Penentuan Material dan Ketebalan Kritis Isolator Pada Exhaust Pipe Generator Set 350 Kva

Authors

  • Candra Eka Wijayanto Universitas Sangga Buana Author
  • Jejen Jaelani Frihatna Universitas Sangga Buana Author
  • Wisnu Wijaya Universitas Sangga Buana Author

DOI:

https://doi.org/10.32897/techno.2025.18.2.4244

Keywords:

Exhaust Pipe, Heat Transfer Rate, Insulator Material

Abstract

This study aims to determine experimentally the critical thickness and related material of insulator to minimize heat loss of the exhaust pipe in a diesel engine driving a 350 kVA power generator. The method used in this study is an experimental approach. The data collection technique is carried out by direct measurement of temperatures. The heat transfer rate test was carried out by coating the exhaust pipe using two insulator materials, namely insulator A and insulator B. Insulator A used fiberglass tape material which has a value of k = 0,038 W/m.°C. While insulator B uses ceramic fiber material with a value of k = 0,06 W/m.°C. This heat transfer rate data has been then calculated based on the measured data taken using a Fluke type 62 max+ thermometer that can measure temperatures from −30 °C to 650 °C (−22 °F to 1202 °F). The results of the study show that: (1) Insulator material B is more appropriate to minimize heat loss in the exhaust pipe of the diesel engine driving a 350 kVA power generator, with the data obtained that the heat flowing from inside to outside the cylinder at point 1 insulator B = 31,553 W is smaller compared to insulator A = 82,356 W, the heat flowing from inside to outside the cylinder at point 2 insulator B = 31,462 W is smaller compared to insulator A = 79,985 W. The heat lost with the addition of insulator B = 40,923 W is smaller than the insulator A = 89,874 W. (2) The critical thickness to minimize heat loss in the diesel engine driving a 350 KVA power generator is the minimum thickness of insulator material A = 4,75 mm, the minimum thickness of insulator material B = 7,5 mm.

References

Samlawi Ak. Teori Dasar Motor Diesel. J Tek Mesin. 2012;126.

Yani A. Analisis Putaran Mesin Diesel 16 Silinder Menggunakan Alat Dynamometer Terhadap Torsi Mesin, Daya Mesin Dan Komsumsi Bahan Bakar. J Ilm Tek Dan Manaj Ind. 2022;2(2):162–74.

Siregar Ms, Junaidi J, Irwan A, Ibrahim H. Analisis Pemeliharaan Berkala Pada Motor Diesel Generator Set Daya 90 Kva Sebagai Energi Listrik Cadangan Di Upt Rumah Sakit Khusus Paru. Sinergi Polmed J Ilm Tek Mesin. 2022;3(1):55–67.

Gunawan Y, Wartini, Nurbaya F. Upaya Pengendalian Kebisingan Pada Genset 512 Kva. Prepotif J Kesehat Masy. 2024;8(April):992–9.

Siahaan Arjuna. Analisis Overheat Pada Auxiliary Engine No.1 Di Mt.Woolim Dragon. Skripsi. 2021;(1).

Mustiko S. Perancangan Sistem Distilasi Air Laut Dengan Memanfaatkan Panas Gas Buang Mesin Diesel Pada Kapal Penumpang Km. Nggapulu. 2020;

Aulia R, Mayasari D, Saftarina F. Dampak Paparan Panas Di Lingkungan Kerja Terhadap Kesehatan Pekerja. Med Prof J Lampung. 2023;13(3):239–46.

Pradana Zb, Khambali K. Pengaruh Penambahan Variasi Ketebalan Kain Pelapis Knalpot ( Exhaust Wrap) Terhadap Perpindahan Panas Pada Mesin Sepeda Motor 150cc. J Ilm Mhs. 2024;2(4):269–79.

Febriansyah Y. Kajian Visual Drama. J Chem Inf Model. 2015;53(9):1689–99.

Sugiyono D. Metode Penelitian Kuantitatif, Kualitatif, Dan Tindakan. 2013. 189–190 Hal.

Published

2025-10-30