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    • 1. 发明申请
    • SOLAR SENSING SYSTEM AND SOLAR TRACKING METHOD THEREOF
    • 太阳传感系统及其太阳跟踪方法
    • US20120103393A1
    • 2012-05-03
    • US13069594
    • 2011-03-23
    • JIUNN-CHI WUPI-CHENG TUNGYAN-BIN YOU
    • JIUNN-CHI WUPI-CHENG TUNGYAN-BIN YOU
    • H01L31/052
    • G01S3/7861F24S50/20Y02E10/47
    • This invention discloses a solar sensing system and a solar tracking method thereof. The solar sensing system comprises a solar module, an azimuth sensor unit, an elevation sensor unit and a driving unit. The azimuth sensor unit and the elevation sensor unit are disposed on the surface of the solar module. The azimuth sensor unit senses sunlight to generate an azimuth signal. The driving unit receives the azimuth signal to turn the solar module until the azimuth sensor unit is aligned precisely towards the sunlight. The elevation sensor unit senses the sunlight to generate an elevation signal. The driving unit receives the elevation signal to turn the solar module until the elevation sensor unit is aligned precisely towards the sunlight. If the azimuth sensor unit and the elevation sensor unit are aligned precisely towards the sunlight, the solar module will also be aligned precisely towards the sunlight.
    • 本发明公开了一种太阳能感测系统及其太阳能跟踪方法。 太阳能感测系统包括太阳能模块,方位传感器单元,仰角传感器单元和驱动单元。 方位传感器单元和仰角传感器单元设置在太阳能模块的表面上。 方位传感器单元感测太阳光以产生方位角信号。 驱动单元接收方位信号以转动太阳能模块,直到方位传感器单元精确对准太阳光。 仰角传感器单元感测太阳光以产生仰角信号。 驱动单元接收仰角信号以转动太阳能模块,直到仰角传感器单元精确对准阳光。 如果方位角传感器单元和仰角传感器单元精确对准太阳光,则太阳能模块也将精确对准太阳光。
    • 2. 发明申请
    • Multi-beam interferometer displacement measuring system utilized in a large measuring range
    • 多光束干涉仪位移测量系统用于大量程
    • US20110157598A1
    • 2011-06-30
    • US12926697
    • 2010-12-06
    • Yung-Cheng WANGLih-Horng SHYUChung-Ping CHANGPi-Cheng TUNG
    • Yung-Cheng WANGLih-Horng SHYUChung-Ping CHANGPi-Cheng TUNG
    • G01B9/02
    • G01B9/02018G01B9/02061G01B11/14G01B2290/25G01B2290/70
    • A multi-beam interferometer displacement measuring system has a light source module, a resonator module and a detecting device. The light source module has an emitter and a polaroid sheet. The emitter emits a non-polarizing beam. The polaroid sheet receives and transforms the non-polarizing beam into a polarizing beam. The resonator module receives the polarizing beam and has a coated glass panel, a corner cube prism and a wave-delay plate. The coated glass panel receives and reflects the polarizing beam. The corner cube prism receives and reflects the polarizing beam to the coated glass panel to form a resonant cavity. The wave-delay plate is mounted between the coated glass panel and the corner cube prism to receive the polarizing beam. The detecting device faces the coated glass panel to receive the interferential stripes formed in the resonator module and has a polarizing beam splitter, two power detectors and a signal processor.
    • 多光束干涉仪位移测量系统具有光源模块,谐振器模块和检测装置。 光源模块具有发射器和偏光片。 发射极发射非偏振光束。 偏光片接收并将非偏振光束变换为偏振光束。 谐振器模块接收偏振光束,并具有涂覆的玻璃面板,角立方棱镜和波浪延迟板。 涂覆的玻璃面板接收和反射偏振光束。 拐角立方棱镜将偏振光束接收并反射到涂覆的玻璃面板以形成谐振腔。 波延迟板安装在涂覆的玻璃面板和角立方棱镜之间以接收偏振光束。 检测装置面向涂覆的玻璃面板以接收在谐振器模块中形成的干涉条纹,并具有偏振分束器,两个功率检测器和信号处理器。
    • 3. 发明授权
    • Sun tracking method and sun tracking system
    • 太阳跟踪方法和太阳跟踪系统
    • US09182471B2
    • 2015-11-10
    • US13353311
    • 2012-01-18
    • Jiunn-Chi WuChih-Kuang LinPi-Cheng TungWei-Hann Yao
    • Jiunn-Chi WuChih-Kuang LinPi-Cheng TungWei-Hann Yao
    • G01J1/20G01S3/786F24J2/38G05D3/10F24J2/54H01L31/042
    • G01S3/7861F24S30/452F24S50/20G05D3/105H02S20/00H02S20/32Y02E10/47Y02E10/50
    • A sun tracking method is disclosed. The method can track the position of sun continuously, without the need to install an optical sensor, to calculate a sun-tracking solar orbit function, and to calibrate the mechanical structure periodically. The method comprises the steps outlined below. (A) A motor of an attitude control device is driven for changing attitude of a photovoltaic cell device to sense and record a short-circuit current by a short-circuit current measuring device directly or in cooperation with the switching behavior of a switch power unit of a maximum power tracking control device, or to sense and to record an output power by a power measuring device. (B) A maximum value of the short-circuit current or the output power is calculated. (C) The motor-driving device is driven for modulating the photovoltaic cell device to an attitude corresponding to the maximum value of the short-circuit current or the output power.
    • 公开了一种太阳跟踪方法。 该方法可以连续跟踪太阳的位置,无需安装光学传感器,计算太阳跟踪太阳轨道功能,并定期校准太阳轨道功能。 该方法包括以下步骤。 (A)姿态控制装置的电动机被驱动以改变光伏电池装置的姿态,以通过短路电流测量装置直接地或与开关电源单元的开关行为协调地感测和记录短路电流 的最大功率跟踪控制装置,或者通过功率测量装置感测和记录输出功率。 (B)计算短路电流或输出功率的最大值。 (C)驱动电动机驱动装置,将光伏电池装置调制到与短路电流或输出功率的最大值对应的姿势。
    • 4. 发明授权
    • Light sensing system and method of driving the same
    • 光传感系统及其驱动方法
    • US08581164B2
    • 2013-11-12
    • US12884634
    • 2010-09-17
    • Jiunn-Chi WuPi-Cheng TungYan-Bin You
    • Jiunn-Chi WuPi-Cheng TungYan-Bin You
    • G01C21/02G01C21/24G01J1/20
    • G01S3/7861
    • The present invention discloses a light sensing system and a control method thereof. The light sensing system comprises a body, a plurality of first light sensors, a base, a plurality of second light sensors and a processing module. A through hole is disposed on the body. The first light sensors are disposed symmetrically on the body and generating a plurality of first sensing signal after sensing lights correspondingly. The base is arranged under the body. The second light sensors are disposed symmetrically on the base, while the geometric center of the second light sensors corresponds to the geometric center of the through hole. The second light sensors generating a plurality of second sensing signals correspondingly after sensing lights via the through hole. The processing module connects to the first and the second light sensors, and controls the light sensing system according to the first and the second sensing signals.
    • 本发明公开了一种光感测系统及其控制方法。 光感测系统包括主体,多个第一光传感器,基座,多个第二光传感器和处理模块。 通孔设置在主体上。 第一光传感器对称地设置在主体上,并相应地在感测灯之后产生多个第一感测信号。 基座布置在身体下方。 第二光传感器对称设置在基座上,而第二光传感器的几何中心对应于通孔的几何中心。 第二光传感器在经由通孔感测光后相应地产生多个第二感测信号。 处理模块连接到第一和第二光传感器,并且根据第一和第二感测信号控制光感测系统。
    • 5. 发明授权
    • Multi-beam interferometer displacement measuring system utilized in a large measuring range
    • 多光束干涉仪位移测量系统用于大量程
    • US08441649B2
    • 2013-05-14
    • US12926697
    • 2010-12-06
    • Yung-Cheng WangLih-Horng ShyuChung-Ping ChangPi-Cheng Tung
    • Yung-Cheng WangLih-Horng ShyuChung-Ping ChangPi-Cheng Tung
    • G01B9/02
    • G01B9/02018G01B9/02061G01B11/14G01B2290/25G01B2290/70
    • A multi-beam interferometer displacement measuring system has a light source module, a resonator module and a detecting device. The light source module has an emitter and a polaroid sheet. The emitter emits a non-polarizing beam. The polaroid sheet receives and transforms the non-polarizing beam into a polarizing beam. The resonator module receives the polarizing beam and has a coated glass panel, a corner cube prism and a wave-delay plate. The coated glass panel receives and reflects the polarizing beam. The corner cube prism receives and reflects the polarizing beam to the coated glass panel to form a resonant cavity. The wave-delay plate is mounted between the coated glass panel and the corner cube prism to receive the polarizing beam. The detecting device faces the coated glass panel to receive the interferential stripes formed in the resonator module and has a polarizing beam splitter, two power detectors and a signal processor.
    • 多光束干涉仪位移测量系统具有光源模块,谐振器模块和检测装置。 光源模块具有发射器和偏光片。 发射极发射非偏振光束。 偏光片接收并将非偏振光束变换为偏振光束。 谐振器模块接收偏振光束,并具有涂覆的玻璃面板,角立方棱镜和波浪延迟板。 涂覆的玻璃面板接收和反射偏振光束。 拐角立方棱镜将偏振光束接收并反射到涂覆的玻璃面板以形成谐振腔。 波延迟板安装在涂覆的玻璃面板和角立方棱镜之间以接收偏振光束。 检测装置面向涂覆的玻璃面板以接收在谐振器模块中形成的干涉条纹,并具有偏振分束器,两个功率检测器和信号处理器。
    • 6. 发明申请
    • Light Sensing System and Control Method Thereof
    • 光传感系统及其控制方法
    • US20110278433A1
    • 2011-11-17
    • US12884634
    • 2010-09-17
    • Jiunn-Chi WuPi-Cheng TungYan-Bin You
    • Jiunn-Chi WuPi-Cheng TungYan-Bin You
    • G01J1/20
    • G01S3/7861
    • The present invention discloses a light sensing system and a control method thereof. The light sensing system comprises a body, a plurality of first light sensors, a base, a plurality of second light sensors and a processing module. A through hole is disposed on the body. The first light sensors are disposed symmetrically on the body and generating a plurality of first sensing signal after sensing lights correspondingly. The base is arranged under the body. The second light sensors are disposed symmetrically on the base, while the geometric center of the second light sensors corresponds to the geometric center of the through hole. The second light sensors generating a plurality of second sensing signals correspondingly after sensing lights via the through hole. The processing module connects to the first and the second light sensors, and controls the light sensing system according to the first and the second sensing signals.
    • 本发明公开了一种光感测系统及其控制方法。 光感测系统包括主体,多个第一光传感器,基座,多个第二光传感器和处理模块。 通孔设置在主体上。 第一光传感器对称地设置在主体上,并相应地在感测灯之后产生多个第一感测信号。 基座布置在身体下方。 第二光传感器对称设置在基座上,而第二光传感器的几何中心对应于通孔的几何中心。 第二光传感器在经由通孔感测光后相应地产生多个第二感测信号。 处理模块连接到第一和第二光传感器,并且根据第一和第二感测信号控制光感测系统。
    • 9. 发明授权
    • Solar sensing system and solar tracking method thereof
    • 太阳能传感系统及其太阳跟踪方法
    • US08367996B2
    • 2013-02-05
    • US13069594
    • 2011-03-23
    • Jiunn-Chi WuPi-Cheng TungYan-Bin You
    • Jiunn-Chi WuPi-Cheng TungYan-Bin You
    • H01L31/052
    • G01S3/7861F24S50/20Y02E10/47
    • This invention discloses a solar sensing system and a solar tracking method thereof. The solar sensing system comprises a solar module, an azimuth sensor unit, an elevation sensor unit and a driving unit. The azimuth sensor unit and the elevation sensor unit are disposed on the surface of the solar module. The azimuth sensor unit senses sunlight to generate an azimuth signal. The driving unit receives the azimuth signal to turn the solar module until the azimuth sensor unit is aligned precisely towards the sunlight. The elevation sensor unit senses the sunlight to generate an elevation signal. The driving unit receives the elevation signal to turn the solar module until the elevation sensor unit is aligned precisely towards the sunlight. If the azimuth sensor unit and the elevation sensor unit are aligned precisely towards the sunlight, the solar module will also be aligned precisely towards the sunlight.
    • 本发明公开了一种太阳能感测系统及其太阳能跟踪方法。 太阳能感测系统包括太阳能模块,方位传感器单元,仰角传感器单元和驱动单元。 方位传感器单元和仰角传感器单元设置在太阳能模块的表面上。 方位传感器单元感测太阳光以产生方位角信号。 驱动单元接收方位信号以转动太阳能模块,直到方位传感器单元精确对准太阳光。 仰角传感器单元感测太阳光以产生仰角信号。 驱动单元接收仰角信号以转动太阳能模块,直到仰角传感器单元精确对准太阳光。 如果方位角传感器单元和仰角传感器单元精确对准太阳光,则太阳能模块也将精确对准太阳光。
    • 10. 发明申请
    • SUN TRACKING METHOD AND SUN TRACKING SYSTEM
    • 太阳追踪方法和追踪系统
    • US20120193512A1
    • 2012-08-02
    • US13353311
    • 2012-01-18
    • Jiunn-Chi WUChih-Kuang LINPi-Cheng TUNGWei-Hann YAO
    • Jiunn-Chi WUChih-Kuang LINPi-Cheng TUNGWei-Hann YAO
    • G01J1/20
    • G01S3/7861F24S30/452F24S50/20G05D3/105H02S20/00H02S20/32Y02E10/47Y02E10/50
    • A sun tracking method is disclosed. The method can track the position of sun continuously, without the need to install an optical sensor, to calculate a sun-tracking solar orbit function, and to calibrate the mechanical structure periodically. The method comprises the steps outlined below. (A) A motor of an attitude control device is driven for changing attitude of a photovoltaic cell device to sense and record a short-circuit current by a short-circuit current measuring device directly or in cooperation with the switching behavior of a switch power unit of a maximum power tracking control device, or to sense and to record an output power by a power measuring device. (B) A maximum value of the short-circuit current or the output power is calculated. (C) The motor-driving device is driven for modulating the photovoltaic cell device to an attitude corresponding to the maximum value of the short-circuit current or the output power.
    • 公开了一种太阳跟踪方法。 该方法可以连续跟踪太阳的位置,无需安装光学传感器,计算太阳跟踪太阳轨道功能,并定期校准太阳轨道功能。 该方法包括以下步骤。 (A)姿态控制装置的电动机被驱动以改变光伏电池装置的姿态,以通过短路电流测量装置直接地或与开关电源单元的开关行为协调地感测和记录短路电流 的最大功率跟踪控制装置,或者通过功率测量装置感测和记录输出功率。 (B)计算短路电流或输出功率的最大值。 (C)驱动电动机驱动装置,将光伏电池装置调制到与短路电流或输出功率的最大值对应的姿势。