Skip to main content

Featured Post

How to use Tabs in ASP.NET CORE

I want to show Components in a tabs , so first of all create few components. In this project we have three components, First View Component  public class AllViewComponent : ViewComponent     {         private readonly UserManager<ApplicationUser> _userManager;         public AllViewComponent(UserManager<ApplicationUser> userManager)         {             _userManager = userManager;         }         public async Task<IViewComponentResult> InvokeAsync()         {             List<StudentViewModel> allUsers = new List<StudentViewModel>();             var items = await _userManager.Users.ToListAsync();             foreach (var item in items)             {                 allUsers.Add(new StudentViewModel {Id=item.Id, EnrollmentNo = item.EnrollmentNo, FatherName = item.FatherName, Name = item.Name, Age = item.Age, Birthdate = item.Birthdate, Address = item.Address, Gender = item.Gender, Email = item.Email });             }            

Circular Queue for Data Structure in 'C'

Circular Queue:

Circular is a Queue in which the elements are arranged in a circular manner i.e. after the last element the first element comes. Instead of considering a Queue simply as linear, the blocks can be treated to frame a circle and can be felt after the last block there comes the first block. So after index N, 1 is considered as the next index and operations are done accordingly. Circular array is used to implement the circular queue. Circular array is similar to linear array and the only difference is after index N, 1 is treated as the next index.
           
Circular Queue for Data Structure in 'C'
   
 Here in the above representation after the last index N, there comes 1 as the next index. Only here is the difference between the linear array and circular array exits.
                    When addition of items is done in circular queue, another condition is tested. If REAR=N then REAR is set equal to 1 and insertion is done at REAR otherwise REAR is set equal to REAR+1 andinsertion is done. In this case the overflow occurs when FRONT=1 and REAR=N. The overflow also occurs when FRONT=REAR+1. So in circular queue, the queue is said to be full if FRONT=REAR+1 or FRONT=1 and REAR=N.
                   Similarly while doing deletion, when FRONT=N, FRONT is set equal to 1 after deletion. When FRONT=REAR then there is a single element in the Queue. In that case when deletion is done both FRONT and REAR are set equal to 0. While doing deletion underflow occurs when FRONT=0.

                  Only the above mentioned changes are kept in mind while implementing the Circular Queue using one-dimensional array. The remaining part of the algorithms is same as Linear Queue.

Comments

Popular Post

Polynomial representation using Linked List for Data Structure in 'C'

Polynomial representation using Linked List The linked list can be used to represent a polynomial of any degree. Simply the information field is changed according to the number of variables used in the polynomial. If a single variable is used in the polynomial the information field of the node contains two parts: one for coefficient of variable and the other for degree of variable. Let us consider an example to represent a polynomial using linked list as follows: Polynomial:      3x 3 -4x 2 +2x-9 Linked List: In the above linked list, the external pointer ‘ROOT’ point to the first node of the linked list. The first node of the linked list contains the information about the variable with the highest degree. The first node points to the next node with next lowest degree of the variable. Representation of a polynomial using the linked list is beneficial when the operations on the polynomial like addition and subtractions are performed. The resulting polynomial can also

How to use Tabs in ASP.NET CORE

I want to show Components in a tabs , so first of all create few components. In this project we have three components, First View Component  public class AllViewComponent : ViewComponent     {         private readonly UserManager<ApplicationUser> _userManager;         public AllViewComponent(UserManager<ApplicationUser> userManager)         {             _userManager = userManager;         }         public async Task<IViewComponentResult> InvokeAsync()         {             List<StudentViewModel> allUsers = new List<StudentViewModel>();             var items = await _userManager.Users.ToListAsync();             foreach (var item in items)             {                 allUsers.Add(new StudentViewModel {Id=item.Id, EnrollmentNo = item.EnrollmentNo, FatherName = item.FatherName, Name = item.Name, Age = item.Age, Birthdate = item.Birthdate, Address = item.Address, Gender = item.Gender, Email = item.Email });             }            

Memory representation of Linked List Data Structures in C Language

                                 Memory representation of Linked List              In memory the linked list is stored in scattered cells (locations).The memory for each node is allocated dynamically means as and when required. So the Linked List can increase as per the user wish and the size is not fixed, it can vary.                Suppose first node of linked list is allocated with an address 1008. Its graphical representation looks like the figure shown below:       Suppose next node is allocated at an address 506, so the list becomes,   Suppose next node is allocated with an address with an address 10,s the list become, The other way to represent the linked list is as shown below:  In the above representation the data stored in the linked list is “INDIA”, the information part of each node contains one character. The external pointer root points to first node’s address 1005. The link part of the node containing information I contains 1007, the address of