What is a QA Engineer at & General Intuition?

The QA Engineer role at & General Intuition—specifically operating as a Senior Flight Test Engineer—is a highly specialized and critical position. You are not just testing software in a vacuum; you are validating complex, safety-critical systems where hardware and software intersect. Your work directly ensures the reliability, performance, and safety of our advanced flight systems before they ever reach the real world.

In this role, your impact on the business is absolute. You act as the final gatekeeper for product integrity, translating high-level engineering requirements into rigorous, real-world test plans. Because our products operate in physical environments with strict safety margins, the QA Engineer must possess a deep understanding of aerospace principles, systems integration, and automated testing frameworks.

You will collaborate closely with cross-functional teams, including embedded software engineers, hardware designers, and regulatory compliance experts. Operating primarily out of our Ann Arbor, MI facility, you will face challenges that require both strategic test design and hands-on, tactical execution. Expect a dynamic environment where your ability to anticipate edge cases and manage physical testing operations will directly influence our product launch timelines and overall market success.

Common Interview Questions

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Getting Ready for Your Interviews

Preparing for the Senior Flight Test Engineer interview requires a shift in mindset from traditional software QA. You must demonstrate a holistic understanding of how code behaves when deployed on moving, physical assets.

Systems Engineering & Integration – We evaluate your ability to look at a complex vehicle or flight system as a whole. Interviewers will test whether you understand how a failure in one subsystem (like a sensor payload) cascades into another (like flight control software), and how you design tests to catch these interactions.

Test Design & Execution – This measures your core competency in building comprehensive test plans from scratch. You must show that you can define clear pass/fail criteria, design both simulated and live-flight test scenarios, and build automated scripts to process the resulting telemetry data.

Safety & Risk Management – Safety is the foundational pillar of & General Intuition. You will be assessed on your risk assessment methodology, your familiarity with safety-critical compliance standards, and your courage to halt operations if safety parameters are compromised.

Cross-functional Leadership – As a senior engineer, you are expected to lead by example. We look for candidates who can effectively communicate testing bottlenecks to software teams, mentor junior engineers, and drive a culture of uncompromising quality across the organization.

Interview Process Overview

The interview loop for a QA Engineer at & General Intuition is rigorous, multi-layered, and heavily focused on real-world application. You will typically begin with an initial recruiter screen to align on your background, location expectations in Ann Arbor, and high-level technical fit. This is followed by a deep-dive technical phone screen with a senior engineering leader, where you will discuss your past flight test campaigns and systems integration experience.

If you progress to the onsite stage, expect a comprehensive panel of interviews spanning technical, operational, and behavioral domains. You will meet with systems engineers, software developers, and product managers. The onsite process is designed to simulate the collaborative, high-stakes environment of a live flight test. We emphasize data-driven decision-making, so expect to be handed sample telemetry data or hypothetical system architectures and asked to design a test campaign on the spot.

What makes our process distinctive is the intense focus on physical-world variables. We do not just want to know if you can write a test script; we want to know how you handle unpredictable weather conditions, hardware degradation, and sensor noise during a live operation.

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This visual timeline outlines the progression from your initial screening calls through the comprehensive onsite panel. Use this to pace your preparation, ensuring you review core systems engineering concepts early while saving your behavioral and leadership examples for the final onsite rounds. Notice that the onsite stage balances technical whiteboarding with operational safety assessments, reflecting the dual nature of the Senior Flight Test Engineer role.

Deep Dive into Evaluation Areas

Your interviewers will probe deeply into several core competencies. Understanding these areas will help you structure your responses and highlight the most relevant parts of your experience.

Flight Test Planning & Execution

This area evaluates your hands-on experience in bringing a test from concept to the flight line. Interviewers want to see that you can take abstract product requirements and translate them into a concrete, executable flight test card. Strong performance here means demonstrating a methodical approach to test matrices, resource allocation, and timeline management.

Be ready to go over:

• Test Card Creation – How you define specific maneuvers, entry parameters, and success criteria for a flight.
• Resource Coordination – Managing airspace, ground control stations, and support personnel.
• Weather and Environmental Factors – How you factor physical world variables into your go/no-go decisions.
• Advanced concepts (less common) –
  • Designing tests for autonomous swarm behaviors.
  • Integrating hardware-in-the-loop (HITL) simulators with live flight data.

Example questions or scenarios:

• "Walk me through a flight test plan you designed from scratch. What were the primary objectives and how did you measure success?"
• "You are scheduled for a critical flight test, but the wind conditions are right at the edge of the acceptable safety margin. How do you proceed?"
• "Describe a time when a live test revealed a failure that your simulated tests missed. How did you adapt your test plan?"

Hardware-Software Integration

As a QA Engineer dealing with physical systems, you must bridge the gap between code and hardware. This area tests your ability to troubleshoot complex electro-mechanical systems and embedded software. A strong candidate will seamlessly navigate between reading software logs and understanding wiring diagrams.

Be ready to go over:

• Telemetry Analysis – Extracting and interpreting data logs to identify anomalies.
• Sensor Calibration and Validation – Ensuring IMUs, GPS, and optical sensors are feeding accurate data to the flight controller.
• Root Cause Analysis – Isolating whether a bug is caused by software logic, hardware failure, or environmental interference.
• Advanced concepts (less common) –
  • Real-time operating systems (RTOS) debugging.
  • RF communication link stress testing.

Example questions or scenarios:

• "During a test, the vehicle unexpectedly drops altitude for two seconds before recovering. How do you determine if this is a software bug or a hardware sensor glitch?"
• "Explain your process for validating a new firmware update before it is flashed onto the flight vehicle."
• "How do you test the redundancy of a critical flight system?"

Safety Critical Systems & Risk Mitigation

At & General Intuition, safety is non-negotiable. This evaluation area focuses on your understanding of risk assessment frameworks and your personal commitment to operational safety. Interviewers will look for your ability to identify hazards before they occur and your willingness to advocate for safety over schedule.

Be ready to go over:

• Hazard Analysis – Identifying potential failure modes and their consequences.
• Mitigation Strategies – Designing fail-safes, geofences, and emergency termination systems.
• Safety Culture – How you communicate risks to leadership and handle pushback.
• Advanced concepts (less common) –
  • Familiarity with specific aerospace safety standards (e.g., DO-178C, DO-254).
  • Designing fault-injection testing frameworks.

Example questions or scenarios:

• "Tell me about a time you had to halt a test or delay a launch because of a safety concern. How did stakeholders react?"
• "How do you evaluate the risk of a new, unproven software feature being introduced into the flight stack?"
• "Design a fail-safe mechanism for a sudden loss of communication between the ground station and the vehicle."

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