creation can be a true line mirror, a true level, a plating or a scale plating, such as a square light board, a plurality of white LEDs 20, a plurality of blue LEDs 30, and a plurality of fill light LEDs 40 are coated with a separation layer to isolate the aquarium The water vapor evaporated inside directly contacts the components such as the lamp board, and prevents the water vapor from corroding the components such as the lamp board 10 and causing damage. The control module 50 controls the plurality of white LEDs 2〇, the plurality of blue LEDs 3〇 and the plurality of complementary LEDs 40 in a plurality of control modes, and combines the light emitted by the plurality of white LEDs 20, the plurality of blue LEDs 30 and the plurality of complementary LEDs 40 to form a plurality of fusions. The light, and the different fused light, are similar to different natural light, and can be effectively projected from the top of the aquarium to the bottom of the aquarium. In addition, the control module 50 includes a driving unit 51 and a micro-tool 52. The driving unit 51 is used to set a plurality of white LEDs, a plurality of blue LEDs, and a plurality of complementary LEDs. The control driving unit 51 drives the plurality of white LEDs 20, the plurality of blue LEDs 30, and the plurality of complementary LEDs 4G to emit light, and controls the other units 51 to be between the rehabilitation modules. The microprocessor 52 just described can control the driving unit 5 to switch to the six modes of the first mode, the second mode, the third mode, the fourth mode #, the fifth mode, and the sixth mode, and each The control mode corresponds to a fused light. When the micro (4) 52 control lion unit is in the _ model scale, adjust the brightness of the 8 M336537 white LED 20, the complex blue LED 30 and the complex fill LED 40, and the multiple white LED 20, the complex blue LED 30 and the multiple fill light The brightness of the LED 40 varies linearly with time. For example, the blue LED 30 emits about 1/3 brightness at the beginning, and increases to 2/3 brightness after one hour and increases to full brightness at three hours, after which the brightness of the blue LED 30 begins to gradually decrease 'decrement to 2/ after six hours. 3 brightness, after nine hours, it is reduced to 1/3 brightness, and stops emitting after ten hours; the brightness change of white LED 20 is the same as that of blue LED 30; fill light LED 40 emits about 1/6 brightness at the beginning, and increases to one hour later. 1/3 brightness, and increased to full brightness at three hours, after which the brightness of the blue LED 30 begins to gradually decrease, decrement to 2/3 brightness after six hours' and maintains the same brightness to nine hours, and stops after ten hours. Illumination, which simulates the change in brightness of the daylight from the exit to the fall. Furthermore, the illumination time and brightness of the plurality of white LEDs 20, the plurality of blue LEDs 30, and the plurality of complementary LEDs 40 can be adjusted according to the seasons. When the driving unit 51 is in the second mode, the plurality of white LEDs 2, the plurality of blue LEDs 30, and the plurality of complementary LEDs 40 are simultaneously driven to emit light, thereby simulating the daytime sunshine; when the driving unit 51 is in the third mode, only the driving is performed. The plurality of white LEDs 20 and the plurality of blue LEDs 30 emit light, and do not drive the plurality of fill LEDs to emit light, thereby simulating the illumination conditions required for seawater organisms (including invertebrates, high salinity freshwater organisms); when the drive unit 51 In the four mode, only the plurality of white LEDs 20 and the plurality of complementary LEDs 40 are driven to emit light, and the plurality of blue LEDs 30 are not driven to emit light, thereby simulating the illumination conditions required for freshwater organisms and freshwater aquatic plants; when the driving unit 51 is in the fifth mode At the same time, only the plurality of blue LEDs 3 〇 are driven to emit light, and the plurality of white LEDs 20 and the plurality of complementary LEDs 40 are not driven to emit light, thereby simulating the night illumination; when the driving unit 51 is in the sixth mode, the driving plural is stopped at the same time. White LED2〇, complex blue 9 M336537 LED30 and multiple fill LED40 light. Please refer to FIG. 4 for a block diagram of the second embodiment of the present invention. The creation may further include a switch 60 and a memory 70, wherein the switch 6 is for the user to control the drive unit 51 to switch the control mode, and the memory 70 stores the control mode switched by the drive unit 51, and restarts when the power is turned off. At this time, the control mode of the driving unit 51 before the power-off is read from the memory 7 ,, and the plurality of white LEDs 2 复, the plurality of blue lights, and the plurality of complementary light LEDs 40 are driven according to the control mode. Please refer to FIG. 5 for a perspective view of a third embodiment of the present invention. The creation can further include a lamp holder 80 and a cross frame 81. The bottom surface of the lamp holder 80 can be used to install the light board 1〇, and the two ends of the lamp holder 80 respectively span the frame 81 so as to straddle the aquarium. The user can switch the control mode via the switch switch 60 to project the fused light corresponding to the control mode to the aquarium. Please refer to FIG. 6 and FIG. 7 for the fourth embodiment of the present invention. FIG. 6 is a structural block diagram, and FIG. 7 is a perspective view. The LED lighting of the present invention which can simulate natural light can also set only a plurality of white LEDs 20 and a plurality of blue LEDs 30 without setting a plurality of complementary LEDs 40. The plurality of white LEDs 20 and the plurality of blue LEDs 30 are controlled in a complex numerical control mode via the control module 5, and the light emitted by the two is combined to form a plurality of fused lights. The driving unit 51 of the control module 5 is configured to set the working current required by the plurality of white LEDs and the plurality of blue LEDs, and the microprocessor 52 of the control module 5 is configured to control the driving unit 51 to drive the plurality of white LEDs 20 and the plurality of blue lights. At least one of the LEDs 30 emits light, and the control drive unit 51 switches between the complex control modes. The microprocessor 52 can control the driving unit 51 to switch to the first mode, the second mode, the third mode M336537, the fourth core mode and the fifth mode, and each of the five control modes, and each of the control modes corresponds to a fuse light. The first mode is to adjust the redundancy of the complex white light and the complex blue light LED3 with time, and the brightness of the plurality of white LEDs 20 and the complex blue LEDs 30 are linearly changed; the first mode is to drive the Wei domain LED 2G and reduce the Wei Led3g illuminates; 帛3 mode system•, drives multiple white LED2G illumination, but does not drive multiple blue LED3G illumination; the fourth mode... drives multiple blue LED3〇 illumination, but does not drive multiple white LED2〇 illumination; when the fifth mode At the same time, the driving of the plurality of white LEDs 20 and the plurality of blue LEDs 30 are stopped. In this embodiment, the switch 60 and the memory 70 are also provided. The switch 60 can be used by the user to control the drive unit 51 to switch the control mode, and the memory 7 〇 stores the control mode switched by the drive unit 51. When restarting, the control mode of the driving unit 51 before the power-off is read from the memory 7〇, and the plurality of white LEDs 2 and the plurality of blue LEDs 30 are driven to emit light according to the control mode. This creation provides different types of natural light fusion light with different control modes, and can project suitable fusion light according to the needs of fish and aquatic growth activities, promote fish activity and enhance aquatic grass to accelerate photosynthesis. For example, users can simulate in the first mode. The brightness of sunlight from sunrise to sunset is changed, providing a more suitable growth and breeding environment for fish and aquatic plants, and the aquaculture can be diversified by changing the color of the fish and the color of the grass itself by other control modes. More ornamental. Furthermore, the LED lighting that simulates natural light in this creation does not generate uv light when it is illuminated, so it will not cause harm to the user if it is irradiated to the user for a long time. While the technical content of the present invention has been disclosed above in the preferred embodiments, it is not intended to limit the present invention, and any person skilled in the art will be able to make some modifications and 11 M336537 retouching without departing from the spirit of the present invention. Within the scope of this creation, the scope of protection of this creation is subject to the definition of the scope of the patent application.
12 M336537 【圖式簡單說明】 第1圖為本創作第一實施例之LED照明燈的結構方塊圖。 第2圖為本創作第一實施例之LED照明燈的立體示意圖。 第3圖為本創作第一實施例之LED照明燈的平面圖。 第4圖為本創作第二實施例之LED照明燈的結構方塊圖。 第5圖為本創作第三實施例之LED照明燈的立體示意圖。 第6圖為本創作第四實施例之LED照明燈的結構方塊圖。 第7圖為本創作第四實施例之LED照明燈的立體示意圖。 【主要元件符號說明】 10..............燈板12 M336537 [Simple description of the drawing] Fig. 1 is a block diagram showing the structure of the LED lighting lamp of the first embodiment. Fig. 2 is a perspective view showing the LED lighting lamp of the first embodiment of the present invention. Fig. 3 is a plan view showing the LED lighting lamp of the first embodiment of the present invention. Fig. 4 is a block diagram showing the structure of the LED lighting lamp of the second embodiment of the present invention. Fig. 5 is a perspective view showing the LED lighting lamp of the third embodiment of the present invention. Fig. 6 is a block diagram showing the structure of an LED illumination lamp according to a fourth embodiment of the present invention. Fig. 7 is a perspective view showing the LED lighting lamp of the fourth embodiment of the present invention. [Main component symbol description] 10..............light board
20..............白光LED20...................white LED
30..............藍光 LED30..............Blue LED
40 · .............補光LED 50 .......... · · ••控制模組 51 ..............驅動單元 52 ..............微處理器 60..............切換開關 70..............記憶體 80 ..............燈座 81 ..............跨架 1340 · ............. Filling LED 50 .......... · ·••Control Module 51 ............. .Drive unit 52 ..............Microprocessor 60..............Toggle switch 70........... ...memory 80 ..............lamp holder 81 ..............span 13