Linear search is a simple algorithm for finding an element within a list. It involves traversing the list sequentially from the beginning, comparing each element to the target value until a match is found or the end of the list is reached. The steps are to read the search element, compare it to the first list element, check for a match, and if no match then compare to the next element until the end of the list. It has an complexity of O(n) but is practical for small lists or a single search of an unordered list.
BCA DATA STRUCTURES SEARCHING AND SORTING MRS.SOWMYA JYOTHISowmya Jyothi
1. The document discusses various searching and sorting algorithms. It describes linear search, which compares each element to find a match, and binary search, which eliminates half the elements after each comparison in a sorted array.
2. It also explains bubble sort, which bubbles larger values up and smaller values down through multiple passes. Radix sort sorts elements based on individual digits or characters.
3. Selection sort and merge sort are also summarized. Merge sort divides the array into single elements and then merges the sorted sublists, while selection sort finds the minimum element and swaps it into place in each pass.
The document discusses different searching methods like linear search and binary search. It provides steps and algorithms for linear search and binary search. Linear search is the simplest searching method that sequentially checks each element of a list to find the target element. Binary search requires a sorted list and compares the target element to the middle element of the list to determine which half of the list to search next.
Students will be able to learn the various kinds of searching, sorting and hashing techniques to handle the data structures efficiently. This PPT contains the following topics: linear search, binary search, insertion sort, selection sort, bubble sort, shell sort, quick sort merge sort, bucket sort, m-way merge sort, polyphase merge sort, hashing techniques like separate chaining, closed chaining or open addressing, linear probing, quadratic probing, double hashing, rehashing and extendible hashing.
this is the very imporantant in data struvture.Searching is a fundamental operation in data structures and plays a crucial role in various computer science and programming tasks. It involves looking for a specific element, value, or key within a given data structure to determine whether it exists or to retrieve it if found. The efficiency and effectiveness of searching algorithms can vary depending on the data structure being used and the specific requirements of the task. Here are some common data structures and descriptions of how searching works in each of them:
Searching Algorithms:
Linear Search: A basic algorithm that sequentially checks each element in a data structure until a match is found.
Binary Search: A more efficient algorithm for sorted arrays or lists that repeatedly divides the search interval in half.
Hashing: Using a hash function to map keys to specific locations for quick retrieval (e.g., in hash tables).
Data Structures for Searching:
Arrays: Basic data structure often used in linear searches.
Lists: Linked lists or dynamic arrays can be used for searching.
Trees:
Binary Search Tree (BST): A binary tree where the left subtree contains values less than the root, and the right subtree contains values greater than the root.
Balanced Trees: Trees like AVL and Red-Black trees maintain balance for efficient searching.
Heaps: Used for priority queues and can support efficient operations for finding the minimum or maximum.
Hash Tables: Utilizes hash functions for quick lookups.
Search Variations:
Searching for Minimum/Maximum: Algorithms designed to find the minimum or maximum element in a data structure efficiently.
Substring Search: Searching for a specific substring within a larger text or string.
Pattern Matching: Searching for a specific pattern or sequence of elements within a data structure.
Advanced Search Techniques:
Trie: A tree-like data structure used for efficient string searching and storage.
Bloom Filter: A probabilistic data structure for quickly checking whether an element is a member of a set.
K-Dimensional Trees: Used for multidimensional data, like spatial searching in geographic information systems.
Optimizations and Indexing:
Indexing: Techniques to create indexes or data structures that accelerate searching in large datasets.
Skip Lists: A data structure that uses multiple levels of linked lists to speed up searches.
Parallel and Distributed Searching:
Parallel Search Algorithms: Techniques for searching in parallel processing environments.
Distributed Search: Strategies for searching in distributed systems or databases.
Search Complexity and Analysis:
Time Complexity: Analyzing the efficiency of search algorithms in terms of the number of operations required.
Space Complexity: Analyzing the memory usage of search data structures.
Searching in Specialized Applications:
Graph Search: Techniques for traversing and searching in graphs.
Geospatial Search: Searching .
This document summarizes two common searching algorithms: linear search and binary search. Linear search sequentially checks each element of an array to find a target value, making it suitable for unsorted data. Binary search divides a sorted array in half at each step to quickly locate a value. Pseudocode is provided for implementations of both search types. Key differences are that linear search has O(n) time complexity while binary search has O(log n) time for sorted data. Visualizations are included to illustrate how each search approach works.
The document discusses various searching and sorting algorithms. It begins by defining searching as finding an item in a list. It describes sequential and binary search techniques. For sorting, it covers bubble, selection, insertion, merge, quick and heap sorts. It provides pseudocode examples and analyzes the time complexity of algorithms like selection sort and quicksort. Key aspects covered include the divide and conquer approach of quicksort and the efficiency of various sorting methods.
The document discusses various searching and sorting algorithms. It begins by defining searching as finding an item in a list. It describes sequential and binary search techniques. For sorting, it covers bubble, selection, insertion, merge, quick and heap sorts. It provides pseudocode examples and analyzes the time complexity of algorithms like selection sort and quicksort. Key aspects covered include the divide and conquer approach of quicksort and the efficiency of various sorting methods.
Searching is an extremely fascinating and useful computer science technique. It helps to find the desired object with its location and number of occurrences. The presentation includes the basic principles, algorithms and c-language implementation.
This document describes and compares linear search and binary search algorithms. It contains the following key points:
1) Linear search sequentially checks each element of a list one-by-one until the target element is found. It is simple but inefficient, especially for large lists.
2) Binary search works on a sorted list by checking the middle element first. It then eliminates half of the remaining list and searches the other half recursively until the target is found. It is more efficient than linear search for large sorted lists.
3) Pseudocode algorithms are provided for both linear search and binary search to illustrate the search process step-by-step.
Sequential and interval searching algorithms are used to search for elements in data structures. Sequential searches, like linear search, sequentially check each element until finding a match. Interval searches, like binary search, target the center of the search structure and divide the search space in half with each iteration. Other searching techniques include sentinel search, which adds a sentinel value to reduce comparisons, and Fibonacci search, which divides the search space into unequal parts based on Fibonacci numbers.
Sequential and binary search algorithms are used to search for items in a collection. Sequential search scans the entire collection sequentially to find a match, while binary search works by repeatedly dividing the search interval in half and focusing on only one subdivision, making it faster for sorted data. The document then provides pseudocode for an unordered sequential search and walks through an example of searching for a number using binary search on a sorted array.
The document discusses various searching, hashing, and sorting algorithms. It begins by defining searching as the process of locating target data and describes linear and binary search techniques. It then explains linear search, linear search algorithms, and the advantages and disadvantages of linear search. Next, it covers binary search, hashing, hashing functions, hash collisions, collision resolution techniques including separate chaining and open addressing. Finally, it discusses various sorting algorithms like bubble sort, selection sort, radix sort, heap sort, and merge sort which is used for external sorting.
The document discusses various searching and sorting algorithms that use the divide and conquer approach. It describes linear search, binary search, and merge sort algorithms. Linear search has a time complexity of O(n) as it must examine each element to find the target. Binary search has a time complexity of O(log n) as it divides the search space in half each iteration. Merge sort also has a time complexity of O(n log n) as it divides the list into single elements and then merges them back together in sorted order.
The document discusses two searching algorithms: linear search and binary search. Linear search sequentially compares an element to each element in an unsorted array, making it slower than binary search. Binary search works by dividing the search space in half at each step based on comparing the target element to the middle element. It is faster than linear search but requires the array to be sorted first. Key differences are that linear search works on unsorted data while binary search requires sorted data, and binary search has better time complexity of O(log n) while linear search is O(n).
Introduction to Searching Algorithm for beginnersJoshuaEddyson1
Searching algorithms are essential tools in computer science used to locate specific items within a collection of data. These algorithms efficiently navigate through data structures to find the desired information, making them fundamental in various applications such as databases, web search engines, and more
The document discusses various algorithms for arrays in computer programming, including reviewing what arrays are, comparing arrays, calculating the sum, average, minimum and maximum of array elements, handling partially filled arrays, sequential search, selection sort, and binary search algorithms. It provides examples of code for many of these algorithms.
Searching Algorithms for students of CS and IT using C++shahidameer8
The document discusses two search algorithms: linear search and binary search. Linear search sequentially checks each element of an array to find a target value, while binary search recursively checks the middle element of a sorted array, eliminating half of the remaining elements with each check. Binary search has a logarithmic time complexity of O(logN) while linear search has a linear time complexity of O(N), making binary search more efficient for sorted data.
Sorting in data structures is a fundamental operation that is crucial for optimizing the efficiency of data retrieval and manipulation. By ordering data elements according to a defined sequence (numerical, lexicographical, etc.), sorting makes it possible to search for elements more quickly than would be possible in an unsorted structure, especially with algorithms like binary search that rely on a sorted array to operate effectively.
In addition, sorting is essential for tasks that require an ordered dataset, such as finding median values, generating frequency counts, or performing range queries. It also lays the groundwork for more complex operations, such as merging datasets, which requires sorted data to be carried out efficiently.
This document discusses various searching and sorting algorithms. It describes linear search and binary search for searching data structures. For sorting, it outlines common algorithms like bubble sort, selection sort, insertion sort, shell sort, radix sort, quick sort, heap sort, and merge sort. It provides high-level explanations of how each algorithm works and example applications.
This document discusses and compares various sorting and searching algorithms. It begins with an introduction to algorithm analysis and complexity measures like time and space complexity. It then defines sorting as arranging data in a particular order and searching as finding a particular element. Common sorting algorithms described include bubble sort, insertion sort, bucket sort, selection sort, heap sort, and merge sort. Searching algorithms covered are linear search and binary search. The document provides examples and pseudocode to explain how each algorithm works. It concludes that merge sort and bubble sort would be suitable for real-world scenarios based on their properties.
this is the very imporantant in data struvture.Searching is a fundamental operation in data structures and plays a crucial role in various computer science and programming tasks. It involves looking for a specific element, value, or key within a given data structure to determine whether it exists or to retrieve it if found. The efficiency and effectiveness of searching algorithms can vary depending on the data structure being used and the specific requirements of the task. Here are some common data structures and descriptions of how searching works in each of them:
Searching Algorithms:
Linear Search: A basic algorithm that sequentially checks each element in a data structure until a match is found.
Binary Search: A more efficient algorithm for sorted arrays or lists that repeatedly divides the search interval in half.
Hashing: Using a hash function to map keys to specific locations for quick retrieval (e.g., in hash tables).
Data Structures for Searching:
Arrays: Basic data structure often used in linear searches.
Lists: Linked lists or dynamic arrays can be used for searching.
Trees:
Binary Search Tree (BST): A binary tree where the left subtree contains values less than the root, and the right subtree contains values greater than the root.
Balanced Trees: Trees like AVL and Red-Black trees maintain balance for efficient searching.
Heaps: Used for priority queues and can support efficient operations for finding the minimum or maximum.
Hash Tables: Utilizes hash functions for quick lookups.
Search Variations:
Searching for Minimum/Maximum: Algorithms designed to find the minimum or maximum element in a data structure efficiently.
Substring Search: Searching for a specific substring within a larger text or string.
Pattern Matching: Searching for a specific pattern or sequence of elements within a data structure.
Advanced Search Techniques:
Trie: A tree-like data structure used for efficient string searching and storage.
Bloom Filter: A probabilistic data structure for quickly checking whether an element is a member of a set.
K-Dimensional Trees: Used for multidimensional data, like spatial searching in geographic information systems.
Optimizations and Indexing:
Indexing: Techniques to create indexes or data structures that accelerate searching in large datasets.
Skip Lists: A data structure that uses multiple levels of linked lists to speed up searches.
Parallel and Distributed Searching:
Parallel Search Algorithms: Techniques for searching in parallel processing environments.
Distributed Search: Strategies for searching in distributed systems or databases.
Search Complexity and Analysis:
Time Complexity: Analyzing the efficiency of search algorithms in terms of the number of operations required.
Space Complexity: Analyzing the memory usage of search data structures.
Searching in Specialized Applications:
Graph Search: Techniques for traversing and searching in graphs.
Geospatial Search: Searching .
This document summarizes two common searching algorithms: linear search and binary search. Linear search sequentially checks each element of an array to find a target value, making it suitable for unsorted data. Binary search divides a sorted array in half at each step to quickly locate a value. Pseudocode is provided for implementations of both search types. Key differences are that linear search has O(n) time complexity while binary search has O(log n) time for sorted data. Visualizations are included to illustrate how each search approach works.
The document discusses various searching and sorting algorithms. It begins by defining searching as finding an item in a list. It describes sequential and binary search techniques. For sorting, it covers bubble, selection, insertion, merge, quick and heap sorts. It provides pseudocode examples and analyzes the time complexity of algorithms like selection sort and quicksort. Key aspects covered include the divide and conquer approach of quicksort and the efficiency of various sorting methods.
The document discusses various searching and sorting algorithms. It begins by defining searching as finding an item in a list. It describes sequential and binary search techniques. For sorting, it covers bubble, selection, insertion, merge, quick and heap sorts. It provides pseudocode examples and analyzes the time complexity of algorithms like selection sort and quicksort. Key aspects covered include the divide and conquer approach of quicksort and the efficiency of various sorting methods.
Searching is an extremely fascinating and useful computer science technique. It helps to find the desired object with its location and number of occurrences. The presentation includes the basic principles, algorithms and c-language implementation.
This document describes and compares linear search and binary search algorithms. It contains the following key points:
1) Linear search sequentially checks each element of a list one-by-one until the target element is found. It is simple but inefficient, especially for large lists.
2) Binary search works on a sorted list by checking the middle element first. It then eliminates half of the remaining list and searches the other half recursively until the target is found. It is more efficient than linear search for large sorted lists.
3) Pseudocode algorithms are provided for both linear search and binary search to illustrate the search process step-by-step.
Sequential and interval searching algorithms are used to search for elements in data structures. Sequential searches, like linear search, sequentially check each element until finding a match. Interval searches, like binary search, target the center of the search structure and divide the search space in half with each iteration. Other searching techniques include sentinel search, which adds a sentinel value to reduce comparisons, and Fibonacci search, which divides the search space into unequal parts based on Fibonacci numbers.
Sequential and binary search algorithms are used to search for items in a collection. Sequential search scans the entire collection sequentially to find a match, while binary search works by repeatedly dividing the search interval in half and focusing on only one subdivision, making it faster for sorted data. The document then provides pseudocode for an unordered sequential search and walks through an example of searching for a number using binary search on a sorted array.
The document discusses various searching, hashing, and sorting algorithms. It begins by defining searching as the process of locating target data and describes linear and binary search techniques. It then explains linear search, linear search algorithms, and the advantages and disadvantages of linear search. Next, it covers binary search, hashing, hashing functions, hash collisions, collision resolution techniques including separate chaining and open addressing. Finally, it discusses various sorting algorithms like bubble sort, selection sort, radix sort, heap sort, and merge sort which is used for external sorting.
The document discusses various searching and sorting algorithms that use the divide and conquer approach. It describes linear search, binary search, and merge sort algorithms. Linear search has a time complexity of O(n) as it must examine each element to find the target. Binary search has a time complexity of O(log n) as it divides the search space in half each iteration. Merge sort also has a time complexity of O(n log n) as it divides the list into single elements and then merges them back together in sorted order.
The document discusses two searching algorithms: linear search and binary search. Linear search sequentially compares an element to each element in an unsorted array, making it slower than binary search. Binary search works by dividing the search space in half at each step based on comparing the target element to the middle element. It is faster than linear search but requires the array to be sorted first. Key differences are that linear search works on unsorted data while binary search requires sorted data, and binary search has better time complexity of O(log n) while linear search is O(n).
Introduction to Searching Algorithm for beginnersJoshuaEddyson1
Searching algorithms are essential tools in computer science used to locate specific items within a collection of data. These algorithms efficiently navigate through data structures to find the desired information, making them fundamental in various applications such as databases, web search engines, and more
The document discusses various algorithms for arrays in computer programming, including reviewing what arrays are, comparing arrays, calculating the sum, average, minimum and maximum of array elements, handling partially filled arrays, sequential search, selection sort, and binary search algorithms. It provides examples of code for many of these algorithms.
Searching Algorithms for students of CS and IT using C++shahidameer8
The document discusses two search algorithms: linear search and binary search. Linear search sequentially checks each element of an array to find a target value, while binary search recursively checks the middle element of a sorted array, eliminating half of the remaining elements with each check. Binary search has a logarithmic time complexity of O(logN) while linear search has a linear time complexity of O(N), making binary search more efficient for sorted data.
Sorting in data structures is a fundamental operation that is crucial for optimizing the efficiency of data retrieval and manipulation. By ordering data elements according to a defined sequence (numerical, lexicographical, etc.), sorting makes it possible to search for elements more quickly than would be possible in an unsorted structure, especially with algorithms like binary search that rely on a sorted array to operate effectively.
In addition, sorting is essential for tasks that require an ordered dataset, such as finding median values, generating frequency counts, or performing range queries. It also lays the groundwork for more complex operations, such as merging datasets, which requires sorted data to be carried out efficiently.
This document discusses various searching and sorting algorithms. It describes linear search and binary search for searching data structures. For sorting, it outlines common algorithms like bubble sort, selection sort, insertion sort, shell sort, radix sort, quick sort, heap sort, and merge sort. It provides high-level explanations of how each algorithm works and example applications.
This document discusses and compares various sorting and searching algorithms. It begins with an introduction to algorithm analysis and complexity measures like time and space complexity. It then defines sorting as arranging data in a particular order and searching as finding a particular element. Common sorting algorithms described include bubble sort, insertion sort, bucket sort, selection sort, heap sort, and merge sort. Searching algorithms covered are linear search and binary search. The document provides examples and pseudocode to explain how each algorithm works. It concludes that merge sort and bubble sort would be suitable for real-world scenarios based on their properties.
What is the Philosophy of Statistics? (and how I was drawn to it)jemille6
What is the Philosophy of Statistics? (and how I was drawn to it)
Deborah G Mayo
At Dept of Philosophy, Virginia Tech
April 30, 2025
ABSTRACT: I give an introductory discussion of two key philosophical controversies in statistics in relation to today’s "replication crisis" in science: the role of probability, and the nature of evidence, in error-prone inference. I begin with a simple principle: We don’t have evidence for a claim C if little, if anything, has been done that would have found C false (or specifically flawed), even if it is. Along the way, I’ll sprinkle in some autobiographical reflections.
Ajanta Paintings: Study as a Source of HistoryVirag Sontakke
This Presentation is prepared for Graduate Students. A presentation that provides basic information about the topic. Students should seek further information from the recommended books and articles. This presentation is only for students and purely for academic purposes. I took/copied the pictures/maps included in the presentation are from the internet. The presenter is thankful to them and herewith courtesy is given to all. This presentation is only for academic purposes.
History Of The Monastery Of Mor Gabriel Philoxenos Yuhanon Dolabanifruinkamel7m
History Of The Monastery Of Mor Gabriel Philoxenos Yuhanon Dolabani
History Of The Monastery Of Mor Gabriel Philoxenos Yuhanon Dolabani
History Of The Monastery Of Mor Gabriel Philoxenos Yuhanon Dolabani
How to Configure Public Holidays & Mandatory Days in Odoo 18Celine George
In this slide, we’ll explore the steps to set up and manage Public Holidays and Mandatory Days in Odoo 18 effectively. Managing Public Holidays and Mandatory Days is essential for maintaining an organized and compliant work schedule in any organization.
Slides to support presentations and the publication of my book Well-Being and Creative Careers: What Makes You Happy Can Also Make You Sick, out in September 2025 with Intellect Books in the UK and worldwide, distributed in the US by The University of Chicago Press.
In this book and presentation, I investigate the systemic issues that make creative work both exhilarating and unsustainable. Drawing on extensive research and in-depth interviews with media professionals, the hidden downsides of doing what you love get documented, analyzing how workplace structures, high workloads, and perceived injustices contribute to mental and physical distress.
All of this is not just about what’s broken; it’s about what can be done. The talk concludes with providing a roadmap for rethinking the culture of creative industries and offers strategies for balancing passion with sustainability.
With this book and presentation I hope to challenge us to imagine a healthier future for the labor of love that a creative career is.
All About the 990 Unlocking Its Mysteries and Its Power.pdfTechSoup
In this webinar, nonprofit CPA Gregg S. Bossen shares some of the mysteries of the 990, IRS requirements — which form to file (990N, 990EZ, 990PF, or 990), and what it says about your organization, and how to leverage it to make your organization shine.
Search Matching Applicants in Odoo 18 - Odoo SlidesCeline George
The "Search Matching Applicants" feature in Odoo 18 is a powerful tool that helps recruiters find the most suitable candidates for job openings based on their qualifications and experience.
Happy May and Happy Weekend, My Guest Students.
Weekends seem more popular for Workshop Class Days lol.
These Presentations are timeless. Tune in anytime, any weekend.
<<I am Adult EDU Vocational, Ordained, Certified and Experienced. Course genres are personal development for holistic health, healing, and self care. I am also skilled in Health Sciences. However; I am not coaching at this time.>>
A 5th FREE WORKSHOP/ Daily Living.
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Hopefully Before Summer, We can add our courses to the teacher/creator section. It's all within project management and preps right now. So wish us luck.
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Make sure to convert your cash. Online Wallets do vary. I keep my transactions safe as possible. I do prefer PayPal Biz. (See Site for more info.)
Understanding Vibrations
If not experienced, it may seem weird understanding vibes? We start small and by accident. Usually, we learn about vibrations within social. Examples are: That bad vibe you felt. Also, that good feeling you had. These are common situations we often have naturally. We chit chat about it then let it go. However; those are called vibes using your instincts. Then, your senses are called your intuition. We all can develop the gift of intuition and using energy awareness.
Energy Healing
First, Energy healing is universal. This is also true for Reiki as an art and rehab resource. Within the Health Sciences, Rehab has changed dramatically. The term is now very flexible.
Reiki alone, expanded tremendously during the past 3 years. Distant healing is almost more popular than one-on-one sessions? It’s not a replacement by all means. However, its now easier access online vs local sessions. This does break limit barriers providing instant comfort.
Practice Poses
You can stand within mountain pose Tadasana to get started.
Also, you can start within a lotus Sitting Position to begin a session.
There’s no wrong or right way. Maybe if you are rushing, that’s incorrect lol. The key is being comfortable, calm, at peace. This begins any session.
Also using props like candles, incenses, even going outdoors for fresh air.
(See Presentation for all sections, THX)
Clearing Karma, Letting go.
Now, that you understand more about energies, vibrations, the practice fusions, let’s go deeper. I wanted to make sure you all were comfortable. These sessions are for all levels from beginner to review.
Again See the presentation slides, Thx.
Rock Art As a Source of Ancient Indian HistoryVirag Sontakke
This Presentation is prepared for Graduate Students. A presentation that provides basic information about the topic. Students should seek further information from the recommended books and articles. This presentation is only for students and purely for academic purposes. I took/copied the pictures/maps included in the presentation are from the internet. The presenter is thankful to them and herewith courtesy is given to all. This presentation is only for academic purposes.
Mental Health Assessment in 5th semester bsc. nursing and also used in 2nd ye...parmarjuli1412
Mental Health Assessment in 5th semester Bsc. nursing and also used in 2nd year GNM nursing. in included introduction, definition, purpose, methods of psychiatric assessment, history taking, mental status examination, psychological test and psychiatric investigation
Transform tomorrow: Master benefits analysis with Gen AI today webinar
Wednesday 30 April 2025
Joint webinar from APM AI and Data Analytics Interest Network and APM Benefits and Value Interest Network
Presenter:
Rami Deen
Content description:
We stepped into the future of benefits modelling and benefits analysis with this webinar on Generative AI (Gen AI), presented on Wednesday 30 April. Designed for all roles responsible in value creation be they benefits managers, business analysts and transformation consultants. This session revealed how Gen AI can revolutionise the way you identify, quantify, model, and realised benefits from investments.
We started by discussing the key challenges in benefits analysis, such as inaccurate identification, ineffective quantification, poor modelling, and difficulties in realisation. Learnt how Gen AI can help mitigate these challenges, ensuring more robust and effective benefits analysis.
We explored current applications and future possibilities, providing attendees with practical insights and actionable recommendations from industry experts.
This webinar provided valuable insights and practical knowledge on leveraging Gen AI to enhance benefits analysis and modelling, staying ahead in the rapidly evolving field of business transformation.
Linear Search for design and analysis of algorithm
2. What Is Searching?
• Searching is the process of fetching a specific element in a collection
of elements.
• The collection can be an array or a linked list. If you find the element
in the list, the process is considered successful, and it returns the
location of that element.
• And in contrast, if you do not find the element, it deems the search
unsuccessful.
3. What Is a Linear Search Algorithm?
• Linear search, often known as sequential search, is the most basic
search technique.
• In this type of search, you go through the entire list and try to fetch a
match for a single element. If you find a match, then the address of
the matching target element is returned.
• On the other hand, if the element is not found, then it returns a NULL
value.
4. Example
• Following is a step-by-step approach employed to perform Linear
Search Algorithm.
5. • The procedures for implementing linear search are as follows:
• Step 1: First, read the search element (Target element) in the array.
• Step 2: In the second step compare the search element with the first
element in the array.
• Step 3: If both are matched, display "Target element is found" and
terminate the Linear Search function.
6. • Step 4: If both are not matched, compare the search element with the next
element in the array.
• Step 5: In this step, repeat steps 3 and 4 until the search (Target) element is
compared with the last element of the array.
• Step 6 - If the last element in the list does not match, the Linear Search
Function will be terminated, and the message "Element is not found" will be
displayed.
• So far, you have explored the fundamental definition and the working
terminology of the Linear Search Algorithm.
12. Linear Search Terminates
• A perfect match is found, you stop comparing any further elements
and terminate the Linear Search Algorithm and display the element
found at location 4.