Mechanical Engineering Consultants for Production and Automation Problems

An engineering consultancy helps clients define technical problems, evaluate options, and develop workable solutions. In manufacturing, this can include process analysis, equipment and layout reviews, cycle-time studies, conceptual design, safety considerations, cost and ROI evaluation, implementation planning, and project support. GLOBAL also applies these findings to robotic automation, controls integration, commissioning, and the engineering resources needed to operate a production system.

A design mechanical engineer develops the physical systems, components, tooling, fixtures, and equipment layouts needed to perform a function safely and reliably. For automation projects, the work may include part presentation, end-of-arm tooling, material flow, machine interfaces, guarding, fixture integration, and space planning. The engineer balances part geometry, production rates, maintainability, safety requirements, and the realities of the existing manufacturing environment.

Mechanical engineering hourly charges vary by project scope, required specialization, engagement type, and whether work is performed remotely or on site. Automation assignments may require expertise in mechanical design, robotics, controls, simulation, validation, and commissioning. A useful estimate defines deliverables, schedule, plant access, equipment interfaces, and expected support level so the work can be staffed with the right engineering resources.

A thorough feasibility study should examine the current process, labor content, cycle times, part variation, equipment condition, floor space, safety requirements, utilities, and production targets. It should identify automation opportunities, describe a conceptual solution, outline risks and dependencies, and estimate implementation timing, capital requirements, and anticipated returns. This information helps manufacturers prioritize projects before moving into detailed engineering or integration.

Yes. Existing lines can often be modernized through robot retrofits, new controls, upgraded tooling, machine vision, additional material handling, or conversion of selected manual tasks to automated operations. The appropriate approach starts with an assessment of equipment condition, interfaces, available space, safety systems, downtime windows, and output goals. Phased upgrades can help control capital spending while improving capacity and consistency.

Mechanical engineering and robotic automation are used across automotive, electric vehicle, heavy equipment, agriculture, aerospace, defense, appliance, consumer product, and general industrial manufacturing. Applications range from welding, painting, dispensing, and assembly to machine tending, inspection, and material handling. The best solution is based on the process and production objective rather than a one-size-fits-all industry template.

Project timing depends on the complexity of the process, equipment availability, design maturity, custom tooling, controls scope, safety review, and installation window. Early feasibility work and simulation can clarify requirements before detailed design begins. A complete program typically progresses through concept development, engineering, build and integration, testing, installation, commissioning, training, and production support, with milestones defined around the manufacturer’s launch schedule.

Yes. GLOBAL's model combines automation solutions and engineering services, so manufacturers can keep engineering support after launch. Support can include controls and PLC programming, robot programming, troubleshooting, maintenance, training, and commissioning and launch support. Engagements range from single visits to resident engineering programs on a defined technical scope, with next-day on-site support often available.