Mecatronics Engineering

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    Pellet 3D printer
    (2024-09-26) Osama Muhammad Daoud; Sabeeh Omar Daher; Abdullah Wael Fakhry Ass
    3D printers will undoubtedly continue to increase the capabilities of small- and mid-sized manufacturers well into the future. The most exciting advances are yet to come. And the biggest winners out there will be the manufacturers with the vision to foresee the possibilities these revolutionary machines can unlock. This report focuses on the design and development of a Pellet 3D printer Starting from the mechanical design, then the electric and controller selection, followed by the software, programing. Throughout this project, we delved into various 3D printing methodologies, focusing on Fused Deposition Modeling (FDM). This falls within the realm of additive manufacturing (AM), where filament, such as PLA material, serves as the primary material. FDM employs a three-mechanism movement, and for our project, we utilized the Creality Ender 3 printer, which operates on a conventional 3-axes CNC mechanism. Then we talked about plastic extrusion, a process involving the melting and shaping of raw plastic. Subsequently, we embarked on the task of designing a novel printer head using Creo Parametric. This included creating essential components through 3D printing, assembly of the extruder, and its installation onto the printer, replacing the original head. The final step involved calibrating the printer, this step is the most important step where we will make the controller deal with the mass of pellets instead of the length of filaments, setting the stage for its subsequent use in the examination of diverse material samples.
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    Development of a Low-Cost Service Dog Robot for Enhanced Assistance
    (2024-08-07) Abd Alrahman Marshoud; Abdallatif Joqa; Saif Dabbas
    Abstract This graduation project aims to develop a low-cost Dog Robot that utilizes robotics technology to provide it to a wide range of users. The project seeks to address the growing demand for innovative solutions in various fields that can benefit from the use of robotics. The suggested method is centered on creating and building a low-cost Service Dog Robot with superior sensing capabilities, mobility, and interactive features. The robot, which is equipped with sensors, can sense and understand its surroundings, allowing it to move, plan pathways, avoid obstacles, and execute activities suited to the user’s individual demands. The Service Dog Robot supports with daily tasks such as object retrieval and delivery. Its versatility and learning skills enable it to tailor its help to the changing demands of individual users, making it a versatile and long-lasting solution. To ensure accessibility and usability, the project prioritizes the selection of cost-effective components that do not compromise performance. Additionally, the utilization of open-source resources facilitates knowledge-sharing and collaboration within the robotics community. This project aims to develop a low-cost robot that to a wide range of users in different settings. By focusing on affordability and ease of use, this initiative hopes to make robotics technology more accessible and encourage collaboration across different fields. The deployment of this technology will benefit both users and researchers in the robotics industry and drive further advancements in the sector. The goal of this graduation project is to create a low-cost, highly capable service dog robot that can benefit a wide range of users. The team aims to develop a robot with superior sensing, mobility, and interactive features, empowering it to autonomously navigate, plan routes, avoid obstacles, and execute tasks tailored to individual user needs. To ensure accessibility, the team will select cost-effective components without compromising performance, and utilize open-source resources to facilitate knowledge-sharing and collaboration within the robotics community. By prioritizing affordability and user-friendliness, the project aspires to make robotics technology more accessible, stimulate further advancements, and encourage interdisciplinary cooperation. 2
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    Polymer Melt Flow in 3D Printing
    (2024-02-12) Ahmed Qadi; Abdul Hakim Futyan
    Abstract Material extrusion additive manufacturing is a widely used process for producing complex parts from thermoplastic polymers. However, the quality of the final product is heavily influenced by the flow behavior of the polymer melt through the hot-end and the nozzle. In order to optimize the extrusion process, reduce defects such as extrusion inconsistencies, and improve the quality and performance of the final product, a comprehensive understanding of the flow behavior is essential. In this project, the flow behavior of polymer melts in fused filament fabrication 3D printing technology through the extrusion mechanism known as the hot-end will be investigated experimentally. A test setup was built to extrude polymer melts at different melt temperatures while measuring the force exerted using load cell. The goal is to develop a control system that can optimize the extrusion process and interpret the force data to achieve optimal results. Additionally, a key objective of this study is to conduct a comparative analysis of PLA (Polylactic acid) and TPU (thermoplastic polyurethane) materials, assessing how each responds to varying extrusion conditions. This comparison aims to uncover the distinct properties and behaviors of these polymers, offering valuable insights for their application in 3D printing. The results of this comparison are crucial for understanding material-specific requirements and tailoring the extrusion process accordingly. Data from the test setup were collected and analyzed using MATLAB. A key challenge encountered was the non-linear behavior of the heater model, which led to the development of the advanced Hammerstein model. However, due to complexities in designing a controller for this model, a PID Controller was employed. Utilizing MATLAB's PID tuner, optimal values for Kp, Ki, and Kd were determined to effectively control the heater. The study demonstrates that extrusion parameters like speed, temperature, and feeding force critically affect the quality of 3D prints. It thoroughly investigates how these factors interact, enhancing our understanding of their role in 3D printing. This research significantly advances the field by providing deeper insights into material properties and suggesting ways to improve 3D printing techniques, laying groundwork for future advancements
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    Photovoltaic Grass Cutter
    (2024-02-07)
    The continuing increase in fuel costs and the impact of gas emissions from burned fuel into the atmosphere makes it necessary to use the sun's plentiful solar energy as a source of electricity to run a lawn mower. Based on the fundamentals of mowing, a solar-powered lawn mower was created. The direct current (D.C.) motor, a rechargeable battery, a solar panel, a stainless-steel blade, and a control switch make up the intended solar lawnmower. An app is used to operate the solar- powered lawnmower, which shuts the circuit and allows current to pass through the motor, which drives the blade used for cutting grass. Through the solar charging controller, the battery is recharged.
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    3 axis laser engraver CNC machine
    (2023-06-19) Tha’er Dwikat; Abd Alhameed Bahish
    ABSTRACT CNC technology has become a requirement in the industrial world, manufacturers of this type of machine are trying to conform to the market requirements in terms of quality, price, and quantity, and so the CNC machine can meet the requirements and has acquired a leading position. Using CNC machines is more cost-effective, accurate, and much faster. It’s the ability to manufacture complex shapes with high quality and accuracy compared to the ordinary machines. The vast majority of today’s CNC arsenals are completely electronic. Some of the more common CNC-operated processes include ultrasonic welding, hole-punching and laser cutting. In this final project, a 3-axis laser engraver CNC was designed and developed, that has two linear axis and one rotational axis capable of engrave "draw" on cylindrical parts. Starting from the mechanical design, then the electric and controller selection, followed by the software, programing and finally the results and dissolution.