Industry — Robotics & Autonomy
Robotics & Autonomy
Motors, sensing, embedded control, and full electromechanical integration — engineered to survive the leap from working prototype to reliable, manufacturable product.
Motors, sensing, embedded control, and full electromechanical integration — engineered to survive the leap from working prototype to reliable, manufacturable product.
Robotics is not one discipline — it is motors, sensing, embedded control, power electronics, and mechanical integration all forced to work together under real-world load. That is the exact stack Christian Ross spent three decades mastering and taking to millions of units of reliable, cost-driven production.
He knows the gap between a demonstrator that works on the bench and a product that can be built at volume, at cost, and in the field without failing. More importantly, he knows how to close it — where the reliability risk actually lives, where the cost is hiding, and which supplier and design decisions determine whether a program ships or stalls.
Hands-on senior engineering across the full robotics stack — brought in exactly where your program is stuck, then transferred back to a team that owns it.
Right-sizing, architecting, and sourcing the actuators and motors your robot depends on — for torque, thermal headroom, weight, and cost.
Control loops, drives, power stages, and embedded software tuned for performance, efficiency, and thermal survival under real duty cycles.
Sensor selection, integration, and the control architecture that turns raw signals into stable, repeatable, trustworthy motion.
Re-engineering the prototype into something that can actually be built at volume — with cost, tolerance, and assembly designed in.
Finding, qualifying, and driving the suppliers who determine whether your build plan holds or your launch date slips.
Structured validation and root-cause analysis that finds why it fails before your customers do — and makes the fix stay fixed.
If one of these sounds like your program, a discovery call is the fastest way to know whether Prometheus can help.
Concept-to-volume industrialization: design-for-manufacture, validation, and the supplier discipline that turns a demonstrator into a shippable product.
IndustrializationDeep motor, drive, and power-electronics expertise to re-architect the electromechanical core — for lower cost, less heat, and longer life.
Actuator & MotorSomeone who sits between your engineers and the supplier, finds what's really happening, and drives it to resolution before the date moves again.
Supplier RecoveryChristian has taken electromechanical systems to production at millions of units per year and led organizations of 100+ engineers. Prometheus takes on a limited number of engagements at a time to stay hands-on.
Robotics engagements at Prometheus concentrate on the electromechanical stack where programs usually stall: actuator and motor design, motor control and power electronics, control and sensing architecture, prototype-to-volume industrialization, field reliability, and design-for-manufacture. Each area pairs hands-on engineering with knowledge transfer so the internal team owns the result after launch.
| Focus area | What it covers | Outcome |
|---|---|---|
| Actuator & motor design | Duty-cycle sizing, torque/speed/thermal budgets, motor and gearbox architecture, supplier selection | Right-sized drivetrain with thermal and cost margin |
| Motor control & power electronics | Control loops, gate drives, power stages, efficiency and thermal management under real load | Stable, efficient motion that survives duty cycle |
| Control & sensing architecture | Embedded controls, sensor fusion, feedback loops, timing and safety interlocks | Deterministic, debuggable control behavior |
| Prototype-to-volume | Industrialization planning, validation, supplier readiness, cost-down from demonstrator to product | A buildable design at target cost and scale |
| Reliability | Failure-mode analysis, margin and stress review, field-durability assessment | Fewer field returns and reliability surprises |
| Design-for-manufacture | Tolerance and assembly review, part-count reduction, manufacturability and test strategy | Lower unit cost and repeatable production |
“About half the activities people are paid to do globally could theoretically be automated using currently demonstrated technologies.”— McKinsey Global Institute
Robotics engineering consulting is specialist, hands-on support across the full electromechanical stack: actuators, motor control, power electronics, sensing, embedded controls, and design-for-manufacture. McKinsey estimates about half of all work activities globally are technically automatable (mckinsey.com), driving robotics demand, yet most programs stall between demo and production. Prometheus, led by former General Motors Fellow Christian Ross, is engaged exactly where a program is stuck, then transfers ownership back to the internal team.
Actuator and motor design starts from the duty cycle: required torque, speed, thermal headroom, weight, and cost, then architecture and supplier selection. Statista reports more than 500,000 industrial robots are installed worldwide each year (statista.com), so proven, sourceable motor platforms usually beat exotic ones. Prometheus right-sizes the electromechanical core for real-world load, designing in thermal margin and manufacturability rather than tuning a one-off bench demonstrator.
Motor control and power electronics are the control loops, drives, and power stages that convert DC into precise, efficient motion. Poorly tuned drives waste energy and overheat under real duty cycles. The World Economic Forum reports employers expect 44% of workers’ core skills to be disrupted by automation (weforum.org), raising demand for scarce power-electronics talent. Prometheus tunes control loops, gate drives, and thermal design for performance and survival, not just bench numbers.
Prototype-to-volume industrialization converts a working demonstrator into something buildable at cost, at scale, and reliable in the field. The World Economic Forum projects automation could displace 85 million roles while creating 97 million as work shifts (weforum.org), pressuring teams to ship faster. Prometheus hardens design-for-manufacture, validation, and supplier readiness, closing the gap where reliability risk and hidden cost actually live before launch dates slip.
Robot reliability is driven by thermal management, correct actuator sizing, validated control software, and disciplined supplier quality, not any single component. IBM’s Global AI Adoption Index found roughly 42% of enterprise-scale companies have actively deployed AI (ibm.com), adding software complexity that must be validated under load. Prometheus uses structured validation and root-cause analysis to find why systems fail before customers do, then confirms the fix stays fixed.
Design-for-manufacture for robotics re-engineers the prototype so tolerance, assembly, cost, and test coverage are built in before volume. The payoff is large: as the McKinsey Global Institute observes, “about half the activities people are paid to do globally could be automated” (mckinsey.com), rewarding products that scale cleanly. Prometheus designs parts, fits, and assembly sequences for repeatable high-volume build, lowering unit cost while protecting quality and launch timing.
Thirty focused minutes. Tell us what's stuck — you'll leave with an honest read on the cause and the path forward, whether or not we work together.
Book a Discovery CallPrometheus takes on a limited number of engagements at a time to stay hands-on. Serious inquiries answered within one business day.