Sync with systems, thermal, and integration teams; surface blockers fast.
Dig into yesterday's vibe test spike — bad accelerometer or real structural issue?
Model a bracket tweak in SolidWorks; check if the customer's instrument still fits.
Run worst-case orbit sim to confirm the payload won't cook or freeze in shadow.
Physically bolt a sensor array into the spacecraft bus and torque-verify every fastener.
Flag an interface risk to the mission lead — better now than three days before launch.
Power up the installed payload; confirm the camera and telemetry links are live.
Write up today's integration steps and sign off the test data package.
Give the go/no-go verdict on payload status to the launch director.
- Design the hardware that rides inside a rocket or satellite.
- Physically bolt instruments into a spacecraft and wire them up.
- Run tests to make sure the payload survives launch vibrations and extreme temperatures.
- Check that a telescope, camera, or sensor actually works once installed.
- Crunch numbers to confirm the payload won't overheat or shake apart in space.
- Is this payload safe to fly as-is, or do we scrub the launch?
- Does this anomaly in testing mean a real flaw, or just a bad sensor reading?
- Can I fit the customer's instrument within the mass and volume limits, or do I push back?
- Should I flag this interface risk to the mission team now, or keep investigating first?
- Is the thermal design good enough for the worst-case orbit, or do I need another analysis run?
Aerospace engineers design, develop, and test aircraft, spacecraft, satellites, and missiles. They work on cutting-edge technology that pushes the boundaries of what's possible in flight and space exploration, creating the vehicles and systems that take us to the skies and beyond.
Avionics engineers design, develop, and maintain the electronic systems used in aircraft, spacecraft, and satellites. They work at the intersection of electrical engineering and aerospace technology, creating the sophisticated systems that control navigation, communication, flight control, and monitoring functions in modern aviation.
UAS Systems Engineers design, develop, test, and maintain Unmanned Aircraft Systems (drones and unmanned aerial vehicles). This role combines aerospace engineering, software development, and systems integration to create innovative solutions for commercial, military, and research applications, working at the intersection of hardware and software to ensure unmanned aircraft systems operate safely, efficiently, and reliably.
