Using Visual Logic Design: A Flowchart That Is Also Fully F

Using Visual Logic Design A Flowchart That Is Also a Fully Functional

Using Visual Logic, design a flowchart that is also a fully functional program. According to your design, the program must: Continually accept data regarding the purchase of fruit until a sentinel value is entered. Prompt the user for each item, and accept the name of the fruit (e.g., “dried apples”), the price per pound, and the number of pounds sold in a month. Display a clear message for items that are considered: Best-selling items (selling 5,000 or more pounds per month), Big-ticket items (best-selling and costing $4 or more per pound), High-priced items (costing $7 or more per pound), Lowest-selling items (selling 500 or less pounds per month), and High-income generating items (generating $7,000 or more monthly income). Loop until the user enters the sentinel value when prompted, displaying the sentinel value to demonstrate program termination.

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Using Visual Logic Design A Flowchart That Is Also a Fully Functional

The goal of this program is to create a comprehensive flowchart that functions as an interactive, data-driven application for managing fruit sales data. The program prompts the user repeatedly to input specific data about each fruit item, including the fruit's name, price per pound, and the number of pounds sold in a month. The program continues to collect this data until the user enters a predefined sentinel value, indicating the end of data entry. Throughout the process, the program evaluates each fruit's sales and financial metrics to classify it into various categories—such as best-selling, big-ticket, high-priced, lowest-selling, and high-income generating items—and displays appropriate messages accordingly.

To achieve this, the program must follow a logical sequence of steps, which are best represented through a flowchart. The key components of the flowchart include initialization, data input, evaluation, message display, and termination. The flowchart begins with the initial prompt to input the name of the fruit or the sentinel value. If the sentinel value is entered, the program displays the sentinel and terminates. If not, the program proceeds to gather additional data: the price per pound and the number of pounds sold per month. After input collection, the program computes the total income generated by the item by multiplying the price per pound by the pounds sold. It then evaluates this data against specified thresholds to determine the appropriate messages for each category.

Specifically, the classification criteria are as follows:

• Best-selling items: Items selling 5,000 or more pounds per month.
• Big-ticket items: Items that are best-selling and have a price of $4 or more per pound.
• High-priced items: Items selling at $7 or more per pound.
• Lowest-selling items: Items selling 500 or fewer pounds per month.
• High-income generating items: Items generating $7,000 or more per month.

The program must assess each item against these categories and display clear, specific messages. The cycle then repeats, prompting for the next fruit item, until the sentinel value is entered. When the sentinel is entered, the program displays a message indicating that the program has ended, showing the sentinel value to confirm the termination point.

Design Considerations

The flowchart should include decision blocks for each classification, input/output blocks for user interactions, processing blocks for computations, and loop back points for repetition. Proper labeling ensures clarity and accuracy in flow control. The visual logic must translate into executable code with appropriate variable initialization, user prompts, condition evaluations, and loop structures.

Conclusion

This program effectively demonstrates the integration of flowchart design with actual programming logic to handle multiple data inputs, classifications, and program termination. By following the outlined criteria, it provides an interactive tool for analyzing fruit sales data, ensuring that each classification is accurately determined and clearly communicated to the user until they decide to end the session.

References

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