PROPULSION DEVICE AND A SHIP WITH THE SAME CAPABLE OF GENERATING PROPULSION FORCE WITH TWO PROPELLERS

• 1. 一种具有测速装置的船舶推进器 [P] . 中国专利： CN213921438U . 2021-08-10
• 2. 液压装置及具有其的船舶推进器 [P] . 中国专利： CN112082080A . 2020-12-15
• 3. PROPULSION DEVICE AND A SHIP WITH THE SAME CAPABLE OF GENERATING PROPULSION FORCE WITH THE ROTATION OF PROPELLERS [P] . 韩国专利： KR20120138518A . 2012-12-26

  机译： 推进装置和具有与推进器旋转相同的产生推进力能力的船舶

• 4. PROPULSION DEVICE AND A SHIP WITH THE SAME CAPABLE OF GENERATING PROPULSION FORCE WITH TWO PROPELLERS [P] . 韩国专利： KR20120138355A . 2012-12-26

  机译： 具有两个推进器产生推进力的相同能力的推进装置和船舶

• 5. PROPULSION DEVICE AND A SHIP WITH THE SAME CAPABLE OF GENERATING PROPULSION FORCE WHILE OPPOSITELY ROTATING TWO PROPELLERS [P] . 韩国专利： KR20120134301A . 2012-12-12

  机译： 反向旋转两个螺旋桨时具有相同产生力的推进装置和船舶

• 1. The Conceptual Design Experience of Sea-Going Ships with Alternative Propulsion System, Equipped with Dual-Mode Contra Propeller [J] . Anatolij-Branko R. Togunjac, Leonid I. Vishnevsky, Evgeniy A. Sedykh 船舶与海洋工程：英文版 . 2016,第002期
• 2. Research on Propeller Dynamic Load Simulation System of Electric Propulsion Ship [J] . HUANG Hui, SHEN Ai-di, CHU Jian-xin 中国海洋工程（英文版） . 2013,第002期
• 3. Analysis of Eff iciency of the Ship Propulsion System with Thermochemical Recuperation of Waste Heat [J] . Oleksandr Cherednichenko, Serhiy Serbin 船舶与海洋工程学报（英文版） . 2018,第001期
• 4. Energy savings for ship propulsion in waves based on real-time optimal control of propeller pitch and electric propulsion [J] . Makino Hidenari, Umeda Naoya, Ohtsuka Toshiyuki, Journal of marine science and technology . 2017,第3期
• 5. Numerical analysis of influence of ship hull form modification on ship resistance and propulsion characteristics: Part Ⅲ Influence of hull form modification on screw propeller efficiency [J] . Tomasz Abramowski, Katarzyna Zelazny, Tadeusz Szelangiewicz Polish Maritime Research . 2010,第1期
• 6. Penalty of hull and propeller fouling on ship self-propulsion performance [J] . Applied Ocean Research . 2020,第期
• 7. Numerical simulation of the ship self-propulsion prediction using body force method and fully discretized propeller model [C] . A S Bekhit International Conference on Modern Technologies in Industrial Engineering . 2018
• 8. The Effects of Varying Diameter on Coaxial Propellers for the Propulsion of Multirotor Systems [D] . Ostar-Exel, Laura. 2019
• 9. Forces generated during actin-based propulsion: A direct measurement by micromanipulation [O] . Yann Marcy, Jacques Prost, Marie-France Carlier, 2004
• 10. The Effect of Afterbody Shapes and Highly Skewed Propellers on Propulsion and Propeller Excited Vibratory Forces of a Shallow Draft Gas Carrier [O] . Yasuo Saito, Akira Masumoto, Yoshikatsu Kimura, 1979
• 11. An Analysis of the Propulsion Experiments Performed on a Model Representing the Stretched PONCE DE LEON (SPDL) Class RO/RO Ship Fitted with Two Sets of Design Contrarotating Propellers (Model 5362; Propellers 4731 & 4732 and 9019 [R] . Fisher, S. C. 1981

• 1. On the Optimal Modes of Controlled Transfer of Walking Propulsion Devices [J] . M.V.Miroshkina ,E.S.Briskin . 人工智能技术学报(英文) . 2021,第3期
• 2. A Study on the Mixed Use of Power Conversion Elements of Propulsion Control Devices in Railway Train [J] . Dongwon Lim ,Hanmin Lee ,Jinhan Lee . 能源与动力工程 . 2020,第002期
• 3. 船舶与喷水推进器匹配关系和喷水推进器主参数优化研究 [C] . 段瑞 ,严传续 ,刘建国 . 第二十届中国国际船艇展暨高性能船学术报告会、中国游艇设计建造技术论坛 . 2015
• 4. 冷备状态下具有两个状态的由两个相同部件并联的可修系统研究 [A] . 仲彦军 . 2006