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Imbriale William A. Ч Large Antennas of the Deep Space Network
Imbriale William A. Ч Large Antennas of the Deep Space Network

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Ќазвание: Large Antennas of the Deep Space Network

јвтор: Imbriale William A.

јннотаци€:

Detailing the evolution of large parabolic dish antennas and their uses, this volume traces the development of NASA's Deep Space Network antenna, from its inception in 1958 to the present. The analytic and measurement techniques used in design and performance assessment are also discussed. The book is intended as an introduction for students new to the field. Imbriale is a research engineer at the California Institute of Technology's Jet Propulsion Laboratory.


язык: en

–убрика: ‘изика/јстрономи€/

—татус предметного указател€: √отов указатель с номерами страниц

ed2k: ed2k stats

√од издани€: 2003

 оличество страниц: 306

ƒобавлена в каталог: 17.06.2005

ќперации: ѕоложить на полку | —копировать ссылку дл€ форума | —копировать ID
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ѕредметный указатель
26-Meter S-/X-band conversion project      82Ч86
26-Meter S-/X-band conversion project, performance measurements      86
26-Meter S-/X-band conversion project, performance predictions      84Ч86
34-M R&D antenna, Goldstone, California      170Ч190
34-M R&D antenna, Goldstone, California, antenna design considerations      171Ч173
34-M R&D antenna, Goldstone, California, bypass beam-waveguide design      181Ч182
34-M R&D antenna, Goldstone, California, dual-shaped reflector design      187
34-M R&D antenna, Goldstone, California, effect of using DSS-15 main reflector panel molds for DSS-13 panels      187Ч190
34-M R&D antenna, Goldstone, California, pedestal room optics design      180Ч181
34-M R&D antenna, Goldstone, California, theoretical performance      182Ч187
34-M R&D antenna, Goldstone, California, upper-mirror optics design      173Ч180
34-Meter beam-waveguide operational antennas      225Ч252
34-Meter beam-waveguide operational, antennas, adding Ka-band to operational 34-m, beam-waveguide antennas      239Ч252
34-Meter beam-waveguide operational, beam-waveguide design      225Ч226
34-Meter beam-waveguide operational, initial testing      227Ч239
34-Meter high-efficiency antenna      157Ч164; see also Deep Space Station 15: Uranus
34-Meter research and development beamaveguide antenna      167Ч219
34-Meter research and development beamaveguide antenna, beam-waveguide test facility      168 169
34-Meter research and development beamaveguide antenna, new analytical techniques      168
34-Meter research and development beamaveguide antenna, the new antenna      170Ч190
70-Meter antennas, study to replace      284Ч289
70-Meter antennas, study to replace, arraying flat-plate antennas      288Ч289
70-Meter antennas, study to replace, arraying four 34-m aperture antennas      286Ч287
70-Meter antennas, study to replace, arraying small antennas      287Ч288
70-Meter antennas, study to replace, designing new 70-m single-aperture antenna      285Ч286
70-Meter antennas, study to replace, extending life of existing 70-m antennas      285
70-Meter antennas, study to replace, implementing spherical pair of highefficiency reflecting elements antenna concept      289
Adding Ka-band to operational 34-m BWG antennas      239Ч252
Adding Ka-band to operational 34-m BWG antennas, Cassini radio science Ka-band ground system      239Ч248
Adding Ka-band to operational 34-m BWG antennas, Ka-band upgradesЧreceive-only system      248Ч252
Analysis techniques for designing reflector antennas      6Ч40
Antenna Figure of merit (FM)      4
Antenna noise-temperature determination      33Ч40
Antenna noise-temperature determination, noise temperature in BWG systems      35Ч40
Antenna noise-temperature properties      4
Antenna research system task      257Ч280
Antenna research system task, Deep Space Station 27      276Ч280
Antenna research system task, design of beam-waveguide system      259Ч262
Antenna research system task, design of transmit feed horn      262Ч267
Antenna research system task, dual-vane polarizers      273Ч275
Antenna research system task, receive-system design      268Ч272
Antenna research system task, uplink arraying      275Ч276
Aperture gain and efficiency measurements      51Ч55
ARST      see Antenna Research System Task
ASI/NASA Marconi mission (Agenzia Spaziale Italiana)      290
Beam-waveguide antenna (BWG)      2
Beam-waveguide antenna performance in bypass mode      200Ч204
Beam-waveguide antenna performance in bypass mode, Ka band measurements      201Ч204
Beam-waveguide antenna performance in bypass mode, X band measurements      200Ч201
Beam-waveguide system, design of      259Ч262
Beam-waveguide systems, techniques for designing      55Ч62
Beam-waveguide systems, techniques for designing, focal-plane matching      58
Beam-waveguide systems, techniques for designing, Gaussian-beam design      59Ч60
Beam-waveguide systems, techniques for designing, high-power design      61Ч62
Beam-waveguide systems, techniques for designing, highpass design      56 58
Beam-waveguide versatility      218Ч219
BWG antenna performance in bypass mode      200Ч204
BWG antenna performance in bypass mode, efficiency calibration at 8.45 and 32 GHZ      196
BWG antenna performance in bypass mode, noise temperature      192Ч195
BWG antenna performance in bypass mode, optimizing G.T ratio of BWG antenna      196Ч299
BWG antenna performance in bypass mode, X- and Ka-band test packages      190Ч191
BWG antenna, phase 1 measured results      190Ч204
BWG antennas      3
BWG systems, noise temperature in      35Ч40
Bypass beam waveguide, removal of      204Ч210
Canberra, Australia, DSN in      1
Cassegrain concept      71Ч72
Cassegrain geometry, factors influencing      72Ч73
Cassegrain telescope      1
Cassegrain-type feed system, DSCCs and      1
Cassini radio science Ka-band ground system      239Ч248
Cassini radio science Ka-band ground system, beam-aberration correction      246 248
Cassini radio science Ka-band ground system, measured performance after installation of Ka-band      244Ч245
Cassini radio science Ka-band ground system, monopulse pointing system      243Ч244
Cassini radio science Ka-band ground system, optics design      240Ч242
Deep Space Station 11: Pioneer      71Ч77
Deep Space Station 11: Pioneer, 26-meter Cassegrain system      74Ч77
Deep Space Station 11: Pioneer, Cassegrain concept      71Ч72
Deep Space Station 11: Pioneer, factors influencing Cassegrain geometry      72 73
Deep space station 12: Echo      79Ч87
Deep space station 12: Echo, 26-meter S-/X-band conversion project      82Ч86
Deep space station 12: Echo, Goldstone-Apple Valley Radio Telescope project      86 87
Deep space station 12: Echo, S-band Cassegrain monopulse feed horn      81Ч82
Deep Space Station 13: Venus      89Ч95
Deep Space Station 13: Venus, dual-mode conical feed horn      93
Deep Space Station 13: Venus, gain calibration      93Ч95
Deep Space Station 14: Mars      97Ч150
Deep Space Station 14: Mars, antenna structure      98Ч101
Deep Space Station 14: Mars, distortion compensation      140Ч149
Deep Space Station 14: Mars, future interests and challenges      150
Deep Space Station 14: Mars, L-band      120Ч125
Deep Space Station 14: Mars, reflex-dichroic feed system      114Ч120
Deep Space Station 14: Mars, S-band (1966)      101Ч102
Deep Space Station 14: Mars, tricone multiple Cassegrain feed system      106Ч113
Deep Space Station 14: Mars, upgrade from 64 to 70 meters      125Ч139
Deep Space Station 14: Mars, X-band, performance at      103Ч106
Deep Space Station 15: Uranus      157Ч164
Deep Space Station 15: Uranus, common-aperture feed      158Ч159
Deep Space Station 15: Uranus, computed versus measured performance      163Ч164
Deep Space Station 15: Uranus, dual-reflector shaping      159Ч162
Deep Space Station 27      276Ч280
Deep-space communications complexes (DSCCs)      1
Designing reflector antennas, analysis techniques for      6Ч40
Dichroic analysis      29Ч32
Dichroic design, low-cost      32
DSS-11, 26-meter Cassegrain system      74 77
DSS-24, efficiency measurements      230Ч234
DSS-24, initial testing of      227Ч239
DSS-24, microwave holography measurements      229Ч230
DSS-24, noise-temperature results      235Ч236
DSS-24, the shroud      236Ч239
Dual-mode conical feed horn, Venus antenna and      93
Dual-reflector shaping      20Ч23
Dual-reflector shaping, offset-shaped reflector antennas      23
Dual-reflector shaping, theoretical solution for symmetric case      20Ч23
Dual-vane polarizers      273Ч275
Echo antenna      2
Efficiency measurements, aperture gain and      51Ч53
Fced-hom analysis      14Ч18
Focal-plane matching, BWG design and      58
Frequency bands allocated to DSN      6
Gain calibration, Venus antenna and      93Ч95
Gaussian beam design      59 60
Gaussian-beam algorithm      24- 27
Gaussian-beam analysis      6
GAVRT      see Goldstone Ч Apple Valley Radio Telescope program
Geometric optics (GO)      6
Goldstone Ч Apple Valley Radio Telescope program      86Ч87
Goldstone, California, DSN in      1
Heinrich Hertz      6
High-efficiency (HEF) antenna      2
High-power design, BWG systems and      61Ч62
Highpass BWG design      56Ч58
Illumination function, reflector antennas, design principles for      5
Interplanetary network      290Ч291
Ka-band upgrades receive-only system      248Ч252
Ka-band upgrades receive-only system, BWG geometry      249
Ka-band upgrades receive-only system, demonstration at DSS-26      249Ч252
Ka-band upgrades receive-only system, X-/X-/Ka-Band feed      248Ч249
Low-cost dichroic design      32
Madrid, Spain, DSN in      1
Mars Aerostationary Relay Satellite (MARSat)      290
Mars Global Surveyor      290
Mars Odyssey (2001)      290
Measurement techniques      40Ч55
Measurement techniques, aperture gain and efficiency measurements      51Ч53
Measurement techniques, microwave holography      45Ч50
Measurement techniques, noise-temperature measurements      53Ч55
Measurement techniques, theodolite measurements      40Ч45
Microwave holography      45Ч50
Multifrequency operations      210Ч218
Multifrequency operations, S-band design      213Ч218
Multifrequency operations, X-/Ka band system      210Ч213
Next-generation deep space network      283Ч292
Next-generation deep space network, study to replace 70-meter antennas      284Ч289
Next-generation deep space network, towards the interplanetary network      290 292
Noise temperature in BWG systems      35Ч40
Noise-temperature measurements      53Ч55
Offset-shaped reflector antennas      23
Parabolic dish antennas, evolution of      1Ч3
Physical optics (PO)      6 7Ч8
Pioneer Deep Space Station      2
Quasioptical techniques      23Ч28
Quasioptical techniques, example      27Ч28
Quasioptical techniques, Gaussian beam algorithm      24Ч27
Quasioptical techniques, PO technique      24
Quasioptical techniques, ray analysis algorithm      27
R&D antenna      3
Radiation-pattern analysis      7Ч14
Radiation-pattern analysis, application to dual-reflector antennas      10Ч11
Radiation-pattern analysis, mathematical details      8 10
Radiation-pattern analysis, numerical example of      13Ч14
Radiation-pattern analysis, useful coordinate transformations      11Ч13
Ray analysis algorithm      27
Ray tracing      6
Reeeive-system design      268Ч272
Reflector antennas, analysis techniques for designing      6Ч40
Reflector antennas, antenna noise-temperatiure determination      33Ч40
Reflector antennas, dichroic analysis      29Ч32
Reflector antennas, dual-reflector shaping      20Ч23
Reflector antennas, feed-horn analysis      14Ч18
Reflector antennas, quasioptical techniques      23Ч28
Reflector antennas, radiation-pattern analysis      7Ч14
Reflector antennas, spherical-wave analysis      18Ч20
Removal of bypass beam waveguide      204Ч210
S-band Cassegrain monopulse feed horn      81Ч82
Signal processing center (CPS)      1
Signal-to-noise ratio (SNR)      3
Sphcrieal-wave analysis      18Ч20
Technology drivers      3Ч6
Technology drivers, allocated frequency bands      6
Theodolite measurements      40Ч45
Total system-noise temperature      4
Transmit feed horn, design of      262Ч267
U.S.National Aeronautics and Space Administration (NASA) Deep Space Network (DSN)      1
Uplink arraying      275Ч276
Venus site, as DSN R&D station      2
Voyager spacecraft, encounter at Neptune      2
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