Robotics Engineering Services
Robotics engineering services for industrial automation, robotic product development, prototyping, controls, machine vision, and end-of-arm tooling. Compare robotics engineers, consultants, and contract engineering firms.
What robotics engineering services include
Robotics engineering services cover the full lifecycle of an industrial automation project — from feasibility and ROI analysis through cell design, robot selection, tooling, controls, safety integration, commissioning, and post-deployment optimization. The right partner combines mechanical, electrical, controls, and software engineering under one roof so the cell actually hits its throughput and uptime targets in production.
Cell layout, reach studies, cycle-time modeling, simulation (RoboDK, Process Simulate), and ROI analysis.
Feasibility, vendor-agnostic robot selection, capacity planning, and CapEx justification.
Mechanical install, runoff testing, FAT/SAT, and production ramp-up support.
PLC, HMI, SCADA, robot programming (FANUC, ABB, KUKA, Yaskawa, UR), and IIoT integration.
Custom grippers, vacuum end-effectors, tool changers, and force-controlled tooling design.
2D/3D vision, guided pick-and-place, inspection, and barcode/OCR systems.
Industrial robotics engineering
Industrial robotics engineering deploys articulated, SCARA, delta, gantry, and collaborative robots in production environments. Engineers size the robot to payload and reach, model the cell in simulation, integrate fixturing and conveyance, and validate the system against takt time and quality requirements.
- Cell concept, layout, and safeguarding strategy
- Reach and payload studies, singularity and collision analysis
- Robot brand selection and lifecycle/spares planning
- Mechanical fixturing, conveyance, and material flow design
- Simulation in RoboDK, Process Simulate, RobotStudio, or Roboguide
Robotic product development
Robotics product engineering firms take new robotic products — AMRs, cobots, service robots, surgical robots, agricultural robots, and end-effectors — from concept through DFM and pilot production. Contract robotic engineering services plug directly into your product team when you need dedicated mechanical, embedded, controls, or ROS/ROS 2 expertise on a fixed-term basis.
- Industrial design, mechanical architecture, and structural analysis
- Embedded firmware, motor control, and battery/BMS engineering
- ROS 2, Nav2, MoveIt, SLAM, and sensor fusion software
- Certification support — UL, CE, FCC, ISO 13482 (personal care robots)
- DFM, supplier selection, and pilot manufacturing handoff
Robotics prototyping
Rapid prototyping compresses the loop from CAD to a working robot you can put in front of customers or manufacturing partners. A good robotics prototyping partner runs mechanical, electrical, and firmware iterations in parallel and validates each build against the intended production process.
- 3D-printed and machined mechanical prototypes with functional actuation
- Custom PCB design, bring-up, and rework for embedded controllers
- Off-the-shelf robot arms + custom EOAT for proof-of-concept cells
- Test rigs, life-cycle fixtures, and validation instrumentation
- Iterative firmware and motion tuning through weekly design reviews
Robotic automation for manufacturers
Manufacturing automation engineering applies robotics to specific production processes — welding, machine tending, packaging, assembly, inspection — and integrates the cell into the broader plant via MES, ERP, and IIoT systems.
Body-in-white, welding, painting, and assembly cells.
Hygienic palletizing, case packing, and high-speed pick-and-place.
AMR fleets, AS/RS, goods-to-person, and mixed-SKU palletizing.
Cleanroom-rated cells, precision placement, and wafer handling.
GMP-compliant filling, kitting, lab automation, and serialization.
Welding, machine tending, deburring, and material handling.
Controls and programming
Controls engineering ties the robot to the rest of the cell — PLCs, HMIs, drives, safety controllers, and the plant network. Strong controls work is the difference between a cell that runs and a cell that runs reliably for years.
- Robot programming — FANUC TPP/Karel, ABB RAPID, KUKA KRL, Yaskawa INFORM, UR PolyScope/URScript
- PLC platforms — Rockwell Studio 5000, Siemens TIA Portal, Beckhoff TwinCAT, Mitsubishi GX Works
- HMI/SCADA — FactoryTalk, WinCC, Ignition, Wonderware
- Industrial networking — EtherNet/IP, PROFINET, EtherCAT, OPC UA
- NFPA 79 control panel design, UL 508A panel build
Machine vision
Machine vision turns a blind robot into a flexible one — guiding pick-and-place from random bin locations, inspecting parts inline, and reading barcodes or OCR for traceability. Vision engineering covers optics, lighting, camera selection, calibration, and the software pipeline that decides in milliseconds.
- 2D and 3D vision — Cognex, Keyence, SICK, Zivid, Photoneo
- Vision-guided robotics (VGR) and random bin picking
- Inline inspection, gauging, and surface defect detection
- Barcode, DPM, and OCR for track-and-trace
- Deep-learning vision for variable parts and defect classification
End-of-arm tooling
End-of-arm tooling (EOAT) is where most robotic projects succeed or fail. The tool has to grip the part reliably across the SKU mix, fit inside the cycle-time budget, and stay within the robot's payload and moment limits.
- Custom mechanical grippers — parallel, angular, three-jaw, servo-driven
- Vacuum end-effectors, multi-zone foam tools, suction cup arrays
- Magnetic and Bernoulli pickup for sheet metal and flat stock
- Force/torque sensors and compliant tooling for assembly
- Tool changers and multi-tool turrets for mixed-product cells
Safety and compliance
Robotic cells in the US must meet ANSI/RIA R15.06 (industrial robots) and, for cobots, ISO/TS 15066. Safety integration covers risk assessment, safeguarding (fencing, light curtains, area scanners), safety-rated controls, and lockout/tagout procedures.
- Risk assessment per ANSI/RIA TR R15.306
- Safety-rated PLCs and devices to ISO 13849 PLd / IEC 62061
- Perimeter guarding, presence-sensing, and safe-zone configuration
- Collaborative robot power and force limiting validation
- OSHA, NFPA 79, and customer-specific safety standards
Robotics consultants vs robotics engineering firms
Independent engineers or small advisory shops that scope the problem, size the system, run ROI/feasibility, and select vendors. Best when you need a vendor-neutral opinion before spending on hardware.
Multi-discipline teams (mechanical, electrical, controls, software) that design and build the cell end-to-end. Best when you need PE-stamped drawings, integration, commissioning, and warranty in one contract.
Staff-augmentation model — dedicated robotics engineers who work inside your team on a fixed-term basis for product development, cell design, or controls work.
Product-focused shops that develop new robotic products (AMRs, cobots, end-effectors, service robots) from concept through DFM, prototype, and pilot manufacturing.
How to hire a robotics engineer
Pieces per hour, takt time, SKU mix, and uptime requirements — without these, no integrator can quote accurately.
Look for proven runtime in your industry, with the robot brands and PLC platforms you already operate.
A RoboDK or Process Simulate run validates reach, cycle time, and collisions before any hardware ships.
TÜV-certified safety engineers, RIA/R15.06 risk assessments, and ISO 13849 PLd controls experience.
Acceptance metrics, runoff duration, and warranty/support terms written into the contract.
Questions to ask before hiring a robotics engineering firm
- 1How many cells have you deployed in our industry, and can we tour one?
- 2Which robot brands and PLC platforms do you self-perform vs sub out?
- 3Will you provide a RoboDK / Process Simulate model as part of the proposal?
- 4Who owns the safety risk assessment, and are your integrators TÜV-certified?
- 5What are your FAT and SAT acceptance criteria, and what's the warranty?
- 6Do you offer contract robotics engineers for product development, not just cell integration?
Find Robotics Engineering Consultants
Connect with vetted robotics engineers, consultants, and contract robotic engineering firms for industrial automation, product development, and prototyping projects.
Frequently asked questions
What are robotics engineering services?
End-to-end engineering for robotic systems: feasibility, cell design, robot selection, end-of-arm tooling, controls and PLC programming, safety integration, commissioning, and ongoing optimization.
What does an industrial robotics engineer do?
Designs and deploys robotic cells in factories and warehouses — sizing the robot, building the tooling, programming motion paths, integrating PLCs and vision, and validating safety and throughput.
What is the difference between robotics and automation engineering?
Robotics engineering focuses on articulated and collaborative robots. Automation engineering is broader and includes conveyors, sensors, control panels, and any production equipment. Most industrial projects need both.
Which robot brands do firms typically integrate?
FANUC, ABB, KUKA, Yaskawa Motoman, Universal Robots, Stäubli, Mitsubishi, Epson, Omron/Techman, and Kawasaki are the most common in North American industrial work.
How long does a typical robotic cell take to deploy?
Simple pick-and-place cells run 8–16 weeks from PO to production. Multi-robot welding or assembly cells typically take 6–9 months including FAT and SAT.
What safety standards apply to industrial robots?
ANSI/RIA R15.06 (now ANSI/A3 R15.06) and ISO 10218 cover industrial robot safety; ISO/TS 15066 covers collaborative robots; ISO 13849 covers safety-related control systems.
How much does a robotic cell cost?
Single-arm pick-and-place cells start around $100K–$200K turnkey. Multi-robot welding or assembly cells commonly run $500K–$2M+ depending on tooling, vision, and integration scope.
Do I need a PE for robotic installations?
Most robotic cells don't require a PE stamp, but stamped drawings may be needed for structural mezzanines, electrical service upgrades, or NFPA-79 panel reviews in some jurisdictions.