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Manufacturing Systems Engineer Jobs in Georgia (NOW HIRING)

The Systems Engineer is responsible for assisting with the maintenance of the PLM environment, the ... Work with various business units to support data consumption standards, manufacturing trials.

Systems Engineer III

Savannah, GA · On-site

$93K - $125K/yr

Systems Engineer III (Electronic) Salary: $93,750-$125,000 The Systems Engineer III (Electronic) is ... Support manufacturing engineering teams and suppliers through the development of test procedures ...

New

Manufacturing Engineer - Advanced Machining

Pooler, GA · On-site

$66K - $85K/yr

Manufacturing Engineer - Advanced Machining Processes Company Overview At Mitsubishi Power, we're ... Own machining programs, process data, DNC/MDC systems, and change management processes to ensure ...

Manufacturing Engineer (3151)

Cartersville, GA · On-site

$63K - $81K/yr

... efficient manufacturing systems. - Apply Lean Six Sigma methodologies to improve process ... S. in Engineering or Engineering Technology. Required Experience: - 2-5 years of experience in a ...

New

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Quality Systems Engineer

Atlanta, GA · On-site

$95K - $105K/yr

We're looking for someone who ● Holds a bachelor's degree in Engineering, Quality, Manufacturing, or a related field ● Has 3-7+ years of experience in quality systems or quality engineering ...

Building Systems Engineer - BMS/EPMS The Building Systems Engineer specializing in Building ... Certifications such as BMS/EPMS Manufacture Training/Certification, HVAC/Electrical equipment, LEED ...

Showing results 21-40

Manufacturing Systems Engineer information

See Georgia salary details

$34.2K

$93.1K

$133.8K

How much do manufacturing systems engineer jobs pay per year?

As of Aug 15, 2026, the average yearly pay for manufacturing systems engineer in Georgia is $93,065.00, according to ZipRecruiter salary data. Most workers in this role earn between $71,800.00 and $120,300.00 per year, depending on experience, location, and employer.

What is a manufacturing systems engineer?

Manufacturing Systems Engineers are professionals who design, implement, and optimize integrated systems used in manufacturing processes. They work to improve efficiency, quality, and productivity by analyzing workflows, selecting appropriate technologies, and ensuring systems work seamlessly together. Their role often involves coordinating between different departments, troubleshooting system issues, and implementing automation or process improvements. They play a key part in modernizing manufacturing operations and ensuring products are made efficiently and to high standards.

What is the difference between Manufacturing Systems Engineer vs Manufacturing Process Engineer?

AspectManufacturing Systems EngineerManufacturing Process Engineer
Primary FocusDesign, optimize, and integrate manufacturing systems and automationDevelop and improve manufacturing processes and workflows
Skills & CertificationsSystems engineering, automation, PLC programming, CADProcess analysis, Lean, Six Sigma, CAD
Work EnvironmentManufacturing plants, automation labsProduction lines, process development areas
Industry UsageManufacturing, automation, industrial engineeringManufacturing, process improvement, quality control

While both roles support manufacturing efficiency, Manufacturing Systems Engineers focus on integrating and automating entire systems, whereas Manufacturing Process Engineers concentrate on refining specific production processes. Understanding these distinctions helps in choosing the right career path or job search focus.

What are the key skills and qualifications needed to thrive as a manufacturing systems engineer?

To thrive as a Manufacturing Systems Engineer, you need a solid background in industrial or manufacturing engineering, process optimization, and analytical problem-solving, usually backed by a relevant engineering degree. Familiarity with CAD software, ERP systems, automation tools, and certifications like Six Sigma or Lean Manufacturing are typically required. Strong project management, communication, and teamwork skills help you collaborate across departments and drive continuous improvement initiatives. These competencies are crucial for optimizing production efficiency, ensuring product quality, and supporting the overall success of manufacturing operations.

What are some common challenges faced by manufacturing systems engineers when integrating new technologies into existing production lines?

Manufacturing Systems Engineers often encounter challenges such as ensuring compatibility between new technologies and legacy equipment, minimizing production downtime during upgrades, and training staff to effectively use new systems. They must carefully plan and coordinate with cross-functional teams—including production, IT, and quality assurance—to address potential disruptions and maintain product quality. Effective communication and thorough testing are key to a smooth integration process.

What are popular job titles related to Manufacturing Systems Engineer jobs in Georgia?

For Manufacturing Systems Engineer jobs in Georgia, the most frequently searched job titles are:

What job categories do people searching Manufacturing Systems Engineer jobs in Georgia look for?

The top searched job categories for Manufacturing Systems Engineer jobs in Georgia are:

Infographic showing various Manufacturing Systems Engineer job openings in Georgia as of August 2026, with employment types broken down into 1% As Needed, 82% Full Time, 11% Part Time, 1% Temporary, 4% Contract, and 1% Nights. Highlights an 89% Physical, 3% Hybrid, and 8% Remote job distribution, with an average salary of $93,065 per year, or $44.7 per hour.

Mechanical Systems Engineer

Cantrell-Gainco, Inc.

Gainesville, GA

Full-time

Re-posted 6 days ago


Job description

Position Summary

The Mechanical Systems Engineer is responsible for the mechanical design, analysis, development, testing and life-cycle support of machinery and equipment. This role owns the complete mechanical design of mechanical equipment, robotic cells, and automated manufacturing systems, including end-of-arm tooling (EOAT), fixtures, guarding, support structures, and integration with conveyors, actuators, and ancillary automation. The role is also responsible for supporting transfer to manufacturing. The engineer collaborates closely with controls, robotics, manufacturing, and field-service teams to ensure the equipment meets performance, reliability, maintainability, safety, and cost objectives.

The role is also required to support in-house and field testing, installation, startup, commissioning, problem-solving, and troubleshooting at customer sites, as needed.

Key Responsibilities

Mechanical Design

  • Design and develop integrated electromechanical systems
  • Create detailed 3D CAD models and production drawings for equipment, EOAT, frames, tooling, and guarding.
  • Apply hygienic design principles for wash-down, food contact, and sanitary environments.
  • Ensure proper motion design and integration including clearance and service access.
  • Ensure designs meet performance, reliability, safety, and regulatory requirements.
  • Produce BOMs, routings, change documentation, maintenance procedures, and build instructions.
  • Create, develop and maintain system documentation including equipment manuals and videos, technical data, part information, and as-build and as-fielded technical data sets.

Integration & Collaboration

  • Work closely with robotics and controls engineers on motion planning constraints, EOAT requirements, and simulation-driven layout decisions.
  • Incorporate sensors, pneumatics, cabling, dress packs, and safety devices into the mechanical design.

Engineering Analysis & Validation

  • Perform structural, dynamic, motion, and tolerance analyses (FEA, mechanism analysis, DFMEA, PFMEA) applying both theoretical and practical design principles.
  • Conduct design reviews, Design for X (Manufacturability, Assembly, Installation, Maintainability, etc.) reviews, and seek cross organizational input to designs.

Testing, Validation & Commissioning

  • Develop and execute test plans for prototypes, subsystems, and full systems to verify performance and compliance
  • Support prototype builds, system bring-up, and validation activities in lab and production environments
  • Participate in factory acceptance testing (FAT), field commissioning, site acceptance and life testing, and system startup
  • Document results, identify issues, and drive corrective actions to closure

Troubleshooting & Product Support

  • Diagnose and resolve issues in electromechanical systems during development, production, and field operation
  • Provide technical support to manufacturing, service, and customer teams
  • Perform root-cause analysis and implement corrective and preventive actions
  • Support ongoing product maintenance, upgrades, and sustaining engineering activities

Cross-Functional Collaboration & Continuous Improvement

  • Collaborate with mechanical, electrical, controls, software, manufacturing, and quality teams to deliver product solutions
  • Drive improvements in system performance, reliability, manufacturability, and cost
  • Contribute to engineering standards, best practices, and documentation processes

Field Support

  • Provide on-site installation and commissioning support for robotic equipment.
  • Assist with root-cause analysis and continuous improvement initiatives.
Required Qualifications
  • Bachelor’s degree in Mechanical Engineering or similar program from an ABET accredited program
  • 3 years’ experience in the design of equipment and machinery.
  • 3 years’ experience using Solidworks or Inventor in a professional environment
  • Experience troubleshooting machine applications in production environments
  • Strong documentation and cross-functional collaboration skills

Additional Qualifications
  • Experience in food or sanitary equipment environments
  • Ability to work collaboratively and execute tasks autonomously with transparency and integrity, incorporating multiple sources of input and aligning with consensus direction.
  • Excellent English language communication (oral, written, and listening) and interpersonal skills.
  • Team-oriented; able to interact effectively with internal and external stakeholders.
  • Proficient in Microsoft Office (Word, Excel, and PowerPoint).
  • Strong research and analytical skills for investigating project-related issues and innovations.
  • Able to troubleshoot, solve problems and quickly recommend solutions.
  • Ability to lift and move up to 50 pounds
  • Able to travel 25% of the time.

The responsibilities are not to be considered exhaustive. Other responsibilities will be applied to the role as needed.