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Round Robin Scheduling

Algorithms
O(n) time, O(n) space
Intermediate

Preemptive scheduling with fixed time quantum. Each process gets equal CPU time slices.

Prerequisites:
Queue
Process management

Visualization

Interactive visualization for Round Robin Scheduling

Round Robin:

  • • Time-sharing scheduling
  • • Each process gets time quantum

Interactive visualization with step-by-step execution

Implementation

Language:
1function roundRobinScheduling(processes: {id: number; burstTime: number}[], quantum: number): {avgWaitTime: number} {
2  const remaining = processes.map(p => p.burstTime);
3  const waitTime = Array(processes.length).fill(0);
4  let currentTime = 0;
5  
6  while (true) {
7    let done = true;
8    for (let i = 0; i < processes.length; i++) {
9      if (remaining[i] > 0) {
10        done = false;
11        if (remaining[i] > quantum) {
12          currentTime += quantum;
13          remaining[i] -= quantum;
14        } else {
15          currentTime += remaining[i];
16          waitTime[i] = currentTime - processes[i].burstTime;
17          remaining[i] = 0;
18        }
19      }
20    }
21    if (done) break;
22  }
23  
24  return {avgWaitTime: waitTime.reduce((a, b) => a + b, 0) / processes.length};
25}

Deep Dive

Theoretical Foundation

Each process allocated fixed time quantum. If not completed, moved to end of ready queue. Preemptive and fair. Performance depends on quantum size: too small causes overhead, too large becomes FCFS.

Complexity

Time

Best

O(n)

Average

O(n)

Worst

O(n)

Space

Required

O(n)

Applications

Industry Use

1

Time-sharing operating systems (Unix, Linux, Windows)

2

Interactive multi-user systems

3

Web server request handling

4

Real-time systems with equal priority tasks

5

Educational operating systems

6

Fair resource allocation in cloud computing

Use Cases

Time-sharing OS
Interactive systems
Fair resource allocation

Related Algorithms

First Come First Serve (FCFS)

Non-preemptive scheduling executing processes in arrival order. Simple queue-based scheduling algorithm that serves as the foundation for understanding CPU scheduling. Despite its simplicity, FCFS can suffer from the convoy effect where short processes are delayed by long-running processes ahead of them in the queue.

Algorithms

Shortest Job First (SJF)

Schedules process with shortest burst time first. Minimizes average waiting time (optimal).

Algorithms

Priority Scheduling

Schedules processes based on priority. Higher priority executes first. Can be preemptive or non-preemptive.

Algorithms

Quicksort

A highly efficient, in-place sorting algorithm that uses divide-and-conquer strategy. Invented by Tony Hoare in 1959, it remains one of the most widely used sorting algorithms due to its excellent average-case performance and cache efficiency.

Sorting
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