Automatic Bluetooth Controlled Shutter System Using Microcontroller and Mobile Application

Notice

This is an unedited manuscript accepted for publication and provided as an Article in Press for early access at the author’s request. The article will undergo copyediting, typesetting, and galley proof review before final publication. Please be aware that errors may be identified during production that could affect the content. All legal disclaimers of the journal apply.

Year : 2026 | Volume : 04 | 02 | Page :
By

Mukesh Ganchi,

Amit Kumar,

Pankaj Kumar,

  1. Assistant Professor, Mechanical Department, Geetanjali Institute of Technical Studies, Udaipur, Rajasthan, India
  2. Student, Mechanical Department, Geetanjali Institute of Technical Studies, Udaipur, Rajasthan, India
  3. Student, Mechanical Department, Geetanjali Institute of Technical Studies, Udaipur, Rajasthan, India

Abstract

Automation has become an essential part of modern engineering system. Manual shutter systems used in shops, garages, and industries require physical effort and time. To overcome these limitations, wireless control systems using Bluetooth technology have been developed. Bluetooth-based automation systems allow communication between smartphones and embedded systems. These systems are widely used due to their low cost, low power consumption, and ease of integration. This paper focuses on designing a smart shutter system that can be controlled using a mobile application via Bluetooth. Microcontrollers serve as the core component of such automation systems, providing programmable control over hardware devices. By interfacing a microcontroller with a Bluetooth module, it becomes possible to receive user commands from a mobile application and execute corresponding actions. In the case of a shutter system, these actions involve controlling a motor mechanism to open or close the shutter. The motor mechanism is another critical component, as it converts electrical energy into mechanical motion. By using motor drivers and appropriate control logic, the direction and speed of the motor can be regulated to ensure smooth and reliable shutter operation. This integration of electronics and mechanical systems forms the basis of an embedded automation solution. In recent years, automation technology has become an important part of modern engineering systems. Industries, commercial buildings, smart homes, and security systems increasingly use automated devices to improve efficiency, safety, reliability, and convenience. One such important application of automation is the automatic shutter control system. Conventional shutters used in shops, garages, warehouses, and industrial gates are generally operated manually, which requires physical effort and consumes time. To overcome these limitations, wireless control systems are being widely adopted. Bluetooth technology provides a simple, low-cost, and reliable method for short-range wireless communication between electronic devices. By integrating Bluetooth communication with a microcontroller, shutters can be controlled automatically using a smartphone application. This eliminates the need for manual handling and provides fast and secure operation. The Automatic Bluetooth Controlled Shutter System Using Microcontroller and Mobile Application is designed to automate shutter movement through wireless commands transmitted from an Android mobile phone. The system mainly consists of a Bluetooth module, microcontroller, motor driver circuit, DC motor, and mobile application. The user sends commands such as OPEN, CLOSE, and STOP through the mobile application. These commands are received by the Bluetooth module and processed by the microcontroller, which then controls the motor driver to operate the shutter accordingly. The use of microcontroller-based automation improves system flexibility and accuracy. The system can be easily installed in residential, commercial, and industrial areas. It reduces human effort, improves operational safety, and enhances convenience. Additionally, the project is economical, compact, and easy to maintain, making it suitable for educational as well as practical industrial applications. This project also provides an excellent learning platform for students in the fields of embedded systems, wireless communication, automation, and mechatronics. It combines hardware and software integration, giving practical exposure to microcontroller programming, Bluetooth communication, motor control, and mobile application interfacing. With the advancement of smart technologies and Industry 4.0 concepts, automated shutter systems can further be integrated with Internet of Things (IoT), voice assistants, cloud monitoring, and advanced security systems. Therefore, this project represents an important step toward intelligent and smart automation solutions for future applications.

Keywords: Bluetooth Automation, Arduino UNO, Embedded Systems, Wireless Communication, Smart Shutter System.

How to cite this article: Mukesh Ganchi, Amit Kumar, Pankaj Kumar. Automatic Bluetooth Controlled Shutter System Using Microcontroller and Mobile Application. International Journal of Electronics Automation. 2026; 04(02):-.
How to cite this URL: Mukesh Ganchi, Amit Kumar, Pankaj Kumar. Automatic Bluetooth Controlled Shutter System Using Microcontroller and Mobile Application. International Journal of Electronics Automation. 2026; 04(02):-. Available from: https://journals.stmjournals.com/ijea/article=2026/view=250884

References

  1. Sriskanthan N, Tan F, Karande A. Bluetooth based home automation system. Microprocessors and microsystems. 2002 Aug 10;26(6):281-9.
  2. Piyare R, Tazil M. Bluetooth based home automation system using cell phone. In2011 IEEE 15th international symposium on consumer electronics (ISCE) 2011 Jun 14 (pp. 192-195). IEEE.
  3. Kumar S. Ubiquitous smart home system using android application. arXiv preprint arXiv:1402.2114. 2014 Feb 10.
  4. ElShafee A, Hamed K. Design and Implementation of a WiFi Based Home Automation System World Academy of Science Engineering and Technology International Journal of Computer Electrical Automation. Electrical, Automation, Control and Information Engineering. 2012;6(8).
  5. Richardson M, Wallace S. Getting Started with Raspberry Pi: Electronic Projects with Python, Scratch, and Linux. Maker Media, Inc.; 2014 Oct 22.
  6. Martín-Ramos P, da Silva MM, Lopes MJ, Silva MR. Student2student: Arduino project-based learning. InProceedings of the Fourth International Conference on Technological Ecosystems for Enhancing Multiculturality 2016 Nov 2 (pp. 79-84)..
  7. Anto B, Hamzah A, Dahliyusmanto, Safadro Y, Arif F. Sliding gate opener system with smartphone control using bluetooth connection. InPROCEEDING OF THE 2ND INTERNATIONAL CONFERENCE ON ENGINEERING SCIENCE AND TECHNOLOGY (ICEST 2021) 2023 Jul 7 (Vol. 2677, No. 1, p. 070001). AIP Publishing LLC.
  8. de Souza TR, Rodrigues GG, Serrao LD, Macambira RD, Carvalho CB. Residential smart plug with bluetooth communication. arXiv preprint arXiv:2103.15757. 2021 Jan 6.
  9. Šipoš M, Šimoňák S. Development of ATmega 328P micro-controller emulator for educational purposes. Acta Universitatis Sapientiae. Informatica. 2020;12(2):159-82.
  10. How DN, Baharuddin MZ, Mohideen SS, Sahari KS, Anuar A. Modular motor driver with torque control for gripping mechanism. Procedia Engineering. 2012 Jan 1;41:1476-82.
  11. Korneff T. Introduction to electronics. Elsevier; 2012 Dec 2.
  12. Bishop RH. Modern control systems analysis and design using MATLAB and SIMULINK. Addison-Wesley Longman Publishing Co., Inc.; 1996 Dec 1.
  13. Dean AG. Embedded Systems Fundamentals with ARM Cortex-M Based Microcontrollers: A Practical Approach. ARM Education Media UK; 2017 Mar 28.
  14. Kloss JH. Android apps with app inventor: The fast and easy way to build android apps. Addison-Wesley; 2012 Feb 22.
  15. Hughes JM. Arduino: a technical reference: a handbook for technicians, engineers, and makers. ” O’Reilly Media, Inc.”; 2016 May 16.
  16. Banzi M, Shiloh M. Getting started with Arduino: the open source electronics prototyping platform. Maker Media, Inc.; 2022 Feb 15.
  17. Mazidi MA, Naimi S, Naimi S. AVR microcontroller and embedded systems: using assembly and C. Prentice Hall Press; 2010 Jan 31.
  18. Wu CH, Ma LS, Cai YJ, Yeh TF. A multi-purpose remote controller based on Bluetooth mobile phone. In2010 11th International Conference on Control Automation Robotics & Vision 2010 Dec 7 (pp. 358-363). IEEE.
  19. Lee EA, Seshia SA. Introduction to embedded systems: A cyber-physical systems approach. MIT press; 2016 Dec 30.
  20. Bose BK. Power electronics-an emerging technology. IEEE Transactions on Industrial electronics. 2002 Aug 6;36(3):403-12.
  21. Reddy KS. New real-time operating systems for embedded systems. Laxmi Publications; 2014 Jan 1.
  22. Newell WE. Power Electronics—Emerging from Limbo. IEEE Transactions on Industry Applications. 2007 Apr 23(1):7-11.
  23. Davies JH. MSP430 microcontroller basics. Elsevier; 2008 Aug 21.
  24. Reynders D, Mackay S, Wright E. Practical industrial data communications: best practice techniques. Elsevier; 2004 Nov 10.
  25. Scherz P. Practical electronics for inventors. McGraw-Hill, Inc.; 2006 Nov 14.
  26. Yar H, Imran AS, Khan ZA, Sajjad M, Kastrati Z. Towards smart home automation using IoT-enabled edge-computing paradigm. Sensors. 2021 Jul 20;21(14):4932.
  27. Coskun I, Ardam H. A remote controller for home and office appliances by telephone. IEEE Transactions on Consumer Electronics. 1998 Nov 30;44(4):1291-7.
  28. Shah SA. SAFEENTRY: BLUETOOTH-CONTROLLED ARDUINO DIGITAL LOCK FOR ENHANCED SECURITY. International Journal of Data Science and IoT Management System. 2024 Feb 12;3(1):1-6.
  29. Khalili S, Majidi M, Bahrami M, Roshanaei M, Madrakian T, Afkhami A. A portable gas sensor based on In2O3@ CuO P–N heterojunction connected via Wi-Fi to a smartphone for real-time carbon monoxide determination. Scientific Reports. 2024 Jun 12;14(1):13594.
  30. Raj A, Chauhan AS. IoT-Driven RFID: Redefining Gate Automation for Smart Security Solutions. InInternational Conference on Computational Intelligence, Data Science and Cloud Computing 2025 Apr 11 (pp. 537-558). Singapore: Springer Nature Singapore.
  31. Kuru K, Yetgin H. Transformation to advanced mechatronics systems within new industrial revolution: A novel framework in automation of everything (AoE). IEEE Access. 2019 Mar 27;7:41395-415.
  32. Franco S. Design with operational amplifiers and analog integrated circuits. McGraw-Hill, Inc.; 2001 Aug 8.
  33. Luxton R. Challenges and future aspects of sensor technology. InAdvanced Sensor Technology 2023 Jan 1 (pp. 853-877). Elsevier.
  34. Van Hoof J, Demiris G, Wouters EJ. Handbook of smart homes, health care and well-being. Springer Publishing Company, Incorporated; 2016 Aug 25.
  35. Bell C. Beginning sensor networks with Arduino and Raspberry Pi. Apress; 2014 Jan 23.
Ahead of Print Subscription Review Article
Volume 04
02
Received 05/05/2026
Accepted 30/06/2026
Published 28/07/2026
Publication Time 84 Days

Login

My IP

PlumX Metrics