a.
Every node in a linked list has two components: one to store the relevant information and one to store the address. Hence, the given statement is “True”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
a.
Every node in a linked list has two components: one to store the relevant information and one to store the address. Hence, the given statement is “True”.
Every node in a linked list has two components: one to store the relevant information and one to store the address. Hence, the given statement is “True”.
Explanation of Solution
Every node in a linked list has two components: one to store the relevant information and one to store the address.
b.
In a linked list, the order of the elements is not determined by the order in which the nodes were created to store the elements. Hence, the given statement is “False”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
b.
In a linked list, the order of the elements is not determined by the order in which the nodes were created to store the elements. Hence, the given statement is “False”.
In a linked list, the order of the elements is not determined by the order in which the nodes were created to store the elements. Hence, the given statement is “False”.
Explanation of Solution
In a linked list, the order of the elements is not determined by the order in which the nodes were created to store the elements but by the order of the pointers or links in the list.
c.
In a linked list, memory allocated for the nodes may not necessarily be sequential. Hence, the given statement is “False”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
c.
In a linked list, memory allocated for the nodes may not necessarily be sequential. Hence, the given statement is “False”.
In a linked list, memory allocated for the nodes may not necessarily be sequential. Hence, the given statement is “False”.
Explanation of Solution
In a linked list, memory allocated for the nodes may not necessarily be sequential, as memory is dynamically allocated during the node creation using pointer
d.
In a linked list, the link field of the last node does not point to itself. Hence, the given statement is “False”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
d.
In a linked list, the link field of the last node does not point to itself. Hence, the given statement is “False”.
In a linked list, the link field of the last node does not point to itself. Hence, the given statement is “False”.
Explanation of Solution
In a linked list, the link field of the last node does not point to itself but to a null pointer (nullptr).
e.
Suppose the nodes of a linked list are in the usual info-link form and current points to a node of the linked list. Then current = current.link; does not advance current to the next node in the linked list. Hence, the given statement is “False”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
e.
Suppose the nodes of a linked list are in the usual info-link form and current points to a node of the linked list. Then current = current.link; does not advance current to the next node in the linked list. Hence, the given statement is “False”.
Suppose the nodes of a linked list are in the usual info-link form and current points to a node of the linked list. Then current = current.link; does not advance current to the next node in the linked list. Hence, the given statement is “False”.
Explanation of Solution
Suppose the nodes of a linked list are in the usual info-link form and current points to a node of the linked list. Then current = current->link; advances current to the next node in the linked list. Since link and current both are pointers the member of the structure pointed to by the pointer variable current is accessed using the arrow notation -> and not the dot operator.
f.
To insert a new item in a linked list, create a node, store the new item in the node, and insert the node in the linked list..Hence, the given statement is “True”.
While building a linked list initially the list is empty, and the pointerfirst must be initialized to nullptr. The steps of insertion are -firstly, initialize first to nullptr. Then for each item in the list - create the new node, newNode, store the item in newNode, insert newNode before first and update the value of the pointer first.
f.
To insert a new item in a linked list, create a node, store the new item in the node, and insert the node in the linked list..Hence, the given statement is “True”.
To insert a new item in a linked list, create a node, store the new item in the node, and insert the node in the linked list..Hence, the given statement is “True”.
Explanation of Solution
To insert a new item in a linked list, create a node, store the new item in the node, and insert the node in the linked list.
g.
To build a linked list forward, the new node is inserted at the end of the list. Hence, the given statement is “True”.
When building a linked list forward, a new node is always inserted at the end of the linked list, while building backwards, new node is always inserted at the beginning of the list.
g.
To build a linked list forward, the new node is inserted at the end of the list. Hence, the given statement is “True”.
To build a linked list forward, the new node is inserted at the end of the list. Hence, the given statement is “True”.
Explanation of Solution
When building a linked list forward, a new node is always inserted at the end of the linked list, while building backwards, new node is always inserted at the beginning of the list.
h.
A single linked list cannot be traversed in either direction. Hence, the given statement is “False”.
A single linked list cannot be traversed in either direction but only in forward direction.
h.
A single linked list cannot be traversed in either direction. Hence, the given statement is “False”.
A single linked list cannot be traversed in either direction. Hence, the given statement is “False”.
Explanation of Solution
A single linked list cannot be traversed in either direction but only in forward direction. A doubly linked list can be traversed in either direction as it has links pointing in either direction stored at each node.
i.
In a linked list, nodes are not always inserted either at the beginning or at the end because a linked list is a random-access data structure. Hence, the given statement is “False”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
i.
In a linked list, nodes are not always inserted either at the beginning or at the end because a linked list is a random-access data structure. Hence, the given statement is “False”.
In a linked list, nodes are not always inserted either at the beginning or at the end because a linked list is a random-access data structure. Hence, the given statement is “False”.
Explanation of Solution
In a linked list, nodes are not always inserted either at the beginning or at the end because a linked list is a random-access data structure. Hence nodes can be inserted anywhere in the linked list.
j.
The head pointer of a linked list should not be used to traverse the list. Hence, the given statement is “True”.
A linked list is a collection of components called nodes. Every node except the last node contains the address of the next node and it has two components: one to store the relevant information or data and one to store the address, called the link, of the next node in the list. The address of the first node in the list is stored in a separate location called the head or first.
j.
The head pointer of a linked list should not be used to traverse the list. Hence, the given statement is “True”.
The head pointer of a linked list should not be used to traverse the list. Hence, the given statement is “True”.
Explanation of Solution
The head pointer of a linked list should not be used to traverse the list. Because if that is done we will lose the rest of the linked list which has already been traversed. Linked list is a dynamic data structure and the nodes are not stored in contiguous memory locations.
k.
The two most common operations on iterators are ++ and * (the dereferencing operator). Hence, the given statement is “True”.
The two most common operations on iterators are ++ (the increment operator) and * (the dereferencing operator). The increment operator advances the iterator to the next node in the list, and the dereferencing operator returns the info of the current node.
k.
The two most common operations on iterators are ++ and * (the dereferencing operator). Hence, the given statement is “True”.
The two most common operations on iterators are ++ and * (the dereferencing operator). Hence, the given statement is “True”.
Explanation of Solution
The two most common operations on iterators are ++ (the increment operator) and * (the dereferencing operator). The increment operator advances the iterator to the next node in the list, and the dereferencing operator returns the info of the current node.
l.
The function initializeList of the class linkedListType initializes the list not only by setting the pointers first and last to nullptr, but also the count variable to 0. Hence, the given statement is “False”.
The function initializeList of the class linkedListType initializes the list not only by setting the pointers first and last to nullptr, but also the count variable to 0.
l.
The function initializeList of the class linkedListType initializes the list not only by setting the pointers first and last to nullptr, but also the count variable to 0. Hence, the given statement is “False”.
The function initializeList of the class linkedListType initializes the list not only by setting the pointers first and last to nullptr, but also the count variable to 0. Hence, the given statement is “False”.
Explanation of Solution
The function initializeList of the class linkedListType initializes the list not only by setting the pointers first and last to nullptr, but also the count variable to 0.
m.
The function search of the class unorderedLinkedList searches the entire linked list sequentially until the item is found, while the function search of the class ordered-LinkedList searches the list using a mechanism which is not exactly binary search algorithm. Hence, the given statement is“False”.
In case of ordered-LinkedList because the list is sorted, we start the search at the first node in the list and stop the search as soon as we find a node in the list with info greater than or equal to the search item or when we have searched the entire list.
m.
The function search of the class unorderedLinkedList searches the entire linked list sequentially until the item is found, while the function search of the class ordered-LinkedList searches the list using a mechanism which is not exactly binary search algorithm. Hence, the given statement is“False”.
The function search of the class unorderedLinkedList searches the entire linked list sequentially until the item is found, while the function search of the class ordered-LinkedList searches the list using a mechanism which is not exactly binary search
Explanation of Solution
In case of ordered-LinkedList because the list is sorted, we start the search at the first node in the list and stop the search as soon as we find a node in the list with info greater than or equal to the search item or when we have searched the entire list. This is not the binary search algorithm.
n.
A doubly linked list can be traversed in either direction. Hence, the given statement is “True”.
A single linked list cannot be traversed in either direction but only in forward direction. A doubly linked list can be traversed in either direction as it has links pointing in either direction stored at each node.
n.
A doubly linked list can be traversed in either direction. Hence, the given statement is “True”.
A doubly linked list can be traversed in either direction. Hence, the given statement is “True”.
Explanation of Solution
A single linked list cannot be traversed in either direction but only in forward direction. A doubly linked list can be traversed in either direction as it has links pointing in either direction stored at each node.
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Chapter 17 Solutions
C Programming: From Problem Analysis to Program Design
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- Consider the linked list in the image. A node in the linked list is defined as follows: node begin data: element of any datatype link: pointer to node end f is a pointer to the first node in the linked list If q is a pointer then, q.link contains q's link q.data contains q's data Find the output of the print instruction based on the following operations: p=f.link.link p.link.link=p print (f.link.link.link.link.link.link.data) The instructions are not dependent on any programming language. Write your answer in the box given below. Use the same case for the characters as given in the question. Do not insert any spaces in the answer.arrow_forwardQuestion 1 1 Point A linked queue is a single linked list in which: The first node of the linked list is the rear of the queue and the last node of the linked list is the front of the queue. B The last node of the linked list is both the front of the queue and the rear of the queue. The first node of the linked list is the front of the queue and the last node of the linked list is the rear of the queue. The first node of the linked list is both the front of the queue and the rear of the queue.arrow_forwardTo turn a linked stack into a linked queue, create a process.arrow_forward
- A linked stack is a: a. Single linked list in which the front of the linked list is the top of the stack. O b. Doubly linked list in which the front of the linked list is the top of the stack. O . Single linked list in which the last node of the linked list is the top of the stack. d. Doubly linked list in which the last node of the linked list is the top of the stack.arrow_forwardA data structure is a specialized format for organizing and storing data. General data structure types include the array, the file, the record, the table, the tree, and so on. Any data structure is designed to organize data to suit a specific purpose so that it can be accessed and worked with in appropriate ways. (a) Determine whether each of the following characteristics apply to a stack, a queue, both, or none. i. An element is inserted at a special place called the top. ii. An element is inserted at a special place called the rear. i. The structure can hold only one type of data element. iv. An element is deleted at the front. v. The ith position may be deleted. vi. An element is deleted at the top. vii. The structure is a LIFO structure. viii. The structure is a FIFO structure.arrow_forwardObjective Define a circular buffer data structure and test it. Problem Description: A circular buffer (also called a circular queue) is circular list of nodes where data items are added on one end of the buffer and removed from the other end. Because the nodes form a circular list, the list has no end or beginning: the tail node points to the head node, creating a ring of nodes. You may think of the nodes as containers or slots that are all initially empty but can be assigned a value in their data field info. Every time a new data item is inserted (inserting to a buffer is often referred as Writing), one slot is filled and the buffer has one less empty slot. Every time a data item is removed (referred to as Reading), the buffer has one more empty slot. Since the list has no beginning and no end, a pointer (writeIndex) is used to mark the next empty slot to write to and a second pointer (readIndex) is used to mark the next node to read from. The readIndex/writeIndex must be…arrow_forward
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