Restaurant Food Inventory and Ordering System using Machine Learning Forecasting

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Restaurant Food Inventory and Ordering System using Machine Learning Forecasting.

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You can describe the topic of the section here. Members and Roles.

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01. Members and Roles.

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Project Manager / Business Analyst. Jose Carlos Dominic Gaa.

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02. Problem Statement.

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The existing inventory and ordering system for SME restaurants relies on average usage per thousand to generate suggested food orders. Users manually count and input on-hand quantities of perishable and non-perishable materials. This process is time-consuming and prone to human error. Impact: Inaccurate inventory levels and order suggestions Increased time spent on manual inventory counts Higher likelihood of food waste due to overordering Potential stock-outs due to underordering Reduced operational efficiency and profitability.

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Inaccuracy of Recommendations: System recommendations frequently do not align with forecasted sales. Consequences of Inaccuracy: Leads to over-ordering Leads to under-ordering Proposed Improvements: There is a critical need for an advanced ordering and inventory system that: Minimizes manual input to reduce human error Leverages Machine Learning forecasting to optimize food orders Provides a user-friendly interface for easy navigation and reduced learning curve Implements a scalable database to accommodate future growth Automates data collection and bases order suggestions on forecasted sales.

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There is a critical need for an advanced ordering and inventory system that: Minimizes manual input to reduce human error Leverages Machine Learning forecasting to optimize food orders Provides a user-friendly interface for easy navigation and reduced learning curve Implements a scalable database to accommodate future growth Automates data collection and bases order suggestions on forecasted sales.

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Develop an advanced inventory and ordering system utilizing: TensorFlow for machine learning and demand forecasting MySQL for data storage and management HTML5/CSS/JavaScript for user interface development React.js/Bootstrap for responsive web design Java/Python/Node.js for backend development.

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03. Project Overview.

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The current inventory and ordering system, which relies on average usage per thousand to generate suggested food orders, falls short of meeting the restaurant's needs. Despite users manually counting and inputting on-hand quantities of perishable and non-perishable materials, the system's recommendations often prove inaccurate when compared to forecasted sales. This project aims to address these shortcomings by minimizing manual input, thereby reducing human error and eliminating instances of over- or under-ordering, particularly for perishable items. By implementing a more efficient and accurate ordering process, the new system will not only save time for users but also ensure that the right quantities of items are ordered based on projected sales for the given date range..

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This project aims to revolutionize the food ordering process for SME restaurants by developing an advanced ordering and inventory system. At its core, the system will leverage machine learning forecasting to automate and optimize food orders, placing greater emphasis on recent data trends. The user-friendly interface will streamline navigation, reducing the learning curve for staff and eliminating the need for manual input, thus saving time and minimizing human error. A scalable database will be implemented to accommodate all restaurant items and materials, ensuring adaptability for future growth and menu expansions. By optimizing order quantities and reducing waste, this system is designed to significantly cut operational costs and boost profitability for restaurants, marking a significant step forward in restaurant management technology..

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Upgrading the inventory and ordering system will address current inefficiencies and inaccuracies by automating data collection and reducing manual input, which minimizes human error. This project will help eliminate overordering and underordering, especially for perishable items, by basing order suggestions on forecasted sales. It will also save users considerable time by reducing the need for manual inventory counts. Overall, the new system will optimize inventory levels, enhance accuracy, and improve operational efficiency, supporting better business outcomes and customer satisfaction..

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For the Stock Inventory System project, several technologies are required to ensure the application is functional, reliable, and scalable. Below is a breakdown of the key technologies and tools needed that our team would utilize for this project. Tensorflow MySQL HTML5/CSS/JavaScript React.js/Bootstrap Backend Technologies.

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The primary risks associated with upgrading the inventory and ordering system include technical challenges in integrating new technologies with existing infrastructure, which could lead to system downtime and data migration issues. There is also the risk of underestimating the complexity of automating manual processes, potentially causing delays and cost overruns. Additionally, user adoption poses a risk; if staff are not adequately trained, the new system may not be utilized effectively. Lastly, cybersecurity threats are a concern, as the increased reliance on digital systems could make sensitive inventory data vulnerable to breaches. Mitigation strategies must be developed to address these risks proactively..

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04. Scope of Project.

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Deployment Automating the current manual processes for inventory counting and order placement. Integrating sales forecasting to provide accurate order suggestions based on predicted sales data. Developing user-friendly web interfaces for easy interaction with the system. Implementing robust security measures to protect sensitive inventory data..

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Integrating with third-party vendors or suppliers not initially identified in the project plan. Development or enhancement of non-inventory related modules like HR, finance, or payroll. Any physical hardware upgrades or replacements, such as new servers or barcode scanners. Integrating with third-party vendors or suppliers not initially identified in the project plan. Payment Gateway Multilingual Support.

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Automated Inventory Management System User-Friendly Web Interfaces Enhanced Security Measures.

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05. Timeline / Milestones.

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ilestone 3: System Desian Completion esting and Discussion of Deliverables Execute tests Fix defects Codina refinement Milestone 4: Testing Completion Evaluation and Documentation Tue 24-12-10 Document deployment guide Document user quide Perform other necessary documentations Presentation deliverables Milestone 5: Completion and Project Presentation 0 days 12 days 10 days 10 days 2 days O days 10 days 5 days 5 days 5 days 5 days 0 days Fri 24-11-08 Mon 24-11-11 Mon 24-1 1-I I Mon 24-11-11 Mon 24-11-25 Tue 24-11-26 Wed 24-11-27 Wed 24-11-27 Wed 24-11-27 wed 24-11-27 Wed 24-1 Tue 24-12-10 Fri 24-11-08 Tue 24-11-26 Fri 24-11-22 Fri 24-11-22 Tue 24-11-26 Tue 24-11-26 Tue 24-12-03 Tue 24-1 Tue 24-12-03 Tue 24-12-10 Tue 24-12-10.

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06. Gantt Chart.

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Thank you!.