TW201142226A - Sun-tracking solar energy power collection system - Google Patents

Sun-tracking solar energy power collection system Download PDF

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Publication number
TW201142226A
TW201142226A TW099117229A TW99117229A TW201142226A TW 201142226 A TW201142226 A TW 201142226A TW 099117229 A TW099117229 A TW 099117229A TW 99117229 A TW99117229 A TW 99117229A TW 201142226 A TW201142226 A TW 201142226A
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Taiwan
Prior art keywords
liquid
control device
liquid storage
storage device
solar energy
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Application number
TW099117229A
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Chinese (zh)
Inventor
Siao-Yang Chen
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Apollo New Energy Corp
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Priority to TW099117229A priority Critical patent/TW201142226A/en
Publication of TW201142226A publication Critical patent/TW201142226A/en

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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24SSOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S30/00Arrangements for moving or orienting solar heat collector modules
    • F24S30/40Arrangements for moving or orienting solar heat collector modules for rotary movement
    • F24S30/42Arrangements for moving or orienting solar heat collector modules for rotary movement with only one rotation axis
    • F24S30/425Horizontal axis
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24SSOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S50/00Arrangements for controlling solar heat collectors
    • F24S50/20Arrangements for controlling solar heat collectors for tracking
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24HEATING; RANGES; VENTILATING
    • F24SSOLAR HEAT COLLECTORS; SOLAR HEAT SYSTEMS
    • F24S30/00Arrangements for moving or orienting solar heat collector modules
    • F24S2030/10Special components
    • F24S2030/11Driving means
    • YGENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02EREDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
    • Y02E10/00Energy generation through renewable energy sources
    • Y02E10/40Solar thermal energy, e.g. solar towers
    • Y02E10/47Mountings or tracking

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  • Engineering & Computer Science (AREA)
  • Physics & Mathematics (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Sustainable Energy (AREA)
  • Thermal Sciences (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Photovoltaic Devices (AREA)

Abstract

The present invention provides a sun-tracking solar energy power collection system, which comprises a stand post having an upper end on which a solar energy power collection panel is pivotally mounted. The solar energy power collection panel has an edge coupled to a weight. The stand post has an interior for receiving therein a vertically movable liquid storage device. The liquid storage device comprises a liquid storage chamber, a liquid inlet, and a liquid outlet and comprises a traction unit that is connected to an opposite edge of the solar energy power collection panel. As such, the sun-tracking solar energy power collection system takes advantage of difference of water level, height difference of structure, or geographic elevation difference and gravitation to allow external liquid to automatically flow into the liquid storage chamber and to automatically flow out of the liquid storage chamber so as to alter the weight ratio between the liquid storage device and the weight for driving the solar energy collection panel to move along the sun orbit, thereby realizing the functions of no additional consumption of electrical power and automatic sun tracking.

Description

201142226 六、發明說明: 【發明所屬之技術領域】 本發明係關於一種太陽能集電系統,尤指一種免用過 多額外電力以及完全不需額外電力就能夠自行依據日執方 向旋轉的追日太陽能集電系統。 ' 【先前技術】 習知的光能轉換電能裝置,主要是利用半導體太陽能 ® 集電板、薄膜太陽能集電板或其他太陽能集電板,將太陽 的光能轉換成電力,再集合成為可供人們使用的電能。由 於採用光能轉換電能的原理進行發電的過程,完全不會產 生二氧化碳及其他廢棄物,比起傳統火力發電及核能發電 更為環保,因而有「綠色能源」之稱。 但習知的太陽能集電板只能固定在特定角度發電,因 此妨礙太陽光的接受,導致於實際裝設應用時,限縮了發 0 電量。雖然坊間已有一些追曰裝置,使得太陽能集電板能 夠依照日軌活動,保持隨時朝向太陽的狀態,可增加10% 至15%的發電量,但是它們大都需要額外用電帶動追曰裝 置的馬達或發動機,導致於所增加的發電量,被馬達或發201142226 VI. Description of the Invention: [Technical Field] The present invention relates to a solar collector system, and more particularly to a solar collector set that can be rotated according to the daily direction without excessive additional power and without additional power. Electrical system. [Prior Art] Conventional light energy conversion electrical devices, mainly using semiconductor solar energy collector plates, thin film solar collector plates or other solar collector plates, convert the solar light energy into electricity, and then assemble them into The electrical energy people use. The process of generating electricity by using the principle of converting light energy from electricity does not produce carbon dioxide and other wastes at all. It is more environmentally friendly than traditional thermal power generation and nuclear power generation, and is therefore known as “green energy”. However, conventional solar collector panels can only be fixed at a certain angle to generate electricity, thus hindering the acceptance of sunlight, resulting in a reduction in the amount of electricity generated during actual installation. Although there are some tracking devices in the market, the solar collector panels can maintain the state of the sun at any time according to the daily track activities, which can increase the power generation by 10% to 15%, but most of them need additional electricity to drive the tracking device. Motor or engine, resulting in increased power generation, by motor or hair

I 動機的額外用電所抵銷,因此,對於增進發電量來說效果 不彰。 【發明内容】 本發明主要目的在於提供一種追日太陽能集電系統,。, [5 1 4 201142226 使太陽能集電板不需耗用過多的額外電能甚至不需任何電 能就能自行依據日軌方向旋轉,達到追日功能。 為達上述目的或其他目的,本發明之追日太陽能集電 系統係包含:一支撐桿,該支撐桿為直立設置的長桿,該 支撐桿中央具有一轴向延伸的中空部,並具有連通桿外與 桿内中空部的一通孔、一第一進液孔及一第一排液孔;一 太陽能集電板,係樞接在該支撐桿的上端,使該太陽能集 電板得以依據日軌單軸向地旋轉;一配重體,該配重體係 結合在該太陽能集電板的一侧邊;一儲液裝置,該儲液裝 置可升降活動地設置在該支撐桿的中空部,該儲液裝置係 為中空以於内部形成一儲液室,於該儲液裝置上部設有連 通該儲液室的一進液口,及於該儲液裝置下部設有連通該 儲液室的一排液口;; 一遷引單元,該遷引單元的一端固 定在該太陽能集電板之另一侧邊且係相對於該配重體,另 一端透過該通孔延伸進入該支撐桿的中空部並固定在該儲 液裝置,使該儲液裝置得以藉由升降來遷引該太陽能集電 板旋轉;一進液控制裝置,係設於該支撐桿外,並透過該 第一進液孔連通到該儲液裝置的進液口,用於開放或截阻 自流性的外部液體進入該儲液室,以藉由增加該儲液裝置 對該太陽能集電板產生之力矩’使該太陽能集電板旋轉並 定位於起始位置;及一排液控制裝置,係設於該支撐桿外, 並透過該第一排液孔連通到該儲液裝置的排液口,用於開 放或截阻受地心引力影響而自行流出該儲液室的内部液 體,以藉由減少該儲液裝置對該太陽能集電板產生之力 201142226 矩,逐漸改變該太陽能集電板之角度。 為達上述目的或其他目的,本發明之另一種追日太陽 能集電系統係包含:一支撐桿,係為直立設置的長桿;一 副桿體’係為直立設置的長桿並設置於該支撐桿旁’該副 桿體中央具有一軸向延伸的中空部,並具有連通桿外與桿 I* 内中空部的一通孔、一第一進液孔及一第一排液孔;一太 : 陽能集電板,係柩接在該支撐桿的上端,使該太陽能集電 板得以依據日軌單軸向地旋轉;一配重體,係結合在該太 • 陽能集電板的一側邊;一儲液裝置,其係可升降活動地設 置在該副桿體的中空部,該儲液裝置係為中空以於内部形 成一儲液室,於該儲液裝置上部設有連通該儲液室的一進 液口,及於該儲液裝置下部設有連通該儲液室的一排液 口; 一遷引單元,其一端固定在該太陽能集電板之另一侧 邊且係相對於該配重體,另一端透過該通孔延伸進入該副 桿體的中空部並固定在該儲液裝置,使該儲液裝置得以藉 I 由升降來遷引該太陽能集電板旋轉;一進液控制裝置,係 設於該副桿體外,並透過該第一進液孔連通到該儲液裝置 . 的進液口,用於開放或截阻自流性的外部液體進入該儲液 室,以藉由增加該儲液裝置對該太陽能集電板產生之力The extra power of the I motive is offset, so it is not effective for increasing power generation. SUMMARY OF THE INVENTION The main object of the present invention is to provide a solar energy collecting system. [5 1 4 201142226 The solar collector board can be rotated according to the daily orbit direction without using too much extra power or even without any electric energy to achieve the function of chasing the sun. In order to achieve the above object or other objects, the solar energy collecting system of the present invention comprises: a support rod, the support rod is an upright long rod, and the support rod has an axially extending hollow portion in the center and has a connection. a through hole outside the rod and the hollow portion of the rod, a first liquid inlet hole and a first liquid discharge hole; a solar collector plate pivotally connected to the upper end of the support rod, so that the solar collector plate can be based on the day The rail rotates uniaxially; a weight body is coupled to one side of the solar collector plate; and a liquid storage device is movably disposed at a hollow portion of the support rod The liquid storage device is hollow to form a liquid storage chamber therein, a liquid inlet port connecting the liquid storage chamber is arranged at an upper portion of the liquid storage device, and a liquid supply port is connected to the liquid storage device at a lower portion of the liquid storage device. a row of liquid outlets; an migrating unit having one end fixed to the other side of the solar collector plate and opposite to the weight body, and the other end extending through the through hole into the support rod a hollow portion and fixed to the liquid storage device The liquid storage device is capable of displacing the solar collector plate by lifting and lowering; an liquid inlet control device is disposed outside the support rod and communicates to the liquid inlet of the liquid storage device through the first liquid inlet hole, An external liquid for opening or blocking self-flowing enters the liquid storage chamber to rotate and position the solar current collector plate at a starting position by increasing a torque generated by the liquid storage device on the solar current collecting plate; a drain control device is disposed outside the support rod and communicates with the liquid discharge port of the liquid storage device through the first drain hole for opening or blocking the self-flowing of the liquid storage by the influence of gravity The internal liquid of the chamber gradually changes the angle of the solar collector plate by reducing the force generated by the liquid storage device on the solar collector plate. In order to achieve the above object or other objects, another solar energy collecting system of the present invention comprises: a support rod, which is a long rod that is erected; a pair of rods is a long rod that is erected and disposed at the same Next to the support rod, the center of the auxiliary rod body has an axially extending hollow portion, and has a through hole connecting the rod and the hollow portion of the rod I*, a first liquid inlet hole and a first liquid discharge hole; : a solar energy collector plate is connected to the upper end of the support rod, so that the solar collector plate can be uniaxially rotated according to the daily track; a weight body is coupled to the solar energy collector plate a liquid storage device is disposed at a hollow portion of the auxiliary shaft body, and the liquid storage device is hollow to form a liquid storage chamber therein, and is connected to the upper portion of the liquid storage device. a liquid inlet of the liquid storage chamber, and a liquid discharge port connecting the liquid storage chamber at a lower portion of the liquid storage device; a migration unit having one end fixed to the other side of the solar energy collecting plate and Relative to the weight body, the other end extends through the through hole into the auxiliary shaft The empty portion is fixed to the liquid storage device, so that the liquid storage device can be moved by the lifting and lowering to rotate the solar collector plate; a liquid inlet control device is disposed outside the auxiliary rod and passes through the first inlet The liquid hole is connected to the liquid inlet of the liquid storage device for opening or intercepting the self-flowing external liquid into the liquid storage chamber to increase the force generated by the liquid storage device on the solar collector plate

I 矩,使該太陽能集電板旋轉並定位於起始位置;及一排液 控制裝置,係設於該副桿體外,並透過該第一排液孔連通 到該儲液裝置的排液口,用於開放或截阻受地心引力影響 而自行流出該儲液室的内部液體,以藉由減少該儲液裝置 對該太陽能集電板產生之力矩,逐漸改變該太陽能集電板 [S] 6 201142226 之角度。 於本發明的實施例中,該排液控制裝置包含一排液流 量閥,以根據不同的日照時間調整排液速度。 於本發明的實施例中,追日太陽能集電系統更可直接 設置於該外部液體上,使該支撐桿及/或該副桿體的下段浸 ' 入該外部液體,而其外圍更可包覆有一保護體,例如為混 f 凝土結構體。 於本發明的實施例中,追曰太陽能集電系統更可包 • 含:一光感應裝置,係設於該太陽能集電板上,並電性連 接該排液控制裝置,用於響應太陽光之照射以送出一排液 啟動訊號至該排液控制裝置;一第一位置感應裝置,係設 於該副桿體之中空部,並分別電性連接該排液控制裝置及 該進液控制裝置,用於響應上升至預定高度之該儲液裝 置,以送出一進液啟動訊號至該進液控制裝置,以及送出 一排液關閉訊號至該排液控制裝置;及一第二位置感應裝 ^ 置,係設於該支撐桿之中空部,並電性連接該進液控制裝 置,用於響應下降至預定高度之該儲液裝置,以送出一進 :液停止訊號至該進液控制裝置。 於本發明的實施例中,追曰太陽能集電系統更可包 含:一計時裝置,係設於該支撐桿外,並電性連接該排液 控制裝置,用於在特定時間送出一排液啟動訊號至該排液 控制裝置;一第一位置感應裝置,係設於該支撐桿之中空 部,並分別電性連接該排液控制裝置及該進液控制裝置, 用於響應上升至預定高度之該儲液裝置,以送出一進液啟[s] 7 201142226 動訊號至該進液控制裝置,以及送出一排液關閉訊號至該 排液控制裝置;及一第二位置感應裝置,係設於該支撐桿 之中空部,並電性連接該進液控制裝置,用於響應下降至 預定高度之該儲液裝置,以送出一進液停止訊號至該進液 控制裝置。 .a moment, the solar collector plate is rotated and positioned at a starting position; and a drain control device is disposed outside the auxiliary rod and communicates to the liquid discharge port of the liquid storage device through the first liquid discharge hole For opening or blocking the internal liquid flowing out of the liquid storage chamber by gravity, to gradually change the solar collector plate by reducing the moment generated by the liquid storage device on the solar collector plate [S ] 6 201142226 angle. In an embodiment of the invention, the drain control device includes a drain flow valve to adjust the drain speed based on different daylight hours. In an embodiment of the present invention, the solar energy collecting system can be directly disposed on the external liquid, so that the lower portion of the support rod and/or the sub-rod is dipped into the external liquid, and the periphery thereof is further packaged. Covered with a protective body, such as a mixed f concrete structure. In an embodiment of the present invention, the solar energy collecting system can further include: a light sensing device disposed on the solar collector plate and electrically connected to the liquid discharging control device for responding to sunlight Irradiating to send a discharge start signal to the liquid discharge control device; a first position sensing device is disposed in the hollow portion of the auxiliary rod body, and electrically connected to the liquid discharge control device and the liquid inlet control device Responsive to the liquid storage device rising to a predetermined height to send a liquid start signal to the liquid inlet control device, and to send a liquid discharge signal to the liquid discharge control device; and a second position sensing device And disposed in the hollow portion of the support rod, and electrically connected to the liquid inlet control device for responding to the liquid storage device descending to a predetermined height to send a liquid stop signal to the liquid inlet control device. In an embodiment of the present invention, the solar energy collecting system may further include: a timing device disposed outside the support rod and electrically connected to the liquid discharge control device for sending a liquid discharge at a specific time. Signaling to the liquid discharge control device; a first position sensing device is disposed in the hollow portion of the support rod, and electrically connected to the liquid discharge control device and the liquid inlet control device respectively for responding to rise to a predetermined height The liquid storage device sends a liquid inlet [s] 7 201142226 motion signal to the liquid inlet control device, and sends a liquid discharge closing signal to the liquid discharge control device; and a second position sensing device is provided The hollow portion of the support rod is electrically connected to the liquid inlet control device for responding to the liquid storage device descending to a predetermined height to send a liquid inlet stop signal to the liquid inlet control device. .

B 藉上述追日太陽能集電系統,於日出前之定位過程 ^ 中,能夠使液面較高的外部液體藉由連通管原理自流性地 流進儲液裝置的儲液室中,對於支撐桿支撐太陽能集電板 ^ 之支點來說,控制儲液裝置藉由遷引單元而施加於太陽能 集電板上的力矩,使其大於配重體施加於太陽能集電板上 的力矩,進而帶動太陽能集電板傾斜朝向日出方向,並於 定位後截阻自流性的外部液體進入該儲液室,以維持太陽 能集電板於日出時的起始位置。當日出時,開放排液控制 裝置,使儲液室内的内部液體緩慢流出,致使儲液裝置的 重量逐漸減輕,其中,流出的速度可由排液控制裝置内的 φ 排液流量閥來決定以搭配不同季節或地區之日照時間長短 不一的情況,排液時,儲液裝置藉由遷引單元而施加於太 陽能集電板上的力矩會開始小於配重體施加於太陽能集電 板上的力矩,致使配重體帶動太陽能集電板進行反向旋轉 (相對於定位過程)而可隨著日軌讓太陽能集電板始終正 對著太陽,進而達到追日功能。 況且,上述自流性的外部液體及内部液體係通過水位 高度差、結構高度差或地勢高度差及連通管原理,使液體 自行補充及流出,至於進液控制裝置及排液控制裝置的 8 201142226 制則可採用機械式觸動或電子式觸動,其完全不需要額外 電能或僅消耗極低的電能(例如:計時裝置的計時功能、 進液控制裝置及排液控制裝置的開啟或關閉功能),因此能 確實達到提升發電量的功效。 本發明運用液體於自然界中既存的能量來帶動太陽能 集電板的轉動,進而免除了習知的追日系統於轉動太陽能 集電板時成本過尚的情形。 可以將該第一進液孔連接到地勢較高的外部液體處 ® (例如水庫等)或自來水管(自來水已經具有水壓),使自 流性的外部液體通過進液控制裝置、第一進液孔及進液口 自行流入儲液裝置的儲液室;亦可利用該排液控制裝置、 第一排液孔及排液口,使儲液室内的内部液體逐漸自行流 出,並流到一液槽或排水設備(水渠等),同樣完全不需要 額外的電能,就可達到追日功能。 Φ 【實施方式】 為充分暸解本發明之目的、特徵及功效,茲藉由下述 : 具體之實施例,並配合所附之圖式,對本發明做一詳細說 明,說明如後· 如第1圖所示,本發明之追日太陽能集電系統,其係 包含:一支撐桿1、一太陽能集電板2、一配重體3、一儲 液裝置4、一遷引單元5、一進液控制裝置6及一排液控制 裝置7,其中: 該支撐桿1為直立設置的長桿,該支撐桿1中央具有^.,B. By using the above-mentioned solar energy collecting system, in the positioning process before sunrise, the external liquid with a higher liquid level can flow into the liquid storage chamber of the liquid storage device by the principle of the connecting pipe. In the fulcrum of the rod supporting solar collector board, the moment that the liquid storage device is applied to the solar collector board by the migrating unit is controlled to be larger than the moment applied by the weight body to the solar collector board, thereby driving The solar collector plate is inclined toward the sunrise direction, and intercepts the self-flowing external liquid into the liquid storage chamber after positioning to maintain the starting position of the solar collector plate at sunrise. When it is sunrise, the liquid discharge control device is opened to make the internal liquid in the liquid storage chamber slowly flow out, so that the weight of the liquid storage device is gradually reduced. The speed of the outflow can be determined by the φ discharge flow valve in the liquid discharge control device. When the sunshine duration varies from season to season, the moment that the liquid storage device is applied to the solar collector plate by the migration unit will start to be smaller than the torque applied to the solar collector plate by the weight body. Therefore, the weight body drives the solar collector plate to rotate in the opposite direction (relative to the positioning process), so that the solar collector plate can always face the sun with the sun track, thereby achieving the function of chasing the sun. Moreover, the above-mentioned self-flowing external liquid and internal liquid system make the liquid self-replenish and flow out through the water level difference, the structural height difference or the ground level difference and the connecting pipe principle, as for the liquid inlet control device and the liquid discharge control device 8 201142226 Mechanical or electronic actuation can be used, which does not require extra power or consumes very low electrical energy (eg timing function of the timing device, liquid inlet control device and opening or closing function of the drainage control device), so Can really achieve the effect of increasing power generation. The invention utilizes the existing energy of the liquid in the natural world to drive the rotation of the solar collector panel, thereby eliminating the costly situation of the conventional solar tracking system when rotating the solar collector panel. The first inlet port can be connected to a higher-level external liquid (such as a reservoir, etc.) or a water pipe (the tap water already has a water pressure), so that the self-flowing external liquid passes through the liquid inlet control device, the first liquid inlet The hole and the liquid inlet flow into the liquid storage chamber of the liquid storage device; the liquid discharge control device, the first liquid discharge hole and the liquid discharge port can also be used to gradually discharge the internal liquid in the liquid storage chamber and flow to a liquid Slots or drainage equipment (drains, etc.), also do not require additional electrical energy, can achieve the function of chasing the sun. Φ [Embodiment] In order to fully understand the object, features and effects of the present invention, the present invention will be described in detail by the following specific embodiments and the accompanying drawings. As shown in the figure, the solar energy collecting system of the present invention comprises: a support rod 1, a solar collector board 2, a weight body 3, a liquid storage device 4, an migrating unit 5, and a a liquid control device 6 and a drain control device 7, wherein: the support rod 1 is a long rod that is erected, and the center of the support rod 1 has a ^.

I 3 J 9 201142226 一轴向延伸的中空部π。該太陽能集電板2係樞接在支撐 桿1的上端以作為支點,較佳係位於一平衡點,例如:靠 近太陽能集電板2的重心部位,使太陽能集電板2得以依 據曰軌單軸向地旋轉。其中,支撐桿〗並具有連通桿外與 桿内中空部11的一通孔19、一第一進液孔13及一第—排 液孔14。 該配重體3係結合在太陽能集電板2的一側邊,相對 於支點,係用於對太陽能集電板2的一邊產生一向下的力 矩而°亥配重體3可為混凝土結構體或金屬結構體等其他 重物。 ^ 扣該儲液裝置4係可升降活動地設置在支撐桿丨内的中 工邛11,該儲液裝置4係為中空以於内部形成一儲 41,於該儲液裝置4之上部設有連通該儲液室“的—進液 口 42’及於該儲液裝置4下部設有連通該儲液室41的一排 液口 43。其中,進液口 42的位置可在儲液裝置4的頂部或 =比排液π 43高之位置;而排液口 43的位置可在儲液 又置4的底部或其他比進液口 42低之位置。 該遷引單元5係-端固定在太陽能集電板2的另一側 第’=—側邊係指相對於該配重體3而言(請參閱圖式 圖),遷引單元5的另一端則透過通孔19延伸進入支 I干1的中空部n内’並固定在儲液裝置4,使 =以藉㈣降來糾域能㈣板2進行旋•其中該遷 炎撐捽1的中空部u内可透過一滑輪裝置51。 201142226 的控制f:部液㈣ 通到儲液裝置干卜,亚透過第一進液孔13連 液體10進入儲液室41 開放或截阻自流性的外部 採用具彎折伸縮性㈣—伸辭T魏b42的方式可 的管路連接方式, ' e 17,或者是採用其他習知 使用時該等管路不伸縮管的長度僅為示例,實際 】】内的垂直升降活動〜到储液裝置4在支擇桿1中空部 可否係作為儲存室41内儲之内部液體2〇 過第-:=4制裝置,其設於支如外,並透 h夜孔14連通到儲液裝 截阻受地心引力影響而自行流夜4 3以開放或 20。JL巾,nSIJjU、 匕出儲液至41的内部液體 第-伸《其二」*口 43的方式可採用具彎折伸縮性的 或者是採用其他習知的管路連接方式,該 吕路係不衫響到儲液裝置 升降活動。 在支似干1中空部η内的垂直 本發明之第一實施例可將第一進液心與地勢較高的 核體連通(例如水庫等)或自來水管(自來水已經具 水麗)’使自流性的外部液體(對於液體之運輸,本發明 之追日太陽能集電系統不需再耗費額外之能量)通過進液 控制裝置6、第-進液孔13及進液口 42自行流人儲液裝置 1的儲液室41中。至於排液時,係透過排液控制裝置7、 第—排液孔14及排液口 43,使儲液室41内的内部液體逐 漸地自行流出,並可流到低於該第一排液孔14及排液口 43c 201142226 的一液槽8或排水設備(水渠等)。由於本發明於排液時係 利用地心引力及連通管原理,讓儲液室内部的液體可自行 流出而不需要額外的電能,就可帶動整個追日太陽能集電 系統達到追日功能。 在進液控制裝置6及排液控制裝置7的控制部分,可 採用一光感應裝置9、一第一位置感應裝置91及一第二位 置感應裝置92的搭配。 光感應裝置9係設於太陽能集電板2上,並電性連接 排液控制裝置7,用於響應太陽光之照射以送出一排液啟動 訊號至排液控制裝置7,亦即太陽能集電板2定位於初始位 置(即朝向日出方向)後,排液控制裝置7的啟動與否係 由光感應裝置9來觸動,於日出時,光感應裝置9感應到 太陽光的照射就會觸動排液控制裝置7的電子閥門(圖未 示),進而使液體自排液控制裝置7流出,並受排液控制裝 置7控制其流速,進而控制太陽能集電板2的旋轉速度, 達到追日的功能。其中,排液控制裝置7可藉由一排液流 量閥71來控制液體之流速,其可透過管徑粗細或内部路徑 的設計達到所需之流量/流速控制,流量閥的流量控制係為 一般技術,於此不再贅述,本發明之一實施例係利用此種 裝置達到流量的控制。 至於第一位置感應裝置91,其設於支撐桿1之中空部 11,用來感測儲液裝置4是否上升至預定高度,其分別電 性連接排液控制裝置7及進液控制裝置6,用於響應上升至 預定高度之儲液裝置4,以送出一進液啟動訊號至進液控制I 3 J 9 201142226 An axially extending hollow portion π. The solar collector plate 2 is pivotally connected to the upper end of the support rod 1 as a fulcrum, preferably at an equilibrium point, for example, close to the center of gravity of the solar collector plate 2, so that the solar collector plate 2 can be based on the track Rotate axially. The support rod has a through hole 19 connecting the rod and the hollow portion 11 in the rod, a first liquid inlet hole 13 and a first liquid discharge hole 14. The weight body 3 is coupled to one side of the solar collector plate 2, and is used to generate a downward moment to one side of the solar collector plate 2 with respect to the fulcrum. The weight member 3 can be a concrete structure. Or other heavy objects such as metal structures. ^ The liquid storage device 4 is a middle working raft 11 which is movably disposed in the support rod ,. The liquid storage device 4 is hollow to form a reservoir 41 therein, and is disposed above the liquid storage device 4 The liquid inlet port 42 that communicates with the liquid storage chamber and the lower portion of the liquid storage device 4 are provided with a liquid discharge port 43 that communicates with the liquid storage chamber 41. The liquid inlet port 42 can be located at the liquid storage device 4 The top of the tank or = is higher than the drain π 43; and the position of the drain port 43 can be at the bottom of the reservoir 4 or other position lower than the inlet 42. The migrating unit 5 is fixed at the end The other side of the solar collector plate 2 has a '=-side side relative to the weight body 3 (refer to the drawing), and the other end of the migrating unit 5 extends through the through hole 19 into the branch I. The hollow portion n of the stem 1 is fixed to the liquid storage device 4, so that the hole can be rotated by the (4) plate (the fourth plate) 2, and the hollow portion u of the swelled ridge 1 can be transmitted through a pulley device 51. Control of 201142226 f: part of the liquid (4) to the liquid storage device dry, sub-through the first liquid inlet 13 with the liquid 10 into the liquid storage chamber 41 open or intercept the self-flowing external mining The bending flexibility of the tool (4)—the way the pipe can be connected to the T-b42, 'e 17, or the length of the pipe that is not used by other conventional uses is only an example, actually] The vertical lifting activity ~ to the liquid storage device 4 in the hollow portion of the support rod 1 can be stored as the internal liquid 2 stored in the storage chamber 41, the first -:=4 system, which is installed outside the branch, and through the night The hole 14 is connected to the liquid storage interception and is affected by the gravity of the earth and flows through the night 4 3 to open or 20. JL towel, nSIJjU, the internal liquid of the liquid storage to 41, the second of the mouth The method can be bent or stretched or adopts other conventional pipe connection methods, and the Lulu system does not swell to the liquid storage device lifting activity. Vertically in the hollow portion η of the dry portion 1 of the present invention, the first inlet core can be connected to a higher-level nuclear body (for example, a reservoir or the like) or a water pipe (the tap water is already watery) The self-flowing external liquid (for the transportation of the liquid, the solar energy collecting system of the present invention does not need to consume extra energy), and the liquid storage control device 6, the first liquid inlet hole 13 and the liquid inlet port 42 are self-flowing. In the liquid storage chamber 41 of the liquid device 1. As for the liquid discharge, the liquid inside the liquid storage chamber 41 gradually flows out by the liquid discharge control device 7, the first liquid discharge hole 14 and the liquid discharge port 43, and can flow below the first liquid discharge. A liquid tank 8 or a drainage device (a drain, etc.) of the hole 14 and the liquid discharge port 43c 201142226. Since the present invention utilizes the principle of gravity and communication tube during liquid discharge, the liquid inside the liquid storage chamber can flow out without any additional electric energy, and the entire solar energy collecting system of the Japanese solar energy can be driven to achieve the function of chasing the sun. In the control portion of the liquid inlet control device 6 and the liquid discharge control device 7, a combination of a light sensing device 9, a first position sensing device 91 and a second position sensing device 92 can be employed. The light-sensing device 9 is disposed on the solar collector plate 2, and is electrically connected to the liquid discharge control device 7 for sending a discharge start signal to the liquid discharge control device 7 in response to the sunlight, that is, solar energy collection. After the board 2 is positioned at the initial position (ie, toward the sunrise direction), the activation of the drain control device 7 is triggered by the light sensing device 9, and at sunrise, the light sensing device 9 senses the irradiation of sunlight. The electronic valve (not shown) of the liquid discharge control device 7 is activated, and the liquid is discharged from the liquid discharge control device 7, and the flow rate is controlled by the liquid discharge control device 7, thereby controlling the rotation speed of the solar collector plate 2 to reach the chase. The function of the day. Wherein, the liquid discharge control device 7 can control the flow rate of the liquid by a drain flow valve 71, which can achieve the required flow/flow rate control through the design of the pipe diameter or the internal path, and the flow control system of the flow valve is generally The technology, which will not be described herein, is an embodiment of the present invention that utilizes such a device to achieve flow control. The first position sensing device 91 is disposed in the hollow portion 11 of the support rod 1 for sensing whether the liquid storage device 4 is raised to a predetermined height, and is electrically connected to the liquid discharge control device 7 and the liquid inlet control device 6, respectively. Used for responding to the liquid storage device 4 rising to a predetermined height to send an incoming liquid start signal to the liquid inlet control

[5 J 12 201142226 裝置6,以及同時送出一排液關閉訊號至排液控制裳置7。 而第二位置感應裝置92亦設於支撐捍1之中空,用於 響應下降至預定高度之儲液裝置4,以送出一進液停止訊號 至進液控制裝置6。 因此’進液控制裝置6及排液控制裝置7即可藉此來 達到排液及進液的控制。亦即,日出時,光感應裝置9使 排液控制裝置7開始排液,使儲液裝置4的重量減輕,進 而使太陽能集電板2逐漸旋轉(旋轉的逮度取決於排液的 速度,即取決於排液控制裝置7的控制),當太陽能集電板 2旋轉至時角度時(即超過此日落角度,太陽光即無法再 照射至太陽能集電板2上),儲液褒置4會剛好上升至預定 兩度’進而由第一位置感應裝置91所感知,此時,第一位 置感應裝置即送出職關_號至排液控難置7,停 止排液動作,以及送出進液啟動訊號至進液控縣置6,開 =液動作,最後,儲液裝置4又因儲滿預定量之液體而 下降’進而帶動太陽能集電板2旋轉’下降至預定高 = 置感應裝置92,送出進液停止訊號並使:液 裝置停止進液動作’此時,太陽能集電板2即定位 於初始位置,供下次日出時再此啟動同樣的程序。1中, =:=6_液速度可較快’以確保曰出之前就能 使儲液裝置4下降至預定高度。 應裝置9亦可替換為一計時裝置(圖未示), :疋》又於支撐桿}外,其可與排液控制褒置7結合 計時裝置係電性連接#液控制裝置7,㈣在特定時^送出〆 [S ] 201142226 該排液啟動訊號至_㈣裝置7。 制裝所有實施例巾,進液控制裝置6及排液控 二、空制部分除了上述之搭配方法外,亦可採用一 般的電子式觸㈣統或機械式觸動系統(圖未^),其中, 式觸動系統全由電子閥門控制進液與排液功能丨而機 ϋ位=統係指儲液裝置4於垂直行程中預定高位與預 ' Η °又置的連動機構,係設於支撐桿1的中空部u, 此系、、先而至少搭配一電子式觸動開關(例如前述之光感應 ^ 9搭配電子閥門,或計時裝置搭配電子閥門)以:曰 出時啟=排液功能,機械式的連動機構可於儲液裝置4上 升^預定高位時機械推動並開啟進液控制裝置6的間門, 2連動排液控制裝置7,使電子㈣關閉,停止排液,而 當儲液袭置4再次下降至預定低位時,連動進液控制裝置 6,關閉其閥門,停止進液動作。 凊參閱第2圖,係本發明第二實施例之結構示意圖, /、中,支撐捍1的下段係直接浸入該外部液體1〇,並固定 在外部液體10的底部30,使該外部液體1〇的液面1〇1分 另於進液控制裝置6、排液控制裝置7以及儲液裝置4 的上升行程最高點。如此,外部液體1〇可藉由本身的重力 及連通官原理讓液體具有自流性地流入儲液裝置4的儲液 至41中。然而,較佳的是,支撐桿i的下段外圍包覆有一 保濩體12’該保護體12係具有分別對應於該第一進液孔及 該第一排液孔之第二進液孔15及第二排液孔16,其中排液 才工制裝置7可設於該保護體12外,且該保護體12之頂,y 14 201142226 係冋於外部液體10的液面1〇1,以保護支撐桿】不易受浸 包=液體〜響而產生如:氧化之情形,而該保護體^較佳 可為混凝土結構體。 接著請參閲第3至5圖,係本發明使用時的狀態示意 .. 目’其係彻第2圖所示之實施例來做示例以說明本發明 :·自動追日的功能,此外,並以能夠產生I5kw電能之太陽能 板為示例,其儲液裝置儲滿水的狀態下約為Μ⑼公斤,而 春配重體則為麵公斤,支點為太陽能集電板2之中央。如 第3圖所示,可設定該進液控制裝置6在夜晚或曰落後開 啟(例如可為前述之該儲液裂置4上升至預定高度,送出 一進液啟動訊號至進液控制裝置6),讓外部液體1〇 (例如 可為水)流入儲液裝置4的儲液室41内(如虛線箭頭所 不)’使儲液裝置4重量緩慢增加到約15〇〇公斤,由於配 重體3只有1〇00公斤,因此儲液裝置4將經過遷引單元5 緩k帶動太陽能集電板2傾斜朝向日出方向(E),並於到 • 達初始位置後停止進液動作。當日出時,該排液控制裝置7 開放儲液室41内的内部液體20緩慢流出(如實線箭頭所 示)’致使儲液裝置4的重量逐漸減輕,此時配重體3即合 π動太此集電板2依據既設之單軸方向(即日軌方向)旋 轉,且儲液裝置4逐漸上升(如實線箭頭所示),旋轉的速 度與太%移動的速度相匹配,使太陽能集電板2可始終正 對著太陽。在本實施例的情況下,於第4圖所示之中午十 一點時,該内部液體20係讓儲液裝置4重量到達約12〇〇 公斤,恰可與配重體3達到平衡,使太陽能集電板2呈水 15 201142226 平朝向太陽。再如第5圖所示,當下午六點時(即日落時), 該儲液室41内的内部液體2〇讓儲液裂置4重量到達約600 公斤,因此通過配重體3重量大於儲液裝置4,將使太陽能 集電板2朝向日落時太陽的位置,進而達到追日功能。而 且,上述自流性的外部液體及内部液體係通過水位 咼度差、結構高度差、連通管原理及地心引力原理,使液 體10、20自行在夜間補充及日間流出,完全不需要額外的[5 J 12 201142226 Device 6, and simultaneously send a drain off signal to the drain control skirt 7. The second position sensing device 92 is also disposed in the hollow of the support cymbal 1 for responding to the liquid storage device 4 descending to a predetermined height to send an incoming liquid stop signal to the liquid inlet control device 6. Therefore, the liquid inlet control device 6 and the liquid discharge control device 7 can thereby control the liquid discharge and the liquid feed. That is, at sunrise, the light sensing device 9 causes the liquid discharge control device 7 to start draining, so that the weight of the liquid storage device 4 is reduced, and the solar collector plate 2 is gradually rotated (the degree of rotation depends on the speed of liquid discharge) , that is, depending on the control of the liquid discharge control device 7), when the solar collector plate 2 is rotated to the time angle (ie, the sunlight is no longer irradiated onto the solar collector plate 2 beyond the sunset angle), the liquid storage device 4 will just rise to the predetermined two degrees' and then sensed by the first position sensing device 91. At this time, the first position sensing device sends the job _ number to the drain control hard 7, stops the draining operation, and sends out The liquid start signal is set to 6 in the liquid control county, and the liquid discharge operation is performed. Finally, the liquid storage device 4 is lowered due to the storage of a predetermined amount of liquid, and then the solar collector plate 2 is rotated to descend to a predetermined height. 92, the liquid feed stop signal is sent and the liquid device stops the liquid feeding operation. At this time, the solar current collector plate 2 is positioned at the initial position, and the same procedure is started for the next sunrise. In 1, the =:=6_liquid velocity can be faster' to ensure that the liquid storage device 4 is lowered to a predetermined height before the ejection. The device 9 can also be replaced by a timing device (not shown), and the device can be connected to the liquid discharge control device 7 in combination with the liquid discharge control device 7 to electrically connect the liquid control device 7, (4) When a specific time ^ is sent out 〆 [S ] 201142226 This draining start signal is sent to the _ (four) device 7. All the embodiments of the towel, the liquid inlet control device 6 and the liquid discharge control unit 2, the air-moving part can be used in addition to the above-mentioned matching method, and can also adopt a general electronic touch (four) system or a mechanical touch system (not shown). The touch system is controlled by the electronic valve to control the liquid inlet and discharge functions, and the machine clamp position=the system refers to the linkage mechanism of the liquid storage device 4 in the vertical stroke with the predetermined high position and the pre-set , °, which is set on the support rod. The hollow portion u of the first part, the system is first and at least coupled with an electronic touch switch (for example, the aforementioned optical sensor ^ 9 with an electronic valve, or a timing device with an electronic valve) to: when the pop-up is activated = the liquid discharge function, the machine The interlocking mechanism can mechanically push and open the door of the liquid inlet control device 6 when the liquid storage device 4 rises to a predetermined high position, 2 interlocks the liquid discharge control device 7, so that the electrons (4) are closed, the liquid discharge is stopped, and when the liquid storage strikes When the set 4 is lowered again to the predetermined low position, the liquid inlet control device 6 is interlocked, the valve is closed, and the liquid inlet operation is stopped. Referring to Fig. 2, a schematic structural view of a second embodiment of the present invention, in which the lower section of the support crucible 1 is directly immersed in the external liquid 1〇 and fixed to the bottom 30 of the external liquid 10 to make the external liquid 1 The liquid level of the crucible is 1 〇 1 minute, which is the highest point of the ascending stroke of the liquid inlet control device 6, the liquid discharge control device 7, and the liquid storage device 4. Thus, the external liquid 1〇 allows the liquid to flow into the reservoir 41 of the liquid storage device 4 by its own gravity and the principle of communication. Preferably, the lower portion of the support rod i is covered with a body 12' having a second liquid inlet 15 corresponding to the first liquid inlet and the first liquid discharge hole, respectively. And a second drain hole 16, wherein the draining device 7 can be disposed outside the protector 12, and the top of the protector 12, y 14 201142226 is tied to the liquid surface 1〇1 of the external liquid 10, The protective support rod is not susceptible to the dip package = liquid ~ ringing, such as in the case of oxidation, and the protective body ^ is preferably a concrete structure. Next, please refer to the figures 3 to 5, which are schematic diagrams of the state in which the present invention is used. The following is an example of the embodiment shown in FIG. 2 to illustrate the present invention: the function of automatically chasing the sun, and Taking a solar panel capable of generating I5kw electric energy as an example, the liquid storage device is about Μ(9) kg in the state of being filled with water, and the spring weight is the surface kilogram, and the fulcrum is the center of the solar collector plate 2. As shown in FIG. 3, the liquid inlet control device 6 can be set to be turned on at night or later (for example, the liquid storage crack 4 can be raised to a predetermined height, and an incoming liquid start signal is sent to the liquid inlet control device 6 ), letting the external liquid 1 〇 (for example, water) flow into the liquid storage chamber 41 of the liquid storage device 4 (as indicated by the dotted arrow) to slowly increase the weight of the liquid storage device 4 to about 15 〇〇 kg, due to the counterweight The body 3 has only 1 00 kg, so the liquid storage device 4 will move the solar collector plate 2 to the sunrise direction (E) through the migrating unit 5, and stop the liquid feeding operation after reaching the initial position. When it is sunrise, the liquid discharge control device 7 opens the internal liquid 20 in the liquid storage chamber 41 to slowly flow out (as indicated by the solid arrow) to cause the weight of the liquid storage device 4 to gradually decrease, and at this time, the weight body 3 is π-moving. Too much collector plate 2 rotates according to the uniaxial direction (ie, the direction of the daily track), and the liquid storage device 4 gradually rises (as indicated by the solid arrow), and the speed of rotation matches the speed of the %% movement, so that the solar power is collected. Plate 2 is always facing the sun. In the case of the present embodiment, at 11 o'clock noon in Fig. 4, the internal liquid 20 allows the weight of the liquid storage device 4 to reach about 12 〇〇 kg, which is just balanced with the weight body 3, so that The solar collector plate 2 is water 15 201142226 and faces the sun. Further, as shown in Fig. 5, when the vehicle is at 6 o'clock in the afternoon (i.e., at sunset), the internal liquid 2 in the liquid storage chamber 41 causes the liquid storage to displace 4 weights to reach about 600 kg, so that the weight through the weight body 3 is greater than The liquid storage device 4 will bring the solar collector plate 2 toward the position of the sun at sunset, thereby achieving the function of chasing the sun. Moreover, the above-mentioned self-flowing external liquid and internal liquid system pass the water level enthalpy difference, the structural height difference, the connecting pipe principle and the gravity principle, so that the liquid body 10, 20 self-replenishes at night and flows out during the day, and does not require any additional

電迠就旎V動如此龐大的太陽能集電板,因此能夠確實達 到提升發電量約10%至15%的功效。 因此,前述之第1及2圖分別為兩種不同之實施例, 如第1圖所示,本發明追日太陽能集電系統係裝設在地勢 相對較低處,不必直接裝置在上述第2 _示的外部液體 上’也不必搭配上狀保護體12,而直接將該第一進液 孔η及進液控制裝置6連接到地勢較高的外部液體⑺處 (例如水庫、自來水廠或社區水塔)或自來水管(自來水 使自流性的外部液體1〇通過進液控制裝 =、=孔13及進液口42自行流入储峨4的儲 二及二 利用該排液控制裝置7、第-排液孔 及排液口 43’使儲液室41内的内部液 出,並流到〜液槽8或排水設備(水渠、水^亍流 同樣完全不需要額外的電能,就能達到追^/ %等), 儲液裝44除了安裝在支撐桿1 : 該支禮桿1外,如第6及7圖即分別C設置於 中’㈣液|置4安裝在支樓桿! ^實_ J丨月况。相較於第一 16 201142226 及第二實施例,第三及第四實施例係多一副桿體102,而該 支撐桿1係為實心結構以加強支撐太陽能集電板的能力。 該副桿體102係為直立設置的長桿並設置於該支撐桿1 旁,該副桿體102中央具有一軸向延伸的中空部11,並具 有連通桿外與桿内中空部π的一通孔19、一第一進液孔 4 13及一第一排液孔14,而該儲液裝置4則位於該副桿體102 ^ 内。至於前述之第一位置感應裝置91及第二位置感應裝置 92亦位於該副桿體102内。 • 第四實施例係如第7圖所示,支撐桿1及副桿體102 的下段皆浸入該外部液體10,並固定在該外部液體10的底 部30,使該外部液體10的液面101分別高於進液控制裝置 6、排液控制裝置7以及儲液裝置4的上升行程最高點。 本發明在上文中已以較佳實施例揭露,然熟習本項技 術者應理解的是,該實施例僅用於描繪本發明,而不應解 讀為限制本發明之範圍。應注意的是,舉凡與該實施例等 ^ 效之變化與置換,均應設為涵蓋於本發明之範疇内。因此, 本發明之保護範圍當以申請專利範圍所界定者為準。 【圖式簡單說明】 第1圖為本發明第一較佳實施例之結構示意圖。 第2圖為本發明第二較佳實施例之結構示意圖。 第3圖為本發明第二較佳實施例之使用狀態示意圖一。 第4圖為本發明第二較佳實施例之使用狀態示意圖二。 S] 第5圖為本發明第二較佳實施例之使用狀態示意圖三。 17 201142226 % 第6 圖為本發明第三 第7 圖為本發明第四 主要 元件符號說明】 1 支撐桿 102 副桿體 11 中空部 12 保護體 13 第一進液孔 14 第一排液孔 15 第二進液孔 16 第二排液孔 17 第一伸縮管 18 第二伸縮管 19 通孔 2 太1¾'能集電板 3 配重體 4 儲液裝置 41 儲液室 42 進液口 43 排液口 5 遷引單元 51 滑輪裝置 6 進液控制裝置 201142226 7 排液控制裝置 71 排液流量閥 8 液槽 9 光感應裝置 91 第一位置感應裝置 92 第二位置感應裝置 10 外部液體 101 液面 20 内部液體 30 底部 E 東 W 西The eMule is able to achieve such a huge increase in power generation capacity by about 10% to 15%. Therefore, the first and second figures are respectively two different embodiments. As shown in FIG. 1, the solar energy collecting system of the present invention is installed at a relatively low ground level, and is not necessarily directly installed in the second aspect. The external liquid on the external liquid does not have to be matched with the upper protective body 12, but directly connects the first liquid inlet η and the liquid inlet control device 6 to the higher external liquid (7) (for example, a reservoir, a water plant or a community) Water tower) or water pipe (tap water makes the self-flowing external liquid 1〇 through the liquid inlet control device =, = hole 13 and the liquid inlet port 42 flows into the storage tank 4 and the second and second use the liquid discharge control device 7, the first The liquid discharge hole and the liquid discharge port 43' allow the liquid inside the liquid storage chamber 41 to flow out, and flow to the liquid tank 8 or the drainage device (the water channel, the water flow, and the flow also do not require additional electric energy, and can be chased) / %, etc.), in addition to the support rod 1 installed in the support rod 1: the support rod 1, as shown in Figures 6 and 7, respectively, C is set in the middle '(four) liquid | set 4 installed in the branch pole! ^ Real_ Compared with the first 16 201142226 and the second embodiment, the third and fourth embodiments are more than one pair of poles. 102. The support rod 1 is a solid structure to strengthen the ability to support the solar collector plate. The auxiliary rod body 102 is a long rod that is erected and disposed beside the support rod 1, and the center of the auxiliary rod body 102 has a The axially extending hollow portion 11 has a through hole 19 connecting the outer portion of the rod and the hollow portion π in the rod, a first liquid inlet hole 4 13 and a first liquid discharge hole 14, and the liquid storage device 4 is located at the The first rod sensing device 91 and the second position sensing device 92 are also located in the sub-rod 102. The fourth embodiment is as shown in Fig. 7, the support rod 1 and the pair The lower portion of the rod body 102 is immersed in the external liquid 10 and fixed to the bottom portion 30 of the external liquid 10 such that the liquid level 101 of the external liquid 10 is higher than the liquid inlet control device 6, the liquid discharge control device 7, and the liquid storage device, respectively. The present invention has been disclosed in the above preferred embodiments, and it should be understood by those skilled in the art that the present invention is only used to describe the present invention and should not be construed as limiting the present invention. Scope. It should be noted that the change with the embodiment and the like The scope of the present invention should be construed as being included in the scope of the present invention. Therefore, the scope of protection of the present invention is defined by the scope of the patent application. [FIG. 1] FIG. 1 is a first preferred embodiment of the present invention. 2 is a schematic structural view of a second preferred embodiment of the present invention. FIG. 3 is a schematic view of a second preferred embodiment of the present invention. FIG. 4 is a second preferred embodiment of the present invention. FIG. 5 is a schematic diagram showing the state of use of the second preferred embodiment of the present invention. 17 201142226 % FIG. 6 is a third seventh embodiment of the present invention. 1 Support rod 102 Sub-rod 11 Hollow 12 Protective body 13 First inlet hole 14 First drain hole 15 Second inlet hole 16 Second drain hole 17 First extension tube 18 Second extension tube 19 Through hole 2 too 13⁄4' energy collector plate 3 weight body 4 liquid storage device 41 liquid storage chamber 42 inlet port 43 liquid discharge port 5 migration unit 51 pulley device 6 liquid inlet control device 201142226 7 drainage control device 71 drainage flow Valve 8 tank 9 light A first position sensing device 91 should be an external device 10 of the second liquid 10 192 internal position sensing device 30 the liquid level of the bottom 20 W E East West

[s] 19[s] 19

Claims (1)

201142226 七、申請專利範圍: 1. 一種追日太陽能集電系統,其包含: 一支撐桿,係為直立設置的長桿,該支撐桿中央具有 一軸向延伸的中空部,並具有連通桿外與桿内中空部的一 通孔、一第一進液孔及一第一排液孔; * " 一太陽能集電板,係樞接在該支撐桿的上端,使該太 _ 陽能集電板得以依據日軌單轴向地旋轉; 一配重體,係結合在該太陽能集電板的一侧邊; • 一儲液裝置,其係可升降活動地設置在該支撐桿的中 空部,該儲液裝置係為中空以於内部形成一儲液室,於該 儲液裝置上部設有連通該儲液室的一進液口,及於該儲液 裝置下部設有連通該儲液室的一排液口; 一遷引單元,其一端固定在該太陽能集電板之另一侧 邊且係相對於該配重體,另一端透過該通孔延伸進入該支 撐桿的中空部並固定在該儲液裝置,使該儲液裝置得以藉 0 由升降來遷引該太陽能集電板旋轉; 一進液控制裝置,係設於該支撐桿外,並透過該第一 ,進液孔連通到該儲液裝置的進液口,用於開放或截阻自流 性的外部液體進入該儲液室,以藉由增加該儲液裝置對該 太陽能集電板產生之力矩,使該太陽能集電板旋轉並定位 於起始位置;及 一排液控制裝置,係設於該支撐桿外,並透過該第一 排液孔連通到該儲液裝置的排液口,用於開放或截阻受地 心引力影響而自行流出該儲液室的内部液體,以藉由減少[s] 20 201142226 該儲液裝置對該太陽能集電板產生之力矩,逐漸改變該太 陽能集電板之角度。 2.如申請專利範圍第1項所述之追日太陽能集電系統,其 中,該支撐桿的下段係浸入該外部液體,並固定在該外部 液體的底部,使該外部液體的液面分別高於該進液控制裝 置、該排液控制裝置以及該儲液裝置的上升行程最高點。 ' 3.如申請專利範圍第2項所述之追日太陽能集電系統,其 中,該支撐桿的下段外圍包覆有一保護體,該保護體係具 • 有分別對應於該第一進液孔及該第一排液孔之第二進液 孔及第二排液孔,其中該保護體之頂部係高於該外部液體 的液面。 4. 如申請專利範圍第3項所述之追日太陽能集電系統,其 中,該保護體係為混凝土結構體。 5. 如申請專利範圍第1至4項中任一項所述之追日太陽能集 電系統,其中該排液控制裝置包含一排液流量閥。 ^ 6.如申請專利範圍第5項所述之追曰太陽能集電系統,其中 更包含: 一光感應裝置,係設於該太陽能集電板上,並電性連 接該排液控制裝置,用於響應太陽光之照射以送出一排液 JT 啟動訊號至該排液控制裝置; 一第一位置感應裝置,係設於該支撐桿之中空部,並 分別電性連接該排液控制裝置及該進液控制裝置,用於響 應上升至預定高度之該儲液裝置,以送出一進液啟動訊號 至該進液控制裝置,以及送出一排液關閉訊號至該排液控 I c.] 21 201142226 制裝置;及 一第二位置感應裝置,係設於該支撐桿之中空部,並 電性連接該進液控制裝置,用於響應下降至預定高度之該 儲液裝置,以送出一進液停止訊號至該進液控制裝置。 7.如申請專利範圍第6項所述之追日太陽能集電系統,其 m 中,該進液控制裝置更包含連通第一進液孔與該儲液裝置 ^ 進液口的一第一伸縮管;該排液控制裝置則更包含連通第 一排液孔與該儲液裝置排液口的一第二伸縮管。 • 8.如申請專利範圍第5項所述之追曰太陽能集電系統,其中 更包含: 一計時裝置,係設於該支撐桿外,並電性連接該排液 控制裝置,用於在特定時間送出一排液啟動訊號至該排液 控制裝置; 一第一位置感應裝置,係設於該支撐桿之中空部,並 分別電性連接該排液控制裝置及該進液控制裝置,用於響 ^ 應上升至預定高度之該儲液裝置,以送出一進液啟動訊號 至該進液控制裝置,以及送出一排液關閉訊號至該排液控 .制裝置;及 一第二位置感應裝置,係設於該支撐桿之中空部,並 電性連接該進液控制裝置,用於響應下降至預定高度之該 儲液裝置,以送出一進液停止訊號至該進液控制裝置。 Si 9.如申請專利範圍第8項所述之追日太陽能集電系統,其 中,該進液控制裝置更包含連通第一進液孔與該儲液裝置 進液口的一第一伸縮管;該排液控制裝置則更包含連通第f 22 201142226 一排液孔與該儲液裝置排液口的一第二伸縮管。 ίο. —種追曰太陽能集電系統,其包含: 一支擔桿’係為直立設置的長桿; 一副桿體,係為直立設置的長桿並設置於該支撐桿 旁,該副桿體中央具有一軸向延伸的中空部,並具有連 通桿外與桿内中空部的一通孔、一第一進液孔及一第一 •r 排液孔; 一太陽能集電板,係枢接在該支撐桿的上端,使該 ® 太陽能集電板得以依據日軌單轴向地旋轉; 一配重體,係結合在該太陽能集電板的一側邊; 一儲液裝置,其係可升降活動地設置在該副桿體的 中空部,該儲液裝置係為中空以於内部形成一儲液室, 於該儲液裝置上部設有連通該儲液室的一進液口,及於 該儲液裝置下部設有連通該儲液室的一排液口; 一遷引單元,其一端固定在該太陽能集電板之另一 | 侧邊且係相對於該配重體,另一端透過該通孔延伸進入 該副桿體的中空部並固定在該儲液裝置,使該儲液裝置 ,得以藉由升降來遷引該太陽能集電板旋轉; 一進液控制裝置,係設於該副桿體外,並透過該第 一進液孔連通到該儲液裝置的進液口,用於開放或截阻 自流性的外部液體進入該儲液室,以藉由增加該儲液裝 置對該太陽能集電板產生之力矩,使該太陽能集電板旋 轉並定位於起始位置;及 一排液控制裝置,係設於該副桿體外,並透過該第, 23 201142226 一排液孔連通到該儲液裝置的排液口,用於開放或截阻 义地〜引力景^響而自行流出該儲液室的内部液體,以夢 由減少該儲液裝置對該太陽能集電板產生之力矩,逐漸 改變該太陽能集電板之角度。 11.如申請專利範圍第10項所述之追日太陽能集電系統,該 • 支撐桿及該副桿體的下段皆浸入該外部液體,並固定在 該外部液體的底部,使該外部液體的液面分別高於該進 液控制裝置、該排液控制裝置以及該儲液裝置的上升行 w 程最高點。 士申明專利範圍弟11項所述之追日太陽能集電系統,其 中,該支撐桿及該副桿體的下段外圍包覆有一保護體, 该保護體係具有分別對應於該第一進液孔及該第一排液 孔之第二進液孔及第二排液孔,其中該保護體之頂部係 高於該外部液體的液面。 13. 如申請專利範圍第12項所述之追日太陽能集電系統,其 • 中’該保護體係為混凝土結構體。 14. 如申請專利範圍第10至13項中任一項所述之追日太陽 能集電系統,其中該排液控制裝置包含一排液流量閥。 15. 如申請專利範圍第14項所述之追日太陽能集電系統,其 中更包含: ’ 一光感應裝置,係設於該太陽能集電板上,並電性 連接該排液控制裝置,用於響應太陽光之照射以送出一 排液啟動訊號至該排液控制裝置;及 一第一位置感應裝置,係設於該副桿體之中空部, [S ] 24 201142226 並分別電性連接該排液控制裝置及該進液控制裝置,用 於響應上升至預定高度之該儲液裝置,以送出一進液啟 動訊號至該進液控制裝置,以及送出一排液關閉訊號至 該排液控制裝置。 16.如申請專利範圍第15項所述之追曰太陽能集電系統,其 中,該進液控制裝置更包含連通第一進液孔與該儲液裝 置進液口的一第一伸縮管;該排液控制裝置則更包含連 通第一排液孔與該儲液裝置排液口的一第二伸縮管。 • 17.如申請專利範圍第14項所述之追曰太陽能集電系統,其 中更包含: 一計時裝置,係設於該支撐桿外,並電性連接該排 液控制裝置,用於在特定時間送出一排液啟動訊號至該 排液控制裝置;及 一第一位置感應裝置,係設於該支撐桿之中空部, 並分別電性連接該排液控制裝置及該進液控制裝置,用 φ 於響應上升至預定高度之該儲液裝置,以送出一進液啟 動訊號至該進液控制裝置,以及送出一排液關閉訊號至 該排液控制裝置。 18.如申請專利範圍第17項所述之追日太陽能集電系統,其 中,該進液控制裝置更包含連通第一進液孔與該儲液裝 置進液口的一第一伸縮管;該排液控制裝置則更包含連 通第一排液孔與該儲液裝置排液口的一第二伸縮管。 [S3 25201142226 VII. Patent application scope: 1. A solar energy collecting system for sun-picking, comprising: a supporting rod, which is a long rod which is arranged upright, the central portion of the supporting rod has an axially extending hollow portion and has a connecting rod outside a through hole with the hollow portion of the rod, a first liquid inlet hole and a first liquid discharge hole; * " a solar collector plate pivotally connected to the upper end of the support rod, so that the solar energy can be collected The plate is uniaxially rotated according to the daily track; a weight body is coupled to one side of the solar collector plate; • a liquid storage device that is movably movable in the hollow portion of the support rod The liquid storage device is hollow to form a liquid storage chamber therein, a liquid inlet port connecting the liquid storage chamber is arranged at an upper portion of the liquid storage device, and a liquid supply port is connected to the liquid storage device at a lower portion of the liquid storage device. a discharge port; one end of which is fixed on the other side of the solar collector plate and opposite to the weight body, and the other end extends through the through hole into the hollow portion of the support rod and is fixed at The liquid storage device enables the liquid storage device to be borrowed 0 is moved by the lifting to move the solar collector plate; a liquid inlet control device is disposed outside the support rod, and through the first, the liquid inlet is connected to the liquid inlet of the liquid storage device for opening Or intercepting the self-flowing external liquid into the liquid storage chamber to rotate and position the solar collector plate at a starting position by increasing a moment generated by the liquid storage device on the solar collector plate; and discharging a liquid The control device is disposed outside the support rod and communicates with the liquid discharge port of the liquid storage device through the first liquid discharge hole for opening or intercepting the internal gravity of the liquid storage chamber due to the influence of gravity Liquid to gradually change the angle of the solar collector plate by reducing the torque generated by the liquid storage device on the solar collector plate by [s] 20 201142226. 2. The solar energy collecting system according to claim 1, wherein the lower portion of the support rod is immersed in the external liquid and fixed at the bottom of the external liquid so that the liquid level of the external liquid is high respectively. The liquid inlet control device, the liquid discharge control device, and the highest point of the rising stroke of the liquid storage device. 3. The solar energy collecting system according to claim 2, wherein the lower portion of the support rod is covered with a protective body, and the protection system has a corresponding corresponding to the first liquid inlet hole and a second liquid inlet hole and a second liquid discharge hole of the first liquid discharge hole, wherein a top of the protection body is higher than a liquid level of the external liquid. 4. The solar energy collecting system according to claim 3, wherein the protection system is a concrete structure. 5. The solar energy collecting system according to any one of claims 1 to 4, wherein the liquid discharging control device comprises a drain flow valve. The solar energy collecting system of claim 5, further comprising: a light sensing device disposed on the solar collector plate and electrically connected to the liquid discharging control device Receiving a discharge JT start signal to the drain control device in response to the illumination of the sunlight; a first position sensing device is disposed in the hollow portion of the support rod, and electrically connected to the drain control device and the The liquid inlet control device is configured to respond to the liquid storage device rising to a predetermined height to send an liquid start signal to the liquid inlet control device, and send a liquid discharge signal to the liquid discharge control I c.] 21 201142226 And a second position sensing device is disposed in the hollow portion of the support rod and electrically connected to the liquid inlet control device for responding to the liquid storage device descending to a predetermined height to send a liquid stop Signal to the liquid inlet control device. 7. The solar energy collecting system according to claim 6, wherein the liquid inlet control device further comprises a first expansion and contraction connecting the first liquid inlet hole and the liquid storage device The drain control device further includes a second telescopic tube that communicates with the first drain hole and the liquid discharge port of the liquid storage device. 8. The solar energy collecting system according to claim 5, further comprising: a timing device disposed outside the support rod and electrically connected to the liquid discharge control device for specific The time is sent to the liquid discharge control device to the liquid discharge control device; a first position sensing device is disposed in the hollow portion of the support rod, and is electrically connected to the liquid discharge control device and the liquid inlet control device respectively for The liquid storage device that should rise to a predetermined height to send a liquid start signal to the liquid inlet control device, and to send a liquid discharge signal to the liquid discharge control device; and a second position sensing device And being disposed in the hollow portion of the support rod and electrically connected to the liquid inlet control device for responding to the liquid storage device descending to a predetermined height to send an liquid intake stop signal to the liquid inlet control device. The solar energy collecting system according to claim 8, wherein the liquid inlet control device further comprises a first telescopic tube connecting the first liquid inlet and the liquid inlet of the liquid storage device; The drain control device further includes a second telescopic tube that communicates a drain of the f 22 201142226 with the drain of the liquid storage device. Οο — 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰 曰The central portion of the body has an axially extending hollow portion, and has a through hole connecting the outer portion of the rod and the hollow portion in the rod, a first liquid inlet hole and a first liquid drain hole; and a solar collector plate pivotally connected At the upper end of the support rod, the solar collector plate can be uniaxially rotated according to the daily track; a weight body is coupled to one side of the solar collector plate; a liquid storage device The lifting and lowering is disposed in a hollow portion of the auxiliary rod body, the liquid storage device is hollow to form a liquid storage chamber therein, and a liquid inlet port connecting the liquid storage chamber is disposed at an upper portion of the liquid storage device, and The lower part of the liquid storage device is provided with a liquid discharge port communicating with the liquid storage chamber; a moving unit, one end of which is fixed on the other side of the solar energy collecting plate and is opposite to the weight body, and the other end is transparent The through hole extends into the hollow portion of the auxiliary rod body and is fixed in the liquid storage device The liquid storage device is configured to move the solar collector plate by lifting and lowering; an liquid inlet control device is disposed outside the auxiliary rod and communicates with the liquid storage device through the first liquid inlet hole a liquid inlet for opening or intercepting a self-flowing external liquid into the liquid storage chamber to rotate and position the solar collector plate by increasing a moment generated by the liquid storage device on the solar collector plate a starting position; and a drain control device, disposed outside the auxiliary rod, and connected to the liquid discharge port of the liquid storage device through a drain hole of the 2011, 201142226, for opening or blocking the ground-gravity The ambient sound flows out of the liquid inside the liquid storage chamber, and the angle of the solar current collecting plate is gradually changed by reducing the moment generated by the liquid storage device on the solar current collecting plate. 11. The solar energy collecting system according to claim 10, wherein the support rod and the lower portion of the sub-rod are immersed in the external liquid and fixed at the bottom of the external liquid to make the external liquid The liquid level is higher than the liquid inlet control device, the liquid discharge control device, and the highest point of the rising line of the liquid storage device. The invention relates to a sun-collecting solar energy collecting system according to the invention, wherein the support rod and the lower portion of the sub-rod body are covered with a protection body, and the protection system has a corresponding corresponding to the first liquid inlet hole and a second liquid inlet hole and a second liquid discharge hole of the first liquid discharge hole, wherein a top of the protection body is higher than a liquid level of the external liquid. 13. In the solar energy collection system of the solar energy system described in claim 12, the protection system is a concrete structure. 14. The solar energy collecting system according to any one of claims 10 to 13, wherein the liquid discharging control device comprises a drain flow valve. 15. The solar energy collecting system according to claim 14, wherein the method further comprises: 'a light sensing device disposed on the solar collector plate and electrically connected to the liquid discharging control device Receiving a discharge start signal to the drain control device in response to the illumination of the sunlight; and a first position sensing device disposed in the hollow portion of the sub-rod, [S] 24 201142226 and electrically connected to the a liquid discharge control device and the liquid inlet control device for responding to the liquid storage device rising to a predetermined height to send an liquid start signal to the liquid inlet control device, and sending a liquid discharge signal to the liquid discharge control Device. [16] The tracking solar energy collecting system of claim 15, wherein the liquid inlet control device further comprises a first telescopic tube that connects the first liquid inlet and the liquid inlet of the liquid storage device; The drain control device further includes a second telescopic tube that communicates with the first drain hole and the liquid discharge port of the liquid storage device. 17. The solar energy collecting system according to claim 14, wherein the method further comprises: a timing device disposed outside the support rod and electrically connected to the liquid discharge control device for specific Timely sending a discharge start signal to the drain control device; and a first position sensing device is disposed in the hollow portion of the support rod, and electrically connected to the drain control device and the liquid inlet control device respectively φ is in response to the liquid storage device rising to a predetermined height to send an incoming start signal to the liquid inlet control device, and to send a drain closing signal to the liquid discharge control device. [18] The solar energy collecting system of claim 17, wherein the liquid inlet control device further comprises a first telescopic tube connecting the first liquid inlet and the liquid inlet of the liquid storage device; The drain control device further includes a second telescopic tube that communicates with the first drain hole and the liquid discharge port of the liquid storage device. [S3 25
TW099117229A 2010-05-28 2010-05-28 Sun-tracking solar energy power collection system TW201142226A (en)

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN105429574A (en) * 2015-12-23 2016-03-23 广东亿腾新能源有限公司 Self-adjusting photovoltaic module bracket and adjusting method thereof
CN105446364A (en) * 2015-12-23 2016-03-30 广东亿腾新能源有限公司 Photovoltaic bracket angle adjusting method
EP3431900A1 (en) * 2017-07-20 2019-01-23 Vestel Elektronik Sanayi ve Ticaret A.S. Apparatus and method for mounting a solar energy device
CN113847660A (en) * 2021-09-13 2021-12-28 北京三和通风机械工程有限公司 Solar intelligent refrigeration and ventilation equipment

Cited By (5)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN105429574A (en) * 2015-12-23 2016-03-23 广东亿腾新能源有限公司 Self-adjusting photovoltaic module bracket and adjusting method thereof
CN105446364A (en) * 2015-12-23 2016-03-30 广东亿腾新能源有限公司 Photovoltaic bracket angle adjusting method
CN105446364B (en) * 2015-12-23 2018-06-22 广东亿腾新能源有限公司 A kind of photovoltaic bracket angle adjusting method
EP3431900A1 (en) * 2017-07-20 2019-01-23 Vestel Elektronik Sanayi ve Ticaret A.S. Apparatus and method for mounting a solar energy device
CN113847660A (en) * 2021-09-13 2021-12-28 北京三和通风机械工程有限公司 Solar intelligent refrigeration and ventilation equipment

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