UDEMY
UDEMY Logo

Data Structures & Algorithms ! 

  • Offered byUDEMY

Data Structures & Algorithms !
 at 
UDEMY 
Overview

Duration

5 hours

Total fee

549

Mode of learning

Online

Difficulty level

Intermediate

Official Website

Go to Website External Link Icon

Credential

Certificate

Data Structures & Algorithms !
 at 
UDEMY 
Highlights

  • Compatible on Mobile and TV
  • Earn a Cerificate on successful completion
  • Get Full Lifetime Access
  • Course Instructor : DS Guy
Read more
Details Icon

Data Structures & Algorithms !
 at 
UDEMY 
Course details

Skills you will learn
Who should do this course?
  • Computer science students, Software working professionals who wants to learn Data Structure & Algorithm and get a job in top product based companies.
What are the course deliverables?
  • You will get complete knowledge on Data Structures and Algorithms
  • You will be able to find time complexity of any given algorithm.
  • Will be able to answer \WHY\ part behind use of every data structure.
  • Will get to know Real time uses of all Data Structures."""
More about this course
  • Hey Friends, This course is for all those people who want to learn data structure and Algorithm from absolute basic to Intermediate level. We don't expect you to have any prior knowledge on Data Structure or Algorithm, but a basic prior knowledge of Java will be helpful. Thanks for stopping by !

Data Structures & Algorithms !
 at 
UDEMY 
Curriculum

S01 -- Introduction to Data Structure & Algorithms

S01 - L01 -- Course Breakdown

S01 - L02 -- What is DS and Algo

S01 - L03 -- Why companies ask DS

S01 - L04 -- DS in every day life

S01 - L05 -- Types of DS

S01.1 -- Recursion

S01.1-L01--What is Recursion

S01.1-L02--Why learn Recursion

S01.1-L03--Format of Recursion Method

S01.1-L04--How Recurssion works internally

S01.1-L05--Finding Factorial using Recursion

S01.1-L06--Finding Fibonacci using Recursion

S01.1-L07--Recursion vs Iteration

S01.1-L08--When to Use & Avoid Recursion

S01.1-L09--Practical Uses of Recursion

S02 -- Algorithm Run Time Analysis

S02-L01 -- What is Algo Run Time Analysis

S02-L02 -- What are Notations

S02-L03 -- Examples of Notations

S02-L04 -- Examples of Time Complexity

S02-L05 -- Finding Time Complexity of Iterative Algo

S02-L06 -- Finding Time Complexity of Recursive Algo#1

S02-L07 -- Finding Time Complexity of Recursive Algo#2

S03 -- Array

S03 - L01 -- What and Why of Array

S03 - L02 -- Types of Array

S03 - L03 -- How is Array represented in Memory

S03 - L04 -- Create an Array

S03 - L05 -- Insert Traverse in 1D Array

S03 - L06 -- Access Search Delete in 1D Array

S03 - L07 -- Code 1D Array

S03 - L08 -- Time Complexity of 1D Array

S03 - L09 -- Create 2D Array

S03 - L10 -- 2D Array operations

S03 - L11 -- Time Complexity of 2D Array

S03 - L12 -- When to use Array

S03 - L13 -- Code 2D Array

S03 - L14 -- Practical uses of Array

S04 -- Linked List

S04 - L01 -- What is linked list

S04 - L02 -- Linked list vs Array

S04 - L03 -- Components of LinkedList

S04 - L04 -- Types of LinkedList

S04 - L05 -- Why so many types of LinkedList

S04 - L06 -- How is LinkedList stored in Memory

S04 - L07 -- Creation of Single LinkedList (SLL)

S04 - L08 -- Insertion in SLL - Dry Run

S04 - L09 -- Insertion in SLL - Algo

S04 - L10 -- Traversal of SLL

S04 - L11 -- Search node in SLL

S04 - L12 -- Deletion of node from SLL - Dry Run

S04 - L13 -- Deletion of node from SLL - Algo

S04 - L14 -- Delete entire SLL

S04 - L15 -- Time Complexity of SLL

S04 - L16 -- Creation of Circular Single LinkedList (CSLL)

S04 - L17 -- Insertion of data in CSLL - Dry Run

S04 - L18 -- Insertion of data in CSLL - Algo

S04 - L19 -- Traverse CSLL

S04 - L20 -- Search a node in CSLL

S04 - L21 -- Delete a node from CSLL - Dry Run

S04 - L22 -- Deletion of node from CSLL - Algo

S04 - L23 -- Deletion of entire CSLL

S04 - L24 -- Time Complexity of CSLL

S04 - L25 -- Create Double Linked List (DLL)

S04 - L26 -- Insert node in DLL - Dry Run

S04 - L27 -- Insert node in DLL - Algo

S04 - L28 -- Traverse DLL

S04 - L29 -- Reverse Traversal of DLL

S04 - L30 -- Search a node in DLL

S04 - L31 -- Delete a node from DLL - Dry Run

S04 - L32 -- Delete a node from DLL - Algo

S04 - L33 -- Delete entire DLL

S04 - L34 -- Time Complexity of DLL

S04 - L35 -- Create Double Circular LinkedList (CDLL)

S04 - L36 -- Insert node in CDLL - Dry Run

S04 - L37 -- Insert node in CDLL - Algo

S04 - L38 -- Traverse CDLL

S04 - L39 -- Reverse traverse CDLL

S04 - L40 -- Search a node in CDLL

S04 - L41 -- Delete a node from CDLL - Dry Run

S04 - L42 -- Delete a node from CDLL - Algo

S04 - L43 -- Delete entire CDLL

S04 - L44 -- Time Complexity of CDLL

S04 - L45 -- SLL vs CSLL vs DLL vs DLL

S04 - L46 -- Practical uses of LinkedList

S05 -- Stack

L01 -- What and Why of Stack

L02 -- ARRAY - Create & Push

L03 -- ARRAY - Pop, Peek, isEmpty, isFull, Delete

L04 -- LinkedList - Create, Push, Pop

L05 -- LinkedList - Peek, Delete

L06 -- When to use or avoid Stack

S06 -- Queue

S06 - L01 -- What and Why of Queue

S06 - L02 -- LINEAR QUEUE(Array) - Create, Enqueue

S06 - L03 -- LINEAR QUEUE((Array)) - deQueue, isEmpty, isFull, Delete

S06 - L04 -- Why Circular Queue

S06 - L05 -- CIRCULAR QUEUE(Array) - Enqueue

S06 - L06 -- CIRCULAR QUEUE(Array) - Dequeue

S06 - L07 -- CIRCULAR QUEUE(Array) - Peek, isEmpty, isFull, Delete

S06 - L08 -- LINEAR QUEUE(LL) - Enqueue

S06 - L09 -- LINEAR QUEUE(LL) - DeQueue

S06 - L10 -- LINEAR QUEUE(LL) - Peek, isEmpty, Delete

S06 - L11 -- Array vs LinkedList Implementation

S08.01 -- Binary Tree

S08.01 - L01 -- What is Tree

S08.01 - L02 -- Why learn Tree

S08.01 - L03 -- Tree Terminologies - Part#1

S08.01 - L03 -- Tree Terminologies - Part#2

S08.01 - L04 -- What & Why of Binary Ttree

S08.01 - L05 -- Types of Binary Tree

S08.01 - L06 -- How is Tree Represented in Code

S08.01 - L07 -- Create blank Binary Tree(LL)

S08.01 - L08 -- Pre-order traversal Binary Tree(LL)

S08.01 - L09 -- In-order traversal Binary Tree(LL)

S08.01 - L10 -- Post-order traversal Binary Tree(LL)

S08.01 - L11 -- Level-order traversal Binary Tree(LL)

S08.01 - L12 -- Search for value in Binary Tree(LL)

S08.01 - L13 -- Insert value in Binary Tree(LL)

S08.01 - L14 -- Delete value from Binary Tree(LL)

S08.01 - L15 -- Delete Binary Tree(LL)

S08.01 - L16 -- Create Binary Tree(Array)

S08.01 - L17 -- Insert value in Binary Tree(Array)

S08.01 - L18 -- Search for value in Binary Tree(Array)

S08.01 - L19 -- Inorder traversal of Binary Tree(Array)

S08.01 - L20 -- Pre-order traversal of Binary Tree(Array)

S08.01 - L21 -- Post-order traversal of Binary Tree(Array)

S08.01 - L22 -- Level-order traversal of Binary Tree(Array)

S08.01 - L23 -- Delete node from Binary Tree(Array)

S08.01 - L24 -- Delete Binary Tree(Array)

S08.01 - L25 -- Binary Tree (Array vs Linked List)

S08.02 -- Binary Search Tree (BST)

S08.02 - L01 -- What & Why of BST

S08.02 - L02 -- Creation & Searching in BST

S08.02 - L03 -- Traversing a BST

S08.02 - L04 -- Inserting a node in BST

S08.02 - L05 -- Deleting a node from BST

S08.02 - L06 -- Deleting a BST

S08.03 -- AVL Tree

S08.03 - L01 -- Why learn AVL Tree

S08.03 - L02 -- What is AVL Tree

S08.03 - L03 -- Create Search Traverse AVL Tree

S08.03 - L04 -- Insert in AVL_LL Theory

S08.03 - L05 -- Insert in AVL_LL Algorithm

S08.03 - L06 -- Insert in AVL LR

S08.03 - L07 -- Insert in AVL RR

S08.03 - L08 -- Insert in AVL RL

S08.03 - L09 -- Insert End to End Case

S08.03 - L10 -- Delete LL LR RR RL

S08.03 - L11 -- Delete End to End Case

S08.03 - L12 -- Delete AVL Tree & Tree Comparison

S08.04 -- Binary Heap

S08.04 - L01 -- What Why and Type of Heap

S08.04 - L02 -- Create, Peek, Size of Heap

S08.04 - L03 -- Insert element in Heap

S08.04 - L04 -- Extract and Delete from Heap

S08.04 - L05 -- Why avoid Reference based implementation ?

S08.05 -- Trie

S08.05 - L01 -- What and Why of Trie

S08.05 - L02 -- Create Insert in Trie

S08.05 - L03 -- Search a String in Trie

S08.05 - L04 -- Delete a String from Trie

S08.05 - L05 -- Practical Uses of Trie

S05 -- Stack

S06 -- Queue

S09 -- Hashing

S09 - L01 -- Introduction to Hashing

S09 - L02 -- Why learn Hashing ?

S09 - L03 -- Introduction to Hash Functions

S09 - L04 -- Types of Collision Resolution Techniques

S09 - L05 -- What happens when Hash Table is full ?

S09 - L06 -- Collision Resolution Techniques Compared

S09 - L07 -- Practical Use of Hashing

S09 - L08 -- Hashing vs Other DS

S10 -- Sorting

S10 - L01 -- What and Why of Sorting

S10 - L02 -- Types of Sorting Techniques

S10 - L03 -- Sorting Terminologies

S10 - L04 -- Bubble Sort

S10 - L05 -- Selection Sort

S10 - L06 -- Insertion Sort

S10 - L07 -- Bucket Sort

S10 - L08 -- Merge Sort

S10 - L09 -- Quick Sort Part#1

S10 - L09 -- Quick Sort Part#2

S10 - L10 -- HeapSort

S10 - L11 -- Sorting Techniques compared

S11 -- Graph

S11 - L01 -- What and Why of Graphs

S11 - L02 -- Graph Terminologies

S11 - L03 -- Types of Graphs

S11 - L04 -- Graph Representation in Code

S11 - L05 -- BFS Algorithm

S11 - L06 -- BFS Time Complexity

S11 - L07 -- DFS Algorithm

S11 - L08 -- DFS Time Complexity

S11 - L09 -- BFS vs DFS

S11 - L10 -- What is Topological Sort

S11 - L11 -- Topological Sort Dry Run

S11 - L12 -- Why Topological Sort Works

S11 - L13 -- Topological Sort Algorithm

S11 - L14 -- What is Single Source Shortest Path Problem(SSSP)

S11 - L15 -- BFS for SSSP

S11 - L16 -- Why BFS does not works for Weighted Graph SSSP

S11 - L17 -- Why DFS does not works for SSSP

S11 - L18 -- Dijkstra for SSSP

S11 - L19 -- Why Dijkstra does not work for Negative Cycle

S11 - L20 -- BellmanFord Dry run for SSSP

S11 - L21 -- BellanFord Algorithm for SSSP

S11 - L22 -- How Bellman Ford works for Negative Cycle

S11 - L23 -- Why BellmanFord runs for V-1 times

S11 - L24 -- BFS vs Dijkstra vs BellmanFord

S11 - L25 -- What is All Pair Shortest Path Problem(APSP)

S11 - L26 -- Dry run of BFS Dijkstra Bellman for APSP

S11 - L27 -- Floyd Warshall Algorithm for APSP

S11 - L28 -- Why Floyd Warshall Algorithm always works

S11 - L29 -- Why Floyd does not works for Negative Cycle

S11 - L30 -- BFS vs Dijkstra vs Bellman vs Floys

S11 - L31 -- What is Minimum Spanning Tree (MST)

S11 - L32.1 -- DisjointSet

S11 - L32.2 -- Kruskals Algorithm

S11 - L33 -- Prims Algorithm Dry Run

S11 - L34 -- Prims Algorithm Explained

S11 - L35 -- Prims vs Kruskal

S12.1 -- Magic Framework

S12.1 - L01 -- Magic Framework

S12.2 -- Greedy Algorithm

S12.2 - L01 -- Greedy Algo Introduction

S12.2 - L02 -- Known Algos

S12.2 - L03 -- Activity Selection Problem

S12.2 - L04 -- Coin Change Problem

S12.2 - L05 -- Fractional Knapsack Problem

S12.3 -- Divide & Conquer

S12.3 - L01 -- What and Why of Divide&Conquer

S12.3 - L02 -- Binary Search, Quick, Merge Sortt

S12.3 - L03 -- Fibonacci Series

S12.3 - L04 -- Number Factor

S12.3 - L05 -- House thief

S12.3 - L06 -- Convert One String to Another

S12.3 - L07 -- Zero-One Knapsack

S12.3 - L08 -- Longest Common Subsequence

S12.3 - L09 -- Longest Palindromic Subsequence

S12.3 - L10 -- Longest Palindromic Substring

S12.3 - L11 -- Min Cost to Reach End of Array

S12.3 - L12 -- Number of Paths to reach last cell with given Cost

S12.4 -- Dynamic Programming

S12.4 - L01 -- What and Why of Dynamic Programming

S12.4 - L02 -- Top Down Approach

S12.4 - L03 -- Bottom Up Approach

S12.4 - L04 -- Is Merge Sort Dynamic Programming ?

S12.4 - L05 -- Number Factor Problem

S12.4 - L06 -- HouseThief Problem

S12.4 - L07 -- Convert One String to Another

S12.4 - L08 -- Zero One Knapsack Problem

S12.4 - L09 -- Longest Common Subsequence

S12.4 - L10 -- Longest Palindromic Subsequence

S12.4 - L11 -- Longest Palindromic Substring

S12.4 - L12 -- Min Cost to Reach End of Array

S12.4 - L13 -- Ways to Reach last cell

S08.1 -- Magic Framework

Other courses offered by UDEMY

549
50 hours
– / –
3 K
10 hours
– / –
549
4 hours
– / –
599
10 hours
– / –
View Other 2344 CoursesRight Arrow Icon

Data Structures & Algorithms !
 at 
UDEMY 
Students Ratings & Reviews

4.6/5
Verified Icon13 Ratings
S
Sachin Taru Rathod
Data Structures & Algorithms !
Offered by UDEMY
5
Learning Experience: Course quality was very good all the concepts were explained nice and understood them easily.
Faculty: No there was no live session but course was pretty enough Course had array string recursion linkedlist tree graph sorting all topics were covered
Course Support: Dsa is important is software domain hence it was very useful
Reviewed on 13 Jan 2023Read More
Thumbs Up IconThumbs Down Icon
A
Ashish Kumar
Data Structures & Algorithms !
Offered by UDEMY
5
Learning Experience: Excellent learning experience in Data Structures and Algorithms using c++
Faculty: Excellent faculty in the program to learn more about your education and the courses you selected.
Course Support: C++ & DSA
Reviewed on 13 Nov 2022Read More
Thumbs Up IconThumbs Down Icon
A
Aditya kumar Pandey
Data Structures & Algorithms !
Offered by UDEMY
5
Learning Experience: It's good, i solved lots of problems based on data structures and Algorithms
Faculty: It's good It's good
Reviewed on 28 Oct 2022Read More
Thumbs Up IconThumbs Down Icon
S
SAGAR BANSAL
Data Structures & Algorithms !
Offered by UDEMY
5
Learning Experience: I was awesome, the way of teaching was bindblowig
Faculty: The faculty was awesome his name was Steve, the way of teaching is awesome Yes it was updated and the list of question was also updated.the teaching person was also updated
Course Support: No
Reviewed on 17 Oct 2022Read More
Thumbs Up IconThumbs Down Icon
N
Neeraj Kumar
Data Structures & Algorithms !
Offered by UDEMY
4
Other: This Data Structure and Algorithm course is design by Mr Abdul Bari. He has good knowledge and teaching experience. His teaching style is really amazing. He break difficult topics into small-small sub topics and explain each and every point with example. After completing this course you become a Professional and master DSA. You can learn each topics step by step. No need any prerequetsite.
Reviewed on 24 Sep 2021Read More
Thumbs Up IconThumbs Down Icon
View All 10 ReviewsRight Arrow Icon
qna

Data Structures & Algorithms !
 at 
UDEMY 

Student Forum

chatAnything you would want to ask experts?
Write here...