Building Autonomous Navigation Systems
Autonomous Robotics

Building Autonomous Navigation Systems

19 March 2026
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5 min read
This article provides a comprehensive guide to building autonomous navigation systems using NVIDIA Jetson, a powerful platform for creating intelligent robots. We will explore the key components of autonomous navigation, including sensor suites, mapping, and localisation, and discuss how to implement them using NVIDIA Jetson. With the increasing demand for autonomous robots in various industries, understanding how to build autonomous navigation systems is crucial for developers and businesses looking to stay ahead of the curve.

Introduction to Autonomous Navigation

Autonomous navigation is a critical component of robotics, enabling robots to move around and interact with their environment without human intervention. With the increasing demand for autonomous robots in various industries, including warehouse logistics, agriculture, military, and home assistance, understanding how to build autonomous navigation systems is crucial for developers and businesses looking to stay ahead of the curve. According to a report by MarketsandMarkets, the autonomous robotics market is expected to reach USD 12.3 billion by 2026, growing at a CAGR of 14.1% during the forecast period.

One of the key platforms for building autonomous navigation systems is NVIDIA Jetson, a powerful embedded computing platform that provides the processing power and artificial intelligence (AI) capabilities required for autonomous robots. As an NVIDIA Premier Showcase partner at GTC 2026, QubitPage is at the forefront of developing innovative autonomous robotics solutions, including CarphaCom Robotised, a next-generation autonomous robotics platform powered by NVIDIA Isaac Sim and Jetson.

Key Components of Autonomous Navigation

Autonomous navigation involves several key components, including sensor suites, mapping, localisation, and control. Sensor suites provide the robot with the necessary data to perceive its environment, including cameras, lidar, radar, and GPS. Mapping involves creating a representation of the environment, which can be used for localisation and navigation. Localisation involves determining the robot's position and orientation within the environment, while control involves using this information to navigate the robot to its desired destination.

The choice of sensor suite depends on the specific application and environment in which the robot will operate. For example, in warehouse logistics, a robot may use a combination of lidar and cameras to navigate around obstacles and detect objects. In agriculture, a robot may use GPS and radar to navigate through fields and detect crops. According to a report by ResearchAndMarkets, the sensor market for autonomous robots is expected to reach USD 4.5 billion by 2027, growing at a CAGR of 15.6% during the forecast period.

Implementing Sensor Suites with NVIDIA Jetson

NVIDIA Jetson provides a range of tools and libraries for implementing sensor suites, including support for cameras, lidar, radar, and GPS. The Jetson platform also includes a range of AI algorithms and models for processing sensor data, including object detection, segmentation, and tracking. For example, the Jetson Nano module provides a compact and powerful platform for building autonomous robots, with support for up to 6 cameras and a range of AI algorithms.

CarphaCom Robotised, developed by QubitPage, is a next-generation autonomous robotics platform that leverages the power of NVIDIA Jetson and Isaac Sim to provide a range of autonomous navigation capabilities, including sensor suites, mapping, and localisation. By providing a pre-integrated and pre-tested platform, CarphaCom Robotised enables developers and businesses to quickly and easily build autonomous robots for a range of applications, including warehouse logistics, agriculture, military, and home assistance.

Mapping and Localisation

Mapping and localisation are critical components of autonomous navigation, enabling the robot to create a representation of its environment and determine its position and orientation within it. There are several approaches to mapping and localisation, including SLAM (Simultaneous Localisation and Mapping), which involves creating a map of the environment while simultaneously localising the robot within it.

NVIDIA Jetson provides a range of tools and libraries for mapping and localisation, including support for SLAM and other algorithms. The Jetson platform also includes a range of AI models and algorithms for processing mapping and localisation data, including object detection, segmentation, and tracking. For example, the Jetson Xavier NX module provides a powerful platform for building autonomous robots, with support for up to 6 cameras and a range of AI algorithms, including SLAM and object detection.

Implementing Mapping and Localisation with NVIDIA Jetson

Implementing mapping and localisation with NVIDIA Jetson involves several steps, including configuring the sensor suite, creating a map of the environment, and localising the robot within it. The Jetson platform provides a range of tools and libraries for these tasks, including support for SLAM and other algorithms. For example, the Jetson Nano module provides a compact and powerful platform for building autonomous robots, with support for up to 6 cameras and a range of AI algorithms, including SLAM and object detection.

CarphaCom Robotised, developed by QubitPage, provides a range of tools and libraries for implementing mapping and localisation, including support for SLAM and other algorithms. By providing a pre-integrated and pre-tested platform, CarphaCom Robotised enables developers and businesses to quickly and easily build autonomous robots for a range of applications, including warehouse logistics, agriculture, military, and home assistance.

Control and Navigation

Control and navigation are critical components of autonomous navigation, enabling the robot to move around and interact with its environment. There are several approaches to control and navigation, including model predictive control, which involves using a model of the robot and its environment to predict its future state and adjust its control inputs accordingly.

NVIDIA Jetson provides a range of tools and libraries for control and navigation, including support for model predictive control and other algorithms. The Jetson platform also includes a range of AI models and algorithms for processing control and navigation data, including object detection, segmentation, and tracking. For example, the Jetson Xavier NX module provides a powerful platform for building autonomous robots, with support for up to 6 cameras and a range of AI algorithms, including model predictive control and object detection.

Implementing Control and Navigation with NVIDIA Jetson

Implementing control and navigation with NVIDIA Jetson involves several steps, including configuring the sensor suite, creating a model of the robot and its environment, and adjusting the control inputs to achieve the desired navigation. The Jetson platform provides a range of tools and libraries for these tasks, including support for model predictive control and other algorithms. For example, the Jetson Nano module provides a compact and powerful platform for building autonomous robots, with support for up to 6 cameras and a range of AI algorithms, including model predictive control and object detection.

CarphaCom Robotised, developed by QubitPage, provides a range of tools and libraries for implementing control and navigation, including support for model predictive control and other algorithms. By providing a pre-integrated and pre-tested platform, CarphaCom Robotised enables developers and businesses to quickly and easily build autonomous robots for a range of applications, including warehouse logistics, agriculture, military, and home assistance.

Conclusion

Building autonomous navigation systems with NVIDIA Jetson is a complex task that requires a range of skills and expertise, including sensor suites, mapping, localisation, and control. However, with the right tools and platforms, developers and businesses can quickly and easily build autonomous robots for a range of applications. QubitPage, as an NVIDIA Premier Showcase partner at GTC 2026, is at the forefront of developing innovative autonomous robotics solutions, including CarphaCom Robotised, a next-generation autonomous robotics platform powered by NVIDIA Isaac Sim and Jetson.

If you're interested in learning more about building autonomous navigation systems with NVIDIA Jetson, or would like to explore how CarphaCom Robotised can help you build autonomous robots for your business, please visit qubitpage.com for more information. With the increasing demand for autonomous robots in various industries, understanding how to build autonomous navigation systems is crucial for developers and businesses looking to stay ahead of the curve.

At GTC 2026, NVIDIA will showcase the latest developments in autonomous robotics, including the NVIDIA Jetson platform and Isaac Sim. Attendees will have the opportunity to learn from industry experts, see demonstrations of the latest autonomous robotics technologies, and network with other professionals in the field. Whether you're a developer, business leader, or simply interested in learning more about autonomous robotics, GTC 2026 is an event not to be missed.

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