ISY DEFENSE / ENGINEERING & AUTONOMY

The system
behind the mission.

Hardware, autonomy and mission software.
Engineered together. Proven through integration.

Explore the architecture
03 / TECHNOLOGYPLATFORM · PAYLOAD · MISSION SYSTEMSCROLL TO EXPLORE ↓
01 / MISSION INTEGRATIONENGINEERED AS ONE SYSTEM
01 / SENSE

See beyond the airframe.

EO, thermal and mission payloads bring observations into a shared context. Sensor integration starts with the information an operator needs.

SENSORS → MISSION CONTEXT
02 / SYSTEM ARCHITECTURE

Own the interfaces.
Engineer the whole.

Select a layer to explore how the platform, payload and mission system fit together.

INTEGRATED STACK 05 LAYERS

PLATFORM ↔ PAYLOAD ↔ OPERATOR

Platforms system illustrationISY / PLT — INTEGRATION STUDY
PLTSENNAVCOMAUT
LAYER 01 / PLATFORMS

The physical mission layer.

Airframes, ground systems and surface craft configured around payload, environment and operating requirements.

AIRLANDMARITIME
03 / ENGINEERING & VALIDATION

Test the interface.
Then test the system.

From the first requirement to operator handover, every stage informs the next.

REQUIREMENT → INTEGRATION → FIELD TEST
01

Mission requirement

Define the operating environment, operator and measurable success criteria.

02

Design & simulation

Establish platform, payload and autonomy baselines.

03

Build & integrate

Bring the airframe, electronics and ground interfaces together.

04

Field evaluation

Evaluate endurance, payload, communications and control behavior.

05

Operator transition

Training, documentation and in-field support.

04 / DEVELOPMENT DIRECTIONS

Built to evolve.

01 / PLATFORMS

Integrated baselines

Modular platforms and repeatable integration.

02 / AUTONOMY

Collaborative systems

Shared context and coordinated tasking.

03 / INTELLIGENCE

Mission software

AI assistance that keeps operators in control.

Discuss an engineering requirement