Design A Model of A Windfield With 12 Inch Blade Sizes

Giovane Nafico, Estu Prayogi, Hary Soebagyo

Abstract

The design of this windmill model is made to be able to design how effective the windmill is in producing rpm and power values, especially 12 inch blades. The design method carried out is the planning method and continued with experimental testing. While the design method used is the design with the Pahl & Beitz method, starting from planning and task explanation, product concept planning, shape design and detail design. Supported through several supporting applications, namely solid works, ansys, and AutoCAD, as well as analysis of calculations carried out through formulas obtained in several references through the resulting numbers we can find the absolute value of speed, power and rpm and blades of windmill blades. The calculation analysis obtained becomes a reference in making the blade to get the most effective blade in order to produce the maximum appropriate value. This research uses 12 inch blades and a blower with a maximum power of 300 rpm. The turbine design results obtained through ansys simulation have the highest value of 13.6 m / s on the vertical shaft windmill and 52.2 m / s on the horizontal shaft windmill. While in the calculations obtained through windmill design experiments, the amount of windmill rpm obtained depends on the amount of rpm generated by the blower. The greater the rpm generated by the blower, the greater the windmill rpm value. Similarly, the value of windmill speed is the greater the rpm generated by the windmill, the greater the value of the windmill speed. The blower used is a blower that produces the highest rpm of 2900 rpm. Then the highest resulting wind is 5.03 m/s. In addition to the above calculations, testing was also carried out using the application, namely Ansys, where the maximum effective value was obtained to be able to produce windmills. The maximum speed value obtained through the ansys application is 42.55 km/s. 

Keywords

Windmill, ansys, design, speed, rpm, power

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References

. Stepanus, dkk. Energi Angin Sebagai Sumber Daya Listrik Data Recovery Center. Jurnal Lektrokom Vol. 1 Oktober, 2018.

. G pahl, w. Beitz, J.feldhusen, dan k. H. Grote, Engineering design, Berlin: Springer, 2007.

. Eko S., Perancangan Kincir Angin Sumbu Vertikal Dengan Daya 161 Watt. University of Muhammadiyah Malang, 2018.

. Pamungkas D., Unjuk Kerja Kincir Angin Poros Horizontal Dua Sudu Berbahan Komposit, Diameter 1 M, Dengan Variasi Berat Sudu. Universitas Sanata Dharma. Yogyakarta, 2018.

. Bahri.S&Suheri., Pengujian Unjuk Kerja Kincir Angin Type Savonius Dua Tingkat Delapan Sudu Lengkung U. Jurnal Ilmiah Jurutera Vol.01 No.01 (06.2014) 050–055. Universitas Samudra Aceh, 2014.

. Antony, Z., Mesin Listrik Dasar. ITP Press. Padang Sumatera Barat, 2018.

. BMKG. Peralatan Meteorologi. [ONLINE] https://bmkgkotim.info/peralatanmeteo/#:~:text=Anemometer,Anemometer%20merupakan%20alat&text=Alat%20ini%20berfungsi%20untuk%20mengetahui,yang%20merupakan%20arah%20datangnya%20angin. [Diakses 27 September 2022]

. Budiyono. Aditya, Pengaruh Modifikasi Noken As Suzuki Satria F150 Menggunakan Bearing (Needle Roller Bearing) Terhadap Perubahan Torsi Dan Puncak Tenaga (Peak Power). Program Studi Teknik Mesin Otomotif Politeknik Muhammadiyah Pekalongan. Surya Teknika, 2018 Vol. 2 No. 1 April, 2018.

. Hartono., Jelajah Bumi dan Dunia semesta. PT Grafindo Media Pratama. Jakarta, 2012.

. Enny., Tachometer Laser, Pemakaian Dan Perawatannya. METANA. Juni 2017 Vol. 13(1):7-12. Universitas Diponegoro, 2017.

. Alexin & Yoga. Alat Ukur Daya Untuk Kincir Angin Sumbu Vertikal. Seminar Nasional XIX Rekayasa dan Aplikasi Teknik Mesin di Industri Kampus Itenas Bandung, 2020.

. Dewi H, Computer Aided Design/Computer Aided Manufacture. Jurnal Teknologi Informasi Dinamik X, No. 1. 3 September 2005. 143-149. Universitas Stikubank. Semarang. 2005.

. Handoko., Analisis Efisiesni Blower Mesin Pengering Padi dengan Daya Penggerak 1000 RPM dan 818 RPM di CV Jasa Bhakti Karawang. Jurnal Ilmiah Wahana Pendidikan Vol. 8, No.8. Universitas Singaperbangsa Karawang, 2022.

. Tole dkk. Konversi Energi. LPPI Universitas Ahmad Dahlan, 2019.

. FG Fadlullah., Kandungan Polimer pada Polivynil klorida. Jurnal Teknik Universitas Islam Indonesia, 2019.

. Oskarsdottir, Margret Osk, A general Descriptiom and Comparison of Horisontal Axis Wind Kincires and Vertikal Axis Wind Kincire, Faculty of Industrial Engineering, Mechanical Engineering and Computer Science University of Iceland. 2014.

. Zulhasbin., Analisa Numerik Kincir Angin Horizontal Kapasitas 30 Watt Menggunakan Software Ansys. Tugas Akhir. Universitas Muhammadiyah Sumatera Utara. Medan. 2021

. Ekky.R., Analisis Dan Pemodelan Savonius Vertical Axis Wind Kincire Dengan Variasi Blade Terhadap Aliran Udara Dengan Metode Cfd (Computational Fluid Dynamics). Institut Teknologi Sepuluh Nopember. Surabaya. 2018.

. Taufik.A., Design Of Three Blade Horizontal Axis Wind Turbine With Capacity 3 MW. Universitas Pancasila. Jakarta. 2017.

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