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Official INS200 illustration with a road vehicle and the inertial navigation unit Drone above city buildings, illustrating aerial platform integration
INDUSTRY 05

Robotics & Autonomy

Provide position and attitude inputs for robots, vehicles and UAVs. Navigation, obstacle avoidance and safety depend on the complete platform and its sensors.

CORE CAPABILITIES

Built around the work

OEM GNSS, inertial sensing, heading, antennas and corrections as inputs to integrated platforms.

MX206 GNSS module product image

GNSS OEM Integration

MX206 provides multi-frequency GNSS PPP/RTK positioning for embedded platforms. Plan power, interfaces and receiver configuration for the integration.

INS200 unit product image

GNSS/INS Position and Attitude

INS200 combines GNSS and inertial sensing. Inertial drift and installation affect performance when satellites are obscured; indoor operation needs an appropriate sensor strategy.

David30-D receiver product image

Dual-antenna Heading

David30-D supplies GNSS position and heading to the platform. Validate antenna placement, baseline geometry and the correction input.

AX4E07 antenna product image

GNSS Antennas

AX4E07 is a multi-frequency GNSS antenna for integrated positioning hardware. Select the antenna and mounting arrangement for the receiver and platform.

UAV carrying an airborne mapping system above forested terrain, from the MVP100 product material

UAV Integration

Provide GNSS position and timing inputs for a compatible aerial platform. Flight control and safe operation remain responsibilities of the integrated system.

Published TAP application montage showing agriculture, UAV, vehicle and survey use cases

Correction Delivery

Select supported RTK or TAP PPP correction delivery. Validate coverage, connectivity and convergence before relying on the positioning output.

Intelligent forklift pictured in the published David Plus case study
FEATURED CASE STUDY

David Plus GNSS Receiver Applied in Intelligent Forklift

The David Plus forklift case describes GNSS position and heading integrated with third-party control software and additional sensors. It is a complete-platform example.

Read the case study (PDF)
TYPICAL WORKFLOW

From requirement to result

A practical sequence that can be adapted to the project, environment and deliverable.

  1. 01

    Define requirements

    Document satellite visibility, dynamics, interfaces, accuracy needs and system responsibilities.

  2. 02

    Select components

    Choose GNSS, inertial inputs, antennas and corrections for the platform architecture.

  3. 03

    Integrate and validate

    Configure interfaces and check position, heading and failure behavior in representative conditions.

  4. 04

    Operate and monitor

    Monitor receiver status and maintain the complete platform sensor and safety strategy.

TALK TO TERSUS

Discuss your robotics or OEM positioning requirements with Tersus.

Share your environment, accuracy needs and intended deliverable with our team.

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