ECEE 237 Spring 2016 Homework 21: Write A C Program In Uvi

Eece237 Spring 2016homework 21 Taskwrite A C Program In Uvision That

Write a C program in uVision that performs the following functions: Start with an array called numbers[10] containing 10 randomly selected uint32_t variables. The program should arrange these numbers in ascending order, with numbers[0] holding the smallest number and numbers[9] the largest. The sorting algorithm must be general enough to work with any set of integers in any order. The process begins by designing a flow chart to visualize the algorithm. Then, implement the algorithm in C code. It is a coding exercise, so you do not need to run the program. The solution should focus on correctness and clarity of the sorting algorithm using basic comparison operations, with the logic applicable to any data set of integers.

Paper For Above instruction

The task of sorting an array of integers in ascending order is fundamental in computer science, often serving as an introductory problem for understanding basic algorithms and control structures. Here, the core objectives are to initialize an array with random uint32_t values, design a general sorting algorithm, and implement it in C for a microcontroller development environment such as uVision. In this context, the primary requirement emphasizes the development of an algorithm that is generic and adaptable to any data set, rather than optimized for speed or memory usage, such as more advanced sorting techniques.

The process begins with conceptualizing the algorithm through a flowchart, which sequentially depicts the logical flow of comparing and swapping elements to achieve ascending order. Such a flowchart typically illustrates nested loops: an outer loop that tracks each position in the array, and an inner loop that compares the current element with subsequent elements, swapping them if they are out of order. This approach resembles the classic bubble sort algorithm, which guarantees the sorting of the array through repeated pairwise comparisons.

Implementing the bubble sort algorithm in C language involves a double loop structure. The outer loop iterates from the first to the penultimate element and, for each position, the inner loop compares the current element with all subsequent elements. When a pair of elements is found in the wrong order, they are swapped using a temporary variable. This process continues until the array is fully sorted, with the largest elements "bubbling" to the end with each pass.

The code should initiate by populating the numbers array with 10 random uint32_t values. This can be simulated with a pseudo-random number generator, considering the environment constraints and the need for reproducible results in an embedded system. Once initialized, the sorting function is called, encapsulating the nested loops, compare, and swap operations. After sorting, the array elements are ordered from smallest to largest, fulfilling the assignment's requirements.

It's important to note that while more efficient sorting algorithms exist (such as quicksort or mergesort), bubble sort is chosen here for educational clarity, simplicity, and ease of implementation in a limited environment. Moreover, this approach allows students to understand algorithmic logic with minimal auxiliary functions or complex data structures.

In summary, developing this program involves first drawing a flowchart to understand the process, then translating that visual logic into C code that initializes a data set, applies a double loop bubble sort algorithm, and eventually arranges the array elements in ascending order. This process enhances foundational programming skills and understanding of algorithm design, suitable for embedded system applications like those developed in uVision.

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