My Account Log in

1 option

Integrated Satellite-Terrestrial Network Fundamentals for Mobile Communications.

Knovel Electronics & Semiconductors Academic Available online

View online
Format:
Book
Author/Creator:
Xiao, Lixia.
Contributor:
Xiao, Pei.
Jiang, Tao.
Language:
English
Physical Description:
1 online resource (299 pages)
Edition:
1st ed.
Place of Publication:
Norwood : Artech House, 2025.
Summary:
Integrated Satellite-Terrestrial Network Fundamentals for Mobile Communications explores the critical role of integrated terrestrial-satellite networks in supporting the demands of 5G and 6G applications, including massive IoT, enhanced mobile broadband, and ultra-reliable low-latency communications. These networks are essential for providing geographic coverage and supporting mobility across platforms, such as ships, airplanes, vehicles, and trains. They also play a key role in offering backhaul services to base stations and enabling emergency response and disaster recovery communications. This book is a one-stop-shop for understanding these systems, providing practical guidelines for the implementation of NTN networks. It is suitable for both beginners and professionals, delving into technical challenges like power-limited link budgets, Doppler shifts from LEO satellites, nonlinear distortions, and hardware impairments, while providing practical solutions to overcome these issues.The book also examines the design of Low Earth Orbit (LEO) satellite constellations, the architecture of satellite networks, and the management of inter-satellite links, spectrum, and interference. Special attention is given to advanced concepts in satellite mobility management, including using virtual nodes and virtual topologies to streamline the operation of dynamic LEO constellations.This resource highlights future research directions and opportunities in areas like air interface techniques, data security, radio resource optimization, and large satellite constellation management. This is a comprehensive resource for researchers, engineers, and policymakers involved in the evolution of integrated terrestrial-satellite networks.
Contents:
Intro
Integrated Satellite-Terrestrial Network Fundamentals for Mobile Communications
Contents
Preface
Chapter 1 Concept of Satellite-Terrestrial Integrated Communication
1.1 Terrestrial Mobile Communication
1.2 Satellite Mobile Communication
1.3 Typical Satellite Communication Systems
1.3.1 High-Orbit Narrowband System
1.3.2 High-Orbit Broadband System
1.3.3 Low-Orbit Narrowband Systems
1.3.4 Low-Orbit Broadband Systems
1.4 Satellite-Terrestrial Integrated Communication
1.4.1 Competition with Terrestrial Communication
1.4.2 Complement to Terrestrial Communication
1.4.3 Convergence with Terrestrial Communication
1.4.4 The Vision of Integrated Communication
References
Chapter 2 The Evolution for Satellite-Terrestrial Integrated Communication
2.1 Demand for Integrated Communication
2.2 Typical Application Scenarios
2.3 Integration Models
2.3.1 Service Models
2.3.2 Networking Models
2.3.3 Terminal Development Models
2.4 Evolution of International Standards
2.4.1 Release-15 for NR NTN
2.4.2 Release-16 for New Radio NTN
2.4.3 Release-17 for NR NTN
2.4.4 Release-18 for NR NTN
2.4.5 Other Initiatives
2.5 Possible Challenges
Chapter 3 Constellation Design for Satellite-Terrestrial IntegratedCommunication
3.1 Overview of Satellite Constellations
3.1.1 Definition of Satellite Constellation
3.1.2 Development of Satellite Constellations
3.2 Classification of Satellite Constellations
3.2.1 Walker Constellation
3.2.2 Star Constellation
3.2.3 Flower Constellation
3.2.4 Classical Satellite Constellation Design Solution
3.3 Satellite Constellation Design
3.3.1 Configuration Design
3.3.2 Coverage Design
3.3.3 Design Factor Analysis
Chapter 4 Intersatellite Free-Space Optical Communication.
4.1 Fundamentals
4.2 Key Techniques
4.2.1 Link Construction
4.2.2 Signal Modulation Technique
4.2.3 Laser Antenna Technology
4.2.4 Microwave Antenna Technology
4.3 Current Status and Possible Challenges
4.3.1 Current Status
4.3.2 Possible Challenges
Chapter 5 Channel Models for Satellite-Terrestrial Integrated Communication
5.1 Wireless Channel Fundamentals
5.2 Satellite-Terrestrial Channel Characteristics
5.2.1 Free-Space Loss
5.2.2 Ionospheric Scintillation
5.2.3 Shadow Fading and Clutter Loss
5.2.4 Rain Fading
5.2.5 Multipath Fading
5.2.6 Doppler Effect
5.2.7 Atmospheric Absorption
5.2.8 Building Penetration Loss
5.3 Classical Satellite-Terrestrial Channel Models
5.3.1 The C.Loo Model
5.3.2 Corazza Model
5.3.3 Lutz Model
5.3.4 TDL Satellite Mobile Channel Models
5.4 Evolution of Satellite-Terrestrial Channel Standards
Chapter 6 Channel Coding for Satellite-Terrestrial Integrated Communication
6.1 Classical Channel Coding
6.1.1 Linear Block Code
6.1.2 Convolutional Code
6.2 Channel Coding for Terrestrial Communication
6.2.1 Cellular Mobile Communication
6.2.2 Wireless Local Area Network Communication
6.3 Channel Coding for Satellite Communication
6.3.1 Deep-Space Communication
6.3.2 Near-Space Communication
6.4 Integrated Satellite-Terrestrial Channel Coding
6.4.1 The Current Research Status
6.4.2 Possible Challenges
6.4.3 Possible Channel Coding Schemes
Chapter 7 Signal Modulation for Satellite-Terrestrial Integrated Communication
7.1 Classic Modulation Waveforms
7.1.1 Baseband Modulation
7.1.2 OFDM-Based MC Modulation
7.1.3 DFT-s-OFDM-Based SC Modulation
7.2 Modulation Standard for Cellular Mobile Communication
7.2.1 Modulation for 1G Communication.
7.2.2 Modulation for 2G Communication
7.2.3 Modulation for 3G Communication
7.2.4 Modulation for 4G Communication
7.2.5 Modulation for 5G Communication
7.3 Modulation Standard for Satellite Communication
7.3.1 Modulation for DVB-S Communication
7.3.2 Modulation for DVB-S2 Communication
7.3.3 Modulation for DVB-S2X Communication
7.3.4 Modulation for DVB-SH Communication
7.3.5 Modulation for ATSC Communication
7.3.6 Modulation for ISDB-S Communication
7.4 Potential Modulation for Integrated Communication
7.4.1 Irregular Baseband Modulation
7.4.2 FBMC Multicarrier Modulation
7.4.3 UFMC Multicarrier Modulation
7.4.4 GFDM Multicarrier Modulation
7.4.5 OTFS Multicarrier Modulation
7.4.6 OCDM Multicarrier Modulation
7.4.7 AFDM Multicarrier Modulation
7.4.8 Performance Analysis
7.5 Design Guidelines
7.5.1 Irregular Constellation Configuration Design
7.5.2 Integrated Coding and Modulation
7.5.3 Versatile Carrier Waveform Design
7.5.4 AI-Aided Adaptive Waveform
Chapter 8 Multiantenna Technique for Satellite-Terrestrial Integrated Communication
8.1 Antenna Technology Introduction
8.1.1 Satellite Antenna Classification
8.1.2 Beamforming Technique
8.2 Satellite-Terrestrial User Link Antenna Technology
8.2.1 Single Satellite Beamforming
8.2.2 Multisatellite Beamforming
8.2.3 Characteristics of User Terminal Antennas
8.3 Satellite-Terrestrial Feeder Link Antenna Technology
Chapter 9 Multiple Access for Satellite-Terrestrial Integrated Communication
9.1 Classic OMA Schemes
9.1.1 FDMA
9.1.2 TDMA
9.1.3 CDMA
9.1.4 OFDMA
9.1.5 SC-FDMA
9.2 Classic NOMA Schemes
9.2.1 PD-NOMA
9.2.2 MUSA
9.2.3 SCMA
9.2.4 PDMA
9.3 MA for Terrestrial Cellular Communication
9.4 MA for Satellite Communication
9.4.1 MF-TDMA.
9.4.2 Hybrid TDMA/CDMA
9.5 Potential MA for Integrated Communication
9.5.1 Rate Splitting Multiple Access
9.5.2 Interleave Division Multiple Access
9.5.3 Lattice Partition Multiple Access
Chapter 10 Resource Management forSatellite-Terrestrial Integrated Communication
10.1 Overview of Multidimensional Resources
10.1.1 Spectrum Resources
10.1.2 Power Resources
10.1.3 Time Slot Resources
10.2 Resource Management Technology
10.2.1 Frequency Reuse Technology
10.2.2 Beam Hopping Technology
10.3 Intersatellite Resource Management
10.3.1 Limited On-Satellite Power
10.3.2 Dynamic Time Slot Allocation
10.3.3 Channel Availability in Short Time Slots
10.3.4 Cross-Orbit Multilayer Cooperative Transmission
10.3.5 Intersatellite Transmission Based on OPA
10.4 Interference Management
10.4.1 Natural Interference
10.4.2 Space Interference
10.5 Interference Management Technology
10.5.1 Adaptive Antenna Anti-Interference Technology
10.5.2 On-Satellite Processing Technology
10.5.3 Spread Spectrum Technology
10.5.4 Adaptive Modulation and Coding Technology
10.5.5 Digital Predistortion Technology
Chapter 11 Mobility Management for Satellite-Terrestrial Integrated Communication
11.1 Overview of Mobility Management
11.2 Link Layer Management Technology
11.2.1 5G Handover Management
11.2.2 Beam Handover
11.2.3 Interstellar Hand
11.3 Network Layer Management Technology
11.3.1 MIPv6 Technology
11.3.2 PMIPv6 Technology
11.3.3 HiMIPv6 Technology
11.3.4 VMIPv6 Technology
11.4 Transport Layer Management Technology
11.4.1 SIGMA Technology
11.4.2 Predictive SIGMA Technology
11.5 Potential Mobility Management Technology
11.5.1 SDN-Based Mobility Management
11.5.2 Mobility Management Based on O-RAN
References.
List of Acronyms and Abbreviations
About the Authors
Index.
Notes:
Description based on publisher supplied metadata and other sources.
ISBN:
9781685690106
OCLC:
1506346390

The Penn Libraries is committed to describing library materials using current, accurate, and responsible language. If you discover outdated or inaccurate language, please fill out this feedback form to report it and suggest alternative language.

Find

Home Release notes

My Account

Shelf Request an item Bookmarks Fines and fees Settings

Guides

Using the Find catalog Using Articles+ Using your account