Test pilot Victor Glover puts Orion through its paces on deep space journey

NASA test pilot Victor Glover conducted a manual handling test of the Orion capsule after launch on April 1, 2026, while the spacecraft heads toward deep space.
NASA test pilot Victor Glover put the Orion spacecraft through a manual handling test on April 1, 2026, shortly after launch as the capsule began its journey toward deep space.
According to the agency's announcement, Glover and the mission commander took the Orion capsule "out for a spin" to see how it handles in flight. The test marks a critical step in validating the spacecraft's manual control systems for crewed deep space missions.
While the exact mission name and destination were not disclosed in the briefing, the trajectory toward deep space suggests this is a crewed test flight intended to push Orion beyond low Earth orbit. The vehicle's handling characteristics in a vacuum environment, far from the influence of Earth's gravity, are fundamentally different from those experienced during orbital tests or atmospheric reentry.
Orion is designed to carry astronauts to the Moon and eventually to Mars. Although the spacecraft can fly autonomously, NASA requires that crews have the ability to take manual control in case of system anomalies or unexpected situations. The April 1 test gives engineers data on how the vehicle responds to pilot inputs at the speeds and distances typical of translunar flight.
Manual handling tests in deep space are rare. The last time a NASA astronaut flew a spacecraft by hand beyond low Earth orbit was during the Apollo program. The Apollo command module, however, relied almost entirely on manual control for critical maneuvers like docking and reentry. Orion, by contrast, was built from the ground up with digital fly-by-wire systems, but the capsule still retains stick-and-throttle controls as a backup and for contingency operations.
Glover, a former U.S. Navy test pilot and one of the astronauts selected for the Artemis program, has extensive experience evaluating aircraft handling qualities. His background makes him an ideal pilot for this kind of assessment. During the test, Glover and the commander executed pitch, yaw, and roll maneuvers, as well as small translation burns, to characterize Orion's response and control authority.
The test also gives the crew a chance to practice manual navigation techniques that could prove useful if communication delays or failures prevent real-time input from mission control. At lunar distances, a radio signal takes about 1.3 seconds to travel one way, so any anomaly would require the crew to act without waiting for ground instructions.
The date of the test is notable. April 1, 2026, falls roughly in the middle of NASA's planned Artemis II timeline. Depending on how the mission is structured, this test could be a milestone on the first crewed Orion flight beyond the Moon, or it could be part of a later mission that flies past the Moon to gather data for a future landing attempt.
By releasing this information through a social media post with the hashtag #orionintegrity, NASA emphasized the vehicle's structural and control reliability. The term "integrity" in aerospace refers to the system's ability to perform its required functions safely and reliably, even under off-nominal conditions.
This test is not the first time Orion has been manually controlled. During the uncrewed Artemis I mission in 2022, the spacecraft executed a series of trajectory correction maneuvers autonomously. The crewed Artemis II mission, currently scheduled for late 2025 or early 2026, was expected to include similar handling evaluations. The April 1 date suggests that mission may have launched on schedule or slightly delayed.
What the test does not indicate is any problem with Orion's automatic systems. NASA routinely inserts manual control checks into flight test plans to validate simulation models and to give the crew confidence in the spacecraft's responsiveness. The agency is collecting data on control forces, responsiveness, and the quality of the hand-flying experience.
Orion's control system uses four reaction control system (RCS) thrusters arranged in pods around the service module. These thrusters provide fine control for translation and rotation. The capsule itself has no flight control surfaces during spaceflight; all maneuvering is done through thrusters. Piloting Orion in deep space is closer to flying a spacecraft than to flying an airplane.
The outcome of this test will inform future mission procedures, including docking maneuvers with the Lunar Gateway station, contingencies for aborts beyond the Moon, and even the eventual descent to the lunar surface in the Starship-based human landing system.
For now, the test appears to have gone smoothly. The capsule continues on its deep space trajectory, with Orion's integrity confirmed through hands-on piloting by one of NASA's most experienced test pilots.
Staff Writer
Emily covers space exploration, physics, and scientific research. Holds a degree in astrophysics.
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