Ipv4 & ipv6
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The document discusses IP addresses and the differences between IPv4 and IPv6. It defines what an IP address is, its uses, and the classes and addressing in IPv4. It describes problems with IPv4 like limited address space. It then defines IPv6 addressing which uses 128-bit addresses written in hexadecimal, and types of IPv6 addresses. It lists advantages of IPv6 like larger address space and built-in security. Tables compare features of IPv4 and IPv6 like address space, header fields, and representation.
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IPv4
- The document discusses Internet Protocol (IP) which is the principal communications protocol for relaying datagrams across network boundaries. There are two major versions - IPv4 which is the dominant protocol, and IPv6 which is its successor.
- IPv4 uses 32-bit addresses divided into five classes (A, B, C, D, E). It allows for over 4 billion addresses but deficiencies in the classful addressing system led to address depletion.
- Classless addressing was introduced to overcome depletion by granting variable length address blocks defined by an IP address and network mask. This provides a hierarchical addressing structure and greater flexibility.
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IPv4 and IPv6 are different versions of the Internet Protocol. IPv4 uses 32-bit addresses which limits the available number of unique addresses, while IPv6 expanded the address space to 128 bits to accommodate many more devices. IPv6 was developed to replace IPv4 and resolve issues like its diminishing available address space as more devices connect to the internet. Some key differences are that IPv6 addresses are much longer at 128 bits compared to 32 bits for IPv4, IPv6 has a larger address space to allow for more connections, and security features like IPSec are mandatory in IPv6.
Ipv4 ppt
The document discusses IPv4 routing and routing protocols. It begins with an introduction to routing and how data flows between devices on the internet in the form of packets. It then covers routing components like path determination, routing tables, and routing protocols for both intra-domain (RIP, OSPF) and inter-domain (BGP) routing. It concludes with a discussion on the future of routing with IPv6 and a high-level summary of routing and routing protocols.
Ip Addressing
IP address is a logical address defined at the network layer that is used by devices to communicate on an IP network. IP addresses are 32 bits in length and are allocated by IANA. As the internet grew, concerns arose around exhausting the available IP version 4 address space and increasing routing table sizes. Subnetting was introduced to help address these issues by adding a third level to the IP address hierarchy. Network address translation allows private IP addresses to be used internally and mapped to public IP addresses when communicating externally, further conserving the available IP address space.
IPV6 ADDRESS
IPv6 addresses are 128-bit addresses used to identify nodes in an IPv6 network. They are conventionally written in hexadecimal colon notation, divided into eight sections of four hexadecimal digits each. IPv6 addresses have a hierarchical structure, with the type prefix in the first bits indicating the address category such as unicast, multicast, anycast, reserved, or local. Unicast addresses are used to identify a single interface, multicast for groups of interfaces, and anycast to select the nearest available node in a group.
Ip addressing
IP addresses are a unique identifier for devices connected to a network. They allow for the delivery of data packets across networks. The structure of IP addresses includes a network prefix that identifies the network and a host number that identifies the specific device. Techniques like subnetting, CIDR, and IPv6 were developed to address the limited available IPv4 address space and allow for more efficient allocation and routing of IP addresses.
Basics of IP Addressing
This document provides an introduction to IP addressing, including:
- A brief history of IP development and the OSI and TCP/IP models.
- An overview of IP address classes (A, B, C, D, E), how they are determined, and their characteristics like address ranges and network/host portions.
- Explanations of limitations of classful addressing, subnetting, and how classless or CIDR addressing helps address those limitations by allowing flexible prefix lengths.
- An example is given of how CIDR allows efficient allocation of addresses to networks of different sizes.
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IPv4
- The document discusses Internet Protocol (IP) which is the principal communications protocol for relaying datagrams across network boundaries. There are two major versions - IPv4 which is the dominant protocol, and IPv6 which is its successor.
- IPv4 uses 32-bit addresses divided into five classes (A, B, C, D, E). It allows for over 4 billion addresses but deficiencies in the classful addressing system led to address depletion.
- Classless addressing was introduced to overcome depletion by granting variable length address blocks defined by an IP address and network mask. This provides a hierarchical addressing structure and greater flexibility.
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IPv4 and IPv6
IPv4 and IPv6 are different versions of the Internet Protocol. IPv4 uses 32-bit addresses which limits the available number of unique addresses, while IPv6 expanded the address space to 128 bits to accommodate many more devices. IPv6 was developed to replace IPv4 and resolve issues like its diminishing available address space as more devices connect to the internet. Some key differences are that IPv6 addresses are much longer at 128 bits compared to 32 bits for IPv4, IPv6 has a larger address space to allow for more connections, and security features like IPSec are mandatory in IPv6.
Ipv4 ppt
The document discusses IPv4 routing and routing protocols. It begins with an introduction to routing and how data flows between devices on the internet in the form of packets. It then covers routing components like path determination, routing tables, and routing protocols for both intra-domain (RIP, OSPF) and inter-domain (BGP) routing. It concludes with a discussion on the future of routing with IPv6 and a high-level summary of routing and routing protocols.
Ip Addressing
IP address is a logical address defined at the network layer that is used by devices to communicate on an IP network. IP addresses are 32 bits in length and are allocated by IANA. As the internet grew, concerns arose around exhausting the available IP version 4 address space and increasing routing table sizes. Subnetting was introduced to help address these issues by adding a third level to the IP address hierarchy. Network address translation allows private IP addresses to be used internally and mapped to public IP addresses when communicating externally, further conserving the available IP address space.
IPV6 ADDRESS
IPv6 addresses are 128-bit addresses used to identify nodes in an IPv6 network. They are conventionally written in hexadecimal colon notation, divided into eight sections of four hexadecimal digits each. IPv6 addresses have a hierarchical structure, with the type prefix in the first bits indicating the address category such as unicast, multicast, anycast, reserved, or local. Unicast addresses are used to identify a single interface, multicast for groups of interfaces, and anycast to select the nearest available node in a group.
Ip addressing
IP addresses are a unique identifier for devices connected to a network. They allow for the delivery of data packets across networks. The structure of IP addresses includes a network prefix that identifies the network and a host number that identifies the specific device. Techniques like subnetting, CIDR, and IPv6 were developed to address the limited available IPv4 address space and allow for more efficient allocation and routing of IP addresses.
Basics of IP Addressing
This document provides an introduction to IP addressing, including:
- A brief history of IP development and the OSI and TCP/IP models.
- An overview of IP address classes (A, B, C, D, E), how they are determined, and their characteristics like address ranges and network/host portions.
- Explanations of limitations of classful addressing, subnetting, and how classless or CIDR addressing helps address those limitations by allowing flexible prefix lengths.
- An example is given of how CIDR allows efficient allocation of addresses to networks of different sizes.
Ip addressing
IPv4 and IPv6 are the two main versions of Internet Protocol (IP) addresses currently in use. IPv4 addresses are 32-bit numbers expressed in dotted decimal notation, while IPv6 addresses are longer 128-bit hexadecimal strings. IP addresses are assigned to identify machines on a network and allow communication and transfer of data between devices.
IP address
This document discusses IP addressing and how it uniquely identifies devices on the internet. It explains that while IPv4 addresses originally used 32-bit numbers to uniquely identify over 4 billion devices, the number of internet-connected devices has now surpassed the available IPv4 addresses. As a result, Network Address Translation (NAT) is commonly used to map multiple private IP addresses to a single public IP address. The document also introduces IPv6, which uses 128-bit addresses to uniquely identify far more than the number of existing and expected internet-connected devices. It notes that while IPv6 adoption is growing, both IPv4 and IPv6 are still in use, and conversion or tunneling tools are needed for compatibility between the different IP versions.
Ipv4 and Ipv6
This document provides information about IPv4 and IPv6 by comparing their key aspects. IPv4 uses 32-bit addresses while IPv6 uses 128-bit addresses, allowing for more available addresses. IPv4 addresses are represented in dotted decimal notation while IPv6 uses colon-separated hexadecimal. IPv6 was developed to address limitations in IPv4 such as address space exhaustion and lack of security features. The document outlines differences between the two protocols in areas like packet fragmentation, checksums, and address types.
IPv6
The document provides an overview of IPv6, including its key features and advantages over IPv4. It discusses IPv6 addressing formats and transition mechanisms from IPv4 to IPv6. IPv6 has a 128-bit address space compared to IPv4's 32-bit, allowing for many more addresses. It also supports features like autoconfiguration, mobility, and security that are improvements over IPv4. Transition techniques like dual stacking, tunneling, and translation allow IPv6 and IPv4 networks to interconnect during the transition period.
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Ipv4 and Ipv6
The document discusses IP addresses and the differences between IPv4 and IPv6. It defines what an IP address is and explains the classes of IPv4 addresses including Class A, B, C, D and E. It also defines IPv6, noting it uses 128-bit addresses represented by 8 groups of hexadecimal digits separated by colons. The key differences between IPv4 and IPv6 are that IPv4 uses 32-bit addresses in dot-decimal notation while IPv6 uses 128-bit addresses in hexadecimal colon-separated notation and has a much larger address space.
Ip address presentation
An IP address is a unique 32-bit number that identifies each device on a network. It allows devices to communicate by sending and receiving data packets. IP addresses are made up of a network portion and host portion, with four sections that each range from 0-255. There are five classes of IP addresses - A, B, C, D and E - that determine the number of networks and hosts. IPv4 uses 32-bit addresses written in dotted decimal notation, while IPv6 uses 128-bit addresses written in hex. IP addresses can be static or dynamically assigned by a DHCP server.
Ip address
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IP Address - IPv4 & IPv6
IP addresses are numeric identifiers assigned to devices connected to a network. IPv4 uses 32-bit addresses represented in dotted decimal notation, while IPv6 uses 128-bit addresses represented by 8 groups of hexadecimal digits separated by colons. IP addresses have two parts - a network portion allocated by ISPs and a host portion assigned to individual devices. IPv4 classes (A, B, C, D, E) determine how many bits are used for the network vs host portions. IPv6 supports a much larger address space and easier auto-configuration compared to IPv4.
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This presentation compares IPv4 and IPv6. It begins with introductions of the group members and defines IP as an Internet Protocol address assigned to devices connected to a network. It then discusses the evolution of IP versions from IPv1 to the current IPv6. Key details provided include that IPv4 uses 32-bit addresses limiting its capacity while IPv6 uses 128-bit addresses allowing for vast expansion. The presentation outlines advantages and limitations of IPv4 and reasons for the development of IPv6, including the growing shortage of IPv4 addresses. It clarifies that IPv4 and IPv6 are not compatible but can co-exist on networks using dual stack technology.
ipv6 ppt
This document provides an overview of IPv6, including:
- The need for IPv6 due to the depletion of IPv4 addresses and limitations of IPv4's classful addressing.
- Techniques used to extend IPv4 like subnetting, CIDR, and NAT.
- Key features of IPv6 like its larger 128-bit address space, stateless autoconfiguration, and security improvements.
- Differences between IPv4 and IPv6 headers and IPv6's use of extension headers.
- The presentation concludes that IPv6 builds upon IPv4's foundations but addresses its limitations.
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IP Address
This presentation gives a brief description about IP Address (Internet protocol address), Classes of IPv4. And also included, what is IPv4 and what is IPv6.
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This document discusses the Internet Protocol (IP) version 4 and 6. It describes the key tasks of IP including addressing computers and fragmenting packets. IP version 4 uses 32-bit addresses while IP version 6 uses 128-bit addresses and has improvements like larger address space and better security. The document also covers IP address classes, private addressing, subnetting, Classless Inter-Domain Routing (CIDR), and address blocks.
IP Configuration
An IP address is a numerical label assigned to devices in a network using the Internet Protocol for communication. It is composed of four numbers separated by periods, with each number representing eight bits for a total of 32 bits. A subnet mask defines which parts of the IP address represent the network ID and which represent the host ID. A default gateway, usually a router, delivers packets when a computer does not know the destination network.
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This document provides information about the Transport Layer protocols TCP and UDP. It describes:
1) TCP is a connection-oriented protocol that provides reliable, in-order delivery of data through features like flow control, error control, and congestion control. UDP is a connectionless protocol that does not guarantee delivery or order of packets.
2) The TCP header contains fields for source/destination ports, sequence numbers, acknowledgement numbers, flags, window size, checksum, and options. The UDP header contains fields for source/destination ports, length, and checksum.
3) The main differences between TCP and UDP are that TCP is connection-oriented, provides error control and flow control, and supports full duplex communication
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This document provides information about IP addresses and Internet Protocol versions 4 and 6. It defines an IP address as a unique identifier for devices on a TCP/IP network. IPv4 uses 32-bit addresses, while IPv6 uses 128-bit addresses to allow for many more available addresses. The document also describes how IP addresses are structured and assigned, either statically or dynamically through DHCP. It notes that IPv6 deployment is increasing to address IPv4 address exhaustion issues.
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This document discusses IPV4 and IPV6. It begins by defining what an IP address is and how they are distributed. It then explains the uses of IP addresses and the two main types: IPv4 and IPv6. IPv4 uses 32-bit addresses represented in decimal form, while IPv6 uses 128-bit addresses in hexadecimal form. The document outlines the classes, types, and terminologies associated with IPv4, and how IPv6 aims to address the exhaustion of IPv4 addresses by supporting a vastly larger number of unique addresses. It concludes by discussing challenges around the deployment of IPv6.
Lesson 4
Internet Protocol (IP) addresses are logical addresses that uniquely identify devices on a network. There are two main types of IP addresses: IPv4 addresses, which have 32 bits divided into four octets, and IPv6 addresses, which have 128 bits. IP addresses can be private, only used within a local network, or public and routable on the internet. IP addresses are classified into classes A through E based on how many bits are used for the network and host portions of the address.
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IPv4 and IPv6 are the two main versions of Internet Protocol (IP) addresses currently in use. IPv4 addresses are 32-bit numbers expressed in dotted decimal notation, while IPv6 addresses are longer 128-bit hexadecimal strings. IP addresses are assigned to identify machines on a network and allow communication and transfer of data between devices.
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This document discusses IP addressing and how it uniquely identifies devices on the internet. It explains that while IPv4 addresses originally used 32-bit numbers to uniquely identify over 4 billion devices, the number of internet-connected devices has now surpassed the available IPv4 addresses. As a result, Network Address Translation (NAT) is commonly used to map multiple private IP addresses to a single public IP address. The document also introduces IPv6, which uses 128-bit addresses to uniquely identify far more than the number of existing and expected internet-connected devices. It notes that while IPv6 adoption is growing, both IPv4 and IPv6 are still in use, and conversion or tunneling tools are needed for compatibility between the different IP versions.
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This document provides information about IPv4 and IPv6 by comparing their key aspects. IPv4 uses 32-bit addresses while IPv6 uses 128-bit addresses, allowing for more available addresses. IPv4 addresses are represented in dotted decimal notation while IPv6 uses colon-separated hexadecimal. IPv6 was developed to address limitations in IPv4 such as address space exhaustion and lack of security features. The document outlines differences between the two protocols in areas like packet fragmentation, checksums, and address types.
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The document provides an overview of IPv6, including its key features and advantages over IPv4. It discusses IPv6 addressing formats and transition mechanisms from IPv4 to IPv6. IPv6 has a 128-bit address space compared to IPv4's 32-bit, allowing for many more addresses. It also supports features like autoconfiguration, mobility, and security that are improvements over IPv4. Transition techniques like dual stacking, tunneling, and translation allow IPv6 and IPv4 networks to interconnect during the transition period.
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This document discusses Internet Protocol version 6 (IPv6). It provides an introduction to IPv6 and the need to transition from IPv4. IPv4 only provides 4.3 billion addresses while the growth of devices requiring IP addresses continues to rise. IPv6 features a 128-bit address space providing vastly more unique addresses than IPv4. It also includes improvements in areas like auto-configuration and network layer security. The document reviews IPv4 limitations and outlines various IPv6 address types including unicast, multicast, and anycast. It describes transition mechanisms such as dual stack, tunneling, and header translation to help migrate from IPv4 to IPv6. Key advantages of IPv6 include a huge number of addresses and additional features, but
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The document discusses IP addresses and the differences between IPv4 and IPv6. It defines what an IP address is and explains the classes of IPv4 addresses including Class A, B, C, D and E. It also defines IPv6, noting it uses 128-bit addresses represented by 8 groups of hexadecimal digits separated by colons. The key differences between IPv4 and IPv6 are that IPv4 uses 32-bit addresses in dot-decimal notation while IPv6 uses 128-bit addresses in hexadecimal colon-separated notation and has a much larger address space.
Ip address presentation
An IP address is a unique 32-bit number that identifies each device on a network. It allows devices to communicate by sending and receiving data packets. IP addresses are made up of a network portion and host portion, with four sections that each range from 0-255. There are five classes of IP addresses - A, B, C, D and E - that determine the number of networks and hosts. IPv4 uses 32-bit addresses written in dotted decimal notation, while IPv6 uses 128-bit addresses written in hex. IP addresses can be static or dynamically assigned by a DHCP server.
Ip address
An IP address is a numerical label assigned to devices connected to a network using the Internet Protocol. It identifies the device and provides its location. There are two main versions: IPv4 uses 32-bit addresses displayed in decimal separated by dots, while IPv6 was developed to expand the addressing space. IP addresses can be public and globally unique, or private for internal networks. They are assigned dynamically or through autoconfiguration, and must be unique on the same local network to avoid conflicts. IP addresses support different types of communication including unicast for single devices, broadcast for all on a network, and multicast for groups.
IP Address - IPv4 & IPv6
IP addresses are numeric identifiers assigned to devices connected to a network. IPv4 uses 32-bit addresses represented in dotted decimal notation, while IPv6 uses 128-bit addresses represented by 8 groups of hexadecimal digits separated by colons. IP addresses have two parts - a network portion allocated by ISPs and a host portion assigned to individual devices. IPv4 classes (A, B, C, D, E) determine how many bits are used for the network vs host portions. IPv6 supports a much larger address space and easier auto-configuration compared to IPv4.
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This presentation compares IPv4 and IPv6. It begins with introductions of the group members and defines IP as an Internet Protocol address assigned to devices connected to a network. It then discusses the evolution of IP versions from IPv1 to the current IPv6. Key details provided include that IPv4 uses 32-bit addresses limiting its capacity while IPv6 uses 128-bit addresses allowing for vast expansion. The presentation outlines advantages and limitations of IPv4 and reasons for the development of IPv6, including the growing shortage of IPv4 addresses. It clarifies that IPv4 and IPv6 are not compatible but can co-exist on networks using dual stack technology.
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This document provides an overview of IPv6, including:
- The need for IPv6 due to the depletion of IPv4 addresses and limitations of IPv4's classful addressing.
- Techniques used to extend IPv4 like subnetting, CIDR, and NAT.
- Key features of IPv6 like its larger 128-bit address space, stateless autoconfiguration, and security improvements.
- Differences between IPv4 and IPv6 headers and IPv6's use of extension headers.
- The presentation concludes that IPv6 builds upon IPv4's foundations but addresses its limitations.
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This document discusses subnetting and IP addressing. It introduces subnet masks and how they are used to divide networks into subnets. Specific examples are provided on subnetting Class A, B, and C networks using subnet masks like /28, 255.255.255.192, and 255.255.240.0. The document also discusses calculating the number of subnets and valid hosts for different subnet masks. Multiple practice questions are provided at the end to help understand subnetting.
IP Address
This presentation gives a brief description about IP Address (Internet protocol address), Classes of IPv4. And also included, what is IPv4 and what is IPv6.
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This document discusses the Internet Protocol (IP) version 4 and 6. It describes the key tasks of IP including addressing computers and fragmenting packets. IP version 4 uses 32-bit addresses while IP version 6 uses 128-bit addresses and has improvements like larger address space and better security. The document also covers IP address classes, private addressing, subnetting, Classless Inter-Domain Routing (CIDR), and address blocks.
IP Configuration
An IP address is a numerical label assigned to devices in a network using the Internet Protocol for communication. It is composed of four numbers separated by periods, with each number representing eight bits for a total of 32 bits. A subnet mask defines which parts of the IP address represent the network ID and which represent the host ID. A default gateway, usually a router, delivers packets when a computer does not know the destination network.
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This document provides information about the Transport Layer protocols TCP and UDP. It describes:
1) TCP is a connection-oriented protocol that provides reliable, in-order delivery of data through features like flow control, error control, and congestion control. UDP is a connectionless protocol that does not guarantee delivery or order of packets.
2) The TCP header contains fields for source/destination ports, sequence numbers, acknowledgement numbers, flags, window size, checksum, and options. The UDP header contains fields for source/destination ports, length, and checksum.
3) The main differences between TCP and UDP are that TCP is connection-oriented, provides error control and flow control, and supports full duplex communication
IP Address
This document provides information about IP addresses and Internet Protocol versions 4 and 6. It defines an IP address as a unique identifier for devices on a TCP/IP network. IPv4 uses 32-bit addresses, while IPv6 uses 128-bit addresses to allow for many more available addresses. The document also describes how IP addresses are structured and assigned, either statically or dynamically through DHCP. It notes that IPv6 deployment is increasing to address IPv4 address exhaustion issues.
Ipv6
IPv6 is the next generation Internet Protocol that provides a vastly larger number of IP addresses compared to the current IPv4. It features 128-bit addressing which allows for trillions of devices to have unique IP addresses. IPv6 also aims to make networking more secure and allow for more efficient routing. The transition from IPv4 to IPv6 is underway, with most modern operating systems and network hardware now supporting IPv6, though applications support is still growing. IPv6's expanded addressing capabilities and additional features will help meet future demands on the Internet as more devices connect online.
Internet control message protocol
The document discusses the Internet Control Message Protocol (ICMP). ICMP provides error reporting, congestion reporting, and first-hop router redirection. It uses IP to carry its data end-to-end and is considered an integral part of IP. ICMP messages are encapsulated in IP datagrams and are used to report errors in IP datagrams, though some errors may still result in datagrams being dropped without a report. ICMP defines various message types including error messages like destination unreachable and informational messages like echo request and reply.
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IPv4 and IPv6
This document discusses IPV4 and IPV6. It begins by defining what an IP address is and how they are distributed. It then explains the uses of IP addresses and the two main types: IPv4 and IPv6. IPv4 uses 32-bit addresses represented in decimal form, while IPv6 uses 128-bit addresses in hexadecimal form. The document outlines the classes, types, and terminologies associated with IPv4, and how IPv6 aims to address the exhaustion of IPv4 addresses by supporting a vastly larger number of unique addresses. It concludes by discussing challenges around the deployment of IPv6.
Lesson 4
Internet Protocol (IP) addresses are logical addresses that uniquely identify devices on a network. There are two main types of IP addresses: IPv4 addresses, which have 32 bits divided into four octets, and IPv6 addresses, which have 128 bits. IP addresses can be private, only used within a local network, or public and routable on the internet. IP addresses are classified into classes A through E based on how many bits are used for the network and host portions of the address.
IPv4- Internet Protocol version 4
IPv4 is the main internet protocol that handles packet forwarding and delivery in a connectionless and unreliable manner. It uses datagrams that contain a header with routing information and a payload of data. IPv4 addresses are 32-bit identifiers composed of a network ID and host ID that are written in dotted-decimal notation. While IPv4 classful addressing divided the address space inefficiently, subnetting and classless inter-domain routing (CIDR) allow for more flexible allocation of addresses.
Internet Protocol
The document discusses IP addresses and network address translation (NAT). It defines IP addresses and the two types: static and dynamic. It describes the organizations that manage IP address allocation and the five classes of IP addresses. It also provides an overview of IPv4 and IPv6, including their address sizes. NAT is defined as modifying network address information while packets are in transit to remap addresses.
IPv4 to Ipv6
The document summarizes the migration from IPv4 to IPv6. It discusses that IPv4 addresses are running out due to the increasing number of internet users and devices. IPv6 was created to support more addresses using a 128-bit system that supports up to 3.4*10^38 addresses. The key migration strategies discussed are dual stack, which supports both IPv4 and IPv6, and tunneling, which allows IPv6 packets to be sent over IPv4 networks. The advantages of IPv6 include a much larger address space, eliminating NAT, built-in IPSec support, and other security and networking improvements.
Ip seminar
An IP address is a numerical label assigned to each device connected to a computer network using the Internet Protocol. There are two main versions in use today - IPv4 uses 32-bit addresses while IPv6 uses 128-bit addresses due to the depletion of IPv4 addresses. IP addresses can be static or dynamically assigned using DHCP. Private IP address ranges are reserved for use within private networks and are not routed on the public internet.
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The document discusses TCP/IP configuration and addressing. It describes:
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2) IP addressing including public vs private addresses, IPv4 and IPv6 address formats, classes of IPv4 addresses including class A, B, C, and private addresses.
3) Networking concepts related to addressing like subnetting, supernetting, VLSM, and IPv6 addressing formats including colon hexadecimal and compressed formats.
Internet protocols
This document discusses Internet Protocol (IP) and provides information on the following:
- IP is a set of standards that defines how devices connect and exchange information over a network or the internet. It specifies packet formats and addressing schemes.
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Ipv4 presentation
IPv4 is the fourth version of the Internet Protocol (IP) and routes most internet traffic. It uses 32-bit addresses, allowing for over 4 billion devices to connect. Addresses are written in binary or dotted-decimal notation, with each part identifying the network or host. IPv4 addresses are divided into classes A-C that determine the portions for network vs host identification, with classes D-E being reserved. Issues with IPv4 include a limited address space and increasing routing tables as the internet grows.
IPv4 & IPv6 .pptx
An IP addresses an identifier for a particular machine on a particular network.
IP stands for Internet Protocol.
IP works at network layer of OSI model.
The network portion of the IP Address is allocated by the internet service provider(ISP) under authority of the Internet Assigned Number Authority(IANA).
There are two main types of IP Addresses.
IPv4
IPv6
Which section of the IP Addresses represent the network and which section represent the machine will depend on what ‘class’ of the ip address is assigned to a network.
Without IP Address devices on different networks will not be able to communicate.
Every device needs an IP address in order to communicate(connect) to the internet.
Basics of IPv6
The document provides an overview of IPv6, including:
1. IPv4 addresses are limited but IPv6 features a 128-bit address scheme providing vastly more addresses.
2. IPv6 was developed to replace IPv4 and resolve issues like limited addresses and the hacky solutions like NAT.
3. IPv6 introduces features like simplified packet headers, built-in security, and easier address autoconfiguration to resolve problems with the aging IPv4 infrastructure.
IPv6 Addressing Architecture
The document provides an overview of IPv6 including key terminology, differences from IPv4, IPv6 addressing architecture, packet format, and configuration on Windows and Linux. It describes the larger 128-bit address space of IPv6 compared to IPv4 and how IPv6 addresses different address types including unicast, multicast, and anycast. It also outlines how to generate link-local addresses from MAC addresses and configure IPv6 networking on different operating systems.
Ramakant tyagi presentation on ip addressing
The document discusses IP addressing and IPv6. It defines what an IP address is, how it is written in dotted decimal notation, and its structure including the network prefix and host number. It describes problems with the original IP address classification scheme and how subnetting and CIDR addressed these. It also summarizes IPv6, including its 128-bit address size which vastly increases the available address space compared to IPv4.
Note 4
The document discusses Internet Protocol (IP) addresses. It explains that each device connected to the Internet needs a unique IP address to identify it. There are two main versions of IP - IPv4 and IPv6. IPv4 addresses are 32-bit and can support about 4.3 billion devices, while IPv6 supports 128-bit addresses allowing for trillions of devices. IP addresses are also classified into different classes - A, B, C, D and E - based on their structure and usage. Private and public IP addresses are also distinguished.
IPv4-ADDRESSING.pptx
IPv4 is the original version of the Internet Protocol. It uses 32-bit addresses expressed in dotted decimal notation like 192.168.1.1. Addresses are divided into network and host parts based on the subnet mask. While IPv4 was widely adopted, it has limitations like a finite address space and no inherent support for mobility or security. Possible solutions include CIDR and NAT to extend the address space, but a new protocol, IPv6, was developed to overcome IPv4's limitations.
Ip address and subnet masking final
This document provides an introduction to computer networks and IP addressing. It discusses the history of computer networks and the development of networking models like OSI and TCP/IP. IP addresses are unique addresses that allow devices to communicate on a network. The document describes the different classes of IP addresses (A, B, C, D, E) and how they divide the 32-bit address space. It also explains the concepts of network IDs, host IDs, subnet masks, and how subnetting can be used to logically divide a large network into smaller subnetworks.
Ipv6
The document discusses Internet Protocol version 6 (IPv6). It provides objectives for a lesson on IPv6 including explaining what is driving the need for IPv6, comparing IPv4 and IPv6, comparing IPv4 and IPv6 headers, and explaining zero compression. Example addresses are given to demonstrate zero compression techniques.
IP Address
This document discusses IP technology, including:
- What an IP address is and its structure as consisting of 4 octets with 8 bits each for a total of 32 bits, encoding a network and host prefix.
- The two main versions of IP - IPv4 uses 32-bit addresses limiting the address space, while IPv6 uses 128-bit addresses vastly expanding the available addresses.
- The different classes of IP addresses (A, B, C, D, E) which determine the maximum number of hosts and networks available in each class.
I pv4 and ipv6
The document outlines key concepts related to IPv4 and IPv6 including:
- IPv4 uses 32-bit addresses and IPv6 uses 128-bit addresses. IPv6 simplifies the header format and introduces extension headers.
- It describes IP address classes in IPv4 and differences between IPv4 and IPv6 addressing schemes, header formats, and features like built-in security.
- Transitioning from IPv4 to IPv6 poses challenges around increased management complexity, interoperability problems, and security concerns due to shared communication resources between the protocols.
Ccna v5-S1-Chapter 8
This document discusses IP addressing and networking. It covers IPv4 and IPv6 addressing, including IPv4 address structure, subnet masks, private and public IP addresses. IPv6 addressing is introduced as a replacement for IPv4 due to the limited IPv4 address space. Methods for IPv4 and IPv6 coexistence like dual stack, tunneling and translation are also summarized. The objectives are to describe IPv4 and IPv6 addressing fundamentals and configuration.
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More from Amit Kundu
Blockchain
This presentation introduces blockchain technology. It provides an overview of blockchain and its history, how blockchain works through block structure and chain connections on a peer-to-peer network, technologies that power blockchain like decentralization and cryptography, applications of blockchain in areas like cryptocurrency, smart contracts, healthcare and supply chain, and advantages like transparency and security as well as disadvantages like complexity and human error. The presentation is delivered by a group with members Mariea Akter, Amit Kundu, Md. Zahid Hasan, and Khairul Alam Ovy.
Smart Home Automation And security System
This document discusses using internet of things (IOT) for home automation and security systems. It describes using voice commands, remote control, motion sensors, and other components like Arduino, Bluetooth, and sensors to control lighting, air conditioning, appliances. Potential limitations are discussed like unreliable sonar sensors or needing an internet connection. Future work focuses on upgrading components and simplifying the setup process.
Cache Memory
Cache memory is a type of memory that stores frequently accessed data closer to the processor for low latency access. There are different types of caches including local, replicated, distributed, remote, and near caches.
Direct mapping is a technique that maps each block of main memory to only one cache line. For a 64KB cache with 4 byte blocks and 16MB of main memory addressed with 24 bits, the address is split into a 2-bit word identifier, 8-bit tag, and 14-bit slot.
There are two policies for writing to cache - write-through always writes to both cache and main memory, while write-back only writes to cache and defers writing to main memory until the block is replaced
Automated Tools For System Analysis and Design
This document discusses automated tools for system analysis and design (CASE). It contains the following key points:
1. CASE tools are used to support and automate activities throughout the system development lifecycle to increase productivity and quality.
2. CASE tools can improve quality, speed, testing, documentation and project management of systems being developed. However, widespread adoption has been slower than expected due to costs, return on investment timelines, and functionality bottlenecks.
3. The document outlines categories of CASE products and tools, including diagramming tools, form/report generators, analysis tools, repositories, documentation generators, and code generators to support the system development process.
Android Operating System
The document provides information about Android, including:
- A brief history of Android starting as a modified version of Linux and being purchased by Google.
- An overview of Android features such as automatic Wi-Fi turning on and battery saving restrictions.
- Details on Android architecture including its Linux kernel, libraries, runtime environment, and applications layer.
- Lists versions of Android from 1.0 to the current 8.0 (Oreo).
- Highlights advantages like a large user base and app selection, and disadvantages like potential for advertisements and worse battery life.
Database project IDEA
This document outlines a proposed cafeteria management software created by a team of 4 students. It discusses problems currently faced by cafeteria owners, managers, customers and suppliers. The objectives of the software are to create a secure system with a clean UI to track orders, inventory, expenses and sales. The proposed approach includes building a basic UI with JavaFX, an integrated online database, and a versatile, modifiable software. The expected outcomes are improved tracking of products and customers, reduced staff needs, increased efficiency and record of financial growth. The document concludes by acknowledging potential obstacles but emphasizing benefits like experience, profit and inspiration for others.
Unguided Media
This document discusses different types of unguided media used for wireless communication, including radio waves, microwaves, and infrared waves. It provides information on the electromagnetic spectrum ranges, propagation modes, antenna types, common usages, advantages, disadvantages, and dangers of each type of unguided media. Presenters and their member IDs are listed at the beginning.
Innovative Business Idea
This document outlines a business idea proposed by a group of six individuals to establish an IT firm in Bangladesh. The group provides details on their market research, which found opportunities in IT outsourcing and freelancing in Bangladesh. They propose a business model of completing local and government projects while also working on popular freelancing platforms. Cost estimates ranging from BDT 528,000 to 908,000 are provided for starting the business along with a 30 to 60 day timeline. A SWOT analysis identifies strengths in low costs and skills while noting weaknesses in innovation and internet speeds. Opportunities in market demand and few competitors are balanced with threats from lower cost imports and new entrants. The group believes the business could create jobs, inspire others
Intel core i7
The document provides information about the Intel Core i7 processor. It includes sections about the history, architecture, features, advantages, and disadvantages. Some key details are:
- The Intel Core i7 is a desktop CPU with 4 cores and 8 threads that can reach speeds up to 4.2GHz. It supports up to 64GB of RAM.
- Features include Turbo Boost, Hyper-Threading, integrated graphics, and virtualization technologies.
- Advantages are its performance capabilities due to technologies like virtualization and Turbo Boost. Disadvantages include higher price and power consumption compared to other processors.
DFS algorithm
The document discusses depth-first search (DFS) algorithms. It provides pseudocode for performing DFS on a graph and walks through an example of running DFS on a sample graph. It explains that DFS classifies edges in the original graph as tree edges, back edges, forward edges, or cross edges based on how vertices are encountered during the algorithm's execution.
Laplace transform
The document presents information about Laplace transforms including:
- The definition and properties of the Laplace transform. It transforms differential equations into algebraic equations.
- Examples of applications in solving ordinary and partial differential equations, electrical circuits, and other fields.
- Limitations in that it can only be used to solve differential equations with known constants.
- Conclusion that the Laplace transform is a powerful mathematical tool used across many areas of science and engineering.
Presentation on Rectifier
A rectifier converts alternating current (AC) to direct current (DC) by only allowing current to flow in one direction. The presentation discusses half wave rectifiers, which use one diode and pass current during either the positive or negative half of the AC cycle. It also covers full wave rectifiers like the center tap and bridge rectifier, which use two or more diodes to pass current during both halves of the AC cycle, thereby doubling the output current compared to a half wave rectifier.
Presentation on Heap Sort
Heap data structures can be used for sorting and memory management. Heapsort uses a max heap to sort an array by repeatedly replacing the root with the last element and heapifying the reduced heap. Heaps are also used to manage memory dynamically by allocating and resizing memory blocks on the heap using functions like malloc() and realloc(). Priority queues, which can be implemented efficiently using binary heaps, are used for applications that require fast retrieval of the highest or lowest priority element, such as scheduling tasks.
Bfs algorithm & its application
Bfs algorithm & its application.
Breadth-first search (BFS) is an algorithm for traversing or searching tree or graph data structures. It starts at the tree root (or some arbitrary node of a graph, sometimes referred to as a 'search key'[1]) and explores the neighbor nodes first, before moving to the next level neighbors.
BFS and its application in finding connected components of graphs were invented in 1945 by Konrad Zuse, in his (rejected) Ph.D. thesis on the Plankalkül programming language, but this was not published until 1972.[2] It was reinvented in 1959 by E. F. Moore, who used it to find the shortest path out of a maze,[3][4] and discovered independently by C. Y. Lee as a wire routing algorithm (published 1961).[5][6]
Presentation on chikunguny
Chikungunya is a viral disease spread by mosquito bites. It is becoming a major problem in Bangladesh, with over 100 confirmed cases in Dhaka in recent months. The presentation will discuss what chikungunya is, how it is transmitted, its effects in Dhaka, and steps taken by the government and prevention methods. The virus causes fever and joint pain and is transmitted by Aedes mosquitoes.
A presentation on social networking sites
This document provides an overview of social networking sites. It discusses that social networking sites allow individuals to create public profiles and connect with others. The first social networking site was SixDegrees, which launched in 1971. Some of the most popular current sites are Facebook, Twitter, LinkedIn, Pinterest, Google+, Tumblr, Instagram, VK, Flickr and Vine. The document outlines the founders and users of Facebook, Twitter, and LinkedIn. It concludes with advantages like connecting people and sharing information, and disadvantages such as spreading false information and cyberbullying.
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Presentation of the OECD Artificial Intelligence Review of Germany
Consult the full report at https://www.oecd.org/digital/oecd-artificial-intelligence-review-of-germany-609808d6-en.htm
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Simplify your search for a reliable Python development partner! This list presents the top 10 trusted US providers offering comprehensive Python development services, ensuring your project's success from conception to completion.
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Acuity is an innovative learning app designed to transform the way you engage with knowledge. Powered by AI technology, Acuity takes complex topics and distills them into concise, interactive summaries that are easy to read & understand. Whether you're exploring the depths of quantum mechanics or seeking insight into historical events, Acuity provides the key information you need without the burden of lengthy texts.
HCL Notes und Domino Lizenzkostenreduzierung in der Welt von DLAU
Webinar Recording: https://www.panagenda.com/webinars/hcl-notes-und-domino-lizenzkostenreduzierung-in-der-welt-von-dlau/
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Nehmen Sie an diesem Webinar teil, bei dem HCL-Ambassador Marc Thomas und Gastredner Franz Walder Ihnen diese neue Welt näherbringen. Es vermittelt Ihnen die Tools und das Know-how, um den Überblick zu bewahren. Sie werden in der Lage sein, Ihre Kosten durch eine optimierte Domino-Konfiguration zu reduzieren und auch in Zukunft gering zu halten.
Diese Themen werden behandelt
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Monitoring and Managing Anomaly Detection on OpenShift.pdf
Monitoring and Managing Anomaly Detection on OpenShift
Overview
Dive into the world of anomaly detection on edge devices with our comprehensive hands-on tutorial. This SlideShare presentation will guide you through the entire process, from data collection and model training to edge deployment and real-time monitoring. Perfect for those looking to implement robust anomaly detection systems on resource-constrained IoT/edge devices.
Key Topics Covered
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- Understand the fundamentals of anomaly detection and its importance in identifying unusual behavior or failures in systems.
2. Understanding Edge (IoT)
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8. Monitoring Application Metrics with Prometheus
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12. Jupyter Notebooks with Code Examples
- Hands-on examples and code snippets in Jupyter Notebooks to help you implement and test anomaly detection models.
GraphRAG for Life Science to increase LLM accuracy
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Have you ever been confused by the myriad of choices offered by AWS for hosting a website or an API?
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みなさんこんにちはこれ何文字まで入るの？40文字以下不可とか本当に意味わからないけどこれ限界文字数書いてないからマジでやばい文字数いけるんじゃないの？えこ...
ここ3000字までしか入らないけどタイトルの方がたくさん文字入ると思います。
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“Building and Scaling AI Applications with the Nx AI Manager,” a Presentation...
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Welcome to UiPath Test Automation using UiPath Test Suite series part 6. In this session, we will cover Test Automation with generative AI and Open AI.
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What will you get from this session?
1. Insights into integrating generative AI.
2. Understanding how this integration enhances test automation within the UiPath platform
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Test Automation with generative AI and Open AI.
UiPath integration with generative AI
Speaker:
Deepak Rai, Automation Practice Lead, Boundaryless Group and UiPath MVP
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みなさんこんにちはこれ何文字まで入るの？40文字以下不可とか本当に意味わからないけどこれ限界文字数書いてないからマジでやばい文字数いけるんじゃないの？えこ...
みなさんこんにちはこれ何文字まで入るの？40文字以下不可とか本当に意味わからないけどこれ限界文字数書いてないからマジでやばい文字数いけるんじゃないの？えこ...
“Building and Scaling AI Applications with the Nx AI Manager,” a Presentation...
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UiPath Test Automation using UiPath Test Suite series, part 6
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Programming Foundation Models with DSPy - Meetup Slides
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Unlock the Future of Search with MongoDB Atlas_ Vector Search Unleashed.pdf
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Ipv4 & ipv6
- 2. Presenters Mehedul Ahsan 161-15-7181 Rafia Islam 161-15-6945 Amit Kundu 161-15-7149 Md. Shakil Mahmud 152-15-5573
- 3. 01 02 03 04 Type of IPv4 class Define Ipv6 What is IP address ? Intro to IPv4. Difference between IPv4 and IPv6
- 4. What is IP address? & Intro to IPv4.
- 5. What is IP address? What is IP address ? Internet assigned number authority(IANA). Internet service provider(ISP) What is the use of IP?
- 6. What is the use of IP? IP address works at the network layer of the OSI model. Without IP addresses, devices on different networks will not be able to communicate. Every device needs a unique IP address in order to connect to the internet.
- 7. IPv4 (IP Version 4) 32 bit, represented in 4 decimal number, each decimal number is of 8 bit, separated by a dot(.). Consists of 2 components. #Network id # Host id. IPv4 allows 232 . Which section show the machine or host id depend on the class network.
- 8. IPv4 network addressing And Problems in IPv4
- 9. IPv4 address: There are 5 different class in IPv4 Class Uses Start IP End IP CIDR Class A Large networks 0 127 /8 Class B Medium networks 128 191 /16 Class C Small networks 192 223 /24 Class D Multicast 224 239 N/A Class F Experimental purpose 240 255 N/A
- 10. Problems in IPv4 Insufficiency. Hard to configure Overloaded NAT. security issues.
- 11. IPv6 (IP Version 6)
- 12. Why IPv6? 32-bit address space soon to be completely allocated. Header format helps speed processing/forwarding Header changes to facilitate QoS
- 13. IPv6 Address Representation xxxx:xxxx:xxxx:xxxx:xxxx:xxxx:xxxx:xxxx Each x is a 4bit hexadecimal digit IPv6 addresses range from 0000:0000:0000:0000:0000:0000:0000:0000 to FFFF:FFFF:FFFF:FFFF:FFFF:FFFF:FFFF:FFFF
- 15. u n i c a s t m u l t i c a s t a n y c a s t communicate specified one computer communicate group of computers send group address that can receive multiple computers,but receive 1 computer Types of addresses
- 16. What’s Good about IPv6? Bigger address space Mobility Built-in security
- 17. IPv4 VS IPv6
- 18. Click here to add content Addresses Fragment ation Header Classes
- 19. Click here to add content Configura tion Packet Size Notation Mobile Networks
- 20. Click here to add content Address Space IPS Number of Header field Represent ation
- 21. Advantages of IPv6 over IPv4
- 22. Click here to add content Router’s Task Mobile Networks Payloads Use
- 23. THANKS