Professor Hsiao-Hwa Chen is the Director of the Institute of Communications Engineering at the National Sun Yat-Sen University, Tawian. Professor Mohsen Guizani is currently an Associate Professor at the Electrical and Computer Engineering department of the University of Missouri-Columbia. Prior to joining the University, he was with the Faculty of Computer Engineering Department at the University of Petroleum and Minerals, Saudi Arabia. His research interests include Computer Networks, Optical Interconnection Networks for Massively Parallel Computers, Design and Analysis of high-speed network protocols, performance evaluation of computer systems, and wireless communications and networking. He served as a guest editor in the International Journal of Computer Systems and Networks, special issue on "ATM Switching/Networking Architectures and Performance", a guest editor of a special issue in the INFORMATICA Journal on "Design Issues of Gigabit Networking", and a guest editor of a special issue of the International Journal of Communication Systems on "Wireless Local Loops and Wireless ATM Networks".

"This reference will prove invaluable to senior undergraduate and postgraduate students, academics and researchers…[and] telecommunications engineers…" (IEEE Canadian Review, October 2007)

• Preface. About the Authors.1. Introduction.1.1 Part I: Background Knowledge.1.2 Part II: 3GMobile Cellular Standards.1.3 Part III: Wireless Networking.1.4 Part IV: B3G and Emerging Wireless Technologies.1.5 Suggestions in Using This Book.2. Fundamentals of Wireless Communications.2.1 Theory of Radio Communication Channels.2.2 Spread Spectrum Techniques.2.3 Multiple Access Technologies.2.4 Multiple User Signal Processing.2.5 OSI ReferenceModel.2.6 Switching Techniques.2.7 IP-Based Networking.3. 3G Mobile Cellular Technologies.3.1 CDMA2000.3.2 WCDMA.3.3 TD-SCDMA.4. Wireless Data Networks.4.1 IEEE 802.11 Standards for Wireless Networks.4.2 IEEE 802.11a Supplement to 802.11 Standards.4.3 IEEE 802.11 Security.4.4 IEEE 802.15 WPAN Standards.4.5 IEEE 802.16 WMAN Standards.4.6 ETSI HIPERLAN and ETSI HIPERLAN/2 Standards.4.7 MMAC by Japan.4.8 Bluetooth Technologies.5. All-IP Wireless Networking.5.1 Some Notes on 1G/2G/3G/4G Terminology.5.2 Mobile IP.5.3 IPv6 versus IPv4 .5.4 Mobile IPv6.5.5 Wireless Application Protocol (WAP).5.6 IP onMobile Ad Hoc Networks.5.7 All-IP Routing Protocols.6. Architecture of B3G Wireless Systems.6.1 Spectrum Allocation andWireless Transmission Issues.6.2 Integration ofWMAN/WLAN/WPAN andMobile Cellular.6.3 High-Speed Data.6.4 Multimode and Reconfigurable Platforms.6.5 Ad hocMobile Networking.6.6 Networking Plan Issues.6.7 Satellite Systems in B3G Wireless.6.8 Other Challenging Issues.7. Multiple Access Technologies for B3G Wireless.7.1 What B3GWireless Needs?.7.2 A Feature Topic on B3GWireless.7.3 Next-Generation CDMA Technologies.7.4 Multicarrier CDMA Techniques.7.5 OFDMTechniques.7.6 Ultra-Wideband Technologies.8. MIMO Systems.8.1 SIMO,MISO, andMIMO Systems.8.2 Spacial Diversity inMIMO Systems.8.3 Spacial Multiplexing in MIMO Systems.8.4 STBC-CDMA Systems.8.5 Generic STBC-CDMA SystemModel.8.6 Unitary Codes Based STBC-CDMA System.8.7 Complementary Coded STBC-CDMA System.8.8 Discussion and Summary.9. Cognitive Radio Technology.9.1 Why Cognitive Radio?.9.2 History of Cognitive Radio.9.3 What is Cognitive Radio?.9.4 From SDR to Cognitive Radio.9.5 Cognitive Radio for WPANs.9.6 Cognitive Radio for WLANs.9.7 Cognitive Radio for WMANs.9.8 Cognitive Radio for WWANs.9.9 Cognitive Radio for WRANs: IEEE 802.22.9.10 Challenges to Implement Cognitive Radio.9.11 Cognitive Radio Products and Applications.10. E-UTRAN: 3GPP’s Evolutional Path to 4G.10.1 3GPP TSG for E-UTRAN.10.2 Origin of E-UTRAN.10.3 General Features of E-UTRAN.10.4 E-UTRAN Study Items.10.5 E-UTRAN TSGWork Plan.10.6 E-UTRAN Radio Interface Protocols.10.7 E-UTRAN Physical Layer Aspects.10.8 Summary.A: Orthogonal Complementary Codes (PG = 8 ∼ 512).B: MAI in Asynchronous Flat Fading UWB Channel.C: MI in Asynchronous Modified S-V UWB Channel.D: Proof of Equation (8.44).E: Properties of Orthogonal Complementary Codes.F: Proof of Equation (8.66).Bibliography.Index.

Professor Hsiao-Hwa Chen is the Director of the Institute of Communications Engineering at the National Sun Yat-Sen University, Tawian. Professor Mohsen Guizani is currently an Associate Professor at the Electrical and Computer Engineering department of the University of Missouri-Columbia. Prior to joining the University, he was with the Faculty of Computer Engineering Department at the University of Petroleum and Minerals, Saudi Arabia. His research interests include Computer Networks, Optical Interconnection Networks for Massively Parallel Computers, Design and Analysis of high-speed network protocols, performance evaluation of computer systems, and wireless communications and networking. He served as a guest editor in the International Journal of Computer Systems and Networks, special issue on "ATM Switching/Networking Architectures and Performance", a guest editor of a special issue in the INFORMATICA Journal on "Design Issues of Gigabit Networking", and a guest editor of a special issue of the International Journal of Communication Systems on "Wireless Local Loops and Wireless ATM Networks".

"This reference will prove invaluable to senior undergraduate and postgraduate students, academics and researchers…[and] telecommunications engineers…" (IEEE Canadian Review, October 2007)

• Preface. About the Authors.1. Introduction.1.1 Part I: Background Knowledge.1.2 Part II: 3GMobile Cellular Standards.1.3 Part III: Wireless Networking.1.4 Part IV: B3G and Emerging Wireless Technologies.1.5 Suggestions in Using This Book.2. Fundamentals of Wireless Communications.2.1 Theory of Radio Communication Channels.2.2 Spread Spectrum Techniques.2.3 Multiple Access Technologies.2.4 Multiple User Signal Processing.2.5 OSI ReferenceModel.2.6 Switching Techniques.2.7 IP-Based Networking.3. 3G Mobile Cellular Technologies.3.1 CDMA2000.3.2 WCDMA.3.3 TD-SCDMA.4. Wireless Data Networks.4.1 IEEE 802.11 Standards for Wireless Networks.4.2 IEEE 802.11a Supplement to 802.11 Standards.4.3 IEEE 802.11 Security.4.4 IEEE 802.15 WPAN Standards.4.5 IEEE 802.16 WMAN Standards.4.6 ETSI HIPERLAN and ETSI HIPERLAN/2 Standards.4.7 MMAC by Japan.4.8 Bluetooth Technologies.5. All-IP Wireless Networking.5.1 Some Notes on 1G/2G/3G/4G Terminology.5.2 Mobile IP.5.3 IPv6 versus IPv4 .5.4 Mobile IPv6.5.5 Wireless Application Protocol (WAP).5.6 IP onMobile Ad Hoc Networks.5.7 All-IP Routing Protocols.6. Architecture of B3G Wireless Systems.6.1 Spectrum Allocation andWireless Transmission Issues.6.2 Integration ofWMAN/WLAN/WPAN andMobile Cellular.6.3 High-Speed Data.6.4 Multimode and Reconfigurable Platforms.6.5 Ad hocMobile Networking.6.6 Networking Plan Issues.6.7 Satellite Systems in B3G Wireless.6.8 Other Challenging Issues.7. Multiple Access Technologies for B3G Wireless.7.1 What B3GWireless Needs?.7.2 A Feature Topic on B3GWireless.7.3 Next-Generation CDMA Technologies.7.4 Multicarrier CDMA Techniques.7.5 OFDMTechniques.7.6 Ultra-Wideband Technologies.8. MIMO Systems.8.1 SIMO,MISO, andMIMO Systems.8.2 Spacial Diversity inMIMO Systems.8.3 Spacial Multiplexing in MIMO Systems.8.4 STBC-CDMA Systems.8.5 Generic STBC-CDMA SystemModel.8.6 Unitary Codes Based STBC-CDMA System.8.7 Complementary Coded STBC-CDMA System.8.8 Discussion and Summary.9. Cognitive Radio Technology.9.1 Why Cognitive Radio?.9.2 History of Cognitive Radio.9.3 What is Cognitive Radio?.9.4 From SDR to Cognitive Radio.9.5 Cognitive Radio for WPANs.9.6 Cognitive Radio for WLANs.9.7 Cognitive Radio for WMANs.9.8 Cognitive Radio for WWANs.9.9 Cognitive Radio for WRANs: IEEE 802.22.9.10 Challenges to Implement Cognitive Radio.9.11 Cognitive Radio Products and Applications.10. E-UTRAN: 3GPP’s Evolutional Path to 4G.10.1 3GPP TSG for E-UTRAN.10.2 Origin of E-UTRAN.10.3 General Features of E-UTRAN.10.4 E-UTRAN Study Items.10.5 E-UTRAN TSGWork Plan.10.6 E-UTRAN Radio Interface Protocols.10.7 E-UTRAN Physical Layer Aspects.10.8 Summary.A: Orthogonal Complementary Codes (PG = 8 ∼ 512).B: MAI in Asynchronous Flat Fading UWB Channel.C: MI in Asynchronous Modified S-V UWB Channel.D: Proof of Equation (8.44).E: Properties of Orthogonal Complementary Codes.F: Proof of Equation (8.66).Bibliography.Index.

Professor Hsiao-Hwa Chen is the Director of the Institute of Communications Engineering at the National Sun Yat-Sen University, Tawian. Professor Mohsen Guizani is currently an Associate Professor at the Electrical and Computer Engineering department of the University of Missouri-Columbia. Prior to joining the University, he was with the Faculty of Computer Engineering Department at the University of Petroleum and Minerals, Saudi Arabia. His research interests include Computer Networks, Optical Interconnection Networks for Massively Parallel Computers, Design and Analysis of high-speed network protocols, performance evaluation of computer systems, and wireless communications and networking. He served as a guest editor in the International Journal of Computer Systems and Networks, special issue on "ATM Switching/Networking Architectures and Performance", a guest editor of a special issue in the INFORMATICA Journal on "Design Issues of Gigabit Networking", and a guest editor of a special issue of the International Journal of Communication Systems on "Wireless Local Loops and Wireless ATM Networks".

"This reference will prove invaluable to senior undergraduate and postgraduate students, academics and researchers…[and] telecommunications engineers…" (IEEE Canadian Review, October 2007)

• Preface. About the Authors.1. Introduction.1.1 Part I: Background Knowledge.1.2 Part II: 3GMobile Cellular Standards.1.3 Part III: Wireless Networking.1.4 Part IV: B3G and Emerging Wireless Technologies.1.5 Suggestions in Using This Book.2. Fundamentals of Wireless Communications.2.1 Theory of Radio Communication Channels.2.2 Spread Spectrum Techniques.2.3 Multiple Access Technologies.2.4 Multiple User Signal Processing.2.5 OSI ReferenceModel.2.6 Switching Techniques.2.7 IP-Based Networking.3. 3G Mobile Cellular Technologies.3.1 CDMA2000.3.2 WCDMA.3.3 TD-SCDMA.4. Wireless Data Networks.4.1 IEEE 802.11 Standards for Wireless Networks.4.2 IEEE 802.11a Supplement to 802.11 Standards.4.3 IEEE 802.11 Security.4.4 IEEE 802.15 WPAN Standards.4.5 IEEE 802.16 WMAN Standards.4.6 ETSI HIPERLAN and ETSI HIPERLAN/2 Standards.4.7 MMAC by Japan.4.8 Bluetooth Technologies.5. All-IP Wireless Networking.5.1 Some Notes on 1G/2G/3G/4G Terminology.5.2 Mobile IP.5.3 IPv6 versus IPv4 .5.4 Mobile IPv6.5.5 Wireless Application Protocol (WAP).5.6 IP onMobile Ad Hoc Networks.5.7 All-IP Routing Protocols.6. Architecture of B3G Wireless Systems.6.1 Spectrum Allocation andWireless Transmission Issues.6.2 Integration ofWMAN/WLAN/WPAN andMobile Cellular.6.3 High-Speed Data.6.4 Multimode and Reconfigurable Platforms.6.5 Ad hocMobile Networking.6.6 Networking Plan Issues.6.7 Satellite Systems in B3G Wireless.6.8 Other Challenging Issues.7. Multiple Access Technologies for B3G Wireless.7.1 What B3GWireless Needs?.7.2 A Feature Topic on B3GWireless.7.3 Next-Generation CDMA Technologies.7.4 Multicarrier CDMA Techniques.7.5 OFDMTechniques.7.6 Ultra-Wideband Technologies.8. MIMO Systems.8.1 SIMO,MISO, andMIMO Systems.8.2 Spacial Diversity inMIMO Systems.8.3 Spacial Multiplexing in MIMO Systems.8.4 STBC-CDMA Systems.8.5 Generic STBC-CDMA SystemModel.8.6 Unitary Codes Based STBC-CDMA System.8.7 Complementary Coded STBC-CDMA System.8.8 Discussion and Summary.9. Cognitive Radio Technology.9.1 Why Cognitive Radio?.9.2 History of Cognitive Radio.9.3 What is Cognitive Radio?.9.4 From SDR to Cognitive Radio.9.5 Cognitive Radio for WPANs.9.6 Cognitive Radio for WLANs.9.7 Cognitive Radio for WMANs.9.8 Cognitive Radio for WWANs.9.9 Cognitive Radio for WRANs: IEEE 802.22.9.10 Challenges to Implement Cognitive Radio.9.11 Cognitive Radio Products and Applications.10. E-UTRAN: 3GPP’s Evolutional Path to 4G.10.1 3GPP TSG for E-UTRAN.10.2 Origin of E-UTRAN.10.3 General Features of E-UTRAN.10.4 E-UTRAN Study Items.10.5 E-UTRAN TSGWork Plan.10.6 E-UTRAN Radio Interface Protocols.10.7 E-UTRAN Physical Layer Aspects.10.8 Summary.A: Orthogonal Complementary Codes (PG = 8 ∼ 512).B: MAI in Asynchronous Flat Fading UWB Channel.C: MI in Asynchronous Modified S-V UWB Channel.D: Proof of Equation (8.44).E: Properties of Orthogonal Complementary Codes.F: Proof of Equation (8.66).Bibliography.Index.