01
Requirements
Translate mission objectives into measurable technical, environmental and operational requirements.
YSTECH supports companies, research organisations and institutional partners in understanding what is required to operate technologies successfully in space. We translate mission objectives into engineering requirements, verification strategies, payload concepts and practical routes toward qualification and flight.
Translate mission objectives into measurable technical, environmental and operational requirements.
Determine whether the technology, process or material can operate under the expected mission conditions.
Adapt the concept into a system, experiment or payload compatible with the target platform.
Define representative environmental and functional tests based on credible failure modes and mission conditions.
Build evidence that the technology satisfies relevant performance, safety and interface requirements.
Resolve mechanical, electrical, thermal, data and operational interfaces with the mission platform.
Our objective is not simply to recommend a test campaign. It is to establish the engineering logic that connects mission requirements, design decisions, verification evidence and operational deployment.
Definition and traceability of functional, performance, environmental and interface requirements derived from the intended mission.
Evaluation of materials, processes, components and architectures against the relevant space environment and operational constraints.
Definition of technically justified verification programmes covering thermal, vacuum, vibration, radiation, microgravity and other relevant environments.
Translation of scientific or technological objectives into compact, controllable and platform-compatible experimental systems.
Evaluation of whether manufacturing, processing or material transformation routes remain viable under microgravity, vacuum and constrained spacecraft operation.
Assessment and resolution of mechanical, electrical, thermal, data, safety and operational interfaces with the selected flight platform.
Compact payloads, severe volume and power constraints, rapid development cycles.
Crew safety, experiment operations, interfaces and controlled environments.
Autonomous payload operation and dedicated microgravity experimentation.
Dust, radiation, thermal cycling and highly constrained surface operations.
Technologies intended for remote, long-duration and demanding mission scenarios.