Ananta, Ivan Rajendra Darryl (2026) Analisis Stabilitas Frekuensi pada Sistem Interkoneksi Ambon–Seram Tahun 2033 dengan Penerapan Synchronverter Berbasis SYNDEM. Masters thesis, Institut Teknologi Sepuluh Nopember.
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Abstract
Tesis ini meneliti stabilitas frekuensi pada sistem tenaga listrik interkoneksi Ambon–Seram tahun 2033 di bawah penetrasi tinggi pembangkit energi terbarukan berbasis inverter dan penyimpanan energi baterai. Dimulai dari kasus dasar tahun 2025 yang telah divalidasi, studi ini mengembangkan model jaringan tahun 2033 melalui peramalan beban, perluasan sistem bertahap, integrasi energi terbarukan, dan interkoneksi kabel laut, kemudian mengevaluasi sistem di bawah kondisi operasi puncak siang dan puncak malam menggunakan simulasi aliran beban dan dinamika RMS di DIgSILENT PowerFactory. Penilaian dinamis mempertimbangkan tiga gangguan parah, yaitu hilangnya generator terbesar, hilangnya beban terbesar, dan hilangnya kedua sirkuit kabel laut Ambon–Seram secara bersamaan, dan membandingkan empat kronologi pemodelan: model dasar, model pembangkit, konverter sinkron, dan SYNDEM. Hasil menunjukkan bahwa model dasar memberikan respons frekuensi terlemah dan paling tidak realistis, sementara peningkatan model pembangkit meningkatkan stabilitas tetapi tidak selalu memberikan pemulihan yang memadai dalam kasus sistem terpisah yang paling parah. Kontrol sinkronverter secara konsisten meningkatkan frekuensi nadir, mengurangi RoCoF, dan mendekatkan frekuensi pasca-gangguan ke nilai nominal. Kinerja keseluruhan terbaik diperoleh dengan pendekatan SYNDEM, di mana sumber daya berbasis inverter dimodelkan sebagai sinkronverter dan beban direpresentasikan sebagai beban yang terdemokratisasi. Dalam kasus yang paling kritis, yaitu hilangnya interkoneksi Ambon–Seram pada operasi hari puncak, SYNDEM adalah satu-satunya pendekatan yang mempertahankan pemulihan frekuensi yang dapat diterima di kedua subsistem, menunjukkan potensi kuatnya untuk memperkuat interkoneksi terisolasi dengan inersia rendah dan penetrasi energi terbarukan yang tinggi.
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This paper investigates frequency stability in the 2033 Ambon–Seram interconnected power system under high penetration of inverter-based renewable generation and battery energy storage. Starting from a validated 2025 base case, the study develops a 2033 network model through load forecasting, staged system expansion, renewable integration, and submarine-cable interconnection, then evaluates the system under peak-day and peak-night operating conditions using load-flow and RMS dynamic simulation in DIgSILENT PowerFactory. The dynamic assessment considers three severe disturbances, namely loss of the largest generator, loss of the largest load, and simultaneous loss of both Ambon–Seram submarine-cable circuits, and compares four modeling chronologies: baseline, plant model, synchronverter, and SYNDEM. The results show that the baseline model gives the weakest and least realistic frequency response, while plant-model enhancement improves stability but does not always provide adequate recovery in the most severe split-system cases. Synchronverter control consistently improves nadir frequency, reduces RoCoF, and brings the post-disturbance frequency closer to nominal values. The best overall performance is obtained with the SYNDEM approach, where inverter-based resources are modeled as synchronverters and loads are represented as democratized loads. In the most critical case, namely the loss of the Ambon–Seram interconnection under peak-day operation, SYNDEM is the only approach that maintains acceptable frequency recovery in both subsystems, demonstrating its strong potential to strengthen low-inertia islanded interconnections with high renewable penetration.
| Item Type: | Thesis (Masters) |
|---|---|
| Uncontrolled Keywords: | Ambon-Seram, EBT, Stabilitas, Synchronverter |
| Subjects: | T Technology > TK Electrical engineering. Electronics Nuclear engineering > TK1010 Electric power system stability. Electric filters, Passive. |
| Divisions: | Faculty of Intelligent Electrical and Informatics Technology (ELECTICS) > Electrical Engineering > 20101-(S2) Master Thesis |
| Depositing User: | Ivan Rajendra Darryl Ananta |
| Date Deposited: | 23 Jul 2026 04:14 |
| Last Modified: | 23 Jul 2026 04:14 |
| URI: | http://repository.its.ac.id/id/eprint/135553 |
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