Muutke küpsiste eelistusi

Deep Space Craft: An Overview of Interplanetary Flight 2009 ed. [Kõva köide]

  • Formaat: Hardback, 440 pages, kõrgus x laius: 235x155 mm, kaal: 968 g, XXIV, 440 p., 1 Hardback
  • Sari: Astronautical Engineering
  • Ilmumisaeg: 02-Apr-2009
  • Kirjastus: Springer-Verlag Berlin and Heidelberg GmbH & Co. K
  • ISBN-10: 3540895094
  • ISBN-13: 9783540895091
Teised raamatud teemal:
  • Kõva köide
  • Hind: 159,88 €*
  • * hind on lõplik, st. muud allahindlused enam ei rakendu
  • Tavahind: 188,09 €
  • Säästad 15%
  • Raamatu kohalejõudmiseks kirjastusest kulub orienteeruvalt 2-4 nädalat
  • Kogus:
  • Lisa ostukorvi
  • Tasuta tarne
  • Tellimisaeg 2-4 nädalat
  • Lisa soovinimekirja
  • Formaat: Hardback, 440 pages, kõrgus x laius: 235x155 mm, kaal: 968 g, XXIV, 440 p., 1 Hardback
  • Sari: Astronautical Engineering
  • Ilmumisaeg: 02-Apr-2009
  • Kirjastus: Springer-Verlag Berlin and Heidelberg GmbH & Co. K
  • ISBN-10: 3540895094
  • ISBN-13: 9783540895091
Teised raamatud teemal:
Deep Space Craft opens the door to interplanetary flight. It looks at this world from the vantage point of real operations on a specific mission, and follows a natural trail from the day-to-day working of this particular spacecraft, through the functioning of all spacecraft to the collaboration of the various disciplines to produce the results for which a spacecraft is designed. These results are of course mostly of a scientific nature, although a small number of interplanetary missions are also flown primarily to test and prove new engineering techniques. The author shows how, in order to make sense of all the scientific data coming back to Earth, the need for experiments and instrumentation arises, and follows the design and construction of the instruments through to their placement and testing on a spacecraft prior to launch. Examples are given of the interaction between an instrument's science team and the mission's flight team to plan and specify observations, gather and analyze data in flight, and finally present the results and discoveries to the scientific community.This highly focused, insider's guide to interplanetary space exploration uses many examples of previous and current endeavors. It will enable the reader to research almost any topic related to spacecraft and to seek the latest scientific findings, the newest emerging technologies, or the current status of a favorite flight. In order to provide easy paths from the general to the specific, the text constantly refers to the Appendices. Within the main text, the intent is general familiarization and categorization of spacecraft and instruments at a high level, to provide a mental framework to place in context and understand any spacecraft and any instrument encountered in the reader's experience.Appendix A gives illustrated descriptions of many interplanetary spacecraft, some earth-orbiters and ground facilities to reinforce the classification framework. Appendix B contains illustrated detailed descriptions of a dozen scientific instruments, including some ground-breaking engineering appliances that have either already been in operation or are poised for flight. Each instrument's range of sensitivity in wavelengths of light, etc, and its physical principle(s) of operation is described. Appendix C has a few annotated illustrations to clarify the nomenclature of regions and structures in the solar system and the planets' ring systems, and places the solar system in context with the local interstellar environment.

This illuminating and focused book opens the door to interplanetary flight. It looks at this world from the vantage point of real operations on a specific mission, and follows a natural trail from the day-to-day working of this particular spacecraft.

Arvustused

From the reviews:

This book by Doody covers many topics related to spacecraft for interplanetary missions. The appendixes contain valuable and interesting databases of existing typical spacecraft and scientific instruments. The material in this work will be of interest to undergraduate students in aerospace engineering, engineering physics, and applied physics, as well as practitioners interested in an overview of deep space missions and scientific instruments for space exploration. Summing Up: Recommended. Lower- and upper-division undergraduates, professionals/practitioners, and general readers. (Y. J. Crispin, Choice, Vol. 47 (3), November, 2009)

Introduction xv
Author's Preface xvii
Acknowledgements xix
Foreword xxi
Telepresence
1(48)
On Location
1(9)
A Busy Realtime Night
4(1)
Realtime as Middle Ground
5(1)
Wake-up Calls
6(3)
Resolution
9(1)
The Link With Earth
10(35)
Spacecraft and the Deep Space Network
10(1)
Microwaves
11(2)
Antenna Gain
13(2)
Power in the Link
15(1)
All Things Considered
15(4)
Signal-to-Noise Ratio: SNR
19(2)
Amplification
21(3)
The HEMT Low-Noise Amplifier
24(1)
The Maser Low-Noise Amplifier
24(2)
LNA Bandwidth
26(1)
Microwave Signals To Go
26(1)
The Closed-Loop Receiver
26(2)
The Open-Loop Receiver
28(1)
Transporting Information
28(1)
Modulation Schemes
29(1)
Power in the Data
30(1)
Error Detection and Correction
31(3)
Telemetry in Lock
34(1)
Data Compression
35(1)
Pushing the Shannon Limit
36(1)
Data Structure
37(1)
Channelized Engineering data and Science data
38(2)
CCSDS
40(1)
Remote Control
41(2)
Beacons in Space
43(2)
More than Telepresence
45(4)
Notes
45(2)
References
47(2)
Navigating the Depths
49(38)
Martian Miscalculation
49(2)
Choice of Flight Path
51(2)
Orbit Determination and Guidance
53(5)
Kepler; Newton and his Principia
53(2)
Models and Observables
55(1)
Optical Navigation
56(1)
Autonomous Navigation
57(1)
Making Measurements
58(13)
Coordinate Systems
59(3)
Measuring the Doppler Shift
62(2)
One, Two, Three Way
64(2)
Measuring Range
66(1)
VLBI --- Very Long Baseline Interferometry
67(3)
Putting it all together
70(1)
Correction and Trim Maneuvers
71(7)
The Target Plane
72(3)
Maneuver Execution
75(3)
Gravity Assist
78(3)
A Grand Tour
79(1)
How it works
80(1)
A Familiar Connection Severed
81(6)
Notes
82(2)
References
84(3)
Spacecraft Attitude Control
87(32)
A Distant Rocking
87(2)
The Attitude Control System
89(4)
Intersecting Disciplines
93(3)
Stability
96(5)
Going for a Spin
96(3)
Three-axis control
99(1)
Hybrids
100(1)
Attitude Control Peripherals
101(13)
AACS Input Devices
101(5)
AACS Output Devices
106(8)
Scientific Experiments with AACS
114(2)
AACS Faults and Protection
116(3)
Notes
117(1)
References
118(1)
Propulsion
119(24)
Liftoff
119(2)
Newton's Third Law
121(4)
Water as Reaction Mass
121(1)
Rocket Science
122(1)
A Solid Rocket Example
123(1)
Making Comparisons
124(1)
Interplanetary Travel Becomes Possible
125(2)
Nozzles
126(1)
Propulsion System Designs
127(12)
Solid Rocket Motors
127(2)
Liquid Monopropellant Systems
129(3)
Liquid Bipropellant Systems
132(3)
Tanks in Free-fall
135(1)
Dual Modes and Hybrids
136(1)
Electrical Propulsion
136(3)
Basic Systems
139(4)
Notes
139(2)
References
141(2)
More Subsystems Onboard
143(38)
Hierarchy
143(1)
Spacecraft Bus
143(1)
Electrical Power Subsystem
144(11)
Voltage and Current
144(1)
Solar Panels
145(3)
Batteries
148(2)
RTGs
150(3)
Power Conditioning and Distribution
153(2)
Power Margin
155(1)
Structure Subsystem
155(4)
Functions
155(1)
Materials
156(1)
Components
156(1)
Examples
157(1)
Pre-Launch Structural Testing
158(1)
Command and Telemetry Subsystem
159(2)
CTS Roles
159(1)
Data Storage
159(1)
Data Bus
160(1)
Heater Control
160(1)
Heartbeat
161(1)
Fault Protection
161(4)
Safing
162(1)
Fault-Tolerant Architecture
162(1)
Fault-Protection Monitors
163(1)
Fault-Protection Responses
164(1)
Critical Commands
164(1)
Recovery from Safing
165(1)
Thermal Control Subsystem
165(9)
Radiative Heat Transfer
166(2)
Heat Generation
168(1)
Conductive Heat Transfer
168(1)
Components
168(4)
Atmospheric Entry
172(1)
Thermal-Vacuum Testing
173(1)
Mechanical Devices Subsystem
174(3)
Release Devices
174(2)
Extensible Booms
176(1)
Science Instruments
177(4)
Notes
177(1)
References
178(3)
Science Instruments and Experiments
181(60)
Questions
182(1)
Payload
183(1)
Scientific Instruments
183(36)
The Four Categories
183(1)
The Questions and the Instruments
184(2)
Imaging Science Instruments
186(14)
Altimeters
200(1)
Microwave Radiometers and Scatterometers
201(1)
Optical Spectroscopic Instruments
202(10)
Mass Spectrometers
212(2)
Atmospheric Analysis Instruments
214(1)
Active Spectrometers
215(1)
Magnetometers
216(1)
Radio and Plasma Wave Detectors
217(1)
Impact and Dust Detectors
217(1)
Charged Particle Detectors
218(1)
Summary
219(1)
In-Flight Science Experiments
219(8)
Solar and Stellar Occultations
219(1)
Radio Science Occultations
220(2)
Radio Science Celestial Mechanics Experiments
222(1)
Superior Conjunction Experiments
223(1)
Radio Science Gravitational Radiation Searches
224(1)
Bistatic Radio Science Observations
225(1)
Gravity Field Surveys
225(1)
Calibrations and Ground Truth
226(1)
Science Data Pipeline
227(14)
Television, Radio, and Newspapers
228(1)
WWW Media
228(1)
Peer-Reviewed Journals
229(1)
Meetings of Scientific Institutions
230(1)
Hands on the Data
231(1)
An Expanding Presence
232(1)
Notes
232(2)
References
234(7)
Mission Formulation and Implementation
241(40)
Announcement of Opportunity
241(2)
Financial Perspective
242(1)
About Scout
242(1)
AO Responses
242(1)
Spacecraft Classifications
243(3)
Engineering Demonstration Spacecraft
243(1)
Observatory Spacecraft
244(1)
Flyby Spacecraft
244(1)
Orbiter Spacecraft
245(1)
Atmospheric Spacecraft
245(1)
Lander and Penetrator Spacecraft
245(1)
Rover Spacecraft
245(1)
Communications and Navigation Spacecraft
246(1)
Size and Complexity
246(1)
Making a Mission
246(20)
Decadal Surveys
247(1)
Competed Missions
247(1)
Assigned Missions
248(1)
Administration
248(3)
Mission Phases
251(1)
Reviews
252(1)
Pre-phase A: Concept studies
253(6)
Phase A: Concept and Technology Development
259(1)
Phase B: Preliminary Design and Technology Completion
259(3)
Phase C: Final Design and Fabrication
262(1)
Phase D: Assembly, Integration and Test, Launch
262(4)
Flying a Mission
266(15)
Phase E: Flight Operations and Data Analysis
266(10)
Phase F: Closeout
276(2)
Notes
278(1)
References
278(3)
Onward
281(12)
Spacecraft Bus Technologies
281(4)
Science
285(2)
Gravitational Wave Astronomy
285(1)
Earth-mass Exoplanet Discoveries
285(1)
SETI
286(1)
Habitat Identification
286(1)
Improving Sensor Capability
286(1)
Print and Electronic Media
287(1)
Human Journeys
288(1)
Earth-Protective Measures
288(1)
Earthbound Dividends
289(4)
Notes
290(1)
References
291(2)
Appendix A: Typical Spacecraft
293(26)
Appendix B: Typical Instruments
319(14)
Appendix C: Space
333(8)
References
334(7)
Appendix D: The Electromagnetic Spectrum
341(6)
Notes
341(6)
Appendix E: Chronology
347(22)
Notes
368(1)
Appendix F: Units of Measure, Abbreviations, Greek Alphabet
369(10)
Glossary 379(46)
Index 425