Vincenzo Russo

Tao Liu

Qingguo Ma

Jesper Clement

Jia Jin

Margherita Zito

Neuromanagement and Neuromarketing

Haitao Li

Yilei Zhao

Xiaofei Hu

Zhongzhao Teng

The Role of Neuroimaging in Cerebral Small Vessel Disease

Min Wang

Yongchun Xie

Changqing Chen

This book focuses on the theory and design methods for guidance, navigation, and control (GNC) in the context of spacecraft rendezvous and docking (RVD). The position and attitude dynamics and kinematics equations for RVD are presented systematically in accordance with several different coordinate systems, including elliptical orbital frame, and recommendations are supplied on which of these equations to use in different phases of RVD. The book subsequently explains the basic principles and relative navigation algorithms of RVD sensors such as GNSS, radar, and camera-type RVD sensors. It also provides guidance algorithms and schemes for different phases of RVD, including the latest research advances in rapid RVD. In turn, the book presents a detailed introduction to intelligent adaptive control and proposes corresponding theoretical approaches to thruster configuration and control allocation for RVD. Emphasis is placed on the design method of active and passive trajectory protection in different phases of RVD, and on the safety design of the RVD mission as a whole. For purposes of verification, the Shenzhou spacecraft’s in-orbit flight mission is introduced as well. All issues addressed are described and explained from basic principles to detailed engineering methods and examples, providing aerospace engineers and students both a basic understanding of, and numerous practical engineering methods for, GNC system design in RVD.

Guidance, Navigation, and Control for Spacecraft Rendezvous and Docking: Theory and Methods

Extend your C# skills to F#—and create data-rich computational and parallel software components faster and more efficiently. Focusing on F# 3.0 and Microsoft Visual Studio 2012, you’ll learn how to exploit F# features to solve both computationally-complex problems as well as everyday programming tasks. Topics include: C# and F# data structures; F# for functional, object-oriented, and imperative programming; design patterns; type providers; and portable support for Windows 8. You’ll examine real-world applications, including Windows 8-style HTML5 and JavaScript apps, along with cloud and service apps. You’ll write your own type provider. And you’ll see how to expand F# computation power to high-performance GPU computing.

F# for C# Developers

Tao Liu

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