About
Description
Autonomous Locomotion Setup
Scoped indoor navigation and mapping for robotic platforms
Configure indoor navigation capabilities that help compatible robotic platforms understand mapped environments, follow predefined routes, and operate within validated spaces under human supervision.
Autonomous Locomotion Setup enables waypoint navigation, patrol workflows, destination-based movement, and obstacle avoidance in pre-scoped indoor environments.
Prepare robots for controlled autonomous movement
Autonomous navigation requires more than adding sensors to a robotic platform. Reliable operation depends on understanding the environment, validating routes, configuring navigation workflows, and preparing the system for practical use.
Futurology helps organizations deploy indoor navigation capabilities by combining environmental mapping, route configuration, system validation, and supervised operational preparation.
Supported robotic platforms
| Platform | Compatibility |
|---|---|
| Unitree G1 EDU | Supported |
| Unitree R1 EDU | Supported |
Important:
Compatible robotic hardware is not included in the configuration price.
Platform compatibility and deployment requirements are confirmed during technical review.
Key Capabilities
Single-Level Indoor Navigation
Enable navigation within pre-scoped indoor environments with defined routes and operational zones.
Waypoint & Point-and-Click Navigation
Configure movement between selected points and predefined destinations within mapped areas.
Semantic Goal Navigation
Enable navigation workflows based on named locations and predefined goals.
Patrol & Follow-Me Workflows
Support repeatable navigation scenarios including patrol routes and supervised follow-me applications.
Obstacle Avoidance in Mapped Environments
Configure navigation workflows that allow robots to detect and avoid obstacles within validated environments.
Real-World Environment Mapping
Create environmental maps using high-quality 360° camera captures to support navigation preparation.
What's Included
01
Single-level indoor navigation setup
02
Pre-mapped route configuration
03
Waypoint and destination setup
04
Navigation workflow configuration
05
Environment mapping support
06
Initial validation and deployment preparation
Deployment Workflow
1. Site Assessment
Evaluate your space, layout, and connectivity requirements.
2. 360° Capture Session
Collect high-quality panoramic images of the deployment environment.
3. 3D Reconstruction & Mapping Review
Build and validate a digital representation of the operational space.
4. Simulation & Validation
Test navigation routes and workflows before on-site deployment.
5. On-Site Commissioning
Install, configure, and calibrate the system in the physical environment.
6. Operator Training
Prepare your team for safe operation and monitoring.
7. Monitored Operation
Support initial deployment with supervised operation and ongoing optimization.
Environment Requirements
Preparing your space for successful navigation
Navigation performance depends on environment quality and deployment conditions.
Recommended requirements include:
- Stable indoor environment;
- Defined navigation area;
- Consistent lighting conditions;
- Captured obstacles, doorways, and walkways;
- Validated connectivity.
What Autonomous Locomotion Does Not Cover
Designed for controlled indoor environments
Autonomous Locomotion Setup is not intended for:
- Multi-level environments with stairs or elevators;
- Frequently changing layouts;
- Unmapped obstacles;
- Complex glass environments;
- Heavy pedestrian traffic areas;
- Mission-critical unsupervised operations;
- Environments with unreliable connectivity.
Use Cases
Lab Patrols
Enable supervised robotic movement through defined research or laboratory environments.
Facility Inspections
Support repeatable navigation workflows for indoor inspection scenarios.
Campus Tours
Prepare robotic platforms for guided movement through mapped indoor spaces.
Research Observation
Support robotics research involving navigation, localization, and environmental interaction.
Content Creation Routes
Enable repeatable robotic movement paths for controlled recording and demonstration scenarios.
Safety Requirements
Autonomous Locomotion requires supervised operation
The system is designed for controlled indoor deployments with human oversight.
Requirements include:
- Human supervision during navigation sessions;
- Accessible emergency stop procedures;
- Real-time monitoring of robot position and status;
- Technical validation before deployment.
Autonomous Locomotion Setup does not support unsupervised mission-critical operations.
Ongoing Support
Optimize your robotic navigation workflow
Futurology provides optional ongoing support to help maintain and improve deployed navigation workflows.
Support may include:
- Technical reviews;
- Configuration adjustments;
- Deployment reassessment;
- Workflow optimization.
Support Retainer: $499/month
FAQ
1. What environments does Autonomous Locomotion support?
Pre-scoped, single-level indoor environments with stable Wi-Fi connectivity.
Spaces are mapped and validated before deployment.
2. Does it work in multi-story buildings?
No. Autonomous Locomotion supports single-level navigation only.
Stairs, elevators, and multi-level transitions are not currently supported.
3. What 360° camera do I need?
Camera requirements are confirmed during the technical scoping process.
Different cameras and layouts produce different reconstruction quality.
4. How does mapping work and how long does it take?
Mapping involves a 360° capture session of your environment, followed by
3D reconstruction and validation. Timeline depends on the size and complexity
of the space.
5. What happens if the layout changes after deployment?
Significant layout changes may require re-mapping and re-validation.
Minor changes to furniture or obstacles may be handled by the obstacle
avoidance system, but this is not guaranteed.
6. Can the robot operate without Wi-Fi?
No. Stable Wi-Fi connectivity is required for navigation, monitoring,
and emergency stop functionality.
7. What is semantic goal navigation?
Semantic goal navigation allows you to send the robot to named locations
(e.g., “go to Lab 3”) instead of specifying coordinates. Location names are
defined during the mapping and configuration process.
8. How is obstacle avoidance handled?
The system uses sensor data to detect and avoid obstacles within the mapped
environment. However, unmodeled obstacles, glass surfaces, and dynamic
environments may reduce effectiveness.
9. Does the robot operate unsupervised during patrols?
No. Human supervision is required during all navigation sessions, including
patrols. An operator must be available to intervene and trigger emergency
stop if needed.
10. Is Autonomous Locomotion available outside the US?
No. All Robotics Division products and services are available for US deployments only.
Description
Autonomous Locomotion Setup
Scoped indoor navigation and mapping for robotic platforms
Configure indoor navigation capabilities that help compatible robotic platforms understand mapped environments, follow predefined routes, and operate within validated spaces under human supervision.
Autonomous Locomotion Setup enables waypoint navigation, patrol workflows, destination-based movement, and obstacle avoidance in pre-scoped indoor environments.
Prepare robots for controlled autonomous movement
Autonomous navigation requires more than adding sensors to a robotic platform. Reliable operation depends on understanding the environment, validating routes, configuring navigation workflows, and preparing the system for practical use.
Futurology helps organizations deploy indoor navigation capabilities by combining environmental mapping, route configuration, system validation, and supervised operational preparation.
Supported robotic platforms
| Platform | Compatibility |
|---|---|
| Unitree G1 EDU | Supported |
| Unitree R1 EDU | Supported |
Important:
Compatible robotic hardware is not included in the configuration price.
Platform compatibility and deployment requirements are confirmed during technical review.
Key Capabilities
Single-Level Indoor Navigation
Enable navigation within pre-scoped indoor environments with defined routes and operational zones.
Waypoint & Point-and-Click Navigation
Configure movement between selected points and predefined destinations within mapped areas.
Semantic Goal Navigation
Enable navigation workflows based on named locations and predefined goals.
Patrol & Follow-Me Workflows
Support repeatable navigation scenarios including patrol routes and supervised follow-me applications.
Obstacle Avoidance in Mapped Environments
Configure navigation workflows that allow robots to detect and avoid obstacles within validated environments.
Real-World Environment Mapping
Create environmental maps using high-quality 360° camera captures to support navigation preparation.
What's Included
01
Single-level indoor navigation setup
02
Pre-mapped route configuration
03
Waypoint and destination setup
04
Navigation workflow configuration
05
Environment mapping support
06
Initial validation and deployment preparation
Deployment Workflow
1. Site Assessment
Evaluate your space, layout, and connectivity requirements.
2. 360° Capture Session
Collect high-quality panoramic images of the deployment environment.
3. 3D Reconstruction & Mapping Review
Build and validate a digital representation of the operational space.
4. Simulation & Validation
Test navigation routes and workflows before on-site deployment.
5. On-Site Commissioning
Install, configure, and calibrate the system in the physical environment.
6. Operator Training
Prepare your team for safe operation and monitoring.
7. Monitored Operation
Support initial deployment with supervised operation and ongoing optimization.
Environment Requirements
Preparing your space for successful navigation
Navigation performance depends on environment quality and deployment conditions.
Recommended requirements include:
- Stable indoor environment;
- Defined navigation area;
- Consistent lighting conditions;
- Captured obstacles, doorways, and walkways;
- Validated connectivity.
What Autonomous Locomotion Does Not Cover
Designed for controlled indoor environments
Autonomous Locomotion Setup is not intended for:
- Multi-level environments with stairs or elevators;
- Frequently changing layouts;
- Unmapped obstacles;
- Complex glass environments;
- Heavy pedestrian traffic areas;
- Mission-critical unsupervised operations;
- Environments with unreliable connectivity.
Use Cases
Lab Patrols
Enable supervised robotic movement through defined research or laboratory environments.
Facility Inspections
Support repeatable navigation workflows for indoor inspection scenarios.
Campus Tours
Prepare robotic platforms for guided movement through mapped indoor spaces.
Research Observation
Support robotics research involving navigation, localization, and environmental interaction.
Content Creation Routes
Enable repeatable robotic movement paths for controlled recording and demonstration scenarios.
Safety Requirements
Autonomous Locomotion requires supervised operation
The system is designed for controlled indoor deployments with human oversight.
Requirements include:
- Human supervision during navigation sessions;
- Accessible emergency stop procedures;
- Real-time monitoring of robot position and status;
- Technical validation before deployment.
Autonomous Locomotion Setup does not support unsupervised mission-critical operations.
Ongoing Support
Optimize your robotic navigation workflow
Futurology provides optional ongoing support to help maintain and improve deployed navigation workflows.
Support may include:
- Technical reviews;
- Configuration adjustments;
- Deployment reassessment;
- Workflow optimization.
Support Retainer: $499/month
FAQ
1. What environments does Autonomous Locomotion support?
Pre-scoped, single-level indoor environments with stable Wi-Fi connectivity.
Spaces are mapped and validated before deployment.
2. Does it work in multi-story buildings?
No. Autonomous Locomotion supports single-level navigation only.
Stairs, elevators, and multi-level transitions are not currently supported.
3. What 360° camera do I need?
Camera requirements are confirmed during the technical scoping process.
Different cameras and layouts produce different reconstruction quality.
4. How does mapping work and how long does it take?
Mapping involves a 360° capture session of your environment, followed by
3D reconstruction and validation. Timeline depends on the size and complexity
of the space.
5. What happens if the layout changes after deployment?
Significant layout changes may require re-mapping and re-validation.
Minor changes to furniture or obstacles may be handled by the obstacle
avoidance system, but this is not guaranteed.
6. Can the robot operate without Wi-Fi?
No. Stable Wi-Fi connectivity is required for navigation, monitoring,
and emergency stop functionality.
7. What is semantic goal navigation?
Semantic goal navigation allows you to send the robot to named locations
(e.g., “go to Lab 3”) instead of specifying coordinates. Location names are
defined during the mapping and configuration process.
8. How is obstacle avoidance handled?
The system uses sensor data to detect and avoid obstacles within the mapped
environment. However, unmodeled obstacles, glass surfaces, and dynamic
environments may reduce effectiveness.
9. Does the robot operate unsupervised during patrols?
No. Human supervision is required during all navigation sessions, including
patrols. An operator must be available to intervene and trigger emergency
stop if needed.
10. Is Autonomous Locomotion available outside the US?
No. All Robotics Division products and services are available for US deployments only.
Futurology Tech
by
Futurology Tech
Autonomous Locomotion
- Regular price
- $2,999.00
- Sale price
- $2,999.00
- Regular price
-
Shipping calculated at checkout.
Providing the best new Tech Experience, Energy Independence and Robotics Ways of Optimisation
Providing the best new Tech Experience, Energy Independence and Robotics Ways of Optimisation
Packaging note:
Equipment is being supplied in a manufacturer packaging
