Development of a wind turbine for a hybrid solar-wind power system

Adetunla, Adedotun; Rominiyi, O. L.; Adaramola, Bernard Akindade; Adeoye, Adeyinka O.M.

doi:10.1016/j.heliyon.2022.e11458

Cited by 8 publications

(3 citation statements)

References 11 publications

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“…With that in mind, a possible solution that several authors have proposed is hybridization, i.e., combining multiple concepts in one. Some examples include combining wave and wind energy [128][129][130], wind and solar [131,132], fuel cells, wave and solar [133], as well as combining wave-energy harvesting concepts [134,135]. Within the existing hybrid WECs, the h-WEC stands out as a promising solution for integration into rubble-mound breakwaters [18] that has higher efficiencies for a broader range of wave conditions when compared to standalone solutions [136], which reduces overtopping rates of the structure by about 50% [26].…”

Section: Hybrid Devicesmentioning

confidence: 99%

Blue Seaports: The Smart, Sustainable and Electrified Ports of the Future

et al. 2023

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Seaports are at the forefront of global trade networks, serving as hubs for maritime logistics and the transportation of goods and people. To meet the requirements of such networks, seaport authorities are investing in advanced technologies to enhance the efficiency and reliability of port infrastructures. This can be achieved through the digitalization and automation of core systems, aimed at optimizing the management and handling of both goods and people. Furthermore, a significant effort is being made towards a green energy transition at seaports, which can be supported through marine renewable sources. This promotes energy-mix diversification and autonomy, whilst reducing the noteworthy environmental footprint of seaport activities. By analyzing these pertinent topics under the scope of a review of container-terminal case studies, and these ports’ respective contexts, this paper seeks to identify pioneering smart seaports in the fields of automation, real-time management, connectivity and accessibility control. To foster the sustainable development of seaports, from an energy perspective, the potential integration with marine renewable-energy systems is considered, as well as their capabilities for meeting, even if only partially, the energy demands of seaports. By combining these fields, we attempt to construct a holistic proposal for a “model port” representing the expected evolution towards the seaports of the future.

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Section: Hybrid Devicesmentioning

confidence: 99%

Blue Seaports: The Smart, Sustainable and Electrified Ports of the Future

et al. 2023

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“…Trials were carried out with a capacity of 200 Wp (solar panel) and 2kW (wind turbine) with an electricity production of ±290 kWh/year. Wind turbines are not yet optimal in their development because they are related to wind resources, appropriate systems/methods, and appropriate infrastructure [12]. Hybrid solar power and pilot-scale wind power are used for utilization for lighting and aesthetics above the Jakabaring Campus rectorate building.…”

Section: Spp Developmentmentioning

confidence: 99%

Solar Electricity Energy: Utilization of Renewable Energy Sources to Realize a Sustainable Campus at UIN Raden Fatah Palembang

Khodijah,

Putro,

Hadi

et al. 2023

J. Sustainability Perspect.

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Universities play an essential role in achieving Indonesia's 2060 carbon-neutral target. Emissions in the campus are mainly sourced from its electrical energy, transportation, and water use, along with other wastes. Electrical energy from solar is renewable energy, free from pollutants and noise pollution. This paper examines the sustainable energy performance of solar energy at the Universitas Islam Negeri Raden Fatah Palembang (UINRFP) and its development efforts. From August 2022 to March 2023, a solar power plant (SPP) operation with a capacity of 7.74 kWp has generated 6,281.5 kWh of electricity (28.55 kWh/day). Using a radiation factor of 0.8 and an equivalent sun hour of 4.61 (3-5 hours/day), the rooftop capacity of all buildings on Jakabaring Campus is 2,000 kWp, the potential of SPP electricity of UINRFP will exceed 39.3% compared to the 2022 electricity demand. If the capacity is, half the electricity generated from renewable energy meets 70% of the demand. Gradually UINRFP continues to develop its energy sources towards sustainable energy. The development of other research-scale renewable energy with hybrid solar energy and wind power for the aesthetic lighting function on the rectorate building has the potential to generate 290 kWh/year. In addition, micro-hydro energy sources from campus canals (water volume ±9,400 m3) and biomass are potential renewable energy sources at UINRFP for a sustainable campus in the future and contributing to reducing the impact of climate change.

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“…Potensi energi angin di Indonesia dengan kecepatan angin rata-rata sekitar 3 s.d 5 m/s dan total daya yang dapat dibangkitkan sebesar 9.290 MW, ini merupakan salah satu potensi energi yang cukup besar, mengingat di Indonesia hanya memanfaatkannya sekitar 1% dari potensinya (Bachtiar & Hayyatul, 2018). Tantangan yang dihadapi tenaga angin sebagai sumber energi alternatif adalah ketidakpastian sumber daya dalam ketersediaannya (Adetunla et al, 2022).…”

Section: A Pendahuluanunclassified

ANALISIS POTENSI ANGIN DI KECAMATAN JATEN KABUPATEN KARANGANYAR BERBASIS INTERNET OF THINGS (IoT)

Adiputra

2023

NOZEL

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Penelitian ini bertujuan untuk mengidentifikasi rekomendasi turbin angin yang sesuai untuk pengukuran berdasarkan potensi angin di Kabupaten Jaten. Penelitian ini menggunakan metode eksperimen. Sumber data untuk penelitian ini meliputi pengukuran kecepatan dan arah angin yang diperoleh menggunakan mikrokontroler berbasis IoT. Purposive sampling digunakan untuk mengumpulkan sampel. Alat yang digunakan untuk pengambilan data terdiri dari anemometer untuk mengukur kecepatan angin dan wind vane untuk menentukan arah angin. Data dianalisis secara deskriptif dan kuantitatif. Hasil kajian menunjukkan kecepatan angin rata-rata tertinggi teramati pada ketinggian 10 meter Di Kabupaten Jaten kecepatan angin rata-rata 0,47 m/s, dengan kecepatan tertinggi 3,38 m/s. Arah angin dominan bertiup dari Tenggara ke Barat. Potensi angin di daerah ini tidak cukup tinggi untuk dimanfaatkan secara efektif sebagai sumber energi angin yang signifikan karena besarnya yang rendah. Dalam konteks Kabupaten Jaten, kincir angin Savonius vertikal direkomendasikan untuk memanfaatkan kecepatan angin rendah. Jenis turbin Savonius yang dapat digunakan seperti turbin Savonius tipe Helical 2 bilah dengan end plate memiliki kecepatan potong 1,906 m/s dan turbin Savonius tipe S 2 bilah dengan penambahan 4 sirip memiliki kecepatan potong 1,8 m/s.

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Development of a wind turbine for a hybrid solar-wind power system

Cited by 8 publications

References 11 publications

Blue Seaports: The Smart, Sustainable and Electrified Ports of the Future

Blue Seaports: The Smart, Sustainable and Electrified Ports of the Future

Solar Electricity Energy: Utilization of Renewable Energy Sources to Realize a Sustainable Campus at UIN Raden Fatah Palembang

ANALISIS POTENSI ANGIN DI KECAMATAN JATEN KABUPATEN KARANGANYAR BERBASIS INTERNET OF THINGS (IoT)

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