COMPACT STRUCTURED SOLAR POWER GENERATION EQUIPMENT WITH IMPROVED POWER GENERATION EFFICIENCY

• 1. 控制和/或调控太阳能热发电设备的方法和太阳能热发电设备 [P] . 中国专利： CN109643086B . 2021.11.09
• 2. 太阳能发电设备和安装太阳能发电设备的方法 [P] . 中国专利： CN112602266A . 2021-04-02
• 3. Equipment for improving the efficiency of solar power generation equipment [P] . 日本专利： JP2017511119A . 2017-04-13

  机译： 用于提高太阳能发电设备效率的设备

• 4. the efficiency of solar power generation equipment, improve equipment [P] . 韩国专利： KR10-1311891B9 . 2013-10-28

  机译： 太阳能发电设备效率提高设备

• 5. Roof snow melting apparatus using a thermal storage plastic aimed at improving efficiency of solar power generation equipment to the snow season [P] . 日本专利： JP3062842U . 1999-10-15

  机译： 使用蓄热塑料的屋顶融雪设备，旨在提高太阳能发电设备到下雪季节的效率

• 1. Efficiency analysis of trilateral-cycle power systems for waste heat recovery-to-power generation [J] . Habeeb A. AJIMOTOKAN 中南大学学报（英文版） . 2016,第012期
• 2. Design of Power Switching and Distribution Circuits for Solar Power Generation [J] . Yun-Pam Lee, En-Chi Liu 电子科技学刊：英文版 . 2013,第003期
• 3. Potential of integrating power generation with solar thermal cooling to improve the energy efficiency in a university campus in Saudi Arabia [J] . Bayoumi Mohannad Energy & Environment . 2020,第1期
• 4. Improved Efficiency of Solar Power Generation by Designing Converter using Passive Ripple Cancelling Circuit [J] . Anukirti Srivastava, Arundhatee Srivastava, Deepak Agrawal, International Organization of Scientific Research . 2020,第6期
• 5. IMPLEMENTING TECHNOLOGY IN ELECTRIC POWER GENERATION TO LIMIT CLIMATE CHANGE: PART A; IMPROVING STEAM GENERATOR TECHNOLOGY, RE-POWERING, AND ELECTRIC POWER GENERATION IN JAPAN [J] . T.J. Hammons International journal of power & energy systems . 2004,第1期
• 6. Improving the Efficiency of Solar Photovoltaic Power Generation Using Improved MPPT Method [C] . Mohammed Fouad Kareem, Sefer Kurnaz International Congress on Human-Computer Interaction, Optimization and Robotic Applications . 2020
• 7. Renewable Electricity Generation via Solar-Powered Methanol Reforming: Hybrid Proton Exchange Membrane Fuel Cell Systems Based on Novel Non-Concentrating, Intermediate-Temperature Solar Collectors. [D] . Real, Daniel J. 2015
• 8. Ultra-High Efficiency Photovoltaic Cells for Large Scale Solar Power Generation [O] . Yoshiaki Nakano 2012
• 9. Operation Solar Eagle: a study examining photovoltaic (PV) solar power as an alternative for the rebuilding of the Iraqi electrical power generation infrastructure [O] . Borja Ralph, Austin Curtis, Phillips Jeffery 2005

• 1. Erratum to “Improving the Power Generation Performance of a Solar Tower Using Thermal Updraft Wind” Energy and Power Engineering Vol. 6 No. 11 (October 2014) 362-370 [J] . Masataka Motoyama ,Yuji Ohya ,Takashi Karasudani . 能源与动力工程（英文） . 2015,第6期
• 2. Improving the Power Generation Performance of a Solar Tower Using Thermal Updraft Wind [J] . Masataka Motoyama ,Kenichiro Sugitani ,Yuji Ohya . 能源与动力工程（英文） . 2014,第11期
• 3. Efficiency analysis of trilateral-cycle power systems for waste heat recovery-to-power generation [J] . Habeeb A. AJIMOTOKAN . 中南大学学报 . 2016,第012期
• 4. 家用紧凑式太阳能热水系统集热效率的研究 [C] . 周静娜 . 第三届夏热冬冷地区绿色建筑联盟会议 . 2013
• 5. A公司高倍聚光太阳能光伏发电设备项目财务评估研究 [A] . 黄登 . 2012