View Standards
EXAM OVERVIEW
It includes ten modules with a total of 160 questions. Candidates are allowed a maximum of 40 incorrect answers to pass the exam.
Format: Online, proctored exam
Duration: 1.5 hours
Passing Score: 75% (120/160 correct answers)
The exam assesses candidates on three dimensions of knowledge:
Factual (What): Understanding key concepts and definitions.
Conceptual (Why): Recognizing the importance and reasoning behind practices.
Procedural (How): Applying methods to real-world scenarios
Exam standards
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1.1. Define the role of PCBs in avionics and military electronics systems.
1.2. Explain common failure modes in aerospace-grade and defense electronics circuit boards.
1.3. Describe MIL-STD standards for PCB rework and repair, with reference to IPC guidelines applicable in civilian aerospace settings.
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2.1. Explain the architecture of avionics systems in military aircraft, UAVs, and civilian aerospace platforms.
2.2. Identify diagnostic tools for avionics troubleshooting, including oscilloscopes, multimeters, and built-in test equipment (BIT).
2.3. Describe common avionics failures and field repair methodologies applicable in deployed and commercial environments.
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3.1. Define military and aerospace-grade soldering standards (MIL-STD-883, IPC-A-610, J-STD-001).
3.2. Explain rework techniques for surface-mount and through-hole components used in tactical and commercial avionics.
3.3. Identify best practices for repairing multilayer and high-density PCBs in mission-critical electronics.
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4.1. Describe methods for tracing and diagnosing circuit failures in avionics, SATCOM, and electronic warfare systems.
4.2. Explain how to test and validate PCB repairs using specialized field and lab equipment.
4.3. Identify electrostatic discharge (ESD) protection procedures in aerospace and military environments.
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5.1. Define RF principles and their applications in aerospace and defense communication systems.
5.2. Explain the role of digital signal processors (DSP) in military avionics, radar, and navigation systems.
5.3. Identify interference mitigation techniques for high-frequency electronics used in both military and civilian applications.
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6.1. Explain cybersecurity risks in avionics and military mission systems.
6.2. Identify tamper detection and data protection methods for aerospace PCBs.
6.3. Describe methods for securing avionics firmware and embedded systems in tactical and commercial settings.
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7.1. Define MIL-STD-810 environmental testing requirements for avionics and military electronics.
7.2. Explain temperature, vibration, and humidity testing for PCB reliability in combat and commercial aviation.
7.3. Describe operational testing methodologies for aerospace and defense electronic components.
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8.1. Identify key electrical system components in military aircraft, UAVs, and commercial aviation.
8.2. Describe best practices for aerospace wiring harness installation and repair.
8.3. Explain electromagnetic interference (EMI) shielding techniques for tactical and commercial avionics.
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9.1. Define MIL-STD, FAA, and EASA standards for avionics repairs, highlighting crossover areas for military and civilian technicians. While knowledge of FAA and EASA regulations is recommended, this course will not test on them.
9.2. Explain safety and documentation requirements for avionics maintenance in defense and civilian aerospace industries.
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10.1. Explain key electrical concepts, including Ohm’s Law, voltage, current, and resistance.
10.2. Describe basic DC/AC circuit principles relevant to avionics and SATCOM systems.
10.3. Identify core electronic components such as resistors, capacitors, transistors, and diodes.
10.4. Note: While foundational electronics knowledge is essential for understanding avionics repair, this course will not include testing on these principles.
