Advanced Automation and Robotics Engineering Technology

An automation and robotics engineer designs, programs, tests, and improves systems that perform manufacturing tasks with minimal manual intervention. Their work can include process analysis, robot selection, end-of-arm tooling, PLC and controls integration, machine vision, safety systems, simulation, commissioning, and production support. The goal is to improve throughput, quality, traceability, consistency, and workplace safety while fitting the system to real operating constraints.

Robotics can automate repetitive, hazardous, high-precision, or high-volume tasks such as machine tending, material handling, palletizing, assembly, fastening, welding, painting, coating, dispensing, sealing, inspection, and packaging. A feasibility review identifies where automation will provide the strongest operational value. Process variability, part presentation, cycle time, available floor space, quality requirements, and changeover needs all influence the recommended system design.

A feasibility study evaluates the existing process, equipment, parts, production volumes, cycle times, facility constraints, and desired outcomes before a manufacturer commits capital. GLOBAL uses this information to identify automation opportunities, develop a conceptual approach, define likely scope and timelines, and assess expected return. This early analysis helps teams compare options, reduce implementation risk, and prioritize projects with measurable operational impact.

Turnkey integration brings the major project disciplines together under one coordinated delivery team. GLOBAL can provide project management, engineering design, offline robot simulation, controls engineering, machine vision, tooling, safety guarding, build and integration, installation, programming, commissioning, operator training, documentation, and ongoing support. The result is a production-ready system designed around defined process, quality, and throughput requirements.

Yes. Automation retrofits can add robots, controls, vision, safety systems, new equipment, or converted manual operations to an existing line. They are commonly used for product launches, model-year changeovers, capacity increases, and process improvements. A careful assessment of utilities, controls architecture, equipment condition, floor space, and planned downtime helps define an upgrade path that preserves valuable assets while improving performance.

Machine vision gives a robot information about the part or process it is working with. Cameras can locate parts in changing orientations, guide random bin picking, verify component presence and position, inspect product quality, track moving parts, and validate dispensing paths. This reduces dependence on rigid fixturing, supports more variable production conditions, catches defects earlier, and expands the range of tasks a robotic cell can handle.

A productive initial review includes part drawings or samples, process steps, production volumes, target cycle times, quality criteria, current equipment details, plant layout, available utilities, safety requirements, and planned future product changes. Photos, videos, downtime data, and scrap or rework information are also useful. With these inputs, engineers can define constraints, assess opportunities, and begin building an appropriate concept.

Yes. GLOBAL combines robotic systems integration with technical staffing, allowing manufacturers to source both automation systems and experienced personnel through one partner. Staffing support can include controls engineers, PLC programmers, robotics technicians, electrical and mechanical designers, project managers, commissioning engineers, installation engineers, and robot programmers. Engagements are available for contract, contract-to-hire, and permanent direct-placement needs.