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cos.xml
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<?xml version='1.0' encoding='UTF-8'?>
<?xml-stylesheet type="text/xsl" href="cos.xsl"?>
<CSITcourses>
<course id="COL100">
<course_no>COL100</course_no>
<course_title>Introduction to Computer Science</course_title>
<course_category_CS1>Institute Core for CS1</course_category_CS1>
<course_category_CS51>Institute Core for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
Concept of an algorithm; termination and correctness. Algorithms
to programs: specification, top-down development and stepwise
refinement. Iterative versus recursive style; problem solving using
a functional style; correctness issues in programming; efficiency
issues in programming; time and space measures. Structured style of
imperative programming; programming
in an imperative language using advanced features: procedures,
functions. Data types, representational invariants. Encapsulation,
abstractions, interaction, modularity. Identifying and exploiting
inherent concurrency.
</course_content>
</course>
<course id="COL106">
<course_no>COL106</course_no>
<course_title>Data Structures and Algorithms</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>5 credits (3-0-4)</course_credits>
<course_prereq>
<ir refid="COL100">COL100</ir>
</course_prereq>
<course_overlap />
<course_content>
Introduction to object-oriented programming through stacks queues
and linked lists. Dictionaries; skip-lists, hashing, analysis of collision
resolution techniques. Trees, traversals, binary search trees, optimal
and average BSTs. Balanced BST: AVL Trees, 2-4 trees, red-black
trees, B-trees. Tries and suffix trees. Priority queues and binary
heaps. Sorting: merge, quick, radix, selection and heap sort, Graphs:
Breadth first search and connected components. Depth first search in
directed and undirected graphs.
Disjkra's algorithm, directed acyclic graphs and topological sort. Some
geometric data-structures.
</course_content>
</course>
<course id="COL202">
<course_no>COL202</course_no>
<course_title>Discrete Mathematical Structures</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-1-0)</course_credits>
<course_prereq />
<course_overlap>
<ir refid="MTL180">MTL180</ir>
</course_overlap>
<course_content>
Propositional logic, Predicate Calculus and Quantifiers; Proof Methods;
Sets, functions, relations, Cardinality, Infinity and Diagonalization;
Induction and Recursion; Modular Arithmetic, Euclid's Algorithm,
primes, Public Key Cryptography; Polynomials, finite fields and Secret
Sharing; Coding Theory: Error correcting codes, Hamming codes,
Hamming bound; Basic Counting - Pigeon hole principle; Advanced
Counting - recurrence relations, generating functions, inclusion-
exclusion; basic information theory, entropy, Kraft's inequality,
mutual information, lower bounds; Probability - sample space,
conditional probability, expectation, linearity of expectation, variance,
Markov, Chebychev, probabilistic methods; Graph Theory - Eulerian,
Hamiltonian and planar graphs, edge and vertex coloring.
</course_content>
</course>
<course id="COL215">
<course_no>COL215</course_no>
<course_title>Digital Logic and System Design</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>5 credits (3-0-4)</course_credits>
<course_prereq>
<ir refid="COL100">COL100</ir> AND
<ir refid="ELL100">ELL100</ir>
</course_prereq>
<course_overlap>
<ir refid="ELL201">ELL201</ir>
</course_overlap>
<course_content>
The course contents can be broadly divided into two parts. First part
deals with the basics of circuit design and includes topics like circuit
minimization, sequential circuit design and design of and using RTL
building blocks. The second part is focused on ASIC style system design
and introduces VHDL, FPGA as implementation technology, synthesis
steps as well as testing techniques. Course ends with introducing the
challenges of embedded design where software is becoming integral
to all devices. The laboratory assignments are a key component of
this course and requires students to design and implement circuits
and sub-systems on FPGA kits covering almost all the topics covered
in the lectures.
</course_content>
</course>
<course id="COL216">
<course_no>COL216</course_no>
<course_title>Computer Architecture</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="ELL201">ELL201</ir>
</course_prereq>
<course_overlap>
<ir refid="ELL305">ELL305</ir>
</course_overlap>
<course_content>
History of computers, Boolean logic and number systems, Assembly
language programming, ARM assembly language, Computer arithmetic,
Design of a basic processor, Microprogramming, Pipelining, Memory
system, Virtual memory, I/O protocols and devices, Multiprocessors.
</course_content>
</course>
<course id="COL226">
<course_no>COL226</course_no>
<course_title>Programming Languages</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>5 credits (3-0-4)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>
</course_prereq>
<course_overlap />
<course_content>
Value and state oriented paradigms. Translation. Notions of syntax
and semantics of programming languages; introduction to operational/
natural semantics of functional and imperative languages. Data
abstractions and control constructs; block-structure and scope,
principles of abstraction, qualification and correspondence; parameter
passing mechanisms; runtime structure and operating environment;
practical and implementation issues in run-time systems and
environment; abstract machines; features of functional and imperative
languages; the un-typed and simply-typed Lambda calculus, type
systems for programming languages including simple types and
polymorphism; objects; classes and inheritance in object-oriented
languages.
Interactive programming and interfaces.
The laboratory activities will involve building a variety of small
interpreters for core languages in various paradigms. Tools such as
lex and yacc will be introduced for front-end analysis.
</course_content>
</course>
<course id="COP290">
<course_no>COP290</course_no>
<course_title>Design Practices</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>3 credits (0-0-6)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
The contents may differ each year depending on the instructor. The
course should involve 2-3 large programming projects done in groups
of 2-4.
</course_content>
</course>
<course id="COD300">
<course_no>COD300</course_no>
<course_title>Design Project</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>2 credits (0-0-4)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
Basic design methodology -- introduction to the steps involved,
Familiarization with software practices, tools and techniques, software
project involving conceptualization, design analysis, implementation
and testing using the tools and techniques learnt.
</course_content>
</course>
<course id="COD310">
<course_no>COD310</course_no>
<course_title>Mini Project</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>3 credits (0-0-6)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
Design / Fabrication / Implementation work under the guidance of a
faculty member. Prior to registration, a detailed plan of work should be
submitted by the student to the Head of the Department for approval.
</course_content>
</course>
<course id="COR310">
<course_no>COR310</course_no>
<course_title>Professional Practices (CS)</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>2 credits (1-0-2)</course_credits>
<course_prereq>
<ir refid="EC60">EC - 60</ir>
</course_prereq>
<course_overlap />
<course_content>
The course would consist of talks by working professionals from
industry, government and research organizations. It may also include
site visits to various organizations.
</course_content>
</course>
<course id="COS310">
<course_no>COS310</course_no>
<course_title>Independent Study (CS)</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>3 credits (0-3-0)</course_credits>
<course_prereq>
<ir refid="EC60">EC - 60</ir>
</course_prereq>
<course_overlap />
<course_content>
Research oriented activities or study of subjects outside regular course
offerings under the guidance of a faculty member. Prior to registration,
a detailed plan of work should be submitted by the student to the
Head of the Department for approval.
</course_content>
</course>
<course id="COP315">
<course_no>COP315</course_no>
<course_title>Embedded System Design Project</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (0-1-6)</course_credits>
<course_prereq>
<ir refid="COL215">COL215</ir>, <ir refid="COL216">COL216</ir> or equivalent courses</course_prereq>
<course_overlap />
<course_content>
Students working in small groups of four to six are expected to
deliver in one semester on an innovative solution for problems/
challenges that are typical to India and perhaps other developing
countries. The students would have to go through the full cycle of
specification, design and prototyping/building a concept demonstrator.
Key component of the assessment would be through a public
demonstration of their solution.
Learning to work in groups as well as planning and delivering a large
task are other expected learnings.
</course_content>
</course>
<course id="COL331">
<course_no>COL331</course_no>
<course_title>Operating Systems</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>5 credits (3-0-4)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> AND
<ir refid="COP290">COP290</ir>
</course_prereq>
<course_overlap>
<ir refid="ELL405">ELL405</ir>
</course_overlap>
<course_content>
Primary UNIX abstractions: threads, address spaces, filesystem,
devices, interprocess communication; Introduction to hardware
support for OS (e.g., discuss x86 architecture); Processes and Memory;
Address Translation; Interrupts and Exceptions; Context Switching;
Scheduling; Multiprocessors and Locking; Condition Variables,
Semaphores, Barriers, Message Passing, etc.; Filesystem semantics,
design and implementation; Filesystem Durability and Crash recovery;
Security and Access Control.
</course_content>
</course>
<course id="COL333">
<course_no>COL333</course_no>
<course_title>Principles of Artificial Intelligence</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>
</course_prereq>
<course_overlap>
<ir refid="COL671">COL671</ir>, <ir refid="COL770">COL770</ir>, <ir refid="ELL789">ELL789</ir>
</course_overlap>
<course_content>
Philosophy of artificial intelligence, problem solving, search techniques,
constraint satisfaction, game playing (minimax, expectiminimax),
automated planning, knowledge representation and reasoning through
logic, knowledge representation and reasoning through fuzzy logic
and Bayesian networks, Markov decision processes, machine learning,
neural networks, reinforcement learning, soft computing, introduction
to natural language processing.
</course_content>
</course>
<course id="COL334">
<course_no>COL334</course_no>
<course_title>Computer Networks</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> AND
<ir refid="COL216">COL216</ir>
</course_prereq>
<course_overlap>
<ir refid="ELL402">ELL402</ir>
</course_overlap>
<course_content>
Students will be exposed to common network algorithms and protocols,
including physical layer modulation (analog AM/FM, digital ASK/FSK/
PSK), encoding (NRZ, Manchester, 4B/5B), link layer framing, error
control, medium access control (TDMA, FDMA, CSMA/CA, CSMA/
CD), bridging, SDN, addressing (IPv4/v6), name resolution (DNS),
routing (DV, LS, protocols RIP, OSPF, BGP), transport protocols
(TCP), congestion avoidance (window based AIMD), and application
design models (client-server, P2P, functioning of HTTP, SMTP,
IMAP). Programming assignments will be designed to test network
application design concepts, protocol design towards developing error
detection and correction methods, efficient network utilization, and
familiarization with basic tools such as ping, traceroute, wireshark.
</course_content>
</course>
<course id="COL341">
<course_no>COL341</course_no>
<course_title>Machine Learning</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>, <ir refid="MTL106">MTL106</ir>
</course_prereq>
<course_overlap>
<ir refid="ELL409">ELL409</ir>, <ir refid="ELL784">ELL784</ir>
</course_overlap>
<course_content>
Supervised Learning Algorithms: 1. Logistic Regression 2.Neural
Networks 3.Decision Trees 4.Nearest Neighbor 5. Support
Vector Machines 6. Naive Bayes. ML and MAP estimates. Bayes'
Optimal Classifier.Introduction to Graphical Models.Generative Vs.
Discriminative Models. Unsupervised learning algorithms: K-Means
clustering, Expectation Maximization, Gaussian Mixture Models. PCA
and Feature Selection, PAC Learnability, Reinforcement Learning.
Some application areas of machine learning e.g. Natural Language
Processing, Computer Vision, applications on the web. Introduction
to advanced topics such as Statistical Relational Learning.
</course_content>
</course>
<course id="COL351">
<course_no>COL351</course_no>
<course_title>Analysis and Design of Algorithms</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-1-0)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>
</course_prereq>
<course_overlap>
<ir refid="MTL342">MTL342</ir>
</course_overlap>
<course_content>
checking 2-edge, 2-node and strong connectivity using DFS. Strongly
connected components. Greedy algorithms, minimum spanning
trees (Prim/Kruskal), Union-find data structure. Matroids. Divide and
conquer algorithms. Polynomial multiplication, DFT and FFT. Dynamic
Programming, All pairs shortest paths (Bellman-Ford, Floyd Warshall).
s-t flows, ford-fulkerson, edmonds-karp, applications of maxflow
Intractability, NP-completeness, Polynomial time reductions. String
matching, KMP and Rabin-Karp. Universal hashing and applications.
Geometric algorithms like convex hulls, multidimensional data
structures, plane sweep paradigm.
</course_content>
</course>
<course id="COL352">
<course_no>COL352</course_no>
<course_title>Introduction to Automata and Theory of Computation</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>3 credits (3-0-0)</course_credits>
<course_prereq>
<ir refid="COL202">COL202</ir>
</course_prereq>
<course_overlap>
<ir refid="MTL383">MTL383</ir>
</course_overlap>
<course_content>
Regular Languages, Finite Automata, equivalence, minimization,
Myhill-Nerode Theorem, introduction to non-determinism, Context
free grammars, Pushdown automata, equivalence and applications.
Turing machines, Recursive and Recursively enumerable sets, non-
determinism, RAMs and equivalence, Universal Turing Machines,
undecidability, Rice's theorems for RE sets, Post machines, Basics of
Recursive function theory. Equivalence, Church's thesis, computational
complexity, space and time complexity of Turing Machines,
Relationships, Savage's theorem, Complexity classes, Complete
problems, NP-completeness, Cook-Levin theorem.
</course_content>
</course>
<course id="COL362">
<course_no>COL362</course_no>
<course_title>Introduction to Database Management Systems</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>
</course_prereq>
<course_overlap>
<ir refid="MTL710">MTL710</ir>
</course_overlap>
<course_content>
Data models (ER, relational models, constraints, normalization),
declarative querying (relational algebra, datalog, SQL), query
processing/optimization (basics of indexes, logical/physical query plans,
views) and transaction management (introduction to concurrency
control and recovery). Overview of XML data management, text
management, distributed data management.
Course project to build a web-based database application.
</course_content>
</course>
<course id="COL380">
<course_no>COL380</course_no>
<course_title>Intro to Parallel and Distributed Programming</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51>DC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>3 credits (2-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> AND
<ir refid="COL351">COL351</ir> AND
<ir refid="COL331">COL331</ir>
</course_prereq>
<course_overlap>
<ir refid="COL730">COL730</ir>, <ir refid="MTL765">MTL765</ir>
</course_overlap>
<course_content>
Concurrency, Consistency of state and memory, Parallel architecture,
Latency and throughput, Models of parallel computation, performance
metrics and speedup, Message-passing and Shared-memory
programming paradigms, Communication networks and primitives,
Concepts of Atomicity, Consensus, Conditions and Synchronization,
Security, Fault tolerance, Replication of state and memory.
</course_content>
</course>
<course id="COD490">
<course_no>COD490</course_no>
<course_title>B.tech. Project</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51 />
<course_category_CS52 />
<course_category_MCS />
<course_credits>6 credits (0-0-12)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
</course_content>
</course>
<course id="COD492">
<course_no>COD492</course_no>
<course_title>B.Tech Project Part-I</course_title>
<course_category_CS1>DC for CS1</course_category_CS1>
<course_category_CS51 />
<course_category_CS52 />
<course_category_MCS />
<course_credits>6 credits (0-0-12)</course_credits>
<course_prereq>
<ir refid="EC100">EC 100</ir>
</course_prereq>
<course_overlap />
<course_content>
This project spans also the course COD494. Hence it is expected that
the problem specification and the milestones to be achieved in solving
the problem are clearly specified.
</course_content>
</course>
<course id="COD494">
<course_no>COD494</course_no>
<course_title>B.Tech Project Part-II</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51 />
<course_category_CS52 />
<course_category_MCS />
<course_credits>8 credits (0-0-16)</course_credits>
<course_prereq>
<ir refid="EC100">EC 100</ir>, <ir refid="COD492">COD492</ir>
</course_prereq>
<course_overlap />
<course_content>
The student(s) who work on a project are expected to work towards
the goals and milestones set in COD492. At the end there would be a
demonstration of the solution and possible future work on the same
problem. A dissertation outlining the entire problem, including a survey
of literature and the various results obtained along with their solutions
is expected to be produced.
</course_content>
</course>
<course id="COP701">
<course_no>COP701</course_no>
<course_title>Software Systems Laboratory</course_title>
<course_category_CS1 />
<course_category_CS51 />
<course_category_CS52 />
<course_category_MCS>PC for MCS</course_category_MCS>
<course_credits>3 credits (0-0-6)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
The contents may differ each year depending on the instructor. The course should involve 2-3 large programming projects done in groups of 2-4. A set of three project oriented assignments which will be announced at the start of each semester with definite submission deadlines. The set of assignments will be designed to develop skills and familiarity with a majority of the following: make, configuration management tools, installation of software, archiving and creation of libraries, version control systems, documentation and literate programming systems, GUI creation, distributed state maintenance over a network, programming in different environments like desktop and handhelds, program parsing and compilation including usage of standard libraries like pthreads, numerical packages, XML and semi-structured data, simulation environments, testing and validation tools.
</course_content>
</course>
<course id="COL702">
<course_no>COL702</course_no>
<course_title>Advanced Data Structures</course_title>
<course_category_CS1 />
<course_category_CS51 />
<course_category_CS52 />
<course_category_MCS>PC for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> OR EQUIVALENT</course_prereq>
<course_overlap />
<course_content>
Review of basic data structures and their realization in object
oriented Environments. Dynamic Data structures: 2-3 trees, Redblack trees,
binary heaps, binomial and Fibonacci heaps, Skip lists, Universal
Hashing. Data structures for maintaining ranges, intervals and disjoint
sets with applications. B-trees. Tries and suffix trees. Priority queues
and binary heaps. Sorting: merge, quick, radix, selection and heap
sort, Graphs: Breadth first search and connected components. Depth
first search in directed and undirected graphs. Disjkra's algorithm,
Directed acyclic graphs and topological sort. Some geometric data-
structures. Basic algorithmic techniques like
dynamic programming and divide-and-conquer. Sorting algorithms
with analysis, integer sorting, selection. Graph algorithms like DFS
with applications, MSTs and shortest paths.
</course_content>
</course>
<course id="COL703">
<course_no>COL703</course_no>
<course_title>Logic for Computer Science</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>PC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> OR EQUIVALENT</course_prereq>
<course_overlap>
<ir refid="MTL747">MTL747</ir>
</course_overlap>
<course_content>
Review of the principle of mathematical induction; the principle
of structural induction; review of Boolean algebras; Syntax of
propositional formulas; Truth and the semantics of propositional
logic; Notions of satisfiability, validity, inconsistency; Deduction
systems for propositional logic; Completeness of deduction sytems;
First order logic (FOL) ; Proof theory for FOL; introduction to model
theory; completeness and compactness theorems; First order theories.
Programming exercises will include representation and evalution;
conversion to normal-forms; tautology checking; proof normalization;
resolution; unification; Skolemization, conversion to Horn-clauses;
binary-decision diagrams. Decidability, undecidability and complexity
results. Introduction to formal methods, temporal/modal logics.
</course_content>
</course>
<course id="COL718">
<course_no>COL718</course_no>
<course_title>Architecture of High Performance Computers</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(AES) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL216">COL216</ir> OR EQUIVALENT</course_prereq>
<course_overlap />
<course_content>
Classification of parallel computing structures; Instruction level
parallelism - static and dynamic pipelining, improving branch
performance, superscalar and VLIW processors; High performance
memory system; Shared memory multiprocessors and cache
coherence; Multiprocessor interconnection networks; Performance
modelling; Issues in programming multiprocessors; Data parallel
architectures.
</course_content>
</course>
<course id="COL719">
<course_no>COL719</course_no>
<course_title>Synthesis of Digital Systems</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(AES) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL215">COL215</ir> OR EQUIVALENT</course_prereq>
<course_overlap />
<course_content>
After a basic overview of the VLSI design flow, hardware modelling
principles and hardware description using the VHDL language are
covered. This is followed by a study of the major steps involved in
behavioural synthesis: scheduling, allocation, and binding. This is
followed by register-transfer level synthesis, which includes retiming
and Finite State Machine encoding. Logic synthesis, consisting of
combinational logic optimisation and technology mapping, is covered
next. Popular chip architectures - standard cells and FPGA are
introduced. The course concludes with a brief overview of layout
synthesis topics: placement and routing.
</course_content>
</course>
<course id="COL722">
<course_no>COL722</course_no>
<course_title>Intruduction to Compressed Sensing</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(ITA) for MCS</course_category_MCS>
<course_credits>3 credits (3-0-0)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> OR EQUIVALENT</course_prereq>
<course_overlap />
<course_content>
Sparsity, L1 minimization, Sparse regression, deterministic and
probabilistic approaches to compressed sensing, restricted isometry
property and its application in sparse recovery, robustness in the
presence of noise, algorithms for compressed sensing.
Applications in magnetic resonance imaging (MRI), applications in
analog-to-digital conversion, low-rank matrix recovery, applications
in image reconstruction.
</course_content>
</course>
<course id="COL724">
<course_no>COL724</course_no>
<course_title>Advanced Computer Networks</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(SS) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL334">COL334</ir> OR EQUIVALENT</course_prereq>
<course_overlap />
<course_content>
Review of the Internet architecture, layering; wired and wireless
MAC; intra- and inter-domain Internet routing, BGP, MPLS, MANETs;
error control and reliable delivery, ARQ, FEC, TCP; congestion and
flow control; QoS, scheduling; mobility, mobile IP, TCP and MAC
interactions, session persistence; multicast; Internet topology,
economic models of ISPs/CDNs/content providers; future directions.
</course_content>
</course>
<course id="COL726">
<course_no>COL726</course_no>
<course_title>Numerical Algorithms</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>PC for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH,GV and DAAI) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir> OR EQUIVALENT</course_prereq>
<course_overlap>
<ir refid="MTL704">MTL704</ir>
</course_overlap>
<course_content>
Number representation, fundamentals of error analysis, conditioning,
stability, polynomials and root finding, interpolation, singular value
decomposition and its applications, QR factorization, condition number,
least squares and regression, Gaussian elimination, eigenvalue
computations and applications, iterative methods, linear programming,
elements of convex optimization including steepest descent, conjugate
gradient, Newton's method.
</course_content>
</course>
<course id="COL728">
<course_no>COL728</course_no>
<course_title>Compiler Design</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(SS) for MCS</course_category_MCS>
<course_credits>4.5 credits (3-0-3)</course_credits>
<course_prereq>
<ir refid="COL226">COL226</ir>, <ir refid="COL216">COL216</ir> OR EQUIVALENT</course_prereq>
<course_overlap />
<course_content>
Compilers and translators; lexical and
syntactic analysis, top-down and bottom up parsing techniques;
internal form of source programs; semantic analysis, symbol tables,
error detection and recovery, code generation and optimization. Type
checking and static analysis. Static analysis formulated as fixpoint
of simultaneous semantic equations. Data flow. Abstract
interpretation. Correctness issues in code optimizations. Algorithms
and implementation techniques for type- checking, code generation and
optimization. Students will design and implement translators, static
analysis, type-checking and optimization. This is a praxis-based
course. Students will use a variety of software tools and techniques
in implementing a complete compiler.
</course_content>
</course>
<course id="COL729">
<course_no>COL729</course_no>
<course_title>Compiler Optimization</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(SS) for MCS</course_category_MCS>
<course_credits>4.5 credits (3-0-3)</course_credits>
<course_prereq>
<ir refid="COL226">COL226</ir> AND
<ir refid="COL216">COL216</ir> OR EQUIVALENT</course_prereq>
<course_overlap>
<ir refid="COL728">COL728</ir>
</course_overlap>
<course_content>
Program representation -- symbol
table, abstract syntax tree; Control flow analysis; Data flow
analysis; Static single assignment; Def-use and Use-def chains; Early
optimisations -- constant folding, algebraic simplifications, value
numbering, copy propagation, constant propagation; Redundancy
Elimination -- dead code elimination, loop invariant code motion,
common sub-expression elimination; Register Allocation; Scheduling --
branch delay slot scheduling, list scheduling, trace scheduling,
software pipelining; Optimizing for memory hierarchy -- code placement,
scalar replacement of arrays, register pipelining; Loop
transformations -- loop fission, loop fusion, loop permutation, loop
unrolling, loop tiling; Function inlining and tail recursion;
Dependence analysis; Just-in-time compilation; Garbage
collection. Laboratory component would involve getting familiar with
internal representations of compilers; profiling and performance evaluation;
and the design and implementation of novel compiler optimisations.
</course_content>
</course>
<course id="COL730">
<course_no>COL730</course_no>
<course_title>Parallel Programming</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH/SS) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>, <ir refid="COL331">COL331</ir>
</course_prereq>
<course_overlap />
<course_content>
Parallel computer organization, Parallel performance analysis,
Scalability, High level Parallel programming models and framework,
Load distribution and scheduling, Throughput, Latency, Memory and
Data Organizations, Inter-process communication and synchronization,
Shared memory architecture, Memory consistency, Interconnection
network and routing, Distributed memory architecture, Distributed
shared memory, Parallel IO, Parallel graph algorithms, Parallel
Algorithm techniques: Searching, Sorting, Prefix operations, Pointer
Jumping, Divide-and-Conquer, Partitioning, Pipelining, Accelerated
Cascading, Symmetry Breaking, Synchronization (Locked/Lock-free).
</course_content>
</course>
<course id="COL732">
<course_no>COL732</course_no>
<course_title>Virtualization and Cloud Computing</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(SS) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL331">COL331</ir>
</course_prereq>
<course_overlap />
<course_content>
Introduction to Virtualization and Cloud Computing; Binary Translation;
Hardware Virtualization; Memory Resource Management in Virtual
Machine Monitor; Application of Virtualization; Cloud-scale Data
Management and Processing; I/O Virtualization.
</course_content>
</course>
<course id="COL733">
<course_no>COL733</course_no>
<course_title>Cloud Computing Technology Fundamentals</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(SS) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL331">COL331</ir>
</course_prereq>
<course_overlap />
<course_content>
Overview of Cloud Computing, Virtualisation of CPU, Memory and I/O
Devices; Storage Virtualisation and Software Defined Storage (SDS),
Software Defined Networks (SDN) and Network Virtualisation, Data
Centre Design and interconnection Networks, Cloud Architectures,
Public Cloud Platforms (Google App Engine, AWS,Azure), Cloud
Security and Trust Management, Open Source Clouds (Baadal, Open
Stack, Cloud Stack), Cloud Programming and Software Environments
(Hadoop, GFS, Map Reduce, NoSQL systems, Big Table, HBase, Libvirt,
OpenVswitch), Amazon (Iaas), Azure(PaaS), GAE (PaaS).
</course_content>
</course>
<course id="COL740">
<course_no>COL740</course_no>
<course_title>Software Engineering</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(SS) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL106">COL106</ir>, <ir refid="COL226">COL226</ir>
</course_prereq>
<course_overlap />
<course_content>
Introduction to Software Engineering, Software Life Cycle models and
Processes, Requirement Engineering, System Models, Architectural
Design, Abstraction and Modularity, Structured Programming, Object-
oriented techniques, Design Patterns, Service Oriented Architecture,
User Interface Design, Verification and Validation, Reliability, Software
Evolution, Project Management and Risk Analysis, Software Quality
Management, Configuration Management,Software Metrics, Cost
Analysis and Estimation, Manpower Management, Organization and
Management of large Software Projects.
</course_content>
</course>
<course id="COD745">
<course_no>COD745</course_no>
<course_title>Minor Project</course_title>
<course_category_CS1 />
<course_category_CS51>PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS />
<course_credits>3 credits (0-0-6)</course_credits>
<course_prereq>
<ir refid="EC75">EC 75</ir>
</course_prereq>
<course_overlap />
<course_content>
Research and development projects based on problems of
practical and theoretical interest. Evaluation done based on periodic
presentations, student seminars, written reports, and evaluation of
the developed system (if applicable).
</course_content>
</course>
<course id="COP745">
<course_no>COP745</course_no>
<course_title>Digital System Design Laboratory</course_title>
<course_category_CS1 />
<course_category_CS51 />
<course_category_CS52 />
<course_category_MCS>PE(AES) for MCS. Core for JVL</course_category_MCS>
<course_credits>3 credits (0-0-6)</course_credits>
<course_prereq />
<course_overlap />
<course_content>
</course_content>
</course>
<course id="COL750">
<course_no>COL750</course_no>
<course_title>Foundations of Automatic Verification</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH) for MCS</course_category_MCS>
<course_credits>4 credits (3-0-2)</course_credits>
<course_prereq>
<ir refid="COL226">COL226</ir>,<ir refid="COL352">COL352</ir> OR Equivalent</course_prereq>
<course_overlap />
<course_content>
A selection from the following topics, and experiments with the
mentioned tools:
Review of first-order logic, syntax and semantics. Resolution theorem
proving. Binary Decision Diagrams (BDDs) and their use in representing
systems. (Programming exercises coding and using logic programming frameworks). Transition systems, automata and transducers. Buechi
and other automata on infinite words; Linear Time Temporal Logic
(LTL), and specifying properties of systems in LTL; the relationship
between temporal logic and automata on infinite words, LTL Model
checking (exercises using Spin or similar tools); Computational Tree
Logic (CTL and CTL*); CTL model checking (exercises); Process
calculi such as CSP and CCS. Notions of program equivalence --
traces, bisimulation and other notions. Hennessy-Milner Logic (HML)
and Mu calculus (exercises using tools such as CWB -- Concurrency
Work Bench). Symbolic model checking, exercises using tools such
as SMV. Sat-based model checking and Davis-Putnam procedure;
(exercises using tools such as nuSMV).
Possible additional topics
include: equational logic frameworks, real-time frameworks, reactive
frameworks, pi-calculus (exercises using tools such as the Mobility
Workbench), Tree automata and Weak Second-order Logic with k
successors (WSkS), (exercises using Mona or similar tools).
</course_content>
</course>
<course id="COL751">
<course_no>COL751</course_no>
<course_title>Algorithmic Graph Theory</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH) for MCS</course_category_MCS>
<course_credits>3 credits (3-0-0)</course_credits>
<course_prereq>
<ir refid="COL351">COL351</ir> OR Equivalent</course_prereq>
<course_overlap>
<ir refid="MTL468">MTL468</ir>
</course_overlap>
<course_content>
Algorithms for computing maximum s-t flows in graphs: augmenting
path, blocking flow, push-relabel, capacity scaling etc. Max-flow
min-cut theorem and its applications Algorithms for computing
min-cuts in graphs, structure of min-cuts. Min-cost flows and
applications: cycle cancelling algorithms, successive shortest paths,
strongly polynomial algorithms. Maximum matching in bipartite and
general graphs: Hall's theorem, Tutte's theorem, Gallai-Edmonds
decomposition. Weighted bipartite matching, Edmonds Algorithm for
Weighted Non-Bipartite Matching,T-joins and applications. Factor-
Critical Graphs, Ear Decompositions, Graph orientations, Splitting Off,
k-Connectivity Orientations and Augmentations, Arborescences and
Branchings, Edmonds therorem for disjoint arborescences. Planar
graphs, algorithms for checking planarity, planar-separator theorem
and its applications. Intersection graphs, perfect graphs: polyhedral
characterization, the strong perfect graph theorem, kinds of perfect
graphs and algorithms on them. Treewidth, algorithm for computing
tree width, algorithms on graphs with bounded tree width.
</course_content>
</course>
<course id="COL752">
<course_no>COL752</course_no>
<course_title>Geometric Algorithms</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH) for MCS</course_category_MCS>
<course_credits>3 credits (3-0-0)</course_credits>
<course_prereq>
<ir refid="COL351">COL351</ir> OR Equivalent</course_prereq>
<course_overlap />
<course_content>
Geometric Fundamentals: Models of computation, lower bound
techniques, geometric primitives, geometric transforms Convex hulls:
Planar convex hulls, higher dimensional convex hulls, randomized,
output-sensitive, and dynamic algorithms, applications of convex hull,
Intersection detection: segment intersection, line sweep, map overlay,
halfspace intersection, polyhedra intersection, Geometric searching:
segment, interval, and priority-search trees, point location, persistent
data structure, fractional cascading, range searching, nearest-neighbor
searching Proximity problems: closest pair, Voronoi diagram, Delaunay
triangulation and their subgraphs, spanners, well separated pair
decomposition Arrangements: Arrangements of lines and hyperplanes,
sweep-line and incremental algorithms, lower envelopes, levels, and
zones, applications of arrangementsTriangulations: monotone and
simple polygon triangulations, point-set triangulations, optimization
criteria, Steiner triangulation, Delaunay refinementGeometric sampling:
random sampling and ε-nets, ε-approximation and discrepancy,
cuttings, coresets. Geometric optimization: linear programming, LP-
type problems, parametric searching, approximation techniques.
Implementation Issues : robust computing, perturbation techniques,
floating-point filters, rounding techniques.
</course_content>
</course>
<course id="COL753">
<course_no>COL753</course_no>
<course_title>Complexity Theory</course_title>
<course_category_CS1>DE for CS1</course_category_CS1>
<course_category_CS51>DE/PE for CS5</course_category_CS51>
<course_category_CS52 />
<course_category_MCS>PE(TH) for MCS</course_category_MCS>