An efficient Arduino-based paper dispensing system (PDS) has been developed to address the growing demand for reliable and cost-effective PDS solutions in educational and workplace environments. The system utilizes an Arduino microcontroller to automate the dispensing process, allowing users to specify the number of sheets required via a user-friendly interface. The design incorporates a compact motor mechanism, enabling precise control over the PDS action. Power consumption has been minimized through the use of a 9 V battery, enhancing the system’s portability and making it suitable for locations without direct access to electrical outlets. Comparative analyses have been conducted between the proposed system and existing commercial electric dispensers, highlighting significant advantages in terms of cost and energy efficiency. The initial cost of the Arduino-based system is considerably lower than that of traditional dispensers, making it an attractive option for budget-conscious institutions. Additionally, the portability of the system facilitates its deployment in various settings, including classrooms, offices, and communal workspaces. The accuracy of PDS has been optimized, achieving a high level of reliability for everyday use. Future enhancements are planned to improve battery life and integrate advanced features such as wireless control and monitoring. Overall, this research contributes to the advancement of smart PDSs, offering a practical and efficient solution to meet the needs of educational and workplace applications.

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Smart and Energy-Efficient Paper Dispensing Systems Using Arduino for Sustainable Solutions

  • S. Kanagamalliga,
  • S. Immaculate Joy,
  • C. Arvika,
  • Akshaya Settu

摘要

An efficient Arduino-based paper dispensing system (PDS) has been developed to address the growing demand for reliable and cost-effective PDS solutions in educational and workplace environments. The system utilizes an Arduino microcontroller to automate the dispensing process, allowing users to specify the number of sheets required via a user-friendly interface. The design incorporates a compact motor mechanism, enabling precise control over the PDS action. Power consumption has been minimized through the use of a 9 V battery, enhancing the system’s portability and making it suitable for locations without direct access to electrical outlets. Comparative analyses have been conducted between the proposed system and existing commercial electric dispensers, highlighting significant advantages in terms of cost and energy efficiency. The initial cost of the Arduino-based system is considerably lower than that of traditional dispensers, making it an attractive option for budget-conscious institutions. Additionally, the portability of the system facilitates its deployment in various settings, including classrooms, offices, and communal workspaces. The accuracy of PDS has been optimized, achieving a high level of reliability for everyday use. Future enhancements are planned to improve battery life and integrate advanced features such as wireless control and monitoring. Overall, this research contributes to the advancement of smart PDSs, offering a practical and efficient solution to meet the needs of educational and workplace applications.