Computer Networking: A Top-Down Approach, Global Edition
A Top-Down Approach, Global Edition
8th Edition
Published on 7. June 2021
797 pages
978-1-292-40551-3 (ISBN)
Description
This print textbook is available for students to rent for their classes. The Pearson print rental program provides students with affordable access to learning materials, so they come to class ready to succeed.
A top-down, layered approach to computer networking.
Unique among computer networking texts, the 8th Edition of the popular Computer Networking: A Top Down Approach builds on the authors' long tradition of teaching this complex subject through a layered approach in a "top-down manner." The text works its way from the application layer down toward the physical layer, motivating students by exposing them to important concepts early in their study of networking. Focusing on the Internet and the fundamentally important issues of networking, this text provides an excellent foundation for students in computer science and electrical engineering, without requiring extensive knowledge of programming or mathematics. The 8th Edition has been updated to reflect the most important and exciting recent advances in networking, including the importance of software-defined networking (SDN) and the rapid adoption of 4G/5G networks and the mobile applications they enable.
A top-down, layered approach to computer networking.
Unique among computer networking texts, the 8th Edition of the popular Computer Networking: A Top Down Approach builds on the authors' long tradition of teaching this complex subject through a layered approach in a "top-down manner." The text works its way from the application layer down toward the physical layer, motivating students by exposing them to important concepts early in their study of networking. Focusing on the Internet and the fundamentally important issues of networking, this text provides an excellent foundation for students in computer science and electrical engineering, without requiring extensive knowledge of programming or mathematics. The 8th Edition has been updated to reflect the most important and exciting recent advances in networking, including the importance of software-defined networking (SDN) and the rapid adoption of 4G/5G networks and the mobile applications they enable.
More details
Edition
8th edition
Language
English
Place of publication
Harlow
United Kingdom
Target group
College/higher education
ISBN-13
978-1-292-40551-3 (9781292405513)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
Additional editions
James Kurose | James F. Kurose | Keith Ross
Computer Networking: A Top-Down Approach, Global Edition
Book
06/2021
8th Edition
Pearson Education Limited
€94.49
Available immediately
Persons
About our authors Jim Kurose is a Distinguished University Professor in the College of Information and Computer Sciences at the University of Massachusetts Amherst, where he has been on the faculty since receiving his PhD in computer science from Columbia University. He received a BA in physics from Wesleyan University. He has held a number of visiting scientist positions in the US and abroad, including IBM Research, INRIA and the Sorbonne University in France. He recently completed a 5-year term as Assistant Director at the US National Science Foundation, where he led the Directorate of Computer and Information Science and Engineering in its mission is to uphold the nation's leadership in scientific discovery and engineering innovation.
Jim is proud to have mentored and taught an amazing group of students, and to have received a number of awards for his research, teaching and service, including the IEEE Infocom Award, the ACM SIGCOMM Lifetime Achievement Award, the ACM Sigcomm Test of Time Award and the IEEE Computer Society Taylor Booth Education Medal. Dr. Kurose is a former Editor-in-Chief of IEEE Transactions on Communications and of IEEE/ACM Transactions on Networking. He has served as Technical Program Co-Chair for IEEE Infocom, ACM SIGCOMM, ACM Internet Measurement Conference and ACM SIGMETRICS. He is a Fellow of the IEEE and the ACM. His research interests include network protocols and architecture, network measurement, multimedia communication, and modeling and performance evaluation.
Keith Ross is the Dean of Engineering and Computer Science at NYU Shanghai and the Leonard J. Shustek Chair Professor in the Computer Science and Engineering Department at NYU. Previously he was at University of Pennsylvania (13 years), Eurecom Institute (5 years) and NYU-Poly (10 years). He received a B.S.E.E from Tufts University, a M.S.E.E. from Columbia University and a Ph.D. in Computer and Control Engineering from The University of Michigan. Keith Ross is also the co-founder and original CEO of Wimba, which develops online multimedia applications for e-learning and was acquired by Blackboard in 2010.
Professor Ross's research interests have been in modeling and measurement of computer networks, peer-to-peer systems, content distribution networks, social networks and privacy. He is currently working in deep reinforcement learning. He is an ACM Fellow, an IEEE Fellow, recipient of the Infocom 2009 Best Paper Award and recipient of 2011 and 2008 Best Paper Awards for Multimedia Communications (awarded by IEEE Communications Society). He has served on numerous journal editorial boards and conference program committees, including IEEE/ACM Transactions on Networking, ACM SIGCOMM, ACM CoNext and ACM Internet Measurement Conference. He also has served as an advisor to the Federal Trade Commission on P2P file sharing.
Jim is proud to have mentored and taught an amazing group of students, and to have received a number of awards for his research, teaching and service, including the IEEE Infocom Award, the ACM SIGCOMM Lifetime Achievement Award, the ACM Sigcomm Test of Time Award and the IEEE Computer Society Taylor Booth Education Medal. Dr. Kurose is a former Editor-in-Chief of IEEE Transactions on Communications and of IEEE/ACM Transactions on Networking. He has served as Technical Program Co-Chair for IEEE Infocom, ACM SIGCOMM, ACM Internet Measurement Conference and ACM SIGMETRICS. He is a Fellow of the IEEE and the ACM. His research interests include network protocols and architecture, network measurement, multimedia communication, and modeling and performance evaluation.
Keith Ross is the Dean of Engineering and Computer Science at NYU Shanghai and the Leonard J. Shustek Chair Professor in the Computer Science and Engineering Department at NYU. Previously he was at University of Pennsylvania (13 years), Eurecom Institute (5 years) and NYU-Poly (10 years). He received a B.S.E.E from Tufts University, a M.S.E.E. from Columbia University and a Ph.D. in Computer and Control Engineering from The University of Michigan. Keith Ross is also the co-founder and original CEO of Wimba, which develops online multimedia applications for e-learning and was acquired by Blackboard in 2010.
Professor Ross's research interests have been in modeling and measurement of computer networks, peer-to-peer systems, content distribution networks, social networks and privacy. He is currently working in deep reinforcement learning. He is an ACM Fellow, an IEEE Fellow, recipient of the Infocom 2009 Best Paper Award and recipient of 2011 and 2008 Best Paper Awards for Multimedia Communications (awarded by IEEE Communications Society). He has served on numerous journal editorial boards and conference program committees, including IEEE/ACM Transactions on Networking, ACM SIGCOMM, ACM CoNext and ACM Internet Measurement Conference. He also has served as an advisor to the Federal Trade Commission on P2P file sharing.
Content
Chapter 1: Computer Networks and the Internet
1.1 What Is the Internet?
1.1.1 A Nuts-and-Bolts Description
1.1.2 A Services Description
1.1.3 What Is a Protocol?
1.2 The Network Edge
1.2.1 Access Networks
1.2.2 Physical Media
1.3 The Network Core
1.3.1 Packet Switching
1.3.2 Circuit Switching
1.3.3 A Network of Networks
1.4 Delay, Loss, and Throughput in Packet-Switched Networks
1.4.1 Overview of Delay in Packet-Switched Networks
1.4.2 Queuing Delay and Packet Loss
1.4.3 End-to-End Delay
1.4.4 Throughput in Computer Networks
1.5 Protocol Layers and Their Service Models
1.5.1 Layered Architecture
1.5.2 Encapsulation
1.6 Networks Under Attack
1.7 History of Computer Networking and the Internet
1.7.1 The Development of Packet Switching: 1961-1972
1.7.2 Proprietary Networks and Internetworking: 1972-1980
1.7.3 A Proliferation of Networks: 1980-1990
1.7.4 The Internet Explosion: The 1990s
1.7.5 The New Millennium
1.8 Summary
Homework Problems and Questions
Wireshark Lab
Chapter 2: Application Layer
2.1 Principles of Network Applications
2.1.1 Network Application Architectures
2.1.2 Processes Communicating
2.1.3 Transport Services Available to Applications
2.1.4 Transport Services Provided by the Internet
2.1.5 Application-Layer Protocols
2.1.6 Network Applications Covered in This Book
2.2 The Web and HTTP
2.2.1 Overview of HTTP
2.2.2 Non-Persistent and Persistent Connections
2.2.3 HTTP Message Format
2.2.4 User-Server Interaction: Cookies
2.2.5 Web Caching
2.2.6 HTTP/2
2.3 Electronic Mail in the Internet
2.3.1 SMTP
2.3.2 Mail Message Formats
2.3.3 Mail Access Protocols
2.4 DNS-The Internet's Directory Service
2.4.1 Services Provided by DNS
2.4.2 Overview of How DNS Works
2.4.3 DNS Records and Messages
2.5 Peer-to-Peer Applications
2.5.1 P2P File Distribution
2.6 Video Streaming and Content Distribution Networks
2.6.1 Internet Video
2.6.2 HTTP Streaming and DASH
2.6.3 Content Distribution Networks
2.6.4 Case Studies: Netflix and YouTube
2.7 Socket Programming: Creating Network Applications
2.7.1 Socket Programming with UDP
2.7.2 Socket Programming with TCP
2.8 Summary
Homework Problems and Questions
Socket Programming Assignments
Wireshark Labs: HTTP, DNS
Chapter 3: Transport Layer
3.1 Introduction and Transport-Layer Services
3.1.1 Relationship Between Transport and Network Layers
3.1.2 Overview of the Transport Layer in the Internet
3.2 Multiplexing and Demultiplexing
3.3 Connectionless Transport: UDP
3.3.1 UDP Segment Structure
3.3.2 UDP Checksum
3.4 Principles of Reliable Data Transfer
3.4.1 Building a Reliable Data Transfer Protocol
3.4.2 Pipelined Reliable Data Transfer Protocols
3.4.3 Go-Back-N (GBN)
3.4.4 Selective Repeat (SR)
3.5 Connection-Oriented Transport: TCP
3.5.1 The TCP Connection
3.5.2 TCP Segment Structure
3.5.3 Round-Trip Time Estimation and Timeout
3.5.4 Reliable Data Transfer
3.5.5 Flow Control
3.5.6 TCP Connection Management
3.6 Principles of Congestion Control
3.6.1 The Causes and the Costs of Congestion
3.6.2 Approaches to Congestion Control
3.7 TCP Congestion Control
3.7.1 Classic TCP congestion Control
3.7.2 Network-Assisted Explicit Congestion Notification and Delay-based Congestion Control
3.7.3 Fairness
3.8 Evolution of transport-layer functionality
3.9 Summary
Homework Problems and Questions
Programming Assignments
Wireshark Labs: Exploring TCP, UDP
Chapter 4: The Network Layer: Data Plane
4.1 Overview of Network Layer
4.1.1 Forwarding and Routing: The Network Data and Control Planes
4.1.2 Network Service Models
4.2 What's Inside a Router?
4.2.1 Input Port Processing and Destination-Based Forwarding
4.2.2 Switching
4.2.3 Output Port Processing
4.2.4 Where Does Queuing Occur?
4.2.5 Packet Scheduling
4.3 The Internet Protocol (IP): IPv4, Addressing, IPv6, and More
4.3.1 IPv4 Datagram Format
4.3.2 IPv4 Addressing
4.3.3 Network Address Translation (NAT)
4.3.4 IPv6
4.4 Generalized Forwarding and SDN
4.4.1 Match
4.4.2 Action
4.4.3 OpenFlow Examples of Match-plus-action in Action
4.5 Middleboxes
4.6 Summary
Homework Problems and Questions
Wireshark Lab: IP
Chapter 5: The Network Layer: Control Plane
5.1 Introduction
5.2 Routing Algorithms
5.2.1 The Link-State (LS) Routing Algorithm
5.2.2 The Distance-Vector (DV) Routing Algorithm
5.3 Intra-AS Routing in the Internet: OSPF
5.4 Routing Among the ISPs: BGP
5.4.1 The Role of BGP
5.4.2 Advertising BGP Route Information
5.4.3 Determining the Best Routes
5.4.4 IP-Anycast
5.4.5 Routing Policy
5.4.6 Putting the Pieces Together: Obtaining Internet Presence
5.5 The SDN Control Plane
5.5.1 The SDN Control Plane: SDN Controller and SDN Control Applications
5.5.2 OpenFlow Protocol
5.5.3 Data and Control Plane Interaction: An Example
5.5.4 SDN: Past and Future
5.6 ICMP: The Internet Control Message Protocol
5.7 Network Management, SNMP, and NETCONF/YANG
5.7.1 The Network Management Framework
5.7.2 The Simple Network Management Protocol (SNMP)
5.7.3 NETCONF and YANG
5.8 Summary
Homework Problems and Questions
Socket Programming Assignment
Programming Assignment
Wireshark Lab: ICMP
Chapter 6: The Link Layer and LANs
6.1 Introduction to the Link Layer
6.1.1 The Services Provided by the Link Layer
6.1.2 Where Is the Link Layer Implemented?
6.2 Error-Detection and -Correction Techniques
6.2.1 Parity Checks
6.2.2 Checksumming Methods
6.2.3 Cyclic Redundancy Check (CRC)
6.3 Multiple Access Links and Protocols
6.3.1 Channel Partitioning Protocols
6.3.2 Random Access Protocols
6.3.3 Taking-Turns Protocols
6.3.4 DOCSIS: The Link-Layer Protocol for Cable Internet Access
6.4 Switched Local Area Networks
6.4.1 Link-Layer Addressing and ARP
6.4.2 Ethernet
6.4.3 Link-Layer Switches
6.4.4 Virtual Local Area Networks (VLANs)
6.5 Link Virtualization: A Network as a Link Layer
6.5.1 Multiprotocol Label Switching (MPLS)
6.6 Data Center Networking
6.6.1 Data Center Architectures
6.6.2 Trends in Data Center Networking
6.7 Retrospective: A Day in the Life of a Web Page Request
6.7.1 Getting Started: DHCP, UDP, IP, and Ethernet
6.7.2 Still Getting Started: DNS and ARP
6.7.3 Still Getting Started: Intra-Domain Routing to the DNS Server
6.7.4 Web Client-Server Interaction: TCP and HTTP
6.8 Summary
Homework Problems and Questions
Wireshark Labs: Ethernet and Home Networking
Chapter 7: Wireless and Mobile Networks
7.1 Introduction
7.2 Wireless Links and Network Characteristics
7.2.1 CDMA
7.3 Wireless LANs
7.3.1 The 802.11 Architecture
7.3.2 The 802.11 MAC Protocol
7.3.3 The IEEE 802.11 Frame
7.3.4 Mobility in the Same IP Subnet
7.3.5 Advanced Features in 802.11
7.3.6 Bluetooth
7.4 Cellular Networks: 4G and 5G
7.4.1 4G LTE Cellular Networks: Architecture and Elements
7.4.2 LTE Protocol Stacks
7.4.3 LTE Radio Access Network 7.4.4 LTE Network Attachment and Power Management 7.4.5 The Global Cellular Network: a Network of Networks 7.4.6 5G Cellular Networks
7.5 Mobility Management: Principles
7.5.1 Device Mobility: a Network-layer Perspective 7.5.2 Home Networks and Roaming on Visited Networks 7.5.3 Direct and Indirect Routing to/from a Mobile Device 7.6 Mobile Management in Practice 7.6.1 Mobility Management in 4G/5G Networks 7.6.2 Mobile IP 7.7 Wireless and Mobility: Impact on Higher-Layer Protocols
7.8 Summary
Homework Problems and Questions
Wireshark Lab: 802.11
Chapter 8: Security in Computer Networks
8.1 What Is Network Security?
8.2 Principles of Cryptography
8.2.1 Symmetric Key Cryptography
8.2.2 Public Key Encryption
8.3 Message Integrity and Digital Signatures
8.3.1 Cryptographic Hash Functions
8.3.2 Message Authentication Code
8.3.3 Digital Signatures
8.4 End-Point Authentication
8.4.1 Building an Authentication Protocol
8.5 Securing E-Mail
8.5.1 Secure E-Mail
8.5.2 PGP
8.6 Securing TCP Connections: SSL
8.6.1 The Big Picture
8.6.2 A More Complete Picture
8.7 Network-Layer Security: IPsec and Virtual Private Networks
8.7.1 IPsec and Virtual Private Networks (VPNs)
8.7.2 The AH and ESP Protocols
8.7.3 Security Associations
8.7.4 The IPsec Datagram
8.7.5 IKE: Key Management in IPsec
8.8 Securing Wireless LANs and 4G/5G Cellular Networks
8.8.1 Authentication and Key Agreement in 802.11 Wireless LANs
8.8.2 Authentication and Key Agreement in 4G/5G Cellular Networks
8.9 Operational Security: Firewalls and Intrusion Detection Systems
8.9.1 Firewalls
8.9.2 Intrusion Detection Systems
8.10 Summary
Homework Problems and Questions
Wireshark Lab: SSL
IPsec Lab
1.1 What Is the Internet?
1.1.1 A Nuts-and-Bolts Description
1.1.2 A Services Description
1.1.3 What Is a Protocol?
1.2 The Network Edge
1.2.1 Access Networks
1.2.2 Physical Media
1.3 The Network Core
1.3.1 Packet Switching
1.3.2 Circuit Switching
1.3.3 A Network of Networks
1.4 Delay, Loss, and Throughput in Packet-Switched Networks
1.4.1 Overview of Delay in Packet-Switched Networks
1.4.2 Queuing Delay and Packet Loss
1.4.3 End-to-End Delay
1.4.4 Throughput in Computer Networks
1.5 Protocol Layers and Their Service Models
1.5.1 Layered Architecture
1.5.2 Encapsulation
1.6 Networks Under Attack
1.7 History of Computer Networking and the Internet
1.7.1 The Development of Packet Switching: 1961-1972
1.7.2 Proprietary Networks and Internetworking: 1972-1980
1.7.3 A Proliferation of Networks: 1980-1990
1.7.4 The Internet Explosion: The 1990s
1.7.5 The New Millennium
1.8 Summary
Homework Problems and Questions
Wireshark Lab
Chapter 2: Application Layer
2.1 Principles of Network Applications
2.1.1 Network Application Architectures
2.1.2 Processes Communicating
2.1.3 Transport Services Available to Applications
2.1.4 Transport Services Provided by the Internet
2.1.5 Application-Layer Protocols
2.1.6 Network Applications Covered in This Book
2.2 The Web and HTTP
2.2.1 Overview of HTTP
2.2.2 Non-Persistent and Persistent Connections
2.2.3 HTTP Message Format
2.2.4 User-Server Interaction: Cookies
2.2.5 Web Caching
2.2.6 HTTP/2
2.3 Electronic Mail in the Internet
2.3.1 SMTP
2.3.2 Mail Message Formats
2.3.3 Mail Access Protocols
2.4 DNS-The Internet's Directory Service
2.4.1 Services Provided by DNS
2.4.2 Overview of How DNS Works
2.4.3 DNS Records and Messages
2.5 Peer-to-Peer Applications
2.5.1 P2P File Distribution
2.6 Video Streaming and Content Distribution Networks
2.6.1 Internet Video
2.6.2 HTTP Streaming and DASH
2.6.3 Content Distribution Networks
2.6.4 Case Studies: Netflix and YouTube
2.7 Socket Programming: Creating Network Applications
2.7.1 Socket Programming with UDP
2.7.2 Socket Programming with TCP
2.8 Summary
Homework Problems and Questions
Socket Programming Assignments
Wireshark Labs: HTTP, DNS
Chapter 3: Transport Layer
3.1 Introduction and Transport-Layer Services
3.1.1 Relationship Between Transport and Network Layers
3.1.2 Overview of the Transport Layer in the Internet
3.2 Multiplexing and Demultiplexing
3.3 Connectionless Transport: UDP
3.3.1 UDP Segment Structure
3.3.2 UDP Checksum
3.4 Principles of Reliable Data Transfer
3.4.1 Building a Reliable Data Transfer Protocol
3.4.2 Pipelined Reliable Data Transfer Protocols
3.4.3 Go-Back-N (GBN)
3.4.4 Selective Repeat (SR)
3.5 Connection-Oriented Transport: TCP
3.5.1 The TCP Connection
3.5.2 TCP Segment Structure
3.5.3 Round-Trip Time Estimation and Timeout
3.5.4 Reliable Data Transfer
3.5.5 Flow Control
3.5.6 TCP Connection Management
3.6 Principles of Congestion Control
3.6.1 The Causes and the Costs of Congestion
3.6.2 Approaches to Congestion Control
3.7 TCP Congestion Control
3.7.1 Classic TCP congestion Control
3.7.2 Network-Assisted Explicit Congestion Notification and Delay-based Congestion Control
3.7.3 Fairness
3.8 Evolution of transport-layer functionality
3.9 Summary
Homework Problems and Questions
Programming Assignments
Wireshark Labs: Exploring TCP, UDP
Chapter 4: The Network Layer: Data Plane
4.1 Overview of Network Layer
4.1.1 Forwarding and Routing: The Network Data and Control Planes
4.1.2 Network Service Models
4.2 What's Inside a Router?
4.2.1 Input Port Processing and Destination-Based Forwarding
4.2.2 Switching
4.2.3 Output Port Processing
4.2.4 Where Does Queuing Occur?
4.2.5 Packet Scheduling
4.3 The Internet Protocol (IP): IPv4, Addressing, IPv6, and More
4.3.1 IPv4 Datagram Format
4.3.2 IPv4 Addressing
4.3.3 Network Address Translation (NAT)
4.3.4 IPv6
4.4 Generalized Forwarding and SDN
4.4.1 Match
4.4.2 Action
4.4.3 OpenFlow Examples of Match-plus-action in Action
4.5 Middleboxes
4.6 Summary
Homework Problems and Questions
Wireshark Lab: IP
Chapter 5: The Network Layer: Control Plane
5.1 Introduction
5.2 Routing Algorithms
5.2.1 The Link-State (LS) Routing Algorithm
5.2.2 The Distance-Vector (DV) Routing Algorithm
5.3 Intra-AS Routing in the Internet: OSPF
5.4 Routing Among the ISPs: BGP
5.4.1 The Role of BGP
5.4.2 Advertising BGP Route Information
5.4.3 Determining the Best Routes
5.4.4 IP-Anycast
5.4.5 Routing Policy
5.4.6 Putting the Pieces Together: Obtaining Internet Presence
5.5 The SDN Control Plane
5.5.1 The SDN Control Plane: SDN Controller and SDN Control Applications
5.5.2 OpenFlow Protocol
5.5.3 Data and Control Plane Interaction: An Example
5.5.4 SDN: Past and Future
5.6 ICMP: The Internet Control Message Protocol
5.7 Network Management, SNMP, and NETCONF/YANG
5.7.1 The Network Management Framework
5.7.2 The Simple Network Management Protocol (SNMP)
5.7.3 NETCONF and YANG
5.8 Summary
Homework Problems and Questions
Socket Programming Assignment
Programming Assignment
Wireshark Lab: ICMP
Chapter 6: The Link Layer and LANs
6.1 Introduction to the Link Layer
6.1.1 The Services Provided by the Link Layer
6.1.2 Where Is the Link Layer Implemented?
6.2 Error-Detection and -Correction Techniques
6.2.1 Parity Checks
6.2.2 Checksumming Methods
6.2.3 Cyclic Redundancy Check (CRC)
6.3 Multiple Access Links and Protocols
6.3.1 Channel Partitioning Protocols
6.3.2 Random Access Protocols
6.3.3 Taking-Turns Protocols
6.3.4 DOCSIS: The Link-Layer Protocol for Cable Internet Access
6.4 Switched Local Area Networks
6.4.1 Link-Layer Addressing and ARP
6.4.2 Ethernet
6.4.3 Link-Layer Switches
6.4.4 Virtual Local Area Networks (VLANs)
6.5 Link Virtualization: A Network as a Link Layer
6.5.1 Multiprotocol Label Switching (MPLS)
6.6 Data Center Networking
6.6.1 Data Center Architectures
6.6.2 Trends in Data Center Networking
6.7 Retrospective: A Day in the Life of a Web Page Request
6.7.1 Getting Started: DHCP, UDP, IP, and Ethernet
6.7.2 Still Getting Started: DNS and ARP
6.7.3 Still Getting Started: Intra-Domain Routing to the DNS Server
6.7.4 Web Client-Server Interaction: TCP and HTTP
6.8 Summary
Homework Problems and Questions
Wireshark Labs: Ethernet and Home Networking
Chapter 7: Wireless and Mobile Networks
7.1 Introduction
7.2 Wireless Links and Network Characteristics
7.2.1 CDMA
7.3 Wireless LANs
7.3.1 The 802.11 Architecture
7.3.2 The 802.11 MAC Protocol
7.3.3 The IEEE 802.11 Frame
7.3.4 Mobility in the Same IP Subnet
7.3.5 Advanced Features in 802.11
7.3.6 Bluetooth
7.4 Cellular Networks: 4G and 5G
7.4.1 4G LTE Cellular Networks: Architecture and Elements
7.4.2 LTE Protocol Stacks
7.4.3 LTE Radio Access Network 7.4.4 LTE Network Attachment and Power Management 7.4.5 The Global Cellular Network: a Network of Networks 7.4.6 5G Cellular Networks
7.5 Mobility Management: Principles
7.5.1 Device Mobility: a Network-layer Perspective 7.5.2 Home Networks and Roaming on Visited Networks 7.5.3 Direct and Indirect Routing to/from a Mobile Device 7.6 Mobile Management in Practice 7.6.1 Mobility Management in 4G/5G Networks 7.6.2 Mobile IP 7.7 Wireless and Mobility: Impact on Higher-Layer Protocols
7.8 Summary
Homework Problems and Questions
Wireshark Lab: 802.11
Chapter 8: Security in Computer Networks
8.1 What Is Network Security?
8.2 Principles of Cryptography
8.2.1 Symmetric Key Cryptography
8.2.2 Public Key Encryption
8.3 Message Integrity and Digital Signatures
8.3.1 Cryptographic Hash Functions
8.3.2 Message Authentication Code
8.3.3 Digital Signatures
8.4 End-Point Authentication
8.4.1 Building an Authentication Protocol
8.5 Securing E-Mail
8.5.1 Secure E-Mail
8.5.2 PGP
8.6 Securing TCP Connections: SSL
8.6.1 The Big Picture
8.6.2 A More Complete Picture
8.7 Network-Layer Security: IPsec and Virtual Private Networks
8.7.1 IPsec and Virtual Private Networks (VPNs)
8.7.2 The AH and ESP Protocols
8.7.3 Security Associations
8.7.4 The IPsec Datagram
8.7.5 IKE: Key Management in IPsec
8.8 Securing Wireless LANs and 4G/5G Cellular Networks
8.8.1 Authentication and Key Agreement in 802.11 Wireless LANs
8.8.2 Authentication and Key Agreement in 4G/5G Cellular Networks
8.9 Operational Security: Firewalls and Intrusion Detection Systems
8.9.1 Firewalls
8.9.2 Intrusion Detection Systems
8.10 Summary
Homework Problems and Questions
Wireshark Lab: SSL
IPsec Lab
