期刊文献+
共找到3篇文章
< 1 >
每页显示 20 50 100
保障游乐设施“自控飞机”运营安全措施
1
作者 张宇光 蒋明锋 《上海安全生产》 2020年第7期60-62,共3页
"自控飞机"是自控飞机类游乐设施中的典型产品,也是主题乐园和公园游乐场中的常见游乐设施。为避免乘客上下"自控飞机"座舱时发生摔倒、跌落等风险,本文从"自控飞机"游乐设施的本体和操作人员操作、乘客... "自控飞机"是自控飞机类游乐设施中的典型产品,也是主题乐园和公园游乐场中的常见游乐设施。为避免乘客上下"自控飞机"座舱时发生摔倒、跌落等风险,本文从"自控飞机"游乐设施的本体和操作人员操作、乘客乘坐行为等方面的应对措施进行分析,为保障"自控飞机"运营安全提供帮助。 展开更多
关键词 “自控飞机” 座舱 运营安全
原文传递
MATHEMATICAL MODEL OF SELF-REPAIRING FLIGHT CONTROL 被引量:2
2
作者 王永 詹训慧 +1 位作者 吴刚 胡寿松 《Transactions of Nanjing University of Aeronautics and Astronautics》 EI 2003年第2期178-183,共6页
The most prospective method for certain structural failures and damages that cannot employ redundancy is self-repairing techniques, to ensure especially the maximum flight safety. Based on the characters of self-repai... The most prospective method for certain structural failures and damages that cannot employ redundancy is self-repairing techniques, to ensure especially the maximum flight safety. Based on the characters of self-repairing aircraft, this paper states some basic assumptions of the self-repairing aircraft, and puts forward some special new conceptions concerning the self-repairing aircraft: control input, operating input, command input, repair input and operating and control factor as well as their relationships. Thus it provides a simple and reliable mathematical model structure for the research on the self-repairing control of the aircraft. 展开更多
关键词 SELF-REPAIRING flight control mathematical model operating and control factor
下载PDF
A Potential Flow Based Flight Simulator for an Underwater Glider 被引量:3
3
作者 Surasak Phoemsapthawee Marc Le Boulluec +1 位作者 Jean-Marc Laurens Fran ois Deniset 《Journal of Marine Science and Application》 2013年第1期112-121,共10页
Underwater gliders are recent innovative types of autonomous underwater vehicles (AUVs) used in ocean exploration and observation. They adjust their buoyancy to dive and to return to the ocean surface. During the ch... Underwater gliders are recent innovative types of autonomous underwater vehicles (AUVs) used in ocean exploration and observation. They adjust their buoyancy to dive and to return to the ocean surface. During the change of altitude, they use the hydrodynamic forces developed by their wings to move forward. Their flights are controlled by changing the position of their centers of gravity and their buoyancy to adjust their trim and heel angles. For better flight control, the understanding of the hydrodynamic behavior and the flight mechanics of the underwater glider is necessary. A 6-DOF motion simulator is coupled with an unsteady potential flow model for this purpose. In some specific cases, the numerical study demonstrates that an inappropriate stabilizer dimension can cause counter-steering behavior. The simulator can be used to improve the automatic flight control. It can also be used for the hydrodynamic design optimization of the devices. 展开更多
关键词 underwater glider potential flow Newton-Euler equation autonomous underwater vehicles (AUVs) flight simulator
下载PDF
上一页 1 下一页 到第
使用帮助 返回顶部