INNOVATION DESIGN OF DIGITAL CLINOMETER PAPI (PRECISION APPROACH PATH INDICATOR) ANGLE MEASURER INSTRUMENT AT YOGYAKARTA ADISUTJIPTO INTERNATIONAL AIRPORT

  • Bambang Driyono Politeknik Penerbangan Makassar
  • Muh Nafkar Jaya Politeknik Penerbangan Makassar
Keywords: Digital clinometer, gyroscope sensor, laser, PAPI.

Abstract

Adisucipto International Airport (JOG) has an airside area azimuth Runway (R/W) 09 category PALS (Precision Approach Lighting System) (CAT) I that occurred to be a PAPI flight navigation tool that needs to be maintained so that the slope angle (glideslope) remains at 3°. PAPI (Precision Approach Path Indicator) is a visual aid device that provides pilot guidance information in maintaining the aircraft's position with the correct approach at the landing point (touch down point). The results of ground inspection using an analog clinometer conducted by technicians on November 12, 2019, found a shift in the PAPI angle. The limitations of measuring instruments are an obstacle in checking the PAPI angle. The design of the PAPI angle measuring instrument is necessary to help to check before the calibration (flight inspection) every 6 months. The innovation of a digital clinometer design that combines with digital gyroscope sensor technology and adopts the purposes of an analog clinometer measuring device. The purpose of this research is to design a PAPI angle slope measurement tool with a digital display in degrees. The working principle of this tool uses a laser sensor that can measure the angle slope at a certain distance. Stages of tool design include model design, model simulation, hardware and software design, tool testing, analysis, and outcomes. The method uses functional and structural design. From the results of digital clinometer measurements and flight calibration (flight inspection) of the four boxes (A, B, C, and D), the angular deviation is still within the deviation tolerance limit, meaning that the instrument is still accurate. The conclusion is that a digital clinometer is more practical, efficient, and accurate so that this tool can support ground check testing activities at PAPI at Jogjakarta airport (JOG).

References

Peraturan Menteri Perhubungan Republik Indonesia. (2019). Tatanan Kebandarudaraan Nasional, PM Nomer 39, Jakarta
Peraturan Direktorat Jenderal Perhubungan Udara. (2013). Kriteria Penempatan Peralatan dan Utilitas Bandar Udara, KP Nomer 2, Jakarta
Menurut KP 85 TAHUN 2014, tentang petunjuk dan tata cara penyelenggaraan kalibrasi fasilitas dan prosedur penerbangan (AC 171-5),
Samiaji Sarosa, (2012). Penelitian Kualitatif Dasar-dasar, Jakarta: PT Indeks.
Hastono Wijaya. 2018. Metrologi Industri, Universitas Brawijaya Press, 136 halaman
Ardi Winoto, 2008, Mikrokontroler AVR ATmega8/32/16/8535dan emrogramannya dengan Bahasa C pada WinAVR, Penerbit Informatika, Bandung
Endra Pitowarno, 2005, Mikroprosesor & Interfacing, Penerbit Andi, Yogyakarta
Ruslan Gani, Wahyudi, Iwan Setiawan, (2013), Perancangan Sesnsor Gyroscope dan Accelerometer Untuk Menentukan Sudut dan Jarak, Makalah Seminar Tugas Akhir, UNDIP Semarang.
Hafizhan Abidin Setyowiyoto , Riko Susetia Yuda, Ahmad Faizal Amin , Agung Setianto , Ghafar Ramadhan Faqih , Ahmad Shalahuddin Abdullah. (2015). Integrasi Sensor Elektronik dan Automatic Data Backup pada Kompas Geologi untuk Mempermudah Akuisisi Data Lapangan dan Olah Data Geologi Berbasis Sistem Informasi Geografis, Prodi Elektronika dan Instrumentasi, Jurusan Fisika, FMIPA, Universitas Gadjah Mada, Jogjakarta
Mazidi,Muhammad Ali. 2011. The Microcontroller and Embedded System: Using Assembly and C. Pearson Education, inc: New Jersey.
Muis, Salahudin. 2013. Prinsip Pembangkitan Sinar Laser. Yogyakarta. Penerbit Graha Ilmu.
Published
2020-09-24
How to Cite
Driyono, B., & Nafkar Jaya, M. (2020). INNOVATION DESIGN OF DIGITAL CLINOMETER PAPI (PRECISION APPROACH PATH INDICATOR) ANGLE MEASURER INSTRUMENT AT YOGYAKARTA ADISUTJIPTO INTERNATIONAL AIRPORT. AIRMAN: Jurnal Teknik Dan Keselamatan Transportasi, 3(1), 86-94. https://doi.org/10.46509/ajtkt.v3i1.56