cover
Contact Name
Muhammad Hafizd
Contact Email
muhammadhafizd@mercubuana.ac.id
Phone
+6285782804092
Journal Mail Official
jte@mercubuana.ac.id
Editorial Address
Fakultas Teknik Universitas Mercu Buana Jl. Raya Meruya Selatan, Kembangan, Jakarta 11650 Tlp./Fax: +62215871335
Location
Kota adm. jakarta barat,
Dki jakarta
INDONESIA
Jurnal Teknologi Elektro
ISSN : 20869479     EISSN : 26218534     DOI : https://dx.doi.org/10.22441/jte
Core Subject : Engineering,
Jurnal Teknologi Elektro adalah Jurnal Ilmiah yang diterbitkan oleh Teknik Elektro, Universitas Mercu Buana. Jurnal Teknologi Elektro diterbitkan 3 kali setahun, pada bulan Januari, Mei dan September. Setiap artikel diproses melalui proses review yang teliti. Artikel yang diterima bertemakan seluruh bidang Elektro, berupa hasil penelitian, studi pustaka atau perancangan alat terbaru, dengan fokus kepada aplikasi industri, teknologi hijau dan energi terbarukan.
Articles 372 Documents
Arduino-Based Automated Birdcage with Integrated Mass and Thermal Control Ratnasari Nur Rohmah; Wahyu Akhsan Sadewa; Bambang Hari Purwoto
Jurnal Teknologi Elektro Vol. 17 No. 3 (2026)
Publisher : Electrical Engineering, Universitas Mercu Buana

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.22441/jte.2026.v17i3.009

Abstract

Manual bird care is highly vulnerable to neglect, particularly during prolonged owner absence, while fluctuating ambient temperatures can severely compromise avian health and well-being. This study designs, implements, and evaluates a standalone, Arduino-based automated birdcage system that integrates mass-based feed dispensing, water refilling, thermal management, and comprehensive fault detection without relying on continuous internet connectivity. The system utilizes two independent load cells with HX711 modules to measure feed and water mass directly, driving a servo motor and a DC water pump, respectively. An n-point moving-average filter mitigates mechanical vibration and bird-movement noise. Ambient temperature and humidity are monitored using a DHT22 sensor controlling an incandescent heating lamp, regulated via a hysteresis control algorithm to eliminate rapid actuator chattering near switching thresholds. User interaction and monitoring are supported through a 16x2 LCD screen, input buttons, and a buzzer notification system. Experimental evaluations under controlled laboratory conditions demonstrated high precision, with the automatic feed dispensing system achieving an average accuracy of 99.38% (0.62% relative error) and the water refilling subsystem reaching 99.78% accuracy (0.22% relative error). The heating control subsystem successfully maintained actuator states within the targeted 28.0–30.0°C hysteresis band. Additionally, fault-detection mechanisms properly halted actuators and triggered visual-auditory alerts during simulated sensor anomalies and zero-mass-gain events. These results confirm the functional feasibility and robustness of the standalone automated birdcage, providing a reliable engineering baseline for maintaining optimal avian environmental conditions and basic dietary needs during owner absence.
Rancang Bangun Sistem Kontrol Buck Converter Menggunakan PSO-PI Dan GWO-PI Wahyu Setyo Pambudi; Muhammad Julian Ghani; Yuliyanto Agung Prabowo; Novian Patria Uman Putra; Misbahul Munir; Titiek Suheta
Jurnal Teknologi Elektro Vol. 17 No. 3 (2026)
Publisher : Electrical Engineering, Universitas Mercu Buana

Show Abstract | Download Original | Original Source | Check in Google Scholar | DOI: 10.22441/jte.2026.v17i3.010

Abstract

Perkembangan teknologi energi terbarukan khususnya photovoltaic membutuhkan sistem pengaturan tegangan yang mampu menjaga kestabilan keluaran ketika kondisi sumber berubah. Penelitian ini bertujuan merancang dan membangun sistem kontrol buck converter menggunakan pengendali proportional-integral yang parameternya dioptimasi dengan Particle Swarm Optimization dan Grey Wolf Optimizer. Sistem menggunakan panel photovoltaic sebagai sumber tegangan, modul buck converter LM2596, Arduino Uno sebagai unit pengendali, sensor tegangan dan INA219 sebagai umpan balik, serta lampu DC sebagai beban dengan setpoint 14 V. Optimasi menghasilkan parameter PSO-PI Kp = 0,85 dan Ki = 420,0, sedangkan GWO-PI Kp = 0,92 dan Ki = 520,0. Kinerja kedua metode dibandingkan berdasarkan waktu pemulihan, rata-rata tegangan keluaran, Mean Absolute Error, Root Mean Square Error, error maksimum, bias, Integral Absolute Error, dan Integral Square Error. Hasil pengujian menunjukkan GWO-PI memiliki waktu pemulihan 34 ms, lebih cepat dibandingkan PSO-PI sebesar 40 ms. GWO-PI menghasilkan rata-rata tegangan keluaran 14,017 V, MAE 0,019 V, RMSE 0,023 V, dan bias 0,017 V, sedangkan PSO-PI menghasilkan 14,059 V, MAE 0,059 V, RMSE 0,060 V, dan bias 0,059 V. Ketika tegangan masukan berada di bawah 14 V, kedua metode tidak mampu mempertahankan setpoint karena karakteristik buck converter hanya dapat menurunkan tegangan. Secara keseluruhan, GWO-PI memberikan akurasi tracking dan kemampuan pemulihan yang lebih baik.