### Understanding TCP/IP Protocols: Assurance and Speed in Packet Delivery**Question:**Which TCP/IP protocol, which handles and assures the delivery of packets, provides this guarantee? Which protocol offers a quicker delivery time but does not ensure its success?---**Explanation:**In the TCP/IP suite, two key protocols manage the delivery of packets across networks: - **Transmission Control Protocol (TCP):** This protocol is responsible for assuring the delivery of packets. TCP establishes a connection between the sender and receiver, ensuring that the data is reliably delivered, correctly ordered, and error-checked.- **User Datagram Protocol (UDP):** This protocol offers a quicker delivery time but does not guarantee the successful delivery of packets. UDP sends packets without establishing a connection and without performing error-checking, leading to faster transmission times but with the risk of packet loss or errors. These two protocols serve different needs depending on the requirements for reliability and speed in data transmission. While TCP is often used for tasks where reliability is crucial (e.g., file transfers, web browsing), UDP is preferred where speed is more critical (e.g., live streaming, online gaming).

Answered: Which TCP/IP protocol, which handles…

Computer Networking: A Top-Down Approach (7th Edition)

7th Edition

ISBN:9780133594140

Author:James Kurose, Keith Ross

Publisher:James Kurose, Keith Ross

Chapter1: Computer Networks And The Internet

Section: Chapter Questions

Problem R1RQ: What is the difference between a host and an end system? List several different types of end...

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Similar questions

TCP is a connection-oriented protocol, but IP does not need a connection to function properly. How can these two protocols best coexist in the same protocol stack? What is the most effective way to do this?
What sets the Transmission Control Protocol (TCP) different from the User Datagram Protocol (UDP)? Find out which four aspects of these regimens vary the most significantly from one another, and then investigate those discrepancies.
TCP demands complete openness from all parties involved, which includes almost every endpoint operating system. Is it feasible to manipulate the Transmission Control Protocol (TCP), and if so, how may one instance gain an edge over other endpoints?
Why are internal and external routing protocols used in the current world at such a high rate?
TCP allows for uninterrupted, two-way communication. What do you mean by the terms "full-duplex," "connection-oriented," and "reliable delivery"?
TCP demands all parties, including endpoint operating systems, to be transparent. How can one endpoint trick the Transmission Control Protocol (TCP)?
Which TCP/IP protocol, which handles and assures the delivery of packets, provides this guarantee? Which protocol offers a quicker delivery time but does not ensure its success?
Destination IP-based forwarding is used by the per-router control plane (sometimes called the classical network) to connect with other routers. If messages are forwarded depending on their destinations' IP addresses, what are the boundaries of this approach? Include a description of at least three limitations, preferably with examples. To what extent does Software-Defined Networking (SDN) contribute to solving these problems? The examples will serve as the explanation.
An Internet user would like to transfer a message from his computer (host A) to another computer (host B). The size of the message passed to the IP layer is 3800 bytes. The datagram(s) carrying the message will have to cross two routers (R1 and R2) and 3 networks (NET1, NET2, and NET3) as described in the above figure. Each of these networks has a specific MTU (for example the MTU of network 1 is 1500 bytes. MTU here stands for Maximum Transmission Unit, the largest data that a frame can carry). Fill the table with the IP datagram(s) needed right after passing through NET3 (no need to show your fragmentation for N1 or N2). Assume a 2-byte options in the header. Show all your details (for partial points in case your numbers are incorrect). NET1 MTU=1500 R1 NET2 MTU=640 R2 NET3 MTU 1500 V BIU Fragment # Format Offset Flag (3 bits) Data Length Total Length ...
Communication between routers on the per-router control plane (or classical network) is accomplished using IP destination forwarding. To what extent does this message forwarding mechanism based on a recipient's IP address have restrictions? Provide at least three limitations, illuminating them via specific examples. The question is, what part does Software-Defined Networking (SDN) play in solving these problems? This will be explained with certain instances.
Are routers employing layer-2 protocols that pose difficulties? What is the reason for the persistence of ICMP packets despite modifications to the subnet of a PPP-encapsulated router's serial interface?
Communication between routers on the per-router control plane (or classical network) is accomplished using IP destination forwarding. To what extent does this message forwarding mechanism based on a recipient's IP address have restrictions? Provide at least three limitations, illuminating them via specific examples. The question is, what part does Software-Defined Networking (SDN) play in solving these problems? This will be explained with certain instances.

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