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New Grad Robotics Engineer Jobs in Illinois (NOW HIRING)

Train plant personnel on new processes and equipment Preferred Skills/Experiences * Bachelor ... PLC, robot, and sensor programming experience * Working knowledge of Lean Manufacturing, Continuous ...

Manufacturing Engineer-Controls

Sycamore, IL · On-site

$81K - $95K/yr

Train plant personnel on new processes and equipment Preferred Skills/Experiences * Bachelor ... PLC, robot, and sensor programming experience * Working knowledge of Lean Manufacturing, Continuous ...

$139K - $168K/yr

We have a culture that's rooted in constantly learning and improving, and our engineers are encouraged to think big and experiment with new ideas. Using continuous deployment, we quickly see our ...

Train plant personnel on new processes and equipment Preferred Skills/Experiences * Bachelor ... PLC, robot, and sensor programming experience * Working knowledge of Lean Manufacturing, Continuous ...

$139K - $168K/yr

We have a culture that's rooted in constantly learning and improving, and our engineers are encouraged to think big and experiment with new ideas. Using continuous deployment, we quickly see our ...

$139K - $168K/yr

We have a culture that's rooted in constantly learning and improving, and our engineers are encouraged to think big and experiment with new ideas. Using continuous deployment, we quickly see our ...

Showing results 41-60

New Grad Robotics Engineer information

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

To thrive as a New Grad Robotics Engineer, you typically need a degree in robotics, mechanical engineering, computer science, or a related field, along with a solid understanding of control systems, kinematics, and programming languages such as Python or C++. Familiarity with robotics development platforms (like ROS), CAD software, and hands-on experience with sensors and actuators are highly valuable. Strong problem-solving abilities, teamwork, and effective communication skills help you adapt to complex projects and collaborate across disciplines. These competencies ensure you can design, build, and troubleshoot robotic systems efficiently in a fast-evolving technological environment.

What types of projects and responsibilities can a new grad robotics engineer expect in their first year?

As a new grad robotics engineer, you can expect to work on a variety of tasks such as assisting with the design, development, and testing of robotic systems or subsystems. Typical responsibilities may include writing and debugging code for robot control, collaborating with cross-functional teams like mechanical and electrical engineers, and participating in troubleshooting or integration activities. You may also be assigned to support ongoing research, help document technical processes, and contribute to continuous improvement initiatives. This hands-on experience helps build a strong foundation and often opens up future opportunities for specialization or advancement.

What does a new grad robotics engineer do?

A New Grad Robotics Engineer typically supports the design, development, and testing of robotic systems and automation solutions. They work alongside experienced engineers to write code, integrate sensors and actuators, troubleshoot issues, and help improve the performance of robots. These engineers may also assist in prototyping, data analysis, and documentation. The role provides hands-on experience with robotics hardware and software, making it an important entry point for a career in automation and robotics.

How to become a new grad robotics engineer with no experience?

To become a new graduate robotics engineer with no experience, focus on gaining relevant skills through coursework, personal projects, or internships that involve programming, control systems, and robotics hardware. Building a portfolio of projects using tools like ROS, Arduino, or Raspberry Pi can demonstrate practical ability to employers. Pursuing certifications or participating in robotics competitions can also enhance your qualifications for entry-level roles.

What is the difference between New Grad Robotics Engineer vs Robotics Software Engineer?

AspectNew Grad Robotics EngineerRobotics Software Engineer
Required CredentialsBachelor's degree in robotics, mechanical, electrical engineering, or related fieldBachelor's or master's in computer science, robotics, or related field; programming skills essential
Work EnvironmentEntry-level, team-based projects in research labs or tech companiesDeveloping and maintaining robotics software in industry or research settings
Employer & Industry UsageStartups, research institutions, tech companies focusing on roboticsTech firms, industrial automation, autonomous vehicle companies

The main difference is that New Grad Robotics Engineers focus on gaining hands-on experience in robotics projects, often with a broader scope including hardware integration. Robotics Software Engineers primarily concentrate on developing and optimizing software solutions for robotics systems, requiring strong programming skills. Both roles are entry-level but differ in their focus areas within the robotics industry.

What job categories do people searching New Grad Robotics Engineer jobs in Illinois look for?

The top searched job categories for New Grad Robotics Engineer jobs in Illinois are:

What cities in Illinois are hiring for New Grad Robotics Engineer jobs?

Cities in Illinois with the most New Grad Robotics Engineer job openings:

Infographic showing various New Grad Robotics Engineer job openings in Illinois as of August 2026, with employment types broken down into 90% Full Time, 5% Part Time, and 5% Contract. Highlights an 86% Physical, 5% Hybrid, and 9% Remote job distribution.

Robotics & Automation Project Engineer

Formic

Chicago, IL

Full-time

Re-posted 14 days ago


Job description

About the team:

The Project Engineering team is a multidisciplinary engineering group within Automation Engineering Group, bringing mechanical, electrical, and controls engineering together under a single organization. The team serves as the engineering escalation path for the deployed fleet, taking on problems that exceed field-level troubleshooting and converting them into scoped, engineered, and standardized solutions.

The team's work spans three connected areas. The first is the troubleshooting of complex problems: diagnosing multi-discipline failures across deployed robotic systems and engineering permanent, root-cause fixes rather than repeat repairs. The second is continuous improvement: converting recurring issues and field data into reliability upgrades and fleet-wide standardization. The third is support for existing and new product development and enhancements, in partnership with teams across the organization, to improve equipment currently in the field and to bring new capability online.

Positioned at the intersection of design, commissioning, and field support, the team operates as a cross-functional unit, with engineers at the Bolingbrook hub working alongside field implementation resources across North America. The work is a deliberate blend of reactive support and proactive engineering, and each role on the team contributes to uptime, performance consistency, and long-term customer outcomes across the fleet.

About the role:

As a Robotics and Automation Project Engineer, you will own advanced support requirements, as well as the reliability and continuous improvement of deployed robotic systems. You will operate at the intersection of troubleshooting, system optimization, and product-level enhancement, ensuring automation systems perform consistently in demanding production environments.

This role blends reactive support with proactive engineering. You will diagnose complex issues, implement structured improvements, and partner cross-functionally to strengthen system stability across the fleet. Your work directly impacts uptime, performance consistency, and long-term customer outcomes.

In this role you will:

  • Diagnose and resolve complex automation failures to minimize production downtime
  • Design and implement preventative and predictive strategies that improve system reliability
  • Lead system-level continuous improvement initiatives, including hardware and software upgrades
  • Analyze production data and diagnostic trends to identify systemic performance gaps
  • Provide remote support by responding to service tickets, guiding troubleshooting efforts, and triaging to onsite teams when needed
  • Partner with Product, Deployment, and Engineering teams to standardize equipment configurations and improve repeatability
  • Own and maintain system documentation, including procedures, maintenance logs, and change-control records
  • Serve as the escalation point for complex technical issues across the fleet
  • Mentor field technicians and engineers on troubleshooting and system health best practices
  • Ensure compliance with safety standards, internal quality requirements, and industry regulations
  • Collaborate with vendors to improve parts availability, diagnostics capability, and technical support

What makes you a great fit:

  • 10+ years of experience in manufacturing automation or industrial robotics environments
  • Strong proficiency in programming PLCs, robots, and industrial control systems
  • Solid understanding of robotic systems, motion systems, and automated manufacturing equipment
  • Hands-on experience diagnosing mechanical, electrical, and control system failures
  • Ability to read electrical schematics and technical drawings
  • Experience working in uptime-critical manufacturing environments
  • Strong problem-solving skills and structured troubleshooting approach
  • Clear written and verbal communication skills
  • Ability to work independently while collaborating cross-functionally
  • Willingness to travel up to 50% based on business needs
  • Valid driver's license and ability to support local travel

Bonus points if you have:

  • Experience in high-volume manufacturing environments
  • Experience standardizing equipment across multiple deployed sites\
  • Exposure to data-driven maintenance or predictive monitoring tools