Description

Book Synopsis
DETAILED COVERAGE OF LOW-NOISE SYSTEMS IN THE DEEP SPACE NETWORK

This book explores the low-noise microwave systems that form the front end of all DSN ground receiving stations. It explains why the front end of each antenna is key to establishing the sensitivity, polarization, frequency diversity, and capabilities of the receiving chain and, therefore, the entire ground station. The book uses precise definitions, measurements, and calibrations of system noise temperature for the calculations based on IEEE standardsan approach that is not generally used in industry and researchwhich facilitates clarity, understanding, and cross-referencing throughout the book.

With the guidance of this book, readers will gain unprecedented insight into all of the major topics needed to understand how to improve a ground station''s receiving capability. Low-Noise Systems in the Deep Space Network provides:

  • A description of all internal and external noise elements


  • Table of Contents
    Foreword.

    Preface.

    Acknowledgments.

    Contributors.

    Chapter 1: Introduction (Macgregor S. Reid).

    References.

    Chapter 2: System Noise Concepts with DSN Applications (Charles T. Stelzried, Arthur J. Freiley, and Macgregor S. Reid).

    2.1 Introduction.

    2.2 Noise Temperature Concepts.

    2.3 Antennas.

    2.4 Low-Noise Amplifiers.

    2.5 Receiving Systems.

    2.6 Measurements.

    2.7 Radiometers in the DSN.

    2.8 Status and Future.

    Notation and Terms.

    References.

    Chapter 3: Ruby Masers (Robert C. Clauss and James S. Shell).

    3.1 Introduction.

    3.2 Ruby Properties.

    3.3 Spin Resonance, the Applied Magnetic Field, Ruby Orientation, the Low-Temperature Requirement, and Excitation.

    3.4 Spin-Lattice Relaxation Time, Inversion Ratios, Transition Probabilities, the Filling Factor, and Magnetic.

    3.5 Ruby Maser Noise Temperatures.

    3.6 Ruby Masers as Noise Temperature Standards.

    3.7 Immunity from Radio Frequency Interference (RFI).

    3.8 Early DSN Cavity Masers.

    3.9 Comb-Type Traveling-Wave Masers.

    3.10 Reflected-Wave Masers.

    3.11 Ka-Band and the Return to Cavity.

    3.12 Analysis of Maser Designs.

    References.

    Chapter 4: Cryogenic Refrigeration Systems (Robert C. Clauss).

    4.1 Introduction.

    4.2 Advantages of Using Cryogenic Cooling.

    4.3 Open-Cycle Refrigeration.

    4.4 Heat Transfer.

    4.5 Antenna-Mounted Operation.

    4.6 Closed-Cycle Helium Refrigerators.

    4.7 Conclusion.

    References.

    Chapter 5: HEMT Low-Noise Amplifiers (J. Javier Bautista).

    5.1 Introduction-Semiconductor Conductivity.

    5.2 The Many Acronym-ed Device (MAD)--A Brief HEMT History.

    5.3 HEMT Growth Technology.

    5.4 HEMT Materials Evolution--From GaAs to InAs.

    5.5 Device Fabrication.

    5.6 HEMT Noise Modeling.

    5.7 LNA Development.

    5.8 LNA Modeling and Characterization.

    5.9 Subsystem Measurements.

    5.10 Conclusion.

    References.

    Chapter 6: Atmosphere Attenuation and Noise Temperature at Microwave Frequencies (Shervin Shambayati).

    6.1 Introduction.

    6.2 Surface Weather.

    6.3 Water Vapor Radiometer Data.

    6.4 Weather Forecasting.

    6.5 Concluding Remarks/Future Directions.

    References.

    Chapter 7: Antenna Calibration (David J. Rochblatt).

    7.1 Introduction.

    7.2 Calibration System Requirements.

    7.3 Conventional Approach to Aperture Efficiency and Pointing Measurements.

    7.4 The Raster-Scan Method.

    7.5 Blind-Pointing Calibration.

    7.6 Cassini-Jupiter Microwave Observation Campaign (Cassini JMOC).

    7.7 Operational Antenna Calibration & Measurement Equipment (ACME) for the DSN.

    7.8 Conclusions.

    References.

    Chapter 8: Microwave Antenna Holography (David J. Rochblatt).

    8.1 Introduction.

    8.2 Holography System Simulation.

    8.3 Holography Receiver Signal Analysis.

    8.4 Mathematical Formulation Data Processing.

    8.5 Applications.

    8.6 Conclusion.

    References.

    Acronyms And Abbreviations.

LowNoise Systems in the Deep Space Network

    Product form

    £185.20

    Includes FREE delivery

    RRP £194.95 – you save £9.75 (5%)

    Order before 4pm tomorrow for delivery by Wed 1 Jul 2026.

    A Hardback by Macgregor S. Reid

    10 in stock


      View other formats and editions of LowNoise Systems in the Deep Space Network by Macgregor S. Reid

      Publisher: John Wiley & Sons Inc
      Publication Date: 17/10/2008
      ISBN13: 9780470402283, 978-0470402283
      ISBN10: 0470402288

      Description

      Book Synopsis
      DETAILED COVERAGE OF LOW-NOISE SYSTEMS IN THE DEEP SPACE NETWORK

      This book explores the low-noise microwave systems that form the front end of all DSN ground receiving stations. It explains why the front end of each antenna is key to establishing the sensitivity, polarization, frequency diversity, and capabilities of the receiving chain and, therefore, the entire ground station. The book uses precise definitions, measurements, and calibrations of system noise temperature for the calculations based on IEEE standardsan approach that is not generally used in industry and researchwhich facilitates clarity, understanding, and cross-referencing throughout the book.

      With the guidance of this book, readers will gain unprecedented insight into all of the major topics needed to understand how to improve a ground station''s receiving capability. Low-Noise Systems in the Deep Space Network provides:

      • A description of all internal and external noise elements


      • Table of Contents
        Foreword.

        Preface.

        Acknowledgments.

        Contributors.

        Chapter 1: Introduction (Macgregor S. Reid).

        References.

        Chapter 2: System Noise Concepts with DSN Applications (Charles T. Stelzried, Arthur J. Freiley, and Macgregor S. Reid).

        2.1 Introduction.

        2.2 Noise Temperature Concepts.

        2.3 Antennas.

        2.4 Low-Noise Amplifiers.

        2.5 Receiving Systems.

        2.6 Measurements.

        2.7 Radiometers in the DSN.

        2.8 Status and Future.

        Notation and Terms.

        References.

        Chapter 3: Ruby Masers (Robert C. Clauss and James S. Shell).

        3.1 Introduction.

        3.2 Ruby Properties.

        3.3 Spin Resonance, the Applied Magnetic Field, Ruby Orientation, the Low-Temperature Requirement, and Excitation.

        3.4 Spin-Lattice Relaxation Time, Inversion Ratios, Transition Probabilities, the Filling Factor, and Magnetic.

        3.5 Ruby Maser Noise Temperatures.

        3.6 Ruby Masers as Noise Temperature Standards.

        3.7 Immunity from Radio Frequency Interference (RFI).

        3.8 Early DSN Cavity Masers.

        3.9 Comb-Type Traveling-Wave Masers.

        3.10 Reflected-Wave Masers.

        3.11 Ka-Band and the Return to Cavity.

        3.12 Analysis of Maser Designs.

        References.

        Chapter 4: Cryogenic Refrigeration Systems (Robert C. Clauss).

        4.1 Introduction.

        4.2 Advantages of Using Cryogenic Cooling.

        4.3 Open-Cycle Refrigeration.

        4.4 Heat Transfer.

        4.5 Antenna-Mounted Operation.

        4.6 Closed-Cycle Helium Refrigerators.

        4.7 Conclusion.

        References.

        Chapter 5: HEMT Low-Noise Amplifiers (J. Javier Bautista).

        5.1 Introduction-Semiconductor Conductivity.

        5.2 The Many Acronym-ed Device (MAD)--A Brief HEMT History.

        5.3 HEMT Growth Technology.

        5.4 HEMT Materials Evolution--From GaAs to InAs.

        5.5 Device Fabrication.

        5.6 HEMT Noise Modeling.

        5.7 LNA Development.

        5.8 LNA Modeling and Characterization.

        5.9 Subsystem Measurements.

        5.10 Conclusion.

        References.

        Chapter 6: Atmosphere Attenuation and Noise Temperature at Microwave Frequencies (Shervin Shambayati).

        6.1 Introduction.

        6.2 Surface Weather.

        6.3 Water Vapor Radiometer Data.

        6.4 Weather Forecasting.

        6.5 Concluding Remarks/Future Directions.

        References.

        Chapter 7: Antenna Calibration (David J. Rochblatt).

        7.1 Introduction.

        7.2 Calibration System Requirements.

        7.3 Conventional Approach to Aperture Efficiency and Pointing Measurements.

        7.4 The Raster-Scan Method.

        7.5 Blind-Pointing Calibration.

        7.6 Cassini-Jupiter Microwave Observation Campaign (Cassini JMOC).

        7.7 Operational Antenna Calibration & Measurement Equipment (ACME) for the DSN.

        7.8 Conclusions.

        References.

        Chapter 8: Microwave Antenna Holography (David J. Rochblatt).

        8.1 Introduction.

        8.2 Holography System Simulation.

        8.3 Holography Receiver Signal Analysis.

        8.4 Mathematical Formulation Data Processing.

        8.5 Applications.

        8.6 Conclusion.

        References.

        Acronyms And Abbreviations.

      Recently viewed products

      © 2026 Book Curl

        • American Express
        • Apple Pay
        • Diners Club
        • Discover
        • Google Pay
        • Maestro
        • Mastercard
        • PayPal
        • Shop Pay
        • Union Pay
        • Visa

        Login

        Forgot your password?

        Don't have an account yet?
        Create account