MyMap using Open Addressing with Quadratic Probing Program Plan: Define a class named “Sample” to implement MyMap using open addressing with quadratic probing. Define function main. Define an integer HashMap named “map”. Put ‘2, 2” into the map. Remove “2” from the map. Define a static class named “MyHashMap” and implement “MyMap”. Define required variables. Define a function named “MyHashMap”. Construct a map with the default capacity and load factor. Define a function named “MyHashMap” with one parameter. Construct a map with the specific initial capacity and default load factor. Define a function named “MyHashMap” with two parameters. Construct a map with the default capacity and load factor. Define a function named “clear”. Remove all of the entries from this map. Define a function named “containsKey”. Return true if the specified key is in the map. Define a function named “containsValue”. Return true if this map contains the specific value. Define a function named “entrySet”. Return a set of entries in the map. Define a function named “get”. Return the first value that matches the specific key. Define a function named “getAll”. Return all values for the specified key in this map. Define a function named “isEmpty”. Return true if this map contains no entries. Define a function named “keyset”. Return a set consisting of the keys in this map. Define a function named “put”. Add an entry (key, value) into the map and return the value. Define a function named “remove”. Remove the element for the specific key. Define a function named “size”. Return the number of mappings in this map. Define a function named “values”. Return a set consisting of the values in this map. Define a function named “hash”. Return “hashCode % capacity” value. Define a function named “supplmentHash”. Ensure the hashing is evenly distributed and return the result. Define a function named “removeEntries”. Remove all entries from each bucket. Define a function named “rehash”. Rehash this map. Define a function named “toString”. Return a string representing for this map. Define an interface name “MyMap”. Declare function prototypes for the functions which are created at the class “MyHashMap”.

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Objective: 1. Implement a custom Vector class in C++ that manages dynamic memory efficiently. 2. Demonstrate an understanding of the Big Five by managing deep copies, move semantics, and resource cleanup. 3. Explore the performance trade-offs between heap and stack allocation. Task Description: Part 1: Custom Vector Implementation 1. Create a Vector class that manages a dynamically allocated array. 。 Member Variables: ° T✶ data; // Dynamically allocated array for storage. std::size_t size; // Number of elements currently in the vector. std::size_t capacity; // Maximum number of elements before reallocation is required. 2. Implement the following core member functions: Default Constructor: Initialize an empty vector with no allocated storage. 。 Destructor: Free any dynamically allocated memory. 。 Copy Constructor: Perform a deep copy of the data array. 。 Copy Assignment Operator: Free existing resources and perform a deep copy. Move Constructor: Transfer ownership of the data array…

Answer 1

Question

Chapter 27, Problem 27.2PE

Program Plan Intro

MyMap using Open Addressing with Quadratic Probing

Program Plan:

Define a class named “Sample” to implement MyMap using open addressing with quadratic probing.

Define function main.

Define an integer HashMap named “map”.

Put ‘2, 2” into the map.

Remove “2” from the map.

Define a static class named “MyHashMap” and implement “MyMap”.

Define required variables.

Define a function named “MyHashMap”.

Construct a map with the default capacity and load factor.

Define a function named “MyHashMap” with one parameter.

Construct a map with the specific initial capacity and default load factor.

Define a function named “MyHashMap” with two parameters.

Construct a map with the default capacity and load factor.

Define a function named “clear”.

Remove all of the entries from this map.

Define a function named “containsKey”.

Return true if the specified key is in the map.

Define a function named “containsValue”.

Return true if this map contains the specific value.

Define a function named “entrySet”.

Return a set of entries in the map.

Define a function named “get”.

Return the first value that matches the specific key.

Define a function named “getAll”.

Return all values for the specified key in this map.

Define a function named “isEmpty”.

Return true if this map contains no entries.

Define a function named “keyset”.

Return a set consisting of the keys in this map.

Define a function named “put”.

Add an entry (key, value) into the map and return the value.

Define a function named “remove”.

Remove the element for the specific key.

Define a function named “size”.

Return the number of mappings in this map.

Define a function named “values”.

Return a set consisting of the values in this map.

Define a function named “hash”.

Return “hashCode % capacity” value.

Define a function named “supplmentHash”.

Ensure the hashing is evenly distributed and return the result.

Define a function named “removeEntries”.

Remove all entries from each bucket.

Define a function named “rehash”.

Rehash this map.

Define a function named “toString”.

Return a string representing for this map.

Define an interface name “MyMap”.

Declare function prototypes for the functions which are created at the class “MyHashMap”.

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