Start with a workflow worth automating.
Workflow analysis, technical feasibility, hardware requirements, baseline measurements, and an estimate of operational value.
A scoped opportunity and a decision on whether to pilot.
We help robotics companies, integration partners, and industrial operators develop AI-enabled applications using existing robotic platforms, foundation models, simulation, and production software.
A real robotic handling task shows the hardware, tooling, and operating environment that application engineering must bring together. Illustrative footage, not a DehazeLabs deployment.
Each layer has a job. Our engineering connects them around a clearly defined physical task.
Simulation and evidence guide each step.
Use commercially available robots and established AI technologies. Invest in the integration, adaptation, and validation your workflow needs.
Workflow analysis, technical feasibility, hardware requirements, baseline measurements, and an estimate of operational value.
A scoped opportunity and a decision on whether to pilot.
Connect arms, grippers, cameras, sensors, controllers, and edge compute through supported interfaces, with qualified hardware and integration partners.
An integration design with clear interfaces and responsibilities.
Select suitable vision-language-action models, plan demonstrations, adapt policies where appropriate, and evaluate behavior against task-specific criteria.
A task adaptation and evaluation workflow.
Develop simulation environments and test workflows using tools such as NVIDIA Isaac Sim and Isaac Lab where appropriate. Check assumptions against the physical application.
Repeatable scenarios for development and validation.
Connect application software, define commissioning and acceptance tests, and support deployment with qualified partners responsible for physical installation and site requirements.
A bounded pilot and an agreed commissioning plan.
Build success detection, failure analysis, exception handling, telemetry, and review workflows to understand what worked and what needs to change.
Operational evidence and a prioritized improvement loop.
Define the task, baseline, constraints, and business case.
Select existing hardware, tooling, interfaces, and engineering partners.
Connect perception, models, planning, and task software.
Evaluate task performance, failure modes, safety constraints, and economics.
Support a bounded commissioning process with qualified partners.
Review outcomes, curate failures, and refine the application.
A pilot starts with agreed acceptance criteria and a go/no-go decision. Hardware selection, site risk assessment, installation, and commissioning responsibilities are defined with the customer and qualified partners.
The application plan makes ownership explicit. The exact division depends on the hardware, site, and scope of the engagement.
Handoff Software, integration evidence, and agreed acceptance tests
Handoff An integrated workcell and commissioning evidence
Handoff A reviewed operating process and pilot decision
Develop application software, model adaptation, evaluation, and operational intelligence around your hardware.
Add perception, learning-based policies, and AI software to an integration-led automation application.
Assess a repetitive or difficult-to-staff task, then define a bounded pilot with measurable performance.
Explore physical inspection and operational workflows while retaining established telemetry and data engineering capabilities.
Assess, integrate, adapt, and evaluate robotics applications. Commissioning support is scoped with qualified partners.
Discuss a pilot ↗Replay incidents, review triage hypotheses, and curate learning data from robot operations.
↗Infrastructure softwareNormalize GPU and data-center telemetry, validate readiness, and retain evidence for operators.
↗Agree on the task, test conditions, and acceptance criteria before implementation. Evaluate successful completions, cycle time, interventions, failure modes, and operating cost across representative trials. Share measured results with their conditions and limits.
Record successful completions, cycle time, and quality against the agreed baseline and test conditions.
Log failure modes, uncertain cases, and human assistance. Review what the system should detect, retry, or escalate.
Review operating cost and workflow impact with the customer. Document assumptions and the evidence needed before expanding scope.
Our work in perception, data pipelines, infrastructure, and robot incident analysis gives each robotics engagement a practical engineering foundation. Explore the customer work behind those capabilities.
Explore the wider robotics ecosystem through these publisher films. These are industry references, separate from DehazeLabs work.
Tell us about the task, operating environment, existing hardware, and the outcome you want to improve.
Talk to our engineers ↗