IPinfo’s Post

TCP is reliable, connection-oriented, and ensures data integrity and order, but comes with higher overhead and latency. UDP is faster and more efficient with lower overhead but lacks reliability and does not guarantee data delivery or order.

IPv6 is revolutionizing the way we handle IP data. Are you ready to stay ahead of the curve? Check out our latest whitepaper to understand how this shift can benefit your business. 📘 Read now: The Impact of IPv6 on your IP Data Intelligence https://hubs.ly/Q02zLM3h0 #IPv6 #IPData #DataIntelligence

UDP is like sending a letter without expecting a reply - it’s fast but there’s no guarantee it will arrive. It’s used where speed is critical and errors can be tolerated. TCP, on the other hand, is akin to a phone call with a confirmation of receipt, ensuring data integrity and order. It shines where reliability is non-negotiable.

UDP HEADER Source Port: Identifies the sender’s port. Destination Port: Identifies the receiver’s port. Length: Specifies the total length of the UDP packet (header + data). Checksum: Provides error-checking for data integrity. Each field is 2 bytes (16 bits) long, and the entire header is 8 bytes.

IPv6 is revolutionizing the way we handle IP data. Are you ready to stay ahead of the curve? Check out our latest whitepaper to understand how this shift can benefit your business. 📘 Read now: The Impact of IPv6 on your IP Data Intelligence https://hubs.ly/Q02S8Jbm0

With #anynodeSBC a specific node can be determined that triggers an error message in the event of a failure. Learn more here: https://bit.ly/3UqQZ2I

The Tempesta FW core team has given a talk about high-performance fair HTTP streams scheduling, discussing RFCs 7540 and 9218 for HTTP/2 and HTTP/3, along with advanced data structures and efficient WFQ scheduling algorithms. https://lnkd.in/dhsG4xGr #webperformance #http #websecurity

With #anynodeSBC a specific node can be determined that triggers an error message in the event of a failure. Learn more here: https://bit.ly/3UqQZ2I

With #anynodeSBC a specific node can be determined that triggers an error message in the event of a failure. Learn more here: https://bit.ly/3UqQZ2I

Encapsulation VS De-Encapsulation Initially, Data Moves into The Sender Host From Layer 7 to Layer 1, but in The Receiver Host, Data Moves from Layer 1 to Layer 7. Encapsulation Means Adding Descriptive Information to Data Within a Wrapper, and It Occurs From Layer 4 to Layer 1. Data in Layers 7, 6, and 5 Doesn't have any Specific Names; it's Simply Referred to as Data. However, at Layer 4, The Data Is Encapsulated with Information Describing Sources and Destination Ports; It's Called Segments in TCP and Datagrams in UDP. Data in Layer 3 Is Encapsulated with Information Describing Source and Destination IP Addresses; They're Called Packets. Data in Layer 2 Is Encapsulated with Information Describing Source and Destination MAC Addresses; They're Called Frames. Data in Layer 1 Is Transferred From Bits to Physical Signals, and It's Called Bits. De-Encapsulation Involves Unwrapping The Cover Around Data in The Receiver Host, and It Occurs From Layer 1 to Layer 4. #Encapsulation VS De-Encapsulation #CCNA #Network_Topology #Network_Engineering #OSI_MODELS