01
Route planning
The route and restricted areas are defined in advance on an interactive map.
AUTONOMY FOR BUSINESS
ROBOTS.
FOR EVERY DAY.
Autonomous mobile robot navigation for logistics, industry, inspection, firefighting, construction and agriculture. Route planning, 3D mapping and obstacle avoidance in one system.
GPSstart only
2D / 3Dmapping
LIVEtelemetry
01 — 09
01 / SYSTEM
Autonomy that starts before operation.
The operator defines the route, restricted areas and task scenario. The system then executes the task autonomously, monitors platform status and responds to obstacles.
02
Autonomy
Return to start or continue the task according to the selected scenario.
03
Local navigation
Local navigation after initial positioning in an open area.
04
Monitoring
Telemetry, battery level, heading, position and sensor temperature.
05
Mapping
A 3D model of route geometry and a 2D obstacle map.
06
Obstacle avoidance
Real-time recognition of static and moving objects.
02 / PLANNING
The route is created on an interactive map.
The operator defines waypoints and marks restricted areas before the task begins.
- Route with waypoints
- Zones the system must avoid
- Task scenario prepared before start
TASK / PLANNER
03 / LINK LOSS
Link lost.
Task continues.
Behavior is defined by the operator before start and executed autonomously after the control link is lost.
SCENARIO A
Return to start
The platform autonomously plans a route back to its start point and safely completes the task.
SCENARIO B
Continue task
The system follows the predefined route and completes the task without operator control.
04 / MONITORING
System status.
In real time.
Continuous monitoring of critical platform and equipment parameters.
Batterybattery level
Headingcourse and orientation
Positioncoordinates and altitude
Temperaturesensor status
Telemetrylive data stream
Systemextensible metrics
LIVE / TELEMETRY
05 / MAPPING
The system sees the environment.
3D environment
in real time.
An interactive 3D scene explains how LiDAR measures distances and builds a point cloud. Rotate the scene and switch between views.
SPATIAL PERCEPTION
From a pulse to perception.
Rotate the scene and watch LiDAR turn surfaces into 3D data.
SCANNING3D ILLUSTRATION
SURFACES → POINTS0model points
Orbit: drag or use ← →
01Pulse
The sensor scans the surrounding space.
02Return
The pulse reflects off a surface.
03Geometry
Measurements form a 3D map.
Illustrative visualization of the scanning process.Objects → scanning → point cloud
06 / OBSTACLE AVOIDANCE
Sees.
Recognizes.
Avoids.
ARMOUR EYE / ADAPTIVE ROUTING
INTERACTIVE 3D SCENEChange the space. The robot finds a way.
Move the light crate to recalculate the route. Start the robot to see it navigate around the obstacle.
DIGITAL PLAYGROUNDROUTE READY
Drag the light crate
RouteClearance zoneIllustrative scale
01 / DETECTION02 / CLEARANCE03 / REPLANNING04 / MOVEMENTIllustrative algorithm simulation
07 / TASK LOGIC
From route to outcome — one task flow.
The system combines task preparation, autonomous movement, local perception and telemetry into a single operational cycle.
Preparation
The route, waypoints and restricted areas are defined by the operator before operation.
Execution
The platform follows the task scenario while monitoring heading, position and system status.
Perception
3D/2D mapping and detection of static and moving obstacles operate in real time.
Autonomy
If the link is lost, the system returns to start or continues the task according to the selected scenario.
08 / APPLICATIONS
One technology.
Everyday operations.
Civil applications for a pilot deployment. Configuration depends on the robot, environment and requirements of your facility.
01LOGISTICS
Warehouse logistics
Move materials between receiving, storage and picking areas.
EXAMPLE TASK
Deliver a box from receiving to the picking area.
- 01
The operator selects the pickup and delivery points.
- 02
The robot follows the warehouse route and avoids a crate in the aisle.
- 03
It stops at the unloading area; the operator sees route completion.
EXPECTED OUTCOME
Try the navigation demo Example pilot workflow; the demo illustrates the navigation principle.The load reaches the selected destination.
02INDUSTRY
Manufacturing
Repeat routes between workstations and deliver components.
EXAMPLE TASK
Bring components from storage to a workstation.
- 01
The operator selects a route between two work areas.
- 02
The platform carries components while monitoring its status.
- 03
After unloading, it returns to the start according to the selected workflow.
EXPECTED OUTCOME
Try the navigation demo Example pilot workflow; the demo illustrates the navigation principle.One delivery-and-return cycle is complete.
03INSPECTION
Facility inspection
Follow inspection routes and collect spatial data.
EXAMPLE TASK
Create a spatial map of an area for inspection.
- 01
The operator defines inspection waypoints.
- 02
The robot follows the route and collects LiDAR measurements.
- 03
The operator reviews the point cloud and site geometry.
EXPECTED OUTCOME
Explore 3D scanning Example pilot workflow; the demo illustrates the navigation principle.Spatial data is available for the completed route.
04FIREFIGHTING
Firefighting robots
Navigate a robotic platform for site reconnaissance and equipment delivery. Map the surroundings to plan access routes.
EXAMPLE TASK
Bring equipment to a location selected by the response team.
- 01
The operator sets the destination and excludes restricted areas.
- 02
The firefighting platform follows an available route around obstacles.
- 03
It stops at the selected point for equipment handover.
EXPECTED OUTCOME
Try the navigation demo Example pilot workflow; the demo illustrates the navigation principle.Equipment reaches the handover point.
05CONSTRUCTION
Construction robots
Deliver tools and materials, follow site inspection routes and create 3D maps of work areas.
EXAMPLE TASK
Deliver tools between two areas of a construction site.
- 01
The operator defines a route and marks areas closed to traffic.
- 02
The robot transports tools and avoids materials along the way.
- 03
It stops beside the work area for unloading.
EXPECTED OUTCOME
Try the navigation demo Example pilot workflow; the demo illustrates the navigation principle.Tools arrive at the work area.
06AGRICULTURE
Agricultural robots
Navigate orchard and field rows, transport supplies and collect spatial data for site surveys.
EXAMPLE TASK
Follow a selected orchard row and return to the start.
- 01
The operator sets the row endpoints and return route.
- 02
The platform travels between rows while accounting for visible obstacles.
- 03
It returns to the start; the operator reviews the route and system status.
EXPECTED OUTCOME
Try the navigation demo Example pilot workflow; the demo illustrates the navigation principle.The row inspection cycle is complete.
09 / CONTACT
Let’s discuss
your workflow.
Tell us about your robot and facility. Together we will define the route, operating conditions and scope of a pilot demonstration.
ARMOUR EYE / DEVELOPMENT SPACE AVAILABLE FOR DEMO
DIRECT CONTACT
EMAILparshynak@armoureye.space
PHONE+380 97 533 4053
ARMOUR EYE
AUTONOMY FOR BUSINESS
DEVELOPMENT SPACE / 2026
AUTONOMY FOR BUSINESS
DEVELOPMENT SPACE / 2026