Robots That Understand and Act in the Real World

Anigon FA-L wheeled humanoid robot with dual arms and an adaptive mobile base
Spatial coordinates
Keypoint tracking
Predicted action path
Tactile feedback
3–5 Demonstrationsfor typical task adaptation
97% Success Ratein defined real-world base tasks
24/7 Operationwith hot-swap batteries
End-to-End Platformmodels, data, robot and deployment
Designed in Switzerland
Precision & Quality

High-precision engineering and manufacturing designed for reliable, long-term real-world operations.

Engineered for Safety
Safety & Compliance

Compliance deeply engineered into the robot hardware, control system, and deployment workflow.

Seamless Workflows
Enterprise Integration

Open interfaces for ERP, MES and WMS. Robots receive tasks directly from existing operational processes.

Serviced in Europe
Data Sovereignty

Deployment, service and supply capabilities designed for European operations and strict enterprise data privacy.

Measured under defined conditions

Performance Designed to Be Verifiable

Every product specification and performance claim is linked to configurable test conditions, evidence, evaluation methods and limitations.

88.2%

RLBench Simulation Manipulation Success Rate

97%

Defined Base-Task Success Rate in Complex Real Environments

3–5

Real Demonstrations for Typical Task Adaptation

1%

Data Requirement Compared with Selected Traditional Pipelines

28 DoF

Full-Body Degrees of Freedom

24/7

Continuous Operation with Dual Hot-Swap Batteries

Validation details

88.2% · RLBench Simulation Manipulation Success Rate

Test Conditions
Selected manipulation tasks under a controlled simulation setup.
Dataset
RLBench task suite; exact task subset is configurable in the validation record.
Task Definition
Complete the specified manipulation goal within the evaluation horizon.
Evaluation Method
Task-level success averaged across the configured benchmark subset.
Robot Configuration
Simulation reference manipulator and FAM policy configuration.
Sample Size
Test Date
Limitations
Results apply to the stated configuration and defined test conditions. Performance may vary with task complexity, hardware, environment, software version and operator procedures.

Validation details

97% · Defined Base-Task Success Rate in Complex Real Environments

Test Conditions
Defined base tasks in selected real-world environments.
Dataset
Internal real-robot evaluation set.
Task Definition
Complete a predefined task sequence without unrecovered failure.
Evaluation Method
Successful runs divided by total evaluated runs.
Robot Configuration
Anigon FA-L with validated end-effector and model version.
Sample Size
Test Date
Limitations
Results apply to the stated configuration and defined test conditions. Performance may vary with task complexity, hardware, environment, software version and operator procedures.

Validation details

3–5 · Real Demonstrations for Typical Task Adaptation

Test Conditions
Selected typical tasks with stable fixtures and calibrated sensing.
Dataset
Task-specific human demonstration set.
Task Definition
Adapt a pretrained policy to a defined task variant.
Evaluation Method
Count of real demonstrations used before the configured acceptance test.
Robot Configuration
FAM-compatible robot platform and task-specific end-effector.
Sample Size
Test Date
Limitations
Demonstration requirements increase with task complexity, environmental variability and hardware changes.

Validation details

1% · Data Requirement Compared with Selected Traditional Pipelines

Test Conditions
Comparative experiments on selected task pipelines.
Dataset
Internal comparison dataset.
Task Definition
Reach an equivalent configured acceptance threshold.
Evaluation Method
Relative volume of labeled real-world data used by each pipeline.
Robot Configuration
Matched task setup where practical.
Sample Size
Test Date
Limitations
The comparison does not represent every traditional pipeline or every task category.

Validation details

28 DoF · Full-Body Degrees of Freedom

Test Conditions
Product configuration record.
Dataset
Not applicable.
Task Definition
Mechanical degree-of-freedom count for the stated platform configuration.
Evaluation Method
Engineering configuration review.
Robot Configuration
Anigon FA-L reference configuration.
Sample Size
One product configuration.
Test Date
Current configurable specification
Limitations
Final configuration may vary by end-effector, base and customer integration package.

Validation details

24/7 · Continuous Operation with Dual Hot-Swap Batteries

Test Conditions
Operation plan using charged battery rotation and trained service procedures.
Dataset
Product runtime and battery exchange records.
Task Definition
Maintain operational availability through scheduled battery swaps.
Evaluation Method
Availability assessment under the configured duty cycle.
Robot Configuration
FA-L with dual hot-swap battery system.
Sample Size
Deployment dependent.
Test Date
Pilot deployment
Limitations
Actual uptime depends on duty cycle, charging capacity, maintenance, temperature and task load.

Embodied manipulation foundation model

FAM: A Few-Shot, End-to-End Foundation Model for Embodied Manipulation

Adapt to new tasks, environments and robot platforms with only a small number of real-world demonstrations.

Before

Traditional VLA Representation

  • 3D visual information compressed into a one-dimensional latent vector
  • Spatial relationships lost during representation compression
  • Limited interpretability
  • Information bottleneck

After

FAM Spatial Representation

  • Two-dimensional and three-dimensional heatmap representation
  • Spatial alignment across vision, language and action
  • Preserved object relationships
  • Interpretable navigation and manipulation cues
01

Spatial Understanding Pretraining

Learning spatial keypoints, object relationships, interaction patterns and motion trajectories from large-scale human operation videos.

02

3D Few-Shot Alignment

Aligning visual-language representations and action policies at the spatial heatmap level.

03

Rapid Real-Robot Adaptation

Adapting typical tasks with only a small number of real-world demonstrations, subject to task complexity, hardware configuration and environmental conditions.

RLBenchPeg InsertionDrawer OpeningLighting VariationBackground InterferenceObstacle Interference

Vision-language-tactile-action

VLTA: Understanding the Physical World Through Contact

Contact becomes a first-class signal for precision insertion, compliant grasping, slip recovery and manipulation when vision is incomplete.

Camera View

Visual context

TRACKING
Occlusion-aware tracking

Vision-Tactile Fusion

Contact-aware policy

Contact
Slip
Collision
Jamming
Stable Grasp
Release

Tactile Pressure Map

Force feedback curve

Critical feedback under visual occlusion
Improved precision in assembly
Real-time correction during contact
Adaptive compliant grasping
Slip and collision detection
Improved hand-eye coordination

Embodied world model

BridgeV2W: See the Consequences Before Acting

A predictive interface compares candidate actions, visualizes likely outcomes and evaluates risk before the robot commits to execution.

01

Observe

Real-time Perception

Capture live visual feeds and robot sensor data to establish ground truth state.

Frame Rate

60 FPS

Latency

<5ms

  • Multi-camera fusion
  • Joint state sync
  • Depth estimation
02

Imagine

World Model Forward Pass

Generate multiple future trajectories conditioned on candidate actions using the predictive model.

Candidates

5

Horizon

2.0s

  • Trajectory sampling
  • Physics simulation
  • Scene prediction
03

Evaluate

Risk Assessment

Score each candidate against safety constraints, task objectives, and kinematic limits.

Check Rate

1000/s

Threshold

0.95

  • Collision detection
  • Joint limits
  • Task alignment
04

Execute

Validated Action

Dispatch the highest-scoring trajectory to the robot controller with confidence bounds.

Confidence

98.7%

Dispatch

42ms

  • Safe motion
  • Real-time monitor
  • Fallback ready

Cross-Modal Fusion

Joint embeddings from RGB, depth, proprioception, and language instructions.

Unified representation

Efficient Inference

Latency-optimized forward passes with adaptive compute allocation.

<50ms end-to-end

Generalization

Zero-shot transfer to novel scenes via pretrained visual priors.

No domain adaptation

Continual learning and recovery

Human-in-the-Loop RL: Humans and Robots Improving Together

The robot learns not only how to succeed, but also how to recover when execution deviates from the intended task.

1

Human Demonstration

2

Imitation Learning

3

Autonomous Execution

4

Human Intervention

5

Error Recovery

6

Reinforcement Learning

7

Continual Improvement

Normal execution

Deviation

Human intervention

Recovery

Policy update

Embodied data technology

Better Embodied Intelligence with Less Data

Data efficiency comes from representing motion, viewpoint, uncertainty and interaction structure around the task the robot must perform.

Robot-Centric Visual Flow

Extract task-relevant hand, object, motion and occlusion relationships from human operation video.

1Human Operation Video
2Hand Trajectory
3Object Motion
4Occlusion Relationship
5Task-Relevant Visual Flow
16.4% Average Task Success ImprovementSelected Complex Tasks Improved from 40% to 100%

Task-Centric 3D Virtual View for VLA

Synthesize a task-relevant virtual camera view from multiple visual inputs without requiring 3D rendering in the interface.

1Multiple Camera Inputs
2Point Cloud Snapshot
3Task-Relevant Virtual View
4Filtered Visual Input
1.5× Faster InferenceUp to 200% Improvement in Selected View-Dependent Tasks

Cross-View Data Augmentation

Expand demonstrations across viewpoints through motion retargeting and generative video completion.

1Single-View Demonstration
2Motion Retargeting
3Generative Video Completion
4Multi-View Training Data
18.3% Improvement in Known Views25.8% Improvement in New ViewsNo Frame-by-Frame Manual Action Annotation

Embodied Visual Information Enhancement

Detect uncertainty, revisit important regions and preserve task-relevant visual evidence over long horizons.

1Uncertainty Detection
2Repeated Attention
3Key Visual Regions
4Long-Horizon Task Support
5Plug-In Training Module
Configurable validation recordEvaluation under defined conditions

Validation framework

Configurable evidence record

Test Conditions

No validation data configured for this field.

Dataset

No validation data configured for this field.

Task Definition

No validation data configured for this field.

Evaluation Method

No validation data configured for this field.

Robot Configuration

No validation data configured for this field.

Sample Size

No validation data configured for this field.

Test Date

No validation data configured for this field.

Limitations

No validation data configured for this field.

ANIGON FA-L series

A Wheeled Humanoid Platform Designed for Real Work

A mobile humanoid platform combining force-controlled arms, integrated sensing, edge computing, hot-swap power and enterprise deployment interfaces.

ANIGON FA-L wheeled humanoid robot front view
ANIGON Platform
Reference front viewFA-L Series

ANIGON FA-L Series · Wheeled Humanoid Platform

One Platform, Multiple Scenarios
Precision Force Control
Industrial-Grade Payload
Safety by Design
Plugs into Your ERP
All-Day Runtime · Hot-Swap Battery

Reference specification

Height
189 cm
Arm Span
65 cm
Full Body
28 DoF
Each Arm
7 DoF
Maximum Speed
1.5 m/s

Subject to operating mode and site policy.

Battery System
Dual Hot-Swap Batteries
Operation Capability
24/7

With battery rotation, maintenance and duty-cycle planning.

Mobile Base
Adaptive Lifting
Joint Sensing
Integrated Torque Sensors
Control
Full Force-Controlled Compliance
Holding Brake
Electromagnetic
Collision Response
Sensitive Detection
Model Stack
Powered by FAM

Hotspot map

01Vision and Multimodal Perception
027-DoF Humanoid Arms
03Joint Torque Sensors
04Dexterous Hands and End Effectors
05Integrated Compute Backpack
06Dual Hot-Swap Battery System
07Adaptive Lifting Base
08Collision Detection and Electromagnetic Brake

Integrated compute controller

Deploying Embodied Foundation Models On-Robot

A local compute and control architecture keeps multimodal inference close to the robot while separating safety-critical control from model execution.

01

Module

Edge Compute Module

02

Module

Robot Controller

03

Module

Sensor Bus

04

Module

Safety Control Unit

05

Module

Power Management

06

Module

Local Inference Pipeline

01

Low-Latency Local Inference

02

Reduced Cloud Dependency

03

Model-Control Co-Design

04

Real-Time Multimodal Processing

05

Industrial-Grade Stability

06

Safety-Control Separation

Safety-control separation

Model inference proposes actions. A separate safety control layer applies validated limits, site rules and emergency behavior before commands reach actuators.

Robot demonstration

Observe the Full Perception-to-Action Loop

Demonstration media can be linked directly to task definitions, robot configuration, test conditions and limitations.

Task execution and visual flow validation

Video demonstration 1: Humanoid platform performs high-precision tactile manipulation tasks.

Industry deployment

From Foundation Models to Operational Results

Structured case studies connect business context, robot configuration, workflow, measured value, deployment conditions and supporting evidence.

Platform architecture

End-to-End Embodied Intelligence Architecture

Hardware, data, perception, models and applications form a closed loop in which execution results continuously return as new evidence.

Applications
Power GridAutomotive ManufacturingAppliance ManufacturingLogisticsIndustrial Material HandlingSmart RetailEnergy Services
Models
FAMVLTABridgeV2WVLAWorld ModelsHuman-in-the-Loop RL
Perception
Visual Understanding3D Point CloudsTactile FeedbackLanguage and SpeechSpatial KeypointsMotion Trajectories
Embodied Data
Human Operation VideoReal-Robot DataTeleoperation DataSimulation DataGenerated Cross-View DataMultimodal Feedback
Robot Hardware
Wheeled Humanoid RobotRobot ArmsDexterous HandsMobile BaseCamerasTorque SensorsTactile SensorsEdge Compute Controller

Service, compliance and data sovereignty

Engineered for Enterprise Deployment

Deployment readiness combines safety architecture, integration pathways, local inference, auditability, configurable data policies and lifecycle support.

Safety by Design

Safety control separated from model inference.

Compliance Engineering

Rule-based constraints for critical actions.

Enterprise Integration

ERP, MES and WMS integration readiness.

Local Edge Inference

Local or customer-specified deployment environments.

Data Isolation

Configurable data policies and deployment boundaries.

Deployment Auditability

Task logs and execution replay.

European Service Capability

Service coverage designed for European operations.

Lifecycle Maintenance

Planned updates, inspection and support workflows.

Compliance depends on product configuration, intended use, deployment environment, integration scope and applicable local requirements. Assessment records, test evidence and legal review should be linked before external claims are published.

Platform value

More Than a Robot. A Deployment Platform.

ANIGON connects research depth with industrial engineering, enterprise integration and the operating discipline required for real-world deployment.

01

Few-Shot Deployment

Adapt typical tasks with significantly reduced real-world demonstration requirements.

02

Spatial Intelligence

Preserve spatial structure through two-dimensional and three-dimensional representations.

03

Multimodal Closed Loop

Combine vision, language, touch, force, action and environmental feedback.

04

Industrial-Grade Integration

Integrate models, robotic hardware, edge computing, safety control and enterprise systems.

Deploy in the real world

Deploy Embodied Intelligence in Your Real-World Operations

From task assessment and data collection to model adaptation, robot deployment, system integration and continuous optimization.