CSE316 Syllabus

CSE316: OPERATING SYSTEMS

L:3 T:0 P:0 Credits:3

Course Outcomes:

  • CO1 :: recall OS structure, functions, evolution, and process management.
  • CO2 :: apply CPU scheduling algorithms to optimize process execution.
  • CO3 :: analyze synchronization mechanisms and classical problems for efficient multi-threaded execution.
  • CO4 :: apply deadlock handling and security methods for a threat-free system.
  • CO5 :: explain memory management techniques for efficient address space management.
  • CO6 :: classify file management, device management, and inter-process communication methods to facilitate process coordination.

Unit I

  • Introduction to Operating System : Operating System Meaning, Supervisor & User Mode, Types of Operating System : Simple Batch Systems, Multiprogramming and Multiprocessing System, Multitasking, Parallel, Distributed and RTOS etc, OS structure, system calls, functions of OS, evolution of OS
  • Process Management : PCB, Operations on Processes, Co-operating and Independent Processes, Process states, Operations on processes, Process concept, Life cycle

Unit II

  • CPU Scheduling : Types of Scheduling, Scheduling Algorithms, Scheduling criteria, CPU scheduler - preemptive and non-preemptive, Dispatcher, First come first serve, Shortest job first, Round robin, Priority, Multi-level feedback queue, multiprocessor scheduling, real-time scheduling, thread scheduling

Unit III

  • Process Synchronization : Critical Section Problem, Semaphores, Concurrent processes, Co-operating processes, Precedence graph, Hierarchy of processes, Monitors, Dining Philosopher Problem, Reader-writer Problem, Producer-consumer problem, classical two-process and n-process solutions, hardware primitives for synchronization
  • Threads : Overview, Multithreading Models, scheduler activations, examples of threaded programs

Unit IV

  • Deadlock : Deadlock Characterization, Handling of deadlocks - Deadlock Prevention, Deadlock Avoidance & Detection, Deadlock Recovery, Starvation
  • Protection and Security : Need for Security, Security Vulnerability like Buffer overflow, Trapdoors, Backdoors, cache poisoning etc, Authentication - Password-based Authentication, Password Maintenance & Secure Communication, Application Security - Virus, Program Threats, Goals of protection, Principles of protection, Domain of protection, Access matrix, Implementation of access matrix, System and network threats, Examples of attacks

Unit V

  • Memory Management : Logical & Physical Address Space, Swapping, Contiguous Memory allocation, Paging, Segmentation, Page replacement algorithms, Segmentation - simple, multi-level and with paging, Page interrupt fault, Fragmentation - internal and external, Schemes - Paging - simple and multi-level, Overlays - swapping, Virtual memory concept, Demand paging

Unit VI

  • File Management : File Concepts, Access methods, Directory Structure, File System Mounting and Sharing, Protection, Allocation methods, Free-Space Management, Directory Implementation
  • Device management : Dedicated, shared and virtual devices, Serial access and direct access devices, Disk scheduling methods, Direct Access Storage Devices - Channels and Control Units
  • Inter-process communication : Introduction to IPC (Inter-process communication) Methods, Pipes - popen and pclose functions, Shared memory, FIFOs, Message queues

Text Books:

  1. OPERATING SYSTEM CONCEPTS by ABRAHAM SILBERSCHATZ, PETER B. GALVIN, GREG GAGNE, WILEY

References:

  1. DESIGN OF THE UNIX OPERATING SYSTEM by MAURICE J. BACH, Pearson Education India
  2. REAL-TIME SYSTEMS by JANE W. S. LIU, Pearson Education India

Post a Comment