The image shows a list of error messages from a code execution or compilation process. Each error message is presented in a tabular format with several columns. Here's the transcription of the table contents:1. **Line 112, Column 9** Path: `C:\Users\r1821655\OneDrive\Dropbox\Screenshots\One...` Error: `[Error] 'current_index' was not declared in this scope`2. **Line 112, Column 26** Path: `C:\Users\r1821655\OneDrive\Dropbox\Screenshots\One...` Error: `[Error] 'used' was not declared in this scope`3. **Line 117, Column 18** Path: `C:\Users\r1821655\OneDrive\Dropbox\Screenshots\One...` Error: `[Error] 'used' was not declared in this scope`4. **Line 117, Column 28** Path: `C:\Users\r1821655\OneDrive\Dropbox\Screenshots\One...` Error: `[Error] 'current_index' was not declared in this scope`5. **Line 119, Column 8** Path: `C:\Users\r1821655\OneDrive\Dropbox\Screenshots\One...` Error: `[Error] 'data' was not declared in this scope`These errors indicate that certain variables (`current_index`, `used`, `data`) are being used in the code without having been declared in the visible parts of the code's scope. This type of error typically requires checking the variable declarations within the source code to ensure they are correctly defined before use. The image shows a snippet of C++ code for a method named `insert` in a `sequence` class. This method takes an entry of type `value_type` as a parameter. Below is the transcription and explanation of each part of the code:```cppvoid sequence::insert(const value_type& entry){ if (used >= capacity) { resize((1.5 * capacity) + 1); } if (current_index >= used) { current_index = 0; } for (int i = used; i > current_index; i--) { data[i] = data[i-1]; }```### Explanation:1. **Method Declaration (Lines 106-107):** - `void sequence::insert(const value_type& entry)`: - This line declares a method named `insert`, which belongs to the `sequence` class. It doesn't return any value (`void`) and takes a single parameter, `entry`, which is a constant reference to a `value_type`.2. **Conditional Statement for Capacity (Lines 108-111):** - `if (used >= capacity) { resize((1.5 * capacity) + 1); }` - Checks if the current number of elements (`used`) is greater than or equal to the array's capacity. - If true, it calls the `resize` function to increase the capacity by 1.5 times the current capacity, plus one additional space (to accommodate the new insertion).3. **Current Index Adjustment (Lines 113-116):** - `if (current_index >= used) { current_index = 0; }` - Ensures that if `current_index` is beyond the last used element, it resets to `0`. This likely prepares for an insertion at the beginning if no valid index is otherwise provided.4. **Element Shifting Loop (Lines 118-120):** - `for (int i = used; i > current_index; i--) { data[i] = data[i-1]; }` - Initializes a loop with `i` starting at `used` and decrements down to one more than `current_index`. - Shifts elements one position to the right to make space at `current_index` for the new entry. This is a common technique in dynamic array insertions. This method efficiently manages dynamic array

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Description: The image shows a list of error messages from a code execution or compilation process. Each error message is presented in a tabular format with several columns. Here's the transcription of the table contents:1. **Line 112, Column 9** Path: `C:\U

Answered: { if(used capacity) {…

Engineering

Computer Science

{ if(used capacity) { resize((1.5*capacity) + 1); } if(current index >= used) current_index = 0; { }

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

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