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πŸ“š Data Communication and Networks MCQs

Category: Computer Science Total Questions: 7876 Chapters: 32

About Data Communication and Networks

At its heart, Data Communication & Networks is the study of how we move digital information from one place to another. Think of it as the "postal system" for computers, phones, and servers. It all starts with the fundamentals: understanding the basic model of communication (Chapter 1), the different ways we can structure a network like a LAN or WAN (Chapter 2), and the very first layer of this systemβ€”the Physical Layer (Chapter 3). This physical layer is all about the "hardware" side, covering how we actually send data as signals. This includes sending data in a digital format (as 1s and 0s, Chapter 4) or an analog format (like sound waves, Chapter 5), and using clever techniques like Multiplexing to combine multiple signals over one cable (Chapter 6). Finally, this physical journey depends on the actual physical stuff it travels through, which we call Transmission Mediaβ€”be it copper wires, fiber optic cables, or radio waves (Chapter 7).

Before data can travel across the world, it needs to be sent across a single physical link, like from your computer to your router. This is the job of the Data Link Layer. We start by looking at the concept of Switching, which is how data is forwarded within a local network using devices like bridges and switches (Chapter 8). Then, we dive into the "rules of the road" for that link (Chapter 9), which include making sure the data arrives correctly using Error Detection and Correction (Chapter 10), and managing the flow of data with Data Link Control (DLC) (Chapter 11). Since many devices might share the same link, we need a way to manage access to it, which is the role of Media Access Control (MAC) (Chapter 12). This all comes together when we look at real-world examples like the most common wired LAN, Ethernet (Chapter 13), as well as other wired network technologies (Chapter 14). To cut the cord, we also explore the rules for Wireless LANs (Wi-Fi) (Chapter 15) and other wireless networks like Bluetooth and cellular (Chapter 16), which have their own unique challenges.

Once data leaves your local network, it enters the vast world of the internet, which is the domain of the Network Layer. This layer is responsible for getting data from one network to another. We begin by understanding its purpose (Chapter 18) and the key protocols it uses, like IP (Chapter 19). A major function here is Routingβ€”deciding the best path for data to travel. For one-to-one communication, we have Unicast Routing (Chapter 20), and for one-to-many communication, we have Multicast Routing (Chapter 21). To ensure the network can grow, we also look at the future of internet addressing with Next Generation IP (IPv6) (Chapter 22). To send all this data reliably, we move up to the Transport Layer. This layer ensures that all the pieces of a message arrive correctly and in order (Chapter 23), which is done by protocols like TCP and UDP (Chapter 24). This is the crucial bridge between the global network and the applications you use.

This final part covers how everything comes together to provide the services we use every day. This is the Application Layer, where our web browsers, email, and file transfers live (Chapter 25). We study the standard protocols like HTTP, SMTP, and FTP that make these services work (Chapter 26), and how network administrators manage this complex system (Chapter 27). We also explore specialized areas like sending real-time video and audio, known as Multimedia (Chapter 28), and the alternative approach of the Peer-to-Peer Paradigm (Chapter 29). To make sure the network performs well, we look at Quality of Service (QoS), which is how we prioritize important traffic (Chapter 30). Most importantly, we address the critical issue of keeping all this data safe. This involves understanding the principles of Cryptographyβ€”how we encrypt and protect information (Chapter 31)β€”and applying those principles to create a secure internet with technologies like firewalls and VPNs, which is the study of Internet Security (Chapter 32).


Practice chapter-wise MCQs for Data Communication and Networks. This book contains 32 chapters and 7876 questions across easy, medium, and hard difficulty levels.

2310
Easy
3482
Medium
2084
Hard

πŸ“š Chapters

1. Introduction of Data Communication & Networks
πŸ“ Accessing the Internet and data communications
πŸ“ Birth of the Internet and role of data communications
πŸ“ Data communications Components
πŸ“ Data Flow in data communications
πŸ“ Data Representation in data communications
πŸ“ Internet Administration and data communications
πŸ“ Internet Early History and data communications
πŸ“ Internet Standards and data communications
πŸ“ Internet Today and data communications
πŸ“ Local Area Network in data communications
πŸ“ Network Criteria in data communications
πŸ“ Physical Structures in data communications
πŸ“ Switching Network type in data communications
πŸ“ The Internet and data communications
πŸ“ Wide Area Network in data communications
220 MCQsView Chapter β†’
2. Network Model Types
πŸ“ Addressing in the TCP/IP Protocol Suite
πŸ“ Description of Each Layer in the TCP/IP Protocol Suite
πŸ“ Difference between OSI versus TCP/IP
πŸ“ Encapsulation and Decapsulation in the TCP/IP Protocol Suite
πŸ“ Layered Architecture of TCP/IP protocol suite
πŸ“ Layers in the TCP/IP Protocol Suite
πŸ“ Logical Connections in Protocol Layering
πŸ“ Multiplexing and Demultiplexing in the TCP/IP Protocol Suite
πŸ“ Principles of Protocol Layering
πŸ“ Protocol Layering Scenarios
πŸ“ The Open Systems Interconnection (OSI) Model
πŸ“ Why Lack of OSI Model's Success
181 MCQsView Chapter β†’
3. Physical Layer Introduction
πŸ“ Analog and Digital Data in Physical Layer
πŸ“ Analog and Digital Signals in Physical Layer
πŸ“ Attenuation and Transmission Impairment
πŸ“ Bandwidth Delay Product performance of the network
πŸ“ Bandwidth performance of the network
πŸ“ Bit Length in Digital Signals
πŸ“ Bit Rate in Digital Signals
πŸ“ Composite Signals in Sine Waves
πŸ“ Digital Signal as a Composite Analog Signal
πŸ“ Distortion and Transmission Impairment
πŸ“ Jitter and performance of the network
πŸ“ Latency(Delay) performance of the network
πŸ“ Noise and Transmission Impairment
πŸ“ Noiseless Channel: Nyquist Bit Rate
πŸ“ Noisy Channel: Shannon Capacity
πŸ“ Periodic and Nonperiodic signals in Physical Layer
πŸ“ Sine Wave in Periodic Analog Signals
πŸ“ The Term Phase in Periodic Analog Signals
πŸ“ Throughput performance of the network
πŸ“ Time and Frequency Domains in Periodic Analog Signals
πŸ“ Transmission of Digital Signals Periodic or Nonperiodic
πŸ“ Using Both Limits: Shannon Capacity and Nyquist Bit Rate
πŸ“ Wavelength in Periodic Analog Signals
πŸ“ What is Bandwidth or Range of Frequencies in Composite Signal
393 MCQsView Chapter β†’
4. Digital Transmission
πŸ“ Block Coding converting digital data to digital signals
πŸ“ Delta Modulation(DM) technique converting analog data to digital signals
πŸ“ Line coding process of converting digital data to digital signals
πŸ“ Line Coding Schemes converting digital data to digital signals
πŸ“ Parallel Transmission Mode for Digital Transmission
πŸ“ Pulse Code Modulation(PCM) technique converting analog data to digital signals
πŸ“ Scrambling converting digital data to digital signals
πŸ“ Serial Transmission Mode for Digital Transmission
269 MCQsView Chapter β†’
5. Analog Transmission
πŸ“ Amplitude Modulation(AM) during Analog to Analog conversion
πŸ“ Amplitude Shift Keying during Analog Transmission
πŸ“ Aspects of Digital to Analog Conversion during Analog Transmission
πŸ“ Frequency Modulation(FM) during Analog to Analog conversion
πŸ“ Frequency Shift Keying during Analog Transmission
πŸ“ Phase Modulation(PM) during Analog to Analog conversion
πŸ“ Phase Shift Keying during Analog Transmission
πŸ“ Quadrature Amplitude Modulation during Analog Transmission
155 MCQsView Chapter β†’
6. Multiplexing and Spectrum Spreading
πŸ“ Direct Sequence Spread Spectrum Technique
πŸ“ Frequency Division Multiplexing Analog Technique
πŸ“ Frequency Hopping Spread Spectrum Technique
πŸ“ Multiplexing techniques and its role in Physical Layer
πŸ“ Spread Spectrum (SS) in Physical Layer
πŸ“ Time Division Multiplexing Technique
πŸ“ Wavelength Division Multiplexing Technique
180 MCQsView Chapter β†’
7. Transmission Media
πŸ“ Guided media: Coaxial Cable
πŸ“ Guided media: Fiber Optic Cable
πŸ“ Guided media: Twisted Pair Cable
πŸ“ Introduction to Transmission Media in Physical Layer
πŸ“ Unguided media: Infrared
πŸ“ Unguided media: Microwaves
πŸ“ Unguided media: Radio Waves
πŸ“ Unguided media: Wireless
169 MCQsView Chapter β†’
8. Switching
πŸ“ Circuit Switched Network in Physical Layer
πŸ“ Datagram Networks in Packet Switching
πŸ“ Delay in Circuit Switching Network
πŸ“ Efficiency of Circuit Switching Network
πŸ“ Introduction to Switching in Physical Layer
πŸ“ Network Switching and TCP/IP Layers
πŸ“ Structure of Circuit Switches
πŸ“ Structure of Packet Switches
πŸ“ Three Methods of Network Switching
πŸ“ Three Phases of Circuit Switching Network
πŸ“ Virtual Circuit Networks in Packet Switching
270 MCQsView Chapter β†’
9. Introduction to Data Link Layer
πŸ“ Address Resolution Protocol(ARP) in Link Layer Addressing
πŸ“ An Example of Communication in Link Layer Addressing and the Data Link Layer
πŸ“ Data Link Layer basics
πŸ“ Link Layer Addressing in Data Link Layer
πŸ“ Nodes and Links in Data Link Layer
πŸ“ Services in Data Link Layer
πŸ“ Three Types of addresses in Link Layer Addressing
πŸ“ Two Categories of Links in Data Link Layer
πŸ“ Two Sublayers in Data Link Layer
156 MCQsView Chapter β†’
10. Error Detection and Correction
πŸ“ Advantages of Cyclic Codes
πŸ“ Block Coding in Data Link Layer
πŸ“ Checksum Error Detecting Technique
πŸ“ Chunk Interleaving Error Detecting Technique
πŸ“ Combining Hamming Distance and Interleaving Error Detecting Technique
πŸ“ Compounding High and Low Resolution Packets Error Detecting Technique
πŸ“ Concept of Checksum Error Detecting Technique
πŸ“ Cyclic Code Analysis
πŸ“ Cyclic Code Encoder Using Polynomials
πŸ“ Cyclic Redundancy Check Linear Block Codes
πŸ“ Different Approaches to the Checksum Error Detecting Technique
πŸ“ Different Other Cyclic Codes
πŸ“ Error Detection in Block Coding
πŸ“ Error Detection versus Correction in Data Link Layer
πŸ“ Hamming Distance Error Detecting Technique
πŸ“ Hardware Implementation in Cyclic Code
πŸ“ Polynomials understanding of Cyclic Codes
πŸ“ Redundancy error detecting and correcting
πŸ“ Redundancy through Coding
πŸ“ Types of Errors in Data Link Layer
πŸ“ XOR Error Detecting Technique
313 MCQsView Chapter β†’
11. Data Link Control (DLC)
πŸ“ Connectionless vs Connection-oriented data link services
πŸ“ Data Link Control services overview
πŸ“ Data Link Layer Protocols Overview
πŸ“ Flow control and error control mechanisms DLC
πŸ“ Framing techniques in data link layer
πŸ“ HDLC (High level Data Link Control) Overview
πŸ“ HDLC bit stuffing and framing
πŸ“ HDLC frame structure and configurations
πŸ“ Piggybacking in data link layer protocols
πŸ“ Point to Point Protocol (PPP) overview
πŸ“ PPP framing byte stuffing
πŸ“ PPP multiplexing techniques
πŸ“ PPP protocol services and features
πŸ“ PPP transition phases LCP IPCP
πŸ“ Simple data link protocol algorithm
πŸ“ Stop and Wait ARQ protocol
227 MCQsView Chapter β†’
12. Media Access Control (MAC)
πŸ“ CDMA Code Division Multiple Access principles
πŸ“ CSMA Carrier Sense Multiple Access types
πŸ“ CSMA/CD Collision Detection algorithm
πŸ“ FDMA Frequency Division Multiple Access
πŸ“ Polling protocol in data link layer
πŸ“ Pure ALOHA and Slotted ALOHA efficiency
πŸ“ Random Access Protocols overview
πŸ“ Reservation method in controlled access
πŸ“ TDMA Time Division Multiple Access
πŸ“ Token passing mechanism LANs
198 MCQsView Chapter β†’
13. Wired LANs: Ethernet
πŸ“ 10 Gigabit Ethernet implementation and standards
πŸ“ Changes and evolution in IEEE 802.3 standard Ethernet
πŸ“ CSMA/CD access method in standard Ethernet
πŸ“ Efficiency of Standard Ethernet calculation
πŸ“ Ethernet MAC addressing
πŸ“ Ethernet Protocol basics
πŸ“ Fast Ethernet (100 Mbps) with ovreview
πŸ“ Fast Ethernet 100BASE-TX access method
πŸ“ Fast Ethernet physical layer standards
πŸ“ Gigabit Ethernet basics
πŸ“ Gigabit Ethernet MAC sublayer carrier extension
πŸ“ Gigabit Ethernet physical layer 1000BASE-X
πŸ“ History and evolution of Ethernet
πŸ“ IEEE 802 project standards overview
πŸ“ Implementation of 10BASE5 10BASE2 10BASE-T
πŸ“ Standard Ethernet characteristics and frame format
211 MCQsView Chapter β†’
14. Other Wired Networks
πŸ“ ATM design goals and cell structure
πŸ“ ATM network architecture and layers
πŸ“ Cable TV data transfer DOCSIS standard
πŸ“ Dial up service mechanism and limitations
πŸ“ Digital Subscriber Line (DSL) types and technology
πŸ“ Hybrid Fiber Coaxial (HFC) network structure
πŸ“ Local Access and Transport Area (LATA) definition
πŸ“ Major components of telephone networks
πŸ“ Problems with ATM technology
πŸ“ Services provided by telephone networks POTS
πŸ“ SONET (Synchronous Optical Network)
πŸ“ SONET architecture
πŸ“ SONET architecture and layers
πŸ“ SONET frame structure STS-1
πŸ“ SONET layers
πŸ“ SONET network topologies ring and mesh
πŸ“ STS Multiplexing in SONET
πŸ“ Telephone Networks and its overview
πŸ“ Telephone signaling systems SS7
πŸ“ Traditional cable network architecture
πŸ“ Virtual Tributaries in SONET
310 MCQsView Chapter β†’
15. Wireless LANs
πŸ“ 802.11 addressing mechanism four addresses
πŸ“ 802.11 MAC sublayer CSMA/CA
πŸ“ 802.11 physical layer standards a/b/g/n/ac/ax
πŸ“ Bluetooth architecture piconet and scatternet
πŸ“ Bluetooth in Networking
πŸ“ Bluetooth protocol stack layers
πŸ“ Characteristics of wireless LANs
πŸ“ IEEE 802.11 architecture BSS and ESS
πŸ“ Wireless access control mechanisms
πŸ“ Wireless LAN architectural comparison vs wired
168 MCQsView Chapter β†’
16. Other Wireless Networks
πŸ“ 1G analog cellular systems
πŸ“ 2G digital cellular systems GSM and CDMA
πŸ“ 3G cellular technologies UMTS and CDMA2000
πŸ“ 4G LTE and advanced cellular networks
πŸ“ Cellular telephony operation basics
πŸ“ Cellular Telephony overview
πŸ“ Geostationary Earth Orbit (GEO) satellites
πŸ“ IEEE 802.16 project standards
πŸ“ Layers in IEEE 802.16 protocol stack
πŸ“ Low Earth Orbit (LEO) satellites Iridium
πŸ“ Medium Earth Orbit (MEO) satellites GPS
πŸ“ Satellite network operation principles
πŸ“ Satellite Networks
πŸ“ WiMAX services and applications
πŸ“ WiMAX Wireless Networks
203 MCQsView Chapter β†’
17. Connecting Devices and Virtual LANs
πŸ“ Advantages of using VLANs
πŸ“ Communication between switches VLAN tagging 802.1Q
πŸ“ Connecting Devices
πŸ“ Link Layer Switches learning and forwarding
πŸ“ Network Hubs function and limitations
πŸ“ Routers network layer functionality
πŸ“ Virtual LANs (VLANs)
πŸ“ VLAN configuration switch ports
πŸ“ VLAN membership configuration static and dynamic
115 MCQsView Chapter β†’
18. Introduction to Network Layer
πŸ“ Classful addressing classes A B C D E
πŸ“ Classless addressing CIDR and subnetting
πŸ“ Congestion control mechanisms open loop and closed loop
πŸ“ Datagram approach connectionless service
πŸ“ Dynamic Host Configuration Protocol (DHCP) process
πŸ“ Forwarding based on destination address longest prefix match
πŸ“ Forwarding based on label MPLS
πŸ“ Forwarding of IP Packets
πŸ“ IPv4 address space structure
πŸ“ IPv4 Addresses
πŸ“ Network Address Translation (NAT) types and function
πŸ“ Network delay components propagation transmission queuing
πŸ“ Network Layer Services
πŸ“ Network throughput measurement
πŸ“ Other network layer services error control and flow control
πŸ“ Packet loss causes and effects
πŸ“ Packet Switching
πŸ“ Packetizing in network layer
πŸ“ Routers as packet switches internal architecture
πŸ“ Routing and forwarding differences
πŸ“ Virtual Circuit approach connection oriented service
339 MCQsView Chapter β†’
19. Network Layer Protocols
πŸ“ Debugging tools ping and traceroute
πŸ“ ICMP checksum calculation
πŸ“ ICMP message types error reporting and query
πŸ“ ICMPv4
πŸ“ Inefficiency in Mobile IP triangular routing
πŸ“ Internet Protocol (IP) Overview
πŸ“ IP fragmentation and reassembly
πŸ“ IPv4 datagram format header fields
πŸ“ IPv4 options field
πŸ“ Mobile IP addressing home address and care-of address
πŸ“ Mobile IP agents home agent and foreign agent
πŸ“ Security of IPv4 datagrams
πŸ“ Three phases of Mobile IP agent discovery registration tunneling
248 MCQsView Chapter β†’
20. Unicast Routing
πŸ“ Border Gateway Protocol Version 4 (BGP4) inter-domain routing
πŸ“ Distance Vector Routing algorithm Bellman Ford
πŸ“ General idea of routing algorithms
πŸ“ Internet structure AS and ISP hierarchy
πŸ“ Least cost routing metrics
πŸ“ Link State Routing algorithm Dijkstra
πŸ“ Open Shortest Path First (OSPF) areas and LSAs
πŸ“ Path Vector Routing algorithm
πŸ“ Routing Information Protocol (RIP) version 1 and 2
199 MCQsView Chapter β†’
21. Multicast Routing
πŸ“ Collecting information about groups IGMP
πŸ“ Delivery at Data Link Layer multicast MAC addresses
πŸ“ IGMP (Internet Group Management Protocol)
πŸ“ IGMP encapsulation in IP
πŸ“ IGMP messages query report leave
πŸ“ Interdomain multicast routing MBGP
πŸ“ Multicast addresses Class D IPv4
πŸ“ Multicast Distance Vector (DVMRP)
πŸ“ Multicast forwarding reverse path broadcasting
πŸ“ Multicast Link State (MOSPF)
πŸ“ Propagation of membership information
πŸ“ Protocol Independent Multicast (PIM) sparse and dense mode
πŸ“ Two approaches to multicasting source-based and group-shared
πŸ“ Unicasting vs Multicasting vs Broadcasting
187 MCQsView Chapter β†’
22. Next Generation IP
πŸ“ Group Membership Messages MLD
πŸ“ ICMPv6 error reporting messages
πŸ“ ICMPv6 informational messages
πŸ“ IPv6 address representation hexadecimal notation
πŸ“ IPv6 address space 128-bit structure
πŸ“ IPv6 address space allocation global unicast link-local
πŸ“ IPv6 autoconfiguration stateless and stateful
πŸ“ IPv6 extension headers
πŸ“ IPv6 packet format header simplification
πŸ“ IPv6 renumbering
πŸ“ Neighbor Discovery Messages ND
πŸ“ The ICMPv6 Protocol
πŸ“ The IPv6 Protocol
πŸ“ Transition from IPv4 to IPv6
πŸ“ Transition strategies dual stack tunneling translation
πŸ“ Use of IP addresses during transition
219 MCQsView Chapter β†’
23. Introduction to Transport Layer
πŸ“ Bidirectional piggybacking in data link layer
πŸ“ Connectionless vs connection oriented transport protocols
πŸ“ Go Back N (GBN) sliding window protocol
πŸ“ Selective Repeat SR protocol flow control
πŸ“ Simple transport protocol implementation
πŸ“ Stop and Wait ARQ protocol mechanism
πŸ“ Transport Layer Introduction
πŸ“ Transport Layer protocols
πŸ“ Transport Layer Services Overview
196 MCQsView Chapter β†’
24. Transport Layer Protocols
πŸ“ Port numbers well known registered dynamic
πŸ“ SCTP association four way handshake cookie
πŸ“ SCTP error control SACK retransmission
πŸ“ SCTP features TSN SI SSN chunks
πŸ“ SCTP flow control balloon memory manager
πŸ“ SCTP packet format general header
πŸ“ SCTP services multistream multihoming
πŸ“ Stream Control Transmission Protocol (SCTP)
πŸ“ TCP congestion control slow start AIMD Reno Tahoe
πŸ“ TCP connection establishment teardown
πŸ“ TCP error control retransmission fast recovery
πŸ“ TCP features in transport layer protocol
πŸ“ TCP options MSS timestamp SACK
πŸ“ TCP segment structure
πŸ“ TCP services reliable delivery
πŸ“ TCP state transition diagram
πŸ“ TCP timers RTO persistence keepalive TIME-WAIT
πŸ“ TCP windows flow control
πŸ“ Transmission Control Protocol (TCP) ovreview
πŸ“ Transport Layer Protocols overview
πŸ“ Transport layer services and functions
πŸ“ UDP applications use cases
πŸ“ UDP datagram header format
πŸ“ UDP services characteristics
πŸ“ User Datagram Protocol (UDP) overview
424 MCQsView Chapter β†’
25. Introduction to Application Layer
πŸ“ Addresses and Ports in Java
πŸ“ Application Layer Introduction
πŸ“ Application layer services in computer networks
πŸ“ Application Programming Interface (API) in networking
πŸ“ Client server programming introduction
πŸ“ Client server programming model overview
πŸ“ Concurrent communication in networking
πŸ“ Iterative Communication Using TCP
πŸ“ Iterative Communication Using UDP
πŸ“ Iterative Programming in C
πŸ“ Iterative Programming in C General Issues
πŸ“ Iterative Programming in Java
πŸ“ Iterative Programming Using TCP in C
πŸ“ Iterative Programming Using TCP in Java
πŸ“ Iterative Programming Using UDP in C
πŸ“ Iterative Programming Using UDP in Java
πŸ“ Transport layer services for applications
267 MCQsView Chapter β†’
26. Standard Client Server Protocols
πŸ“ DNS caching and TTL
πŸ“ DNS hierarchical name space
πŸ“ DNS in computer networks
πŸ“ DNS query and response message format
πŸ“ DNS resource record types A NS CNAME MX
πŸ“ DNSSEC and DNS security threats
πŸ“ Domain name registrars in DNS
πŸ“ Dynamic DNS DDNS explained
πŸ“ Email architecture in computer networks
πŸ“ Email protocol in computer networks
πŸ“ Email security protocols PGP S/MIME
πŸ“ FTP commands and responses list
πŸ“ FTP control and data connection
πŸ“ FTP protocol in computer networks
πŸ“ Generic and country domains in DNS
πŸ“ How FTP data transfer works
πŸ“ How web based email works
πŸ“ HTTP and World Wide Web protocol
πŸ“ HTTP protocol explained with example
πŸ“ Is FTP secure or insecure protocol
πŸ“ Local login vs remote login in telnet
πŸ“ Recursive vs iterative DNS resolution
πŸ“ SSH architecture and components
πŸ“ SSH protocol in computer networks
πŸ“ SSH uses and applications
πŸ“ TELNET protocol in computer networks
πŸ“ World Wide Web in computer networks
410 MCQsView Chapter β†’
27. Network Management
πŸ“ Accounting management in networking
πŸ“ ASN.1 Abstract Syntax Notation One
πŸ“ ASN.1 data types explained
πŸ“ ASN.1 Language Basics
πŸ“ BER Basic Encoding Rules in ASN.1
πŸ“ Configuration management in networking
πŸ“ Fault management in computer networks
πŸ“ MIB Management Information Base
πŸ“ Network management introduction and areas
πŸ“ Network security management
πŸ“ Performance management in networking
πŸ“ SMI Structure of Management Information
πŸ“ SNMP manager and agent architecture
πŸ“ SNMP messages and PDUs
πŸ“ SNMP overview how it works
πŸ“ SNMP protocol in computer networks
πŸ“ SNMP SMI MIB components explained
232 MCQsView Chapter β†’
28. Multimedia
πŸ“ Audio compression techniques
πŸ“ Data compression in multimedia
πŸ“ H.323 protocol in multimedia communication
πŸ“ Image compression and formats
πŸ“ Lossless compression techniques in multimedia
πŸ“ Lossy compression techniques in multimedia
πŸ“ Multimedia applications in internet
πŸ“ New protocols for real time multimedia
πŸ“ Real time interactive audio video in networks
πŸ“ Real time protocols in computer networks
πŸ“ RTCP Real time Transport Control Protocol
πŸ“ RTP Real time Transport Protocol explained
πŸ“ Session Initiation Protocol (SIP) in VOIP
πŸ“ Streaming live audio video protocols
πŸ“ Streaming stored audio video in computer networks
πŸ“ Text representation in multimedia
πŸ“ Types of multimedia data in computer networks
πŸ“ Video compression techniques
401 MCQsView Chapter β†’
29. Peer to Peer Paradigm
πŸ“ BitTorrent protocol explained
πŸ“ BitTorrent tracker based architecture
πŸ“ Chord finger table explained
πŸ“ Chord identifier space and hashing
πŸ“ Chord P2P applications
πŸ“ Chord protocol in peer to peer networks
πŸ“ Chord protocol interface and operations
πŸ“ Distributed Hash Table DHT in P2P
πŸ“ K-buckets in Kademlia explained
πŸ“ Kademlia identifier space
πŸ“ Kademlia protocol in P2P networks
πŸ“ Kademlia routing table
πŸ“ P2P networks in computer networks
πŸ“ Pastry applications in P2P
πŸ“ Pastry identifier space
πŸ“ Pastry protocol in peer to peer networks
πŸ“ Pastry routing algorithm
πŸ“ Peer to peer architecture introduction
πŸ“ Trackerless BitTorrent DHT based
245 MCQsView Chapter β†’
30. Quality of Service
πŸ“ Admission control in IntServ
πŸ“ Admission control in quality of service
πŸ“ Application sensitivity to QoS parameters
πŸ“ Data flow characteristics in QoS
πŸ“ DiffServ Differentiated Services in QoS
πŸ“ DS field in DiffServ
πŸ“ Flow classes in quality of service
πŸ“ Flow control techniques for QoS
πŸ“ Flow specification in IntServ
πŸ“ IntServ Integrated Services in QoS
πŸ“ IntServ limitations and problems
πŸ“ IntServ service classes guaranteed controlled load
πŸ“ Per hop behavior in DiffServ
πŸ“ QoS definitions in computer networks
πŸ“ Resource reservation in QoS
πŸ“ RSVP Resource Reservation Protocol
πŸ“ Scheduling algorithms for QoS
πŸ“ Traffic conditioners in DiffServ
πŸ“ Traffic shaping and policing in QoS
255 MCQsView Chapter β†’
31. Cryptography and Network Security
πŸ“ Asymmetric key encryption RSA
πŸ“ Confidentiality in network security
πŸ“ Digital signature in cryptography
πŸ“ Entity authentication in networks
πŸ“ Key management in cryptography
πŸ“ Message authentication MAC
πŸ“ Message integrity authentication digital signature
πŸ“ Message integrity in network security
πŸ“ Network security attacks types
πŸ“ Network Security goals confidentiality integrity availability
πŸ“ Network security introduction and basics
πŸ“ Security services and techniques in networks
πŸ“ Symmetric key encryption DES AES
261 MCQsView Chapter β†’
32. Internet Security
πŸ“ Application layer security protocols
πŸ“ Email security protocols
πŸ“ Firewalls in computer networks
πŸ“ IKE Internet Key Exchange protocol
πŸ“ IPSec AH and ESP Two Security Protocols
πŸ“ IPSec network layer security
πŸ“ IPSec security services
πŸ“ IPSec transport and tunnel modes: Two Modes
πŸ“ Packet filtering firewall explained
πŸ“ PGP Pretty Good Privacy in email
πŸ“ Proxy firewall in network security
πŸ“ S/MIME secure email protocol
πŸ“ Security Association in IPSec
πŸ“ SSL architecture in computer networks
πŸ“ SSL protocols handshake record change cipher alert
πŸ“ SSL TLS transport layer security
πŸ“ VPN Virtual Private Network explained
255 MCQsView Chapter β†’