Jurnal TNI Angkatan Udara
https://e-jurnal.tni-au.mil.id/index.php/jpb
<table class="data" width="100%" bgcolor="#c9ded2"> <tbody> <tr valign="top"> <td width="30%">Journal title</td> <td width="70%">: Jurnal TNI Angkatan Udara </td> </tr> <tr valign="top"> <td width="30%">Initials</td> <td width="70%">: jpb</td> </tr> <tr valign="top"> <td width="30%">Abbreviation</td> <td width="70%">: <em>J. TNI AU</em></td> </tr> <tr valign="top"> <td width="30%">Frequency</td> <td width="70%">: 4 issues per year (February, May, August, and November)</td> </tr> <tr valign="top"> <td width="30%">Prefix DOI</td> <td width="70%">: 10.62828/jpb </td> </tr> <tr valign="top"> <td width="30%">e-ISSN / p-ISSN</td> <td width="70%">: 2809-5723 / 2809-5464</td> </tr> <tr valign="top"> <td width="30%">Editor In Chief</td> <td width="70%">: Marsma TNI Dr. Nur Priyanto P., M.Pd.</td> </tr> <tr valign="top"> <td width="30%">Publisher</td> <td width="70%">: Staf Komunikasi dan Elektronika, TNI Angkatan Udara</td> </tr> </tbody> </table> <p>Jurnal TNI Angkatan Udara (jpb) is a multidisciplinary journal in science and technology applications in various aspects. jpb publishes original research articles, review articles (only selected/invited authors), as well as short communication. jpb covers the following topics, but it is not limited to:<br />1. Frontier Technology (especially Aeronautics and Air Space technology)<br />2. Applied Natural Sciences (Chemistry, Physics, Biology) in all aspects<br />3. Applied Formal Sciences (Mathematics, statistics, actuarial) in all aspects<br />4. Material Science for military and defense<br />5. Research about STEM<br />jpb is published four times a year in February, May, August, and November. </p> <p> </p>Staf Komunikasi dan Elektronika, TNI Angkatan Udaraid-IDJurnal TNI Angkatan Udara2809-54641. DEGREE OF SUPERIORITY IN AIR OPERATIONS THEORETICAL ANALYSIS, DETERMINING FACTORS, AND STRATEGIC CASE STUDY
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/195
<p>This study aims to analyze the degree of air superiority, a strategic concept that<br />plays a central role in the planning and implementation of modern air operations. This term<br />refers to the degree of control of an air force over a specific area that allows the execution of<br />missions without significant interference from opposing air forces. In general, the degree of air<br />superiority is classified into three categories: air parity, air superiority, and air supremacy, each<br />of which indicates a different degree of dominance over potential enemy air threats. Air<br />dominance is a strategic prerequisite that determines the outcome of modern conflicts. The<br />concept of degree of superiority evolves along with changes in technology, doctrine, and the<br />complexity of global geopolitics. In the context of air operations, achieving degree of air<br />superiority is influenced by various factors, including technological capabilities, the<br />effectiveness of air defense systems, information mastery, and the efficiency of command,<br />control, communications, computers, intelligence, reconnaissance, and surveillance (C4ISR)<br />systems. The interaction of these factors contributes to the success of joint operations and the<br />ability to maintain long-term air dominance. Effective air superiority also directly impacts the<br />freedom of action of one's own forces in conducting cross-service operations. A<br />comprehensive understanding of the degree of air superiority is a key factor in strategic<br />decision-making at the operational level. Integration of technological capabilities, information<br />superiority, and cross-service coordination is necessary to achieve sustainable air dominance.<br />Therefore, analyzing the degree of air superiority is not only crucial for tactical purposes but<br />also serves as the basis for developing comprehensive air defense doctrine and strategy. This<br />article discusses the theoretical framework in depth, the factors influencing its achievement,<br />and presents case studies from various conflicts ranging from World War II to potential conflicts<br />in the Indo-Pacific. This study confirms that successfully achieving air superiority depends not<br />only on air power alone, but also on multi-domain integration, defense industry readiness, and<br />political and diplomatic support.</p>Andri GandhySurosoRonnySamsul BahriMuchammadDikatama TsaniaSupriyanto KemalKusuma Safarie
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.1952. CYBER VULNERABILITY MITIGATION IN WI-FI NETWORKS: INTEGRATION OF PENETRATION TESTING, SOCIAL ENGINEERING, AND SECURITY AWARENESS IN XYZ EDUCATIONAL INSTITUTION
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/196
<p>This study aims to empirically and comprehensively assess security vulnerabilities<br />in military Wi-Fi networks at the XYZ defense educational institution, encompassing technical<br />aspects (penetration testing with Aircrack-ng, WPA2 encryption analysis) and human factors<br />(social engineering, personnel security awareness). A convergent mixed-methods approach<br />was used to integrate quantitative and qualitative data. Penetration testing conducted at four<br />strategic locations revealed that 75 percent of the network could be breached in less than 130<br />minutes due to weak passwords with low entropy (less than 60 bits) and default configurations.<br />Meanwhile, a survey of 50 personnel showed that 80 percent were unable to accurately identify<br />phishing attacks before training, and 65 percent were vulnerable to pretexting scenarios.<br />Vulnerability analysis using the CIA Triad framework revealed violations of Confidentiality (40<br />percent of traffic could be intercepted within 30m), Integrity (20 percent of the network was<br />vulnerable to Man-in-the-Middle), and Availability (DoS through deauthentication closed 80<br />percent of active sessions). hese findings indicate that the human factor is the biggest<br />vulnerability (95 percent of global cyber breaches originate from human error or manipulation).<br />Therefore, mitigation recommendations are integrative and multi-layered, encompassing<br />technical interventions (migration to WPA3 with SAE, implementation of RADIUS and Snort<br />IDS), behavioral interventions (regular awareness training and monthly phishing simulations),<br />and organizational interventions (establishment of a 24/7 CSOC). This integrated framework<br />is estimated to reduce attack success by 70 percent, which is crucial for creating military cyber<br />resilience in accordance with the spirit of Sishankamrata and Permenhan No. 82/2014<br />concerning Cyber Defense.</p>FirmansyahMuhammad FahruroziRezha Fauzi RamadhanKurniawanSurosoDwikatama
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.1963. APU STARTER MOTOR RELIABILITY ANALYSIS P/N 2704506 – 4 AIRBUS A320S USING WEIBULL DISTRIBUTION AND FAILURE MODE AND EFFECT ANALYSIS AT PT INDONESIA AIRASIA
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/190
<p>This study aims to determine the reliability value and failure characteristics of<br />the APU starter motor P/N 2704506-4, as well as to identify the failure mode qualitatively to<br />provide improvement recommendations for PT Indonesia AirAsia. The starter motor in the<br />auxiliary power unit (APU) is a vital component that functions to start the operating cycle.<br />The method used is a mixed method, with quantitative analysis through processing historical<br />time to failure data from 20 unscheduled removal cases using the Weibull distribution, and<br />qualitative analysis through failure mode and effect analysis. Data were obtained from the<br />Aircraft Maintenance Manual, Component Maintenance Manual, and semi-structured<br />interviews with engineers. The analysis results show a value of β = 2.029 (β>1) which<br />indicates a wear-out failure pattern. The scale parameter η recorded 3,095.71 flight hours<br />with a mean time to failure of 2,742.85 hours. Reliability projections show that at 2,800 hours,<br />reliability drops to 44.23% with a failure probability of 55.77%. The FMEA analysis identified<br />three failure modes: brush wear, terminal winding burn, and oil contamination. Of these,<br />brush wear was the dominant failure mode, with 12 cases and the highest RPN value (252).<br />The study concluded that starter motor failure is predictive and dominated by brush wear.<br />The primary recommendation is to transition to a preventive maintenance strategy through<br />visual inspection of brush wear indicators and scheduled replacement at 2,500–2,600 flight<br />hours to reduce unscheduled removals and increase aircraft availability.</p>Yogi PrismaCaesar PradewaFeti FatonahDjoko HerwantoDesiana PutriMuchammad FurqonSurosoDikasitama
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.1904. PNEUMATIC TEMPERATURE SENSOR FAILURE ANALYSIS P/N 767C0000-01 ON AN AIRBUS 330-300 AIRCRAFT AT PT GMF AEROASIA
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/193
<p>This study aims to analyze the causes of sensor failure at PT GMF AeroAsia<br />Tbk. The methodology used was observation, interviews, and document analysis. Modern<br />aircraft rely heavily on reliable support systems, including pneumatic systems for regulating<br />cabin temperature and safety. On an Airbus A330-300, a problem with the pneumatic<br />temperature sensor was found, with corrosion on the sensor rod resulting in inaccurate<br />temperature readings that could impact flight safety. This study aimed to analyze the causes<br />of sensor failure at PT GMF AeroAsia Tbk. The methodology used was observation,<br />interviews, and document analysis. Data were analyzed using Pareto charts and Fault Tree<br />Analysis to identify the root cause. The results indicated that corrosion was the primary<br />cause, exacerbated by environmental factors, weak inspection procedures, and a lack of<br />technician understanding. In conclusion, the sensor failure was caused by a combination of<br />technical, procedural, and human factors. This research helps develop better aircraft<br />maintenance strategies to improve safety.</p>Muhammad GhaniAl HafidzEgo WidoroBenny KurniantoiMuchammad FurqonKurniawanTia Dikatama
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.1935. WEATHER RADAR SYSTEM FAILURE ANALYSIS ON AN AIRBUS 320-200 AIRCRAFT AT PT GMF AEROASIA USING FMEA AND RCA TO IMPROVE RELIABILITY AND SAFETY
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/189
<p>This study aims to analyze the failure of the Weather Radar System using a<br />mixed-methods sequential explanatory approach. Flight safety is highly dependent on the<br />reliability of avionics systems, one of which is the Weather Radar System that functions to<br />detect extreme weather phenomena. Damage to this system is categorized as a no-go item<br />in the MEL and based on data from the Top Delay Report of PT GMF Aero Asia Tbk for the<br />period 2020–2024, it ranks fifth as the highest cause of delays on the Airbus A320-200, with<br />341 failure reports. The quantitative stage uses Failure Mode and Effects Analysis (FMEA)<br />and Pareto Diagrams to identify critical components, while the qualitative stage uses Root<br />Cause Analysis (RCA) and Fishbone Diagrams to explore the root causes of failure. The<br />results show that the Transceiver is the most problematic component with 39% of<br />unscheduled removals with the dominant failure mode being Intermittent Signal with an RPN<br />value of 336. RCA reveals the main causal factors including human error, non-compliance<br />with procedures, limited tools, low material quality, and exposure to extreme environments.<br />Recommendations for improvement include improving technician competency, tool<br />procurement and calibration, stringent material vendor selection, and system protection from<br />extreme weather. This research is expected to support increased maintenance effectiveness,<br />reduce delays, and strengthen the safety culture at GMF.</p>Alfina RahmawatiBhima Shakti ArrafatMuhamad Faridh Al FarisyMuchammad FurqonMuqdhatasTia Tsania
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.1896. INCREASING LARGE-SCALE AGRICULTURAL EFFICIENCYWITH THE DJI AGRAS T25 DRONE: A CASE STUDY IN CILEGON
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/197
<p>This study aims to compare the effectiveness of large-scale irrigation of eggplant<br />(Solanum melongena L.) in Ciwandan, Cilegon, using the DJI Agras T25 Drone (as Precision<br />Agriculture) and the Conventional Method (using 3 workers and a water pump). The variables<br />measured are time efficiency, labor effi ciency, water efficiency, operational costs, and crop<br />productivity during one planting season. The results show that the use of drones can save 85%<br />of time and reduce operational labor costs per watering session, with yields that are not<br />statistically significantly different. The operational efficiency offered by drones makes this<br />method superior for the sustainability and profitability of large-scale agriculture</p>Muchammad FurqonAhmad Ilham KamalFerdy SusantoMuchdatasRayhan KemalSalsabila
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.1977. A COMPARATIVE ANALYSIS OF SPUKTA REGULATIONS: A STUDY OF VLOS OPERATIONAL PROCEDURES IN CONTROLLED AIRSPACE BETWEEN THE FAA, EASA, AND DGCA INDONESIA
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/198
<p><em>This study aims to critically analyze and compare the SPUKTA VLOS operational</em><br /><em>procedure framework in the Control Area established by three major aviation authorities: the</em><br /><em>Federal Aviation Administration (FAA), the European Union Aviation Safety Agency (EASA),</em><br /><em>and the Directorate General of Civil Aviation (DGCA) Indonesia. The integration of Small</em><br /><em>Unmanned Aircraft Systems (SPUKTA) or drones into civil airspace, particularly in the Control</em><br /><em>Area (CTR), requires strict and uniform operational procedures. The most common Visual Line</em><br /><em>of Sight (VLOS) operations pose a high risk in controlled airspace if not properly regulated.</em><br /><em>Using a descriptive qualitative method with comparative content analysis of primary regulatory</em><br /><em>documents (FAA Part 107, EASA Reg. (EU) 2019/947, pm 37 of 2020 and PM 63 of</em><br /><em>2021/CASR Part 107 Indonesia), the comparison focuses on five key procedural variables:</em><br /><em>Operational Clearance Mechanism, Operational Altitude Limit, Pilot Communication</em><br /><em>Requirements, Time Window Provisions, and Pre-flight Procedures. The results show that</em><br /><em>while the FAA and EASA offer mature systems (automated LAANC vs. risk-based Geozone),</em><br /><em>the Indonesian DGCA relies on manual permitting processes and local authority discretion.</em><br /><em>This disparity indicates a gap in regional automation and standardization. This study</em><br /><em>recommends that the Indonesian DGCA consider implementing a real-time authorization</em><br /><em>system and digital Geozone to improve compliance and efficiency of VLOS SPUKTA</em><br /><em>operations in the Control Area.</em></p>Muchammad FurqonAhmad IlhamFerdy SusantoKamal MuchdatasSurosoSalsabila
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2026-03-032026-03-035110.62828/jpb.v5i1.1988. DESIGN OF AN IOT-BASED REMOTE MONITORING SYSTEM FOR YOGYAKARTA AIRPORT LOCALIZER WITH AUTOMATIC CHANGEOVER AND REAL-TIME NOTIFICATION FEATURES
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/188
<p><em>This research on remote monitoring design aims to determine the condition and</em><br /><em>control the Localizer equipment in normal or alarm conditions. It can also assist in changing</em><br /><em>over during ground checks, accessible via smartphone using the Blynk app. This design uses</em><br /><em>an optocoupler sensor to detect the electrical current flowing through the LEDs on the Localizer</em><br /><em>Remote Control Unit (RCU). This allows the indicator readings to be sent to the Internet of</em><br /><em>Things (IoT) using a NodeMCU Wi-Fi module that communicates serially with an Arduino. The</em><br /><em>IoT functions to display real-time conditions and control the Localizer equipment in normal or</em><br /><em>alarm conditions, accessible via smartphone using the Blynk app. The tool I will design is an</em><br /><em>Internet of Things-based remote monitoring localizer. It is hoped that this remote monitoring</em><br /><em>tool will facilitate technicians in determining the condition of the Localizer and assist in changing</em><br /><em>over during ground checks.</em></p>Muchammad FurqonOki Tri RizkiRakin GhiyatKurniawanRayhan KemalTia Tsania
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2026-03-032026-03-035110.62828/jpb.v5i1.1889. STRATEGIES, CHALLENGES, AND IMPLEMENTATION OF GENDER EQUALITY IN THE POLICE
https://e-jurnal.tni-au.mil.id/index.php/jpb/article/view/194
<p>This study aims to analyze the implementation of gender mainstreaming policies<br />within the Indonesian National Police (Polri) and identify challenges and gaps in their<br />implementation. This study uses a qualitative approach with descriptive analysis methods to<br />evaluate how the Indonesian National Police (Polri) has integrated gender equality principles<br />into its operations and human resource policies, including policy documents, internal reports,<br />and interviews with Polri personnel. The results indicate that although the Polri has<br />demonstrated its commitment to gender mainstreaming through the issuance of Police Chief<br />Regulation Number 1 of 2022, its implementation remains suboptimal. Significant disparities<br />exist between male and female police officers in recruitment, promotion, and job placement.<br />Female police officers (Polwan) often face certain limitations not experienced by male police<br />officers (Polki), such as specific recruitment criteria and a lack of opportunities for open<br />promotions. Consequently, the majority of female police officers remain confined to<br />administrative and health roles, with few reaching senior leadership positions.</p>Erika Merdiana ArmonoSyamsunasirKerta WidanaWaspada Tedja BhirawaSurosoDwikatama
Hak Cipta (c) 2026 Jurnal TNI Angkatan Udara
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2026-03-032026-03-035110.62828/jpb.v5i1.194