201007055 六、發明說明： 【發明所屬之技術領域】 本發明係關 本發明通常係關於照明領域。更具體十之 於一種照明系統，其具有複數個光源單元，每一光源單元 包括具智能之一專屬控制器’及具有發出命令信號至光源 單元之一中央控制器，該系統能夠產生可變色彩之光。 【先前技術】 通常已知用於產生-可變色彩之光的照明單元(舉例而 言）諸如照明一空間。圖1示意性地繪示已知設計之一照明 單元100,其包括一光源1〇2、用於驅動光源1〇2之一驅動 器101，及用於控制該驅動器101之一本端控制器11〇。亦 可整合該控制器110及驅動器101。該光源1〇2能夠產生在 -色彩空間内具可變色彩之光。在一典型實例中，該光源 包括複數個單色光單元，每一單色光單元發出具有一特定 色彩之光，且不同光單元之各自色彩係相互不同的。於 是，由光源產生之全部之光整體係由若干單色光單元發出 之光之一混合體。藉由改變不同單色光單元之相對強度， 可改變整個光混合體之色彩。單色光單元可為不同類型， (舉例而言）諸如TL燈、鹵素燈、LED等。 由於用於產生可變色彩之光之系統本身係已知的’所以 本文忽略其設計及功能之一更詳細描述及解釋。但是，下 文評述。在光源包括複數個單色光單元之情況中，有可能 產生相同色彩之光單元，以增加（若需要）此色彩之強度。 進一步可能每一控制器100可控制兩個或兩個以上驅動 140574.doc 201007055 器。 舉例而言’變化照明色彩係使用於家庭、餐館、會議 室、街道等’以建立一具有舒適色彩之氛圍，或諸如使用 於商店等以建立經調適以展示產品色彩之照明。選擇之色 - 彩可為固定的，但是為了使觀看者達到某一愉悅、感.興趣 及/或藝術印象，可變化色彩。 在照明一相對大之空間的情況中，需要相對大量之光 馨 源。此可藉由具有用於控制複數個驅動器/光源組合之一 控制器來實施，但是此類解決方案具有缺點。如果藉甴控 制佈線耦合驅動器至控制器，則此等佈線及佈線安裝係相 當昂責的。如果藉由一無線通信網路耦合驅動器至控制 器，則可預期到關於可靠性之問題，諸如由信號干擾、較 差的接收、資料碰撞等引起的問題，及鄰近系統彼此予擾 的潛在問題。此外，如果使用電池供電型中繼器節點，則 極度的資料訊務可能很快耗盡電池。 • 圖1中繪示一種避免或至少減少此等問題之系統設汁。 該圖緣示-種照明系統！，該照明系統i包括經由一通信網 路3搞合至一中央㈣器2之複數個照明單元1〇〇。該通信 . 網路3可為有線的，但宜係無線的，諸如射頻（RF)、zigbee ·#。每-照明單woo具有如上文描述之—設計，立包含 其本端控制器m;馨於每—照明單元刚具有由其專屬本 端控制器110體現之其自身智能的事實，此特徵被指承為 「分散式智能」。每一控制器100具備一分析藍本記憶體 ⑴，用於儲存定義-色彩分析藍本之⑽，該色彩分析 140574.doc 201007055 藍本通常意謂著作為—時間函數的色彩及強度。 熟悉此項技術者應清楚’可藉由在一色彩空間中之一色 點之座標來表示光之色彩。在該表示下，改變—色彩對應 於在色办工間中從一色點至另一色點之一位移或該系統之 色之„又定之-位移。此外，一序列色彩對應於色彩空間 中之色點之-集合’該集合被指示為—色彩路徑。動態地 改變色彩則可被指示為「行進」該路徑。更一般而言，動 態地改變照明之色彩可被指示為「巡覽」遍及該色彩空 間。色彩分析藍本可被定義為連續之色點之集合，但也可 定義為描述與綠出強度組合及與行進速度組合之一函 數，該行進速度可為怪定的，但也可取決於沿著路徑之位 置。最好（但非必要地）按照色調^1、飽和度8、亮度B來定 義色彩空間。 系統1能夠以兩種操作模式操作。一第一模式被指示為 教導/學習模式。在教導/學習模式中，中央控制器2傳達定 義色彩分析藍本之資料至多種照明單元m之個別本端控 制器110 ’且本端控制器n 〇儲存此等資料至其等相關之分 析藍本記憶體111中。廊汴音沾a Τ應/主葸的疋，可能所有色彩分析藍 本係相同但也可能不同的本端控制器ιι〇接收不同的 色彩分析藍本。應進一步注意的是，巾央控制器2可從— 使用者介面m接收關於色彩分析藍本之指令，該m可為任 何適合類型之使用者介面。 一第二模式可被指示為執行模式。在執行模式尹，每一 本端控制器U0可獨立於所有其他本端控制器而自主地操 140574.doc -6 - 201007055 作，以控制其相關聯之驅動器101(諸如）藉由自其相關聯分 析藍本記憶體U1讀取資料以執行儲存於該記憶體1U中之 色彩分析藍本》 因此，經由通信網路3之資料訊務係基本上侷限於教導/ 、 $習模式。在此情況中’資料速度幾乎不成為一問題，且 .巾央控制器可以一相對低的資料速率與本端控制器通信。 如果發生資料錯誤，則有用於偵測及校正該等錯誤之協 _ 定。可預.先良好地完成載入分析藍本資料至單元1〇〇令。 另一方面，在執行模式中，執行所要分析藍本非取決於經 由通信網路3之資料訊務。 美國專利US-20〇5/0.275.626號揭示一種照明系統，該照 明系統具有複數個照明單元，每一照明單元包括一本端控 制器及一記憶體，並且該照明系統進一步具有一或多個中 央控制器。一旦接收某一命令信號，本端控制器在其記憶 體中之資訊基礎上控制其相關聯之光源。 • 美國專利US-2〇〇6/0.132.065號揭示一種照明系統，該照 明系統具有複數個照明單元，每一照明單元包括一本端控 制器及一記憶體，並且該照明系統進一步具有一主控制 器。該記憶體包括至少一指令檔，舉例而言，定義在一預 ^時間間隔内從1〇〇%至〇%之一調光一旦接收—調光命 令，控制器選擇相對應之指令檔及在預定時間間隔期間自 主穩定地將相關之光源調光。 【發明内容】 揭示於該等文件中之系統可適合於自一中央位置控制大 140574.doc 201007055201007055 VI. DESCRIPTION OF THE INVENTION: TECHNICAL FIELD OF THE INVENTION The present invention relates generally to the field of illumination. More specifically, a lighting system has a plurality of light source units, each light source unit includes a smart controller and a central controller having a command signal to the light source unit, the system capable of generating variable colors Light. [Prior Art] A lighting unit (for example) for generating a light of a variable color is generally known, such as a lighting space. FIG. 1 schematically illustrates a lighting unit 100 of a known design, comprising a light source 1 〇 2, a driver 101 for driving the light source 1 , 2, and a local controller 11 for controlling the driver 101 Hey. The controller 110 and the driver 101 can also be integrated. The light source 1〇2 is capable of producing light of a variable color in the -color space. In a typical example, the light source includes a plurality of monochromatic light units, each of which emits light having a particular color, and the respective color units of the different light units are different from each other. Thus, all of the light produced by the light source is a mixture of light emitted by a plurality of monochromatic light units as a whole. The color of the entire light mixture can be changed by changing the relative intensities of the different monochromatic light units. The monochromatic light units can be of different types, such as, for example, TL lamps, halogen lamps, LEDs, and the like. Since the system for generating variable color light is known per se, a more detailed description and explanation of its design and function is omitted herein. However, the following comments. In the case where the light source comprises a plurality of monochromatic light units, it is possible to produce light units of the same color to increase (if desired) the intensity of the color. It is further possible that each controller 100 can control two or more drives 140574.doc 201007055. For example, 'changing lighting colors are used in homes, restaurants, conference rooms, streets, etc.' to create a comfy atmosphere, or for use in shops, etc., to create lighting that is adapted to show the color of the product. The color of choice - the color can be fixed, but the color can be changed in order for the viewer to achieve a certain pleasure, feeling, interest and/or artistic impression. In the case of a relatively large space for illumination, a relatively large amount of light source is required. This can be implemented by having a controller for controlling a plurality of driver/light source combinations, but such solutions have disadvantages. If you use the control to route the coupling drive to the controller, these wiring and wiring installations are highly responsible. If the driver is coupled to the controller via a wireless communication network, problems with regard to reliability, such as problems caused by signal interference, poor reception, data collisions, and the like, and potential problems of mutual interference of adjacent systems can be expected. In addition, if you use a battery-powered repeater node, extreme data traffic can quickly drain the battery. • A system design that avoids or at least reduces these problems is illustrated in FIG. The picture shows the kind of lighting system! The lighting system i comprises a plurality of lighting units 1 that are coupled to a central unit 4 via a communication network 3. The communication. Network 3 can be wired, but should be wireless, such as radio frequency (RF), zigbee · #. Each-lighting single woo has a design as described above, including its own end controller m; the fact that each lighting unit has its own intelligence embodied by its exclusive local controller 110, this feature is referred to It is "distributed intelligence." Each controller 100 is provided with an analysis blueprint memory (1) for storing a definition-color analysis blueprint (10). The color analysis 140574.doc 201007055 The blueprint generally means the color and intensity of the work as a time function. Those skilled in the art should be aware that the color of light can be represented by the coordinates of one of the color points in a color space. In this representation, the change-color corresponds to the displacement from one color point to another in the color office or the color of the system. In addition, a sequence of colors corresponds to the color in the color space. The point-set 'the set is indicated as a color path. Dynamically changing the color can be indicated as "traveling" the path. More generally, dynamically changing the color of the illumination can be indicated as "touring" throughout the color space. A color analysis blueprint can be defined as a collection of consecutive color points, but can also be defined as a function of a combination of description and green output intensity and a combination of travel speeds, which can be weird, but can also depend on The location of the path. Preferably, but not necessarily, the color space is defined by hue ^1, saturation 8, and brightness B. System 1 is capable of operating in two modes of operation. A first mode is indicated as a teaching/learning mode. In the teaching/learning mode, the central controller 2 communicates the data defining the color analysis blueprint to the individual local controllers 110' of the plurality of lighting units m and the local controller n stores the data to its associated analytical blueprint memory. In body 111. The corridor sounds a Τ / / main 疋 疋 可能 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋It should be further noted that the towel controller 2 can receive instructions from the user interface m regarding the color analysis template, which can be any suitable type of user interface. A second mode can be indicated as an execution mode. In the execution mode Yin, each local controller U0 can independently operate 140574.doc -6 - 201007055 independently of all other local controllers to control its associated driver 101 (such as) by its own The blueprint memory U1 reads the data to execute the color analysis blueprint stored in the memory 1U. Therefore, the data communication system via the communication network 3 is basically limited to the teaching/study mode. In this case, the data speed is hardly a problem, and the controller can communicate with the local controller at a relatively low data rate. If a data error occurs, there is a agreement to detect and correct the errors. It is possible to pre-complete the loading analysis blueprint data to the unit 1 command. On the other hand, in the execution mode, the execution of the blueprint to be analyzed is not dependent on the data traffic via the communication network 3. US Patent No. US-A-5/0.275.626 discloses an illumination system having a plurality of illumination units, each illumination unit including a local end controller and a memory, and the illumination system further has one or more Central controller. Upon receiving a command signal, the local controller controls its associated light source based on the information in its memory. • U.S. Patent No. 2/6/32,065 discloses an illumination system having a plurality of illumination units, each illumination unit including a local end controller and a memory, and the illumination system further having a main controller. The memory includes at least one command file, for example, defining one dimming from 1% to 〇% in a pre-interval interval. Once the receiving-dimming command is received, the controller selects the corresponding command file and The associated light source is dimmed autonomously during the predetermined time interval. SUMMARY OF THE INVENTION The system disclosed in these documents can be adapted to control a large central location 140574.doc 201007055
光源集合之中的個別光源，且該系統是有用的。但是，當 認為光源應以一調和且協調的方式協作時，會發生問題。 假設-街道由數百光源之一系統照亮，每一光㈣有储 存於其記憶體中之相同的分析藍本，定義在色彩空間中持 續行進之-封閉路徑，因此（舉例而言）連續地產生藍色'綠 色-黃色-撥色-紅色_紫色-藍色。每一本端控制器使用基於 其内部時脈信號之時序資訊來行進經定義之色彩路徑。此 等内部時脈從不完美地相互—致，如此，—段時間後，產 生之光效衫再協調。舉例來而言，甚至可能在認為兩個 光源應產生黃色之時刻，—光源產生紅色光，❿„另_ 光源產生綠色光。如果指令檔或分析藍本僅關於一相對有 限之時間間隔’則此等問題幾乎*會被注意，但在延長時 間之後卻無法接受。美國專利购_/G⑴侧號描述每 一光源應具有一即時時脈，但此會增加成本。 本發明之一目的係解決或至少減少該等問題。Individual light sources among the set of light sources, and the system is useful. However, problems arise when it is believed that the light sources should collaborate in a coordinated and coordinated manner. Assume that the street is illuminated by one of several hundred light sources, each light (four) having the same analysis blueprint stored in its memory, defining a closed path that continues to travel in the color space, thus (for example) continuously Produces blue 'green-yellow-pick-red-red_purple-blue. Each local controller uses timing information based on its internal clock signal to travel through the defined color path. These internal clocks have never been perfectly matched to each other, so, after a period of time, the resulting light-effect shirts are reconciled. For example, it may even be that at the moment when the two light sources should produce yellow, the light source produces red light, and the other light source produces green light. If the command file or analysis blueprint is only for a relatively limited time interval, then this The problem is almost * will be noticed, but it is unacceptable after an extended period of time. The US Patent Purchase _/G(1) side number describes that each light source should have an instant clock, but this will increase the cost. One of the objects of the present invention is to solve or At least reduce these problems.
根據本發月认β十中央控制器以在執行模式期間經由通 ㈣路定_㈣步錢，及賴於接收—同步信號而設 十本端控制n以〇需要）調適其光源之控制信號的時序。 在附屬技術方案中提及進一步有利的闡述。 【實施方式】 圖2不意性地緣不用於閣釋根據本發明之系統i之操作的 興：序圖。該圖繪不在—第一時間間隔該系統係在教導/ 予習模式’在此模式期間資料訊務21從中央控制器 至照明單元⑽之本端控制器削，用以儲存一色彩分析藍 140574.doc -8 - 201007055 本至各自記憶體111中。 之數位編碼實施此開始信號 在第-時間間隔後’該系統可在一等待模式t，在此模 式期間’光源102係非作用中或靜止，及本端控制器削正 等待來自中央控制器2之-開始信號22，可藉由任何合適 開始信號22指示執行模式之開始。一旦收到開始信號 22 ’照明單元卿之本端控制始執行儲存於盆等各 自記憶體⑴中之色彩分析藍本。重複地，中央控制器增 輪同步信號23。此等同步信號23可為以㈣時間間隔（舉 例而言，每秒-次）傳輸之簡單脈衝，然而應注意的是， 此等時間間隔之定期性不是必要項。或者，同步信號听 為含有時間資訊之更詳盡之信號。 每一本端控制器110具備一本端時脈裝置122，其在接收 來自一本端系統時脈121(見圖υ之信號基礎上操;。本端 控制器UO在來自其本端時脈裝置122之時序信號st基礎上 计算分析藍本執行之次數。隨著時間之推移，在本端時脈 裝置m代表之時間與其他照明單元⑽之其他本 Μ表之時間之間可發展由不同本端系統時脈之不準確性 及谷命度引起之一偏差’致使不同分析藍本將非同步地執 仃。此被阻止，因為每一本端控制器11〇一旦 號23則發送—命令錢w其對應之本料 用以調適此時脈裝置122之時序。 此’在執行模式期間，通信網路上僅有非常少的 讯務，致使並不預期到資料碰撞及類似之問題。 . 140574.doc 201007055 在—實務實例中，對於包括_ 定羞且古 ^ w…明早兀之—糸統， 、 00秒0小時）之一持續時間之色彩分析藍本。 假設此分析藍本由中央 央規疋為即時。假設藉由定義每時間 讯框三個位元組色彩 ^Γθ1 巴心貢Λ (RGB或HSB)而將分析藍本之 續時間細分為⑽毫秒（或其他合適持續時間）之連續時間訊 框。在每-時間訊框期間，此等三個位元組定義 框期間保持恆定之$ #。# π B + ° 疋之色形對於即時信號傳輸，需要藉由中 央控制器經由通信網路傳輸3_個位元組/秒。 根據本發明，3_秒之分析藍本持續時間可被細分為 1〇〇〇個時間間隔’每一時間間隔為36個時間訊框。在每一 時間間隔中，定義三種色彩函數，—種色彩函數係色調， -種色彩函數係飽和度，及一種色彩函數係亮度。在對應 時間間隔期間接近於對應色指數(H、s、Β)之定時顯像 (tnne devel〇pment)的每—色彩函數由6個位元組定義，一 個位7L組定義振幅及五個位元組定義一多項式之係數。如 此，母時間間隔必須發送1 8個位元組。對於】〇〇〇個時間間 隔及100個照明單元，必須發送i 8〇〇 〇〇〇個位元組。假設 需以如上文之3000個位元組/秒之一傳輸速率，傳輸時間 需要600秒（1〇分鐘），亦即教導/學習模式需要1〇分鐘（且可 能某種程度需要更長的時間用於資料校正）。 假6又本系統時脈具有〇. 5 %之一誤差：無同步，則不同 分析藍本在一小時後相對應於彼此可具有丨8秒之一延遲。 應注意的是，使用愈高精度之時脈，實質上又需要愈高之 成本。假設1 00毫秒之一最大延遲（相對應於一時間訊框）係 140574.doc 201007055 此相對應於一 20秒之運動時間。如此，在執行 中央控制器僅需要每2 〇秒發送一同步位元組， 可忽略之資料訊務。 本系統提供一種具分散式智能之照明系統According to the present disclosure, the beta ten central controller is configured to adjust the control signal of the light source through the pass (four) way _ (four) step during the execution mode and the ten end control n according to the receive-synchronization signal. Timing. Further advantageous explanations are mentioned in the subsidiary technical solution. [Embodiment] FIG. 2 is not intended to be used for explaining the operation of the system i according to the present invention: a sequence diagram. The drawing is not in the first time interval. The system is in the teaching/preparation mode. During this mode, the data message 21 is cut from the central controller to the local controller of the lighting unit (10) for storing a color analysis blue 140574. Doc -8 - 201007055 This is in the respective memory 111. The digital code implements this start signal after the first time interval. The system can be in a standby mode t during which the light source 102 is inactive or stationary, and the local controller is corrected to wait from the central controller 2 The start signal 22 can indicate the beginning of the execution mode by any suitable start signal 22. Once the start signal is received 22', the local control of the illumination unit begins to execute the color analysis blueprint stored in each of the memory (1) such as the basin. Repeatedly, the central controller increments the synchronization signal 23. These synchronization signals 23 may be simple pulses transmitted at (iv) time intervals (for example, per second - times), however it should be noted that the periodicity of such time intervals is not a requirement. Alternatively, the sync signal is heard as a more detailed signal containing time information. Each local controller 110 is provided with a local clock device 122, which receives the signal from a local system clock 121 (see Fig. υ based on the signal; the local controller UO is at its local clock) The number of times the analysis blueprint is executed is calculated based on the timing signal st of the device 122. Over time, between the time represented by the local clock device m and the time of other local illumination units (10) can be developed differently. One of the inaccuracies caused by the inaccuracy of the end system clock and the fate of the valley's cause the different analysis blueprints to be executed asynchronously. This is blocked because each local controller 11 is sent once the number 23 is sent - the command money w The corresponding material is used to adjust the timing of the time-of-flight device 122. This 'during the execution mode, there are only very few traffic on the communication network, so that data collision and the like are not expected. 140574. Doc 201007055 In the practice example, a color analysis blueprint for one of the durations including _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ Assume that this analysis blueprint is instantaneous by the central government. Suppose that the continuation time of the analysis template is subdivided into consecutive time frames of (10) milliseconds (or other suitable duration) by defining three byte colores per time frame ^ Γ θ1 RGB or HSB. During the per-time frame, these three bytes define a constant $# during the frame period. # π B + ° The color form of the 对于 for instant signal transmission needs to be transmitted by the central controller via the communication network for 3_bits/sec. According to the present invention, the analysis blueprint duration of 3_sec can be subdivided into 1 time interval 'each time interval is 36 time frames. In each time interval, three color functions are defined, a color function tone, a color function saturation, and a color function brightness. The per-color function of the timing development (tnne devel〇pment) close to the corresponding color index (H, s, Β) during the corresponding time interval is defined by 6 bytes, and a bit 7L group defines the amplitude and five bits. A tuple defines the coefficient of a polynomial. Thus, the parent time interval must send 1 8 bytes. For each time interval and 100 lighting units, i 8〇〇 位 bytes must be sent. Suppose you need to transfer at a rate of 3,000 bytes/sec as above, and the transmission time takes 600 seconds (1 〇 minutes), which means that the teaching/learning mode takes 1 minute (and may take some time longer) Used for data correction). False 6 and the system clock has 〇. 5 % one error: no synchronization, then the analysis blueprints corresponding to each other may have a delay of 8 seconds after one hour. It should be noted that the higher the accuracy of the clock, the higher the cost is actually required. Assume that one of the maximum delays of 1 00 milliseconds (corresponding to a time frame) is 140574.doc 201007055 This corresponds to a 20 second exercise time. In this way, the execution of the central controller only needs to send a synchronization byte every 2 seconds, which can ignore the data traffic. The system provides a decentralized intelligent lighting system
•、複數個照明單元刚，每一照明單元包括一可變色彩 ^原102、一光源驅動器1〇1、控制該驅動器之一本端控 制^1〇、—本端時脈裝置122及—分析藍本記憶體111 ; 令央控制益2，其經由一通信網路3與該本制器 通信。 ◊ ^ S導/學習模式操作時，該中央控制器傳輸定義 A析本之資料21 ’及該本端控制器儲存此等資料至 其等相關之分析藍本記憶體中。 “以一執行模式操作時： 每本端控制器自主地操作，以在該本端時脈裝置之• a plurality of lighting units, each lighting unit includes a variable color source 102, a light source driver 1〇1, one of the driver controls, a local control device, a local clock device 122, and an analysis The blueprint memory 111; the central control device 2, which communicates with the local device via a communication network 3. ◊ ^ S-guide/learn mode operation, the central controller transmits the data A of the definition A and the local controller stores the data into its associated analysis blueprint memory. "When operating in an execution mode: Each local controller operates autonomously to the local clock device
可接受的： 模式期間， 此總計為— 概括而言 其包括： 時序控制下’執行儲存於其相關之分析藍本記憶體中之該 色彩分析藍本； -該中央控制器傳輸同步信號23; -該等個別本端控制器回應於接收一同步信號而調適其 等控制信號之時序用於對應之光源驅動器。 本發月已地繪示及描述於圖式及上文之描述中，但 熟悉此項技術者應清楚此等繪示及描述被認為係繪示性或 例示陡且並不係約束性。本發明並不限於揭示之實施例； 甚者，-些變動及修改可在如附加之巾請專利範圍中定義 140574.doc -11- 201007055 之本發明的保護性範圍内。 舉例而言，應注意的是，就關於相同之分析藍本一 ，行模式及教導/學習模式通常在時間上係分離的。但 是，當執行一分析藍本時，可接收關於_下個分析藍— (教導/學習模式）資料。進一步可在教導/學習模式期間^ 輸定義複數個分析藍本之資料，及在執行模式期間，中央 控制器能夠傳輸不同開始信號用以開始不同分析誃本。、 儘管以删空収義色㈣、最合適的，但本發^並不約 束於僅使用HSB空間。同樣，亦可用定義為查詢表或時門 函數之分析藍本實施本發明。此外，可設計一本端控制器 以在刪資料基礎上控制其光源，可在預定之公式基礎上 或在預定之查詢表基礎上，從刪值計算該職資料。 儘管當通信網路3係一無線網路時’本發明係最有用 的仁在、，屋由固疋之實體媒體（諸如線、光纖等）通信的情 況中，本發明可也被實施或亦係有用的。 可由中央控制器2回應於經由使用者介面u j接收之一使 用者命令或在到達定時間基礎上開始執行模式。也可 由中央控制器2回應於來自一感測器(諸如一運動偵測器、 一壓力感测器、—存在偵測器、一接近度感測器、-溫度 感測器、一光感測器、一射頻識別（RFID)感測器等）之— 觸發信號開始執行模式。. 熟悉此項技術者可從圖式、本發明及附加之申請專利範 圍之學習以實踐主張之本發明中，理解及實現對揭示之實 鈿例之其他變動。纟申請專利範圍中，單詞「包括」並不 140574.doc 201007055Acceptable: During the mode, this total is - in summary it includes: - performing the color analysis blueprint stored in its associated analysis blueprint memory under timing control; - the central controller transmits the synchronization signal 23; The individual local controllers adapt the timing of their control signals to the corresponding light source driver in response to receiving a synchronization signal. The present invention has been shown and described in the drawings and the above description, but those skilled in the art should understand that such drawings and descriptions are considered to be illustrative or exemplary and not limiting. The invention is not limited to the disclosed embodiments; even, some variations and modifications may be made within the scope of the invention as defined by the appended claims. For example, it should be noted that with regard to the same analytical blueprint, the line mode and the teaching/learning mode are usually separated in time. However, when an analysis blueprint is executed, information about the next analysis blue (teaching/learning mode) can be received. Further, a plurality of analysis blueprints can be defined during the teaching/learning mode, and during the execution mode, the central controller can transmit different start signals to start different analysis transcripts. Although it is most appropriate to erase the color (4), this issue is not limited to the use of HSB space only. Similarly, the invention can be implemented using an analysis blueprint defined as a lookup table or a time gate function. In addition, a local controller can be designed to control the light source based on the deleted data, and the job data can be calculated from the deleted value based on a predetermined formula or on a predetermined lookup table. Although the present invention is most useful when the communication network 3 is a wireless network, the present invention may be implemented or also in the case of communication by a solid physical medium (such as a line, an optical fiber, etc.). Useful. The execution mode may be initiated by the central controller 2 in response to receiving a user command via the user interface uj or upon reaching a fixed time. The central controller 2 can also respond to a sensor (such as a motion detector, a pressure sensor, a presence detector, a proximity sensor, a temperature sensor, a light sensor). , a radio frequency identification (RFID) sensor, etc. - the trigger signal begins execution mode. Other variations to the disclosed embodiments can be understood and effected by those skilled in the <RTIgt; </ RTI> <RTIgt; </ RTI> <RTIgt; In the scope of patent application, the word "include" is not 140574.doc 201007055
排除其他原理或步驟m冠詞「-」4「-個」並不 排=複數個° —單處理器或其他單元可實現敘述於申請專 利範圍中之-些項目功能。某些措施係在互不相同之獨立 項中敘述，這—純粹事實並不指示不可有利地使用此等措 施之一結合。可於一合適之媒體上儲存/散佈一電腦程 式諸如起k供其他硬體或作為其他硬體一部份之一光 學儲存媒體或-固態媒體’但也可以其他形式散佈，諸如 經由網際網路或其他有線或無線通信系統。在申請專利範 圍中之任何參考標誌不應被認為限制此範圍。 在上文中，本發明參考方塊圖而已被解釋，此等方塊圖 根據本發明繪示装置之功能塊。當然可於硬體中實施一或 多個此等功能塊（其中藉由個別硬體組件實施功能塊之功 能），但也可於軟體中實施一個或更多此等功能塊，致使 藉由一電腦程式或一可程式化裝置（諸如一微處理機、微 控制器、數位说處理器等）之一或多個程式線（pr〇gram line)實施功能塊之功能。 【圖式簡單說明】 圖1示意性地繪示一照明系統； 圖2示意性地顯示一時序圖。 【主要元件符號說明】 2 中央控制器 3 通信網路 21 資料 22 開始信號 140574.doc -13- 201007055Exclude other principles or steps m "-" 4 "-" does not rank = plural ° - single processor or other unit can achieve some of the project functions described in the scope of the application patent. Some measures are described in separate items that differ from each other, and this is a pure fact that does not imply that one of these measures cannot be used in a favorable manner. A computer program can be stored/distributed on a suitable medium such as optical storage medium or solid-state media for other hardware or as part of other hardware' but can also be distributed in other forms, such as via the Internet. Or other wired or wireless communication system. Any reference mark in the scope of application for patents should not be considered to limit this scope. In the above, the invention has been explained with reference to the block diagrams which illustrate the functional blocks of the apparatus according to the invention. Of course, one or more of these functional blocks may be implemented in the hardware (where the functions of the functional blocks are implemented by individual hardware components), but one or more of the functional blocks may also be implemented in the software, such that one by one The function of the function block is implemented by one of a computer program or a programmable device (such as a microprocessor, a microcontroller, a digital processor, etc.) or a plurality of program lines (pr〇gram lines). BRIEF DESCRIPTION OF THE DRAWINGS Fig. 1 schematically shows an illumination system; Fig. 2 schematically shows a timing chart. [Main component symbol description] 2 Central controller 3 Communication network 21 Data 22 Start signal 140574.doc -13- 201007055
23 100 102 110 111 121 122 Sc St t UI 同步信號 照明單元 光源 本端控制器 分析藍本記憶體 本端系統時脈 本端時脈裝置 時序信號 命令信號 時間 使用者介面 140574.doc -14-23 100 102 110 111 121 122 Sc St t UI Synchronization signal Lighting unit Light source Local controller Analyze the blue memory The local system clock The local clock device Timing signal Command signal Time User interface 140574.doc -14-