D. Bertsekas and R. Gallager, Data Networks, Prentie Hall, 2nd edition, B. Hajek, Notes for ECE Communication Network Analysis, available on-line D. Bertsekas and R. Gallager, “Data Networks,” second edition, Prentice Hall If you did not turn in up to 2 homework sets due to a legitimate reason, the turned-in assignments will carry a total of the 25% of the final score. 4. Any final score component missed BOOKS AUTHORED: Prof. Bertsekas is the author of. Dynamic Programming and Stochastic Control, Academic Press, , Constrained Optimization and Lagrange Multiplier Methods, Academic Press, ; republished by Athena Scientific, Dynamic Programming: Deterministic and Stochastic Models, Prentice-Hall, Linear Network Optimization: Algorithms and Codes, MIT Press, ;
Course Information and Syllabus - CS G
CS G - Fundamentals of Computer Networking CS U - Network Fundamentals. Web Page:. Thursdays, pm to pm, Room 5 SL Snell Library. Course Objective:. This course provides a graduate-level or advanced undergraduate-level introduction to the fundamentals of computer networking.
This includes fundamental concepts, bertsekas and gallager homework, principles, mechanisms, bertsekas and gallager homework, algorithms, theoretical foundations, currently relevant technologies, bertsekas and gallager homework, and some recent advances in the field. The course also develops practical experience through programming assignments involving network sockets and simulations. The syllabus is provided below.
Course Prerequisite:. An undergraduate course in probability theory for CS G only. Adrian E. Conway, Part-Time Lecturer College of Computer and Information Science, Northeastern University. Office Hours: Room WVH - hours to be announced in class. Harsh Kumar. Mailing List:.
All students must join the course mailing list by using the following registration link:. This mailing list will be used to email assignments and communicate any other information. Academic Honesty:. Northeastern University is committed to the principles of intellectual honesty and integrity. All members of the Northeastern community are expected to maintain complete honesty in all academic work, presenting only that which is their own work in bertsekas and gallager homework and all assignments.
If you have any questions regarding proper attribution of the work of others, please contact the Lecturer or Teaching Assistant prior to submitting the work for evaluation. All students should familiarize themselves with and abide by the University's Academic Honesty policy. Independent Work:. Students may collaborate when studying, but all students are expected to work independently in completing their homework assignments, practical assignments, and written exams. Reading assignments see below are taken from the following two textbooks.
The homework for the course includes Homework Assignments HA and three Practical Assignments PA. HA consist of exercises and problems. PA consist of programming work and lab-type reports. Assignment due dates are given below. All HA and PA must be submitted in class on the due date. All HA and PA must be submitted as hardcopy i. Previous HA with solutions bertsekas and gallager homework provided below for study.
There are two closed-book exams. Bertsekas and gallager homework exams cover the material in the lecture slides, examples done in class, and homework assignments. All exams are graded by the Lecturer.
The exam dates are provided below. Previous exams are provided below for study. Grading Scheme:. Lecture Slides:. Slides are posted below as PDF documents in advance of lectures. Revised versions may be posted subsequently as needed. All documents are protected by a password to be provided in class or email the Lecturer to request the password. Lecture slides bertsekas and gallager homework copyrighted by Adrian E.
U Exemptions:. Undergraduate students do not have HA problems or exam questions involving the syllabus sections shown below in color. Class Schedule, Exam Dates, Assignment Due Dates, and Assignment PDFs:. HA due date and PDF link. PA due date and PDF link. Jan 8. Jan Homework Assignment 1 Solutions. Feb 5. Homework Assignment 2 Solutions. Practical Assignment 1.
Feb Homework Assignment 3 Solutions. mid-term exam 1. Homework Assignment 4 Solutions. lecture - for G only. March 5. no class - spring break. March Homework Assignment 5 Solutions. no class - away. Homework Assignment 6 Solutions. April 2.
Practical Assignment 2. April 9. Homework Assignment 7 Solutions. April Homework Assignment 8 Solutions.
final exam 2. Practical Assignment 3. Introduction - Physical View. Introduction - Logical View. Introduction - Resource Sharing Aspects. resource sharing, economic considerations, multiplexing, TDM, FDM, CDMstatistical multiplexing, hierarchical and hybrid multiplexing. Introduction - Performance Aspects. propagation delay, bandwidth-delay product, space-time diagrams, loss, delay, delay jitter, throughput, errors, reliability, end-to-end view of performance, ping, bandwidth measurement, application performance requirements.
Network Software and Programming. protocol software architecture, client-server model, peer-to-peer model, stream and datagram sockets, socket API, programming sockets, byte-order.
Data Links in Networks. point-to-point links, multiple access links, networks of links, link types, signal types, signal bandwidth, channel bandwidth, Shannon's capacity theorem, sampling, Nyquist's sampling theorem, digital modulation techniques, line coding, Baud rate, OFDM, QAM, link impairments, end-to-end view of link impairments, bertsekas and gallager homework.
Modeling and Analysis Fundamentals. Framing and Error Detection. frame formats, packet formats, error detection, parity check, Internet checksum, cyclic redundancy check CRC. Error Recovery Methods. forward error correction, block codes, bertsekas and gallager homework, convolutional codes, turbo codes, automatic repeat request ARQend-to-end view of ARQ, stop-and-wait, pipelined ARQ, receive and send windows, go-back-N, selective repeat, sequence numbers, concurrent logical channels.
Multiple Access Methods. Queueing Models. Data Networking. bertsekas and gallager homework switching, packet switching, circuit switching, cut-through switching, switching with network coding, linear network coding, delay analysis, network concatenation, layering of networks, end-to-end view, virtual private networks, tunneling, switching, flooding, datagram switching, source-routed switching, virtual-circuit switching, label switching, network service types, SONET rings, WDM, multi-service optical networks, frame relay, ATM, ATM segmentation, Ethernets, MAC addresses, IP, MPLS, IP-VPN.
Network Graph Fundamentals. graph theory concepts, minimum spanning tree, Prim's algorithm, Kruskal's algorithm, max-flow min-cut theorem, Ford-Fulkerson algorithm, broadcast capacity, Edmond's theorem, multicasting capacity, multicasting with network coding. Routing Algorithms. end-to-end view of routing, shortest paths, routing algorithm types, dynamic programming, Bellman-Ford algorithm, trellis diagram, Dijkstra's algorithm, distributed asynchronous Bellman-Ford algorithm, self-learning on trees.
end-to-end view of internetworking, Internet protocol, IP datagram format, IP fragmentation, IP reassembly, IP addressing, subnetting, CIDR, traceroute, DHCP, ARP, DNS, whois, ICMP, autonomous systems, AS routing, RIP, OSPF, IS-IS, EGP, BGP, bertsekas and gallager homework, NAT, NAT traversal, load balancing, failover mechanisms, end-to-end view of IP internetworking.
End-to-End Network Protocols. end-to-end view, e2e service characteristics, e2e functions, UDP, TCP, RTP, TCP segment format, MSS, TCP reliable byte stream delivery, TCP flow control, TCP timeout, TCP connection management, TCP in high-speed networks, using a protocol analyzer.
Lecture 9 of my RL course: Infinite horizon theory and algorithms. ASU, Spring 2021.
, time: 1:46:48ESE Introduction to Electrical Networks - Fall
by Dimitri P. Bertsekas and Robert G. Gallager The following material from the book "Data Networks," (2nd edition) Prentice Hall, , ISBN , may be freely downloaded and used freely for any noncommercial purpose Homework: Related Material: References: 1. Introduction to networks, circuit vs packet switching and layered network architecture [1][2] [1] Bertsekas and Gallager, Data Networks [2] A. Mediano, "Lecture notes", MIT [3] M. Schwartz, Telecommunication networks: Protocols, Modeling and Analysis Bertsekas & Gallager Ch Kobayashi & Mark Ch.1 2. Queuing Theory: Basic Model and Notation, Little's Law, Markovian Systems. Slides or. Slides or. Notes. Bertsekas & Gallager Ch Kobayashi & Mark Ch Homework #1 Homework #2: 3. Queuing Theory: M/M/1-Queue and M/M/m-Queue Slides ⁄
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