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Design of Multi-functional Remote-control Terminal for IoT

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DOI: 10.23977/jnca.2025.100104 | Downloads: 13 | Views: 230

Author(s)

Hongze Zhang 1,2, Xianhai Huang 2

Affiliation(s)

1 Guangxi Key Laboratory of Machine Vision and Intelligent Control, Wuzhou University, Wuzhou, China
2 School of Electronics and Information Engineering, Wuzhou University, Wuzhou, China

Corresponding Author

Hongze Zhang

ABSTRACT

The quality of smart home control applications and software is currently uneven. Faced with redundant functions such as open-screen advertising, manual control is more convenient. How to obtain a more convenient device control experience has become an urgent problem. Integrated with various standard communication control protocols, the multi-functional remote-control terminal of IoT focuses on the remote control of equipment. It simplifies the remote-control operation and has no redundant operation. Communicating with the smart car through the 2.4G wireless communication module, the terminal can remotely control the movement of the smart car and the on/off of the LED lamp on it by the LCD. With the built-in ESP-NOW function of the ESP32 microcomputer, the intelligent device equipped with an ESP chip can be controlled. The fan, light, and temperature and humidity display on the ESP intelligent device can be controlled by LCD. With the set temperature threshold of the ESP intelligent device, the start/stop of the fan can be automatically controlled. With the Wi-Fi function built-in ESP32 microcomputer, the system can be connected to the Wi-Fi, and the lights or windows of IoT devices can be controlled over the Internet.

KEYWORDS

ESP32, Wi-Fi, ESP-NOW, 2,4G Communication

CITE THIS PAPER

Hongze Zhang, Xianhai Huang, Design of Multi-functional Remote-control Terminal for IoT. Journal of Network Computing and Applications (2025) Vol. 10: 20-28. DOI: http://dx.doi.org/10.23977/jnca.2025.100104.

REFERENCES

[1] Yu Qin. Research on Smart Home Product Design Driven by Active Interaction [D]. Master degree thesis, North China University of Technology, 2024.
[2] Baig M. J. A., Iqbal M. T., Jamil M., et al. Design and implementation of an open-Source IoT and blockchain-based peer-to-peer energy trading platform using ESP32-S2, Node-Red and, MQTT protocol[J]. Energy reports,2021,7.5733-5746.
[3] Jiacheng Sun, Bofei Liu, Xiaopeng Xing, et al. Intelligent curtain design based on IoT [J]. Practical Electronics.2023,31(02):42-45.
[4] Junfeng Liu, Youtian Qiao. A Study of a Smart Home Control System Based on ESP32 and WeChat Mini Program [J]. Technology Innovation and Application.2024,14(25):41-44.
[5] Salar R. Understanding Resistance and Ohm's Law with Arduino-based Experiment[J]. Revista Cubana de Física.2021, 38(1):38-42.
[6] Aili Wang. Design and Implementation of ESP32-based Smart Home System [D]. Master degree thesis, Shenyang Normal University,2023.
[7] Mingming Xie. Research on the Coexistence of Multi-protocol Wireless Heterogeneous Intelligent Internet of Things [D]. Master degree thesis, Shandong University, 2022.
[8] Qifeng Wang. Smart home monitoring and linkage system based on MQTT and ESP-NOW [D]. Master degree thesis, Ningxia University,2023.
[9] Zhiben Li. Research and Design of a Health Detection and Management System for Lithiumion Batteries [D]. Master degree thesis, Hubei Normal University, 2024.
[10] Ruoyu Yao, Xiaohui Qu, Jidong Yu, et al. Three-coil Wireless Battery Charger with Self-adaptation to Battery Charging Curve [J]. Automation of Electric Power Systems.2022, 46(07):170-177.
[11] Zili Dai. Key Technical Problems and Solutions in Touch Screen Field [J]. Video Engineering.2024,48(05):168-170.
[12] Zhihong Xu, Hua Lv, Jianhong Ma, et al. Teaching reform practice of engineering ability training of C++ object-oriented programming [J]. Computer Education, 2024, 04.70-74.
[13] Shiyang Luo, Min Fan. Mechanical Structure Analysis of Fused Deposition Modeling 3D Printers [J]. Die & Mould Manufacture.2024, 24(10):150-152.
[14] Chao Yang, Kun Yue. Thinking and Analysis of PCB Design Process [J]. Science and Technology & Innovation,2023, 09.147-149.
[15] Hao Zhao, Leigang Deng, Shengze Lv. Signal improvement method for impedance matching in PCB design [J]. Printed Circuit Information.2023, 31(09):8-12. 

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