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Robotic Engineering Jobs in Wisconsin (NOW HIRING)

WI · On-site

$70 - $90/hr

Robotic Welding Engineer Company: Standard Iron Reports To ... Engineering Manager Location: Hartford Wiscosnin (With occasional travel to other plants) Company ...

Robotic Weld Engineer

Hartford, WI · On-site

$19.75 - $27/hr

Robotic Welding Engineer Company: Standard Iron Reports To ... Engineering Manager Location: Hartford Wiscosnin (With occasional travel to other plants) You can ...

WI · On-site

$80 - $100/hr

Robotic Welding Engineer Company: Standard Iron Reports To ... Engineering Manager Location: Hartford Wiscosnin (With occasional travel to other plants) Company ...

Robotic Weld Engineer

Hartford, WI · On-site

$19.75 - $27/hr

Robotic Welding Engineer Company: Standard Iron Reports To ... Engineering Manager Location: Hartford Wiscosnin (With occasional travel to other plants) You can ...

Robotic Weld Engineer

Hartford, WI · On-site

$19.75 - $27/hr

Robotic Welding Engineer Company: Standard Iron Reports To ... Engineering Manager Location: Hartford Wiscosnin (With occasional travel to other plants) You can ...

Robotic Welder

Oshkosh, WI · On-site

$23 - $27/hr

Do you excel at both hands-on welding and the technical challenge of robot programming and setup? If so, our Oshkosh clients needs YOU! Position -Robotic Welder Job Location -Oshkosh, WI Starting ...

Robotic Welder

Oshkosh, WI · On-site

$20/hr

Do you excel at both hands-on welding and the technical challenge of robot programming and setup? If so, our Oshkosh clients needs YOU! Position -Robotic Welder Job Location -Oshkosh, WI Starting ...

This role works closely with manufacturing, engineering, maintenance, quality, and production teams to ensure robotic weld cells are programmed correctly, fixtures are set up effectively, equipment ...

New

Strong background in mechanical engineering principles combined with elite-level programming and ... Design and program complex robotic workcells. Act as the subject matter expert for high-level robot ...

WI · On-site

$90 - $150/hr

Requirements Experience in robotic engineering and simulation work is preferred. Strong understanding of robotics and automation related products. High willingness to learn and take ownership.

WI · On-site

$110 - $150/hr

This role reports directly to the Director of Software Engineering. WHO WE ARE: We spend our days building robotic systems, developing complex assembly intelligence software, and designing the next ...

Be Seen First

The role also provides an opportunity to grow into a specialized Robotic Welding Engineering position in the future. The position will focus on manufacturing process improvement, robotic automation ...

New

FANUC is seeking a Robotic Welder Programmer to support welding robot applications at manufacturing facilities in the Milwaukee region. While not a traditional warehouse role, many distribution ...

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Showing results 1-20

Robotic Engineering information

See Wisconsin salary details

$15

$28

$45

How much do robotic engineering jobs pay per hour?

As of Sep 5, 2026, the average hourly pay for robotic engineering in Wisconsin is $28.51, according to ZipRecruiter salary data. Most workers in this role earn between $22.31 and $33.22 per hour, depending on experience, location, and employer.

What is robotic engineering?

Robotic engineering is a branch of engineering that involves the design, construction, operation, and maintenance of robots. It combines principles from mechanical engineering, electrical engineering, computer science, and control systems to create machines that can perform tasks autonomously or with human guidance. Robotic engineers work on developing robots for various industries, including manufacturing, healthcare, space exploration, and more. The field is rapidly evolving as technology advances, offering exciting opportunities for innovation and problem-solving.

What are the key skills and qualifications needed to thrive as a robotic engineer, and why are they important?

To thrive as a Robotic Engineer, you need a solid background in mechanical engineering, electronics, computer science, and mathematics, often supported by a bachelor’s or master’s degree in robotics or a related field. Familiarity with programming languages (such as C++, Python, or ROS), CAD software, and robotics simulation tools is typically required, along with certifications in robotics or automation. Strong problem-solving skills, creativity, teamwork, and effective communication are essential soft skills that set top professionals apart. These competencies ensure the successful design, implementation, and maintenance of complex robotic systems in diverse industries.

What are the typical collaboration dynamics between robotic engineers and other teams during a project?

Robotic engineers frequently collaborate with multidisciplinary teams, including software developers, electrical engineers, and mechanical designers. During a project, they often participate in cross-functional meetings to ensure that hardware, software, and control systems are seamlessly integrated. Effective communication and problem-solving are essential, as robotic engineers may need to translate complex technical requirements between teams or troubleshoot issues that arise during development and testing. This collaborative environment fosters innovation and helps streamline the creation of advanced robotic solutions.

What is the difference between Robotic Engineering vs Mechanical Engineering?

AspectRobotic EngineeringMechanical Engineering
Required CredentialsBachelor's in Robotics, Mechanical, or Electrical Engineering; certifications in roboticsBachelor's in Mechanical Engineering; Professional Engineer (PE) license often preferred
Work EnvironmentDesign labs, manufacturing plants, research facilitiesManufacturing, design studios, research labs
Industry UsageRobotics companies, automation firms, tech startupsAutomotive, aerospace, manufacturing, energy
Common Search/ComparisonRobotic Engineering vs Mechanical Engineering

Robotic Engineering focuses on designing, developing, and maintaining robots and automation systems, often requiring specialized knowledge in robotics and programming. Mechanical Engineering covers a broader range of mechanical systems, including machinery, thermal systems, and structural components. While both fields share foundational engineering principles, Robotic Engineering emphasizes automation and control systems, making it more specialized for robotics applications.

Do robotic engineers make good money?

Robotic engineers typically earn competitive salaries that vary based on experience, education, and location. According to industry data, the median annual wage for robotic engineers is higher than the average for engineering roles, with opportunities for increased earnings through specialized skills in automation, control systems, and programming. Advanced certifications and experience with robotics software and hardware can further enhance earning potential.

Is there a demand for robotic engineers?

Robotic engineering is a growing field with increasing demand across industries such as manufacturing, healthcare, and logistics. Skilled robotic engineers with knowledge of automation, control systems, and programming are sought after as companies adopt advanced robotics and automation technologies.

What jobs do robotic engineers do?

Robotic engineers design, develop, and test robotic systems and automation solutions for various industries. They work on tasks such as programming robots, integrating sensors and control systems, and improving robot performance, often using tools like CAD software and programming languages like C++ or Python. Their work environment typically includes laboratories, manufacturing plants, or research facilities, and they may need specialized certifications or degrees in engineering or robotics.

What job categories do people searching Robotic Engineering jobs in Wisconsin look for?

The top searched job categories for Robotic Engineering jobs in Wisconsin are:

What cities in Wisconsin are hiring for Robotic Engineering jobs?

Cities in Wisconsin with the most Robotic Engineering job openings:

Infographic showing various Robotic Engineering job openings in Wisconsin as of August 2026, with employment types broken down into 90% Full Time, 7% Part Time, 2% Contract, and 1% Nights. Highlights an 84% Physical, 4% Hybrid, and 12% Remote job distribution, with an average salary of $59,294 per year, or $28.5 per hour.

Robotic Weld Engineer

Std Iron

WI • On-site

$70 - $90/hr

Other

Posted 18 days ago


Key responsibilities

  • Program and clone paths for multi-axis robotic welding systems using teach pendants and Offline Programming software.

  • Review fixture designs, specify equipment, and lead the commissioning of new robotic weld cells from design to production.

  • Diagnose and resolve mechanical, electrical, and programming faults to ensure weld quality and minimize downtime.


Job description

Robotic Welding Engineer

Company: Standard Iron
Reports To: Engineering Manager
Location: Hartford Wiscosnin (With occasional travel to other plants)

Company Overview

At Standard Iron, we provide top-tier contract manufacturing and fabrication solutions. We pride ourselves on safety, quality, and production efficiency. We are looking for an experienced Robotic Welding Engineer to drive our automated production systems forward.

Position Summary

The Robotic Welding Engineer bridges the gap between weld metallurgy, advanced robotics programming, and production floor efficiency. You will design, develop, integrate, and optimize automated and robotic welding systems. This role leads process improvement initiatives, troubleshoots complex cells, collaborates on fixture design, and ensures compliance with strict AWS quality standards.

Key Responsibilities Robotic Programming & Optimization
  • Program Systems: Program and clone paths for multi-axis systems (primarily ABB) using teach pendants and Offline Programming (OLP) software.
  • Tune Parameters: Adjust arc parameters, travel angles, travel speeds, voltage, and wire feed speeds to ensure structural integrity and reduce cycle times.
  • Calibrate Sensors: Implement and calibrate Thru-Arc Seam Tracking (TAST), touch sensing, and laser/vision guidance systems.
Tooling, Fixture & Cell Design Review
  • Review Fixtures: Partner with Tooling Engineers to review fixture designs for part repeatability and torch joint access.
  • Specify Equipment: Define technical specs for new robotic arms, power sources, positioners, reamers, and safety enclosures.
  • Manage Integration: Lead commissioning of new robotic weld cells from initial design through production launch.
Quality Control & Troubleshooting
  • Solve Defects: Diagnose mechanical, electrical, and programming faults to resolve issues like porosity, undercut, and lack of fusion.
  • Maintain Calibration: Manage Tool Center Point (TCP) standards and develop recovery protocols to minimize downtime.
  • Ensure Compliance: Execute weld macro-examinations to guarantee alignment with AWS D1.1, D1.3, or customer-specific standards.
Continuous Improvement & Safety
  • Boost Efficiency: Analyze production data to reduce "air-cut" time and improve Overall Equipment Effectiveness (OEE).
  • Champion Safety: Ensure cell compliance with OSHA and RIA/ANSI R15.06 guidelines (light curtains, interlocking gates).
  • Train Staff: Mentor robot operators, technicians, and maintenance staff on basic troubleshooting and safety.
Job Qualifications Education & Experience
  • Degree: Bachelor's degree in Welding, Mechanical, or Automation/Robotics Engineering is preferred. An Associate degree with equivalent hands‑on industrial experience will be considered.
  • Experience: 3–5+ years of direct experience engineering robotic welding applications in heavy manufacturing, automotive, or structural steel fabrication.
Technical Skills
  • Robotics: Proficient in programming major robotic platforms (primarily ABB). Experience with simulation software like RobotStudio or RoboGuide is highly preferred.
  • Welding Expertise: Deep understanding of GMAW (MIG), FCAW, or GTAW (TIG) processes and parameter development.
  • CAD & Prints: Ability to read engineering drawings and utilize CAD software (SolidWorks, AutoCAD, CREO) to review part geometry.
  • Upstream Focus: Knowledge of how laser cutting, stamping, and sheet metal rolling impact part fit-up and automated weld success.
Success Metrics (KPIs)
  • First-Time Through (FTT) Yield: Reduction in post‑weld manual rework and repair rates.
  • Cycle Time Reduction: Percentage decrease in cell cycle times through optimized tool paths.
  • Equipment Downtime: Minimizing cell downtime caused by programming errors or fixture tracking alignment issues.
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