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Rancang Bangun Drone Hybrid XVTy-01 Berbasis ESP32 Dengan Sensor MPU6050 Tycoon Druce; Winner Parluhutan Nainggolan; Togar Timoteus Gultom
Impression : Jurnal Teknologi dan Informasi Vol. 5 No. 1 (2026): Maret 2026
Publisher : Lembaga Riset Ilmiah

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.59086/jti.v5i1.1627

Abstract

Penelitian ini bertujuan merancang dan membangun prototipe drone quadcopter tipe whoop berbasis mikrokontroler ESP32 yang dapat dikendalikan melalui smartphone menggunakan aplikasi RemoteXY. Sistem ini dirancang sebagai media pembelajaran teknologi kendali nirkabel, sistem tertanam (embedded system), dan implementasi Internet of Things (IoT) pada perangkat terbang skala kecil. Metode penelitian dilakukan melalui tahap perancangan perangkat keras, perancangan pernagkat lunak, pembuatan rangka drone, perancangan PCB, perakitan komponen, serta pengujian sistem. Komponen utama yang digunakan meliputi ESP32, motor DC coreless, driver motor MOSFET, baterai Li-Po, dan modul komunikasi Bluetooth/ Wi-Fi bawaan ESP32. Hasil penelitian menunjukkan bahwa prototipe drone dapat dikendalikan melalui smartphone dengan fungsi dasar seperti throttle, arah gerak, dan kestabilan kontrol. Penggunaan ESP32 memberikan keunggulan pada konektivitas nirkabel, ukuran ringkas, serta fleksibilitas pengembangan sistem di masa mendatang. Dengan demikian, penelitian ini diharapkan dapat menjadi referensi pengembangan drone skala kecil berbasis mikrokontroler untuk kebutuhn pendidikan, penelitian, maupun inovasi teknologi. This research aims to design and develop a whoop-type quadcopter drone prototype based on the ESP32 microcontroller, which can be controlled through a smartphone using the RemoteXY application. The system is designed as a learning medium for wireless control technology, embedded systems, and the implementation of the Internet of Things (IoT) in small-scale flying devices. The research method was carried out through hardware design, software development, drone frame fabrication, PCB design, component assembly, and system testing. The main components used include ESP32, coreless DC motors, MOSFET motor drivers, Li-Po battery, and built-in Bluetooth/Wi-Fi communication modules of the ESP32. The results show that the drone prototype can be controlled via smartphone with basic functions such as throttle, movement direction, and control stability. The use of ESP32 provides advantages in wireless connectivity, compact size, and flexibility for future system development. Therefore, this research is expected to become a reference for the development of small-scale microcontroller-based drones for educational purposes, research, and technological innovation.
Design and Implementation of IoT-Based Single Axis Solar Tracker with Auto-Manual Mode Throvinus Purba; Dewi Sholeha; Winner Parluhutan Nainggolan
International Journal Of Economics Social And Technology Vol. 5 No. 1 (2026): Maret-Mei 2026
Publisher : Lembaga Riset Ilmiah

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.59086/ijest.v5i1.1467

Abstract

The utilization of solar energy is often suboptimal in static installations, while conventional light-sensor-based trackers suffer from the hunting effect, random actuator movements that waste mechanical power during cloudy weather. A critical research gap exists: no prior micro-scale solar tracker has simultaneously eliminated Light Dependent Resistor (LDR) dependency and provided bidirectional IoT remote control to counteract weather-induced actuator instability. This research addresses that gap by designing and implementing an IoT-based Single Axis Solar Tracker with a novel Auto-Manual Mode that completely removes LDR reliance, enabling users to remotely lock the panel angle via the Blynk application, rendering the system inherently immune to the hunting effect under any weather anomaly. The system employs an ESP32 microcontroller, a DS3230 servo motor as the actuator, an INA219 digital sensor for electrical data acquisition, and a 10 WP solar panel with a 12V DC lamp load. Real-time monitoring of voltage, current, and power output is performed through the Blynk mobile interface. System testing was conducted in an open outdoor area over ten operational hours (07:00–17:00 WIB) with angular increments of 9° per hour, tracking from 45° East to 135° West. The actuator angle deviation, validated using a digital inclinometer, averaged only 0.27°. The system recorded a peak power output of 4,217.97 mW (4.21 Watts) at 99° at 13:00 WIB. Ultimately, the Auto-Manual mode effectively locked the panel position along the sun’s time trajectory despite sudden irradiance fluctuations, completely eliminating parasitic mechanical power consumption and optimizing daily solar energy absorption throughout the operational period.