OPTIMALISASI AKURASI MODEL DEEP LEARNING PADA KLASIFIKASI SAMPAH PLASTIK MENGGUNAKAN STRATEGI FINE-TUNING MOBILENETV2

Authors

  • Difilal Syaban Rizkiyan STMIK IKMI Cirebon, Indonesia
  • Dian Ade Kurnia STMIK IKMI Cirebon, Indonesia
  • Yudhistira Arie Wijaya STMIK IKMI Cirebon, Indonesia
  • Nining Rahaningsih STMIK IKMI Cirebon, Indonesia
  • Willy Prihartono STMIK IKMI Cirebon, Indonesia

Keywords:

sampah plastik, MobileNetV2, fine-tuning, klasifikasi citra, deep learning.

Abstract

Pengelolaan sampah plastik yang efektif memerlukan sistem pemilahan otomatis yang andal, terutama pada skenario multi-kelas dengan kemiripan visual tinggi antar jenis plastik. Penelitian ini bertujuan menganalisis pengaruh strategi fine-tuning parsial MobileNetV2 terhadap kinerja klasifikasi tujuh kelas sampah plastik, dengan membandingkannya terhadap model baseline yang hanya melatih classification head pada fitur pra-latih ImageNet. Dataset yang digunakan terdiri atas 3.500 citra sampah plastik yang terbagi seimbang ke dalam tujuh kelas dan dipisahkan menjadi data latih, validasi, dan uji dengan proporsi 70% : 15% : 15%. Seluruh citra di-resize menjadi 256×256 piksel dan diproses melalui augmentasi standar. Model baseline menggunakan MobileNetV2 pra-latih (base dibekukan), global average pooling, dropout, dan lapisan dense 7 kelas, dilatih dengan optimizer Adam (learning rate 1e-3) dan loss sparse categorical cross-entropy. Pada skenario fine-tuning, sekitar 40 lapisan terakhir MobileNetV2 di-unfreeze dan dilatih ulang dengan Adam (learning rate 1e-4) menggunakan konfigurasi data yang sama. Hasil pengujian menunjukkan bahwa model baseline mencapai akurasi 91,62% dan macro F1-score 0,9164, sedangkan model fine-tuning meningkat menjadi akurasi 93,71% dan macro F1-score 0,9370. Temuan ini menunjukkan bahwa fine-tuning parsial MobileNetV2 memberikan peningkatan kinerja yang konsisten tanpa menambah kompleksitas arsitektur inferensi, sehingga relevan untuk diterapkan pada sistem pemilahan sampah plastik otomatis berbasis visi komputer.

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Published

2026-02-01

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