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Robotics Application Engineer Jobs in Minnesota (NOW HIRING)

Integrate advanced manufacturing techniques, including automated fabrication and robotics where ... Support application engineering and Sales with E House configurations, scope definition, and cost ...

Through fundamental technology development, application engineering, system integration, and ... Engineering, Robotics, or a related technical discipline. * Two (2) years of professional ...

Automated Inspection Engineer

Maplewood, MN · On-site

$88K - $113K/yr

Through fundamental technology development, application engineering, system integration, and ... Engineering, Robotics, or a related technical discipline. * Two (2) years of professional ...

Senior Mechanical Engineer

Eagan, MN · On-site

$85K - $120K/yr

Every application presents a new engineering challenge: How do we accurately fill a difficult ... Bachelor's degree in Mechanical Engineering, Mechatronics, Robotics, Automation, Manufacturing ...

Showing results 21-40

Robotics Application Engineer information

See Minnesota salary details

$49.5K

$108.4K

$148.9K

How much do robotics application engineer jobs pay per year?

As of Sep 14, 2026, the average yearly pay for robotics application engineer in Minnesota is $108,419.00, according to ZipRecruiter salary data. Most workers in this role earn between $82,300.00 and $132,200.00 per year, depending on experience, location, and employer.

What does a robotics application engineer do?

A Robotics Application Engineer is responsible for designing, developing, and implementing robotic systems to automate manufacturing or business processes. They work closely with clients to understand their automation needs, select appropriate hardware and software, and integrate robotics solutions into existing workflows. Their role often includes programming robots, troubleshooting issues, providing technical support, and training end-users. Robotics Application Engineers play a crucial part in improving efficiency, safety, and productivity in industries ranging from automotive to electronics and logistics.

What are some typical challenges a robotics application engineer faces when integrating robots into existing manufacturing processes?

A Robotics Application Engineer often encounters challenges such as ensuring compatibility between new robotic systems and legacy equipment, customizing solutions to meet unique production requirements, and minimizing downtime during installation and testing. Effective communication with cross-functional teams—including production, maintenance, and IT—is vital to address unforeseen technical issues and to ensure seamless integration. Additionally, balancing project timelines with safety and quality standards requires strong project management and problem-solving skills.

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

To thrive as a Robotics Application Engineer, you need a solid background in mechanical or electrical engineering, programming (such as Python or C++), and automation principles, often supported by a relevant degree. Familiarity with robotics platforms (like FANUC, ABB, or KUKA), CAD software, and PLC programming, as well as certifications in robotics or automation, are commonly required. Strong problem-solving abilities, effective communication, and teamwork are crucial soft skills for collaborating with multidisciplinary teams and clients. These skills ensure the successful design, implementation, and support of robotic solutions tailored to complex industrial needs.

What is the difference between Robotics Application Engineer vs Robotics Software Engineer?

AspectRobotics Application EngineerRobotics Software Engineer
Required CredentialsBachelor's in Robotics, Mechanical, or Electrical Engineering; certifications in robotics or automationBachelor's or Master's in Computer Science, Robotics, or Software Engineering; programming certifications
Work EnvironmentHands-on with hardware, field testing, client sitesSoftware development, coding, simulation, testing in labs or offices
Employer & Industry UsageManufacturing, automation companies, robotics integratorsTech firms, research labs, automation software providers
Common Search & ComparisonOften compared for hardware vs software focus in robotics

The Robotics Application Engineer primarily focuses on integrating and testing robotic systems in real-world environments, working closely with hardware and clients. In contrast, the Robotics Software Engineer concentrates on developing and coding the software that powers robotic systems. Both roles require technical skills but differ in their focus on hardware versus software development.

What are popular job titles related to Robotics Application Engineer jobs in Minnesota?

For Robotics Application Engineer jobs in Minnesota, the most frequently searched job titles are:

What job categories do people searching Robotics Application Engineer jobs in Minnesota look for?

The top searched job categories for Robotics Application Engineer jobs in Minnesota are:

Infographic showing various Robotics Application Engineer job openings in Minnesota as of September 2026, with employment types broken down into 95% Full Time, 2% Temporary, and 3% Contract. Highlights an 88% In-person, and 12% Remote job distribution, with an average salary of $108,419 per year, or $52.1 per hour.

Mechanical Engineer III - Ehouse

Osseo, MN

States Manufacturing LLC
Electrical Equipment, Appliance, and Component Manufacturing • 11 - 50 employees

$122K - $135K/yr

Full-time

Medical, Dental, Vision, Life, Retirement, PTO

Re-posted 7 days ago


Job description

Description

Position Summary

The Mechanical Engineer III assists in leading the design and development of complex E House structures for switchgear and related support equipment. This role focuses on structural integrity, thermal performance, manufacturability, and cost optimization of E House designs, including consideration of environmental and seismic requirements. The position provides technical leadership across cross-functional teams and drives continuous improvement in design standards, processes, and product performance.

Key Responsibilities

Engineering Leadership & Execution

  • Assist in leading the design and development of E House structures and associated mechanical assemblies 
  • Ensure designs meet structural, thermal, environmental, and seismic requirements 
  • Drive design-for-manufacturability (DFM) and design-for-assembly (DFA) to reduce fabrication complexity and assembly time 
  • Serve as the technical authority for E House-related design decisions and risk mitigation 

Structural Design & Validation

  • Apply advanced structural design principles to E House structures, including: framed structures and load-bearing systems, sheet metal and panelized assemblies, mounting, lifting, transportation, and anchoring systems 
  • Incorporate seismic design considerations, including load paths, anchoring, and structural reinforcement where required 
  • Perform or interpret analyses such as: structural/deflection analysis, thermal performance evaluations, load, transport, vibration, and seismic force considerations 
  • Validate designs through testing and simulation to ensure performance under real-world conditions   

Manufacturing Integration & Cost Optimization

  • Design E House structures optimized for fabrication processes such as: structural fabrication and welding, panel fabrication and integration, finishing and assembly processes 
  • Integrate advanced manufacturing techniques, including automated fabrication and robotics where applicable 
  • Lead cost reduction and value engineering efforts without compromising performance or quality 
  • Partner with manufacturing to improve production efficiency and reduce variability 

Standards, Process & Continuous Improvement

  • Develop and maintain E House design standards, best practices, and component libraries 
  • Lead Lean design initiatives and cross-site collaboration to standardize and improve design approaches 
  • Drive continuous improvement in engineering processes, tools, and workflows   

Cross-Functional Collaboration & Application Support

  • Work closely with mechanical engineering, electrical engineering, manufacturing, supply chain, and quality teams to resolve complex design challenges 
  • Support application engineering and Sales with E House configurations, scope definition, and cost estimating 
  • Participate in quoting, design reviews, and customer-specific customization efforts 
  • Ensure smooth transition from design to production  

Team Leadership & Mentorship

  • Provide technical leadership and mentorship to engineers and designers 
  • Lead project teams and coordinate engineering efforts 
  • Foster a culture of accountability, collaboration, and continuous improvement 

Required Qualifications

  • Bachelor's degree in Mechanical Engineering 
  • 7+ years of experience in mechanical design of E House systems, enclosure systems, or similar large fabricated structures 
  • Demonstrated experience leading projects and delivering designs into production 
  • Strong expertise in structural design of large assemblies or enclosures and welded and fabricated structures 
  • Experience considering environmental and seismic design requirements 
  • Experience in a leadership role (project or team lead) 
  • Proficiency in CAD tools (e.g., SolidWorks, Creo, or similar)   
  •  We are unable to support H1-B, TN or STEM OPT candidates at this time 

Preferred Qualifications

  • Experience with complex, configurable, or custom-engineered products 
  • Background in manufacturing engineering or production support 
  • Experience supporting application engineering or sales functions   

Key Competencies

  • Deep understanding of structural trade-offs (strength, cost, manufacturability, thermal performance, seismic considerations
  • Strong problem-solving and technical decision-making skills 
  • Excellent communication skills, including presenting design trade-offs to stakeholders 
  • Proven leadership and mentoring capability 
  • Continuous improvement mindset with a focus on efficiency and quality   

What Success Looks Like

  • Robust, manufacturable E House designs delivered on time and within budget 
  • Designs that perform reliably under operational, environmental, and seismic conditions 
  • Measurable improvements in fabrication efficiency and cost reduction 
  • Standardized and scalable design practices 
  • Strong collaboration across engineering and manufacturing teams 
  • Development of team capability and technical expertise

Benefits 

  • PTO/ESST
  • Paid holidays
  • $100 individual deductible and $300 family deductible health insurance
  • Paid Weekly
  • Vision and Dental Insurance
  • 401K / Life Insurance / STD

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