Map hazards by task and machine state.
Evaluate the complete application, not the robot alone: end effector, workpiece, interfaces, cell access, foreseeable misuse, recovery, maintenance and every source of unexpected motion or stored energy.
Connect repeatable motion to safe material flow and process control
Robotics & Automation
Industrial robots, cobots, mobile systems, machine tending, palletizing and integrated production cells.
How this equipment family works
Automation value comes from the complete cell: parts, presentation, gripping, sensing, robot or motion platform, machine interface, safety system, recovery logic and people. A robot specification alone does not define throughput or reliability.
Decision sequence: Map the work sequence, variation, required rate, operator interaction and failure recovery. Then evaluate reach, payload, end-of-arm tooling, machine interfaces, guarding, controls and maintainability.
FOUR MACHINE-CLASS GUIDES
All branches →Open the branch.
01
Machine-Tending Robots
Machine-tending automation loads, unloads and sometimes inspects parts around CNC machines, presses, molding machines or other production equipment.
Open machine-class guide →02Collaborative Robot Applications
Collaborative robots are designed with features that can support closer human interaction, but each application still requires a task-specific risk assessment and safe integration.
Open machine-class guide →03Palletizing & Material-Handling Cells
Palletizing and material-handling cells move cases, bags, components or loads through repeatable pick, place, orientation and transfer patterns.
Open machine-class guide →04AMRs, AGVs & Mobile Robots
Automated guided vehicles follow defined guidance while autonomous mobile robots use onboard sensing and planning to transport material through a changing facility.
Open machine-class guide →OWNERSHIP DEPTH STANDARD
Reviewed 2026-10-03Evaluate the whole robotics & automation system.
These four controls turn a category page into an operating decision. Use them before comparing brand, age or asking price, then open the machine-class guides for exact evidence questions.
Demand dated condition evidence.
Trend robot and axis condition, grippers, sensors, safety devices, batteries where used, machine interfaces, backups, network dependencies, spares and fault-recovery performance.
Price the production system.
Installed cost includes engineering, end-of-arm tooling, vision, guarding, controls, machine interfaces, networking, validation, training, spares, changeover and production ramp.
Know when every claim was true.
Date the risk assessment, stop or force test, rate study, software backup, route or changeover trial and interface validation. A demo cycle is not sustained production evidence.
Primary public context
These sources establish general context. The exact manual, current rules, local code, risk assessment and qualified professionals control the final decision.
- OSHA industrial robot systems technical manual ↗Robot-cell, integration and application-hazard context
- OSHA robotics overview ↗Industrial robot hazard-recognition context
- OSHA control of hazardous energy ↗Unexpected motion and stored-energy context
- NIST robotics and manufacturing automation ↗Manufacturing automation and implementation context
CONNECTED MBB RESEARCH
Move from equipment class to a complete decision.
The encyclopedia defines the system. Existing Machine Blue Book resources connect that system to models, market evidence, technical references and the service network.
Primary context
These public authorities provide general manufacturing, measurement or safety context. They do not replace the equipment manual, code review, risk assessment or qualified engineering.
Open the full source register →Do not stop at the category label.
Verify the exact equipment configuration, included systems, facility requirements, production evidence and ownership path before comparing price.