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Mechatronics Robotics Jobs in Texas (NOW HIRING)

Bachelor's in Electrical, Mechanical, Mechatronics, Robotics, or a related engineering field (required); Master's a plus. Preferred Qualifications * Experience with robotics stacks (ROS or equivalent ...

Senior Controls Engineer - Autonomous Vehicles

Dallas, TX · On-site

$96K - $126K/yr

The ideal candidate has 5+ years of relevant work experience and a blend of mechatronics/robotics/and controls experience. Role responsibilities include: - Building and using models to simulate and ...

Mechatronics Apprentice I

Fort Worth, TX · On-site

  • Medical

  • Retirement

As a Mechatronics & Robotics Apprentice (MRA), you will learn to combine electronic, mechanical, computer and automation engineering skills at the workplace. During on-the-job learning (OJL) you will ...

As a Robotics Simulation Engineer, you will build and maintain high-fidelity simulation ... Collaborate with controls, perception, and mechatronics engineers to ensure simulated sensor models ...

Showing results 41-60

Mechatronics Robotics information

See Texas salary details

$19

$25

$34

How much do mechatronics robotics jobs pay per hour?

As of Aug 16, 2026, the average hourly pay for mechatronics robotics in Texas is $25.79, according to ZipRecruiter salary data. Most workers in this role earn between $22.40 and $28.22 per hour, depending on experience, location, and employer.

Is mechatronics a high paying job?

Mechatronics robotics professionals often earn competitive salaries due to their specialized skills in automation, control systems, and robotics engineering. Salaries vary based on experience, education, location, and industry, but generally, the field offers above-average compensation compared to many other engineering roles.

What is the difference between Mechatronics Robotics vs Electrical Engineering Technician?

AspectMechatronics RoboticsElectrical Engineering Technician
CredentialsAssociate's or Bachelor's in Mechatronics, Robotics, or related fieldsAssociate's or Bachelor's in Electrical Engineering Technology
Work EnvironmentManufacturing, automation, robotics labsElectrical systems, maintenance, testing in various industries
Employer & IndustryRobotics companies, automation firms, manufacturingElectrical service providers, manufacturing, utilities
Common Search/ComparisonYesYes

Mechatronics Robotics professionals focus on designing, developing, and maintaining robotic systems and automation solutions, combining mechanical, electrical, and software skills. Electrical Engineering Technicians primarily work on electrical systems, troubleshooting, and maintenance across various industries. While both roles require technical knowledge and work in manufacturing or automation environments, Mechatronics Robotics emphasizes robotics integration, whereas Electrical Engineering Technicians focus on electrical systems support.

What can you do with a mechatronics and robotics degree?

A mechatronics and robotics degree prepares individuals for roles such as robotics engineer, automation technician, control systems engineer, or embedded systems developer. Graduates work in industries like manufacturing, aerospace, automotive, and research, designing, building, and maintaining robotic systems and automated processes using tools like CAD software and programming languages such as C++ and Python.

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

To thrive as a Mechatronics Robotics Engineer, you need a solid background in mechanical, electrical, and software engineering, often supported by a relevant engineering degree. Expertise in CAD software, PLC programming, robotics simulation tools, and certifications like Certified Robotics Technician are typically required. Strong problem-solving, teamwork, and communication skills help you collaborate on complex projects and adapt to technological changes. These skills are vital for designing, building, and maintaining advanced robotic systems that meet dynamic industry needs.

What is mechatronics robotics?

Mechatronics robotics is a multidisciplinary field that combines mechanical engineering, electrical engineering, computer science, and control systems to design and create intelligent machines and robots. Professionals in this field work on developing automated systems and robotic devices that can perform a variety of tasks, from manufacturing and assembly to healthcare and exploration. Mechatronics robotics specialists use sensors, actuators, microcontrollers, and software to enable robots to interact with their environment and carry out complex functions efficiently.

What are some typical challenges faced by professionals working in mechatronics robotics, and how can they be addressed?

Professionals in mechatronics robotics often encounter challenges such as integrating multidisciplinary systems (mechanical, electrical, and software components) and troubleshooting complex automation processes. Staying updated with rapidly advancing technology and adhering to safety standards are also common hurdles. These challenges can be addressed through continuous learning, effective collaboration with cross-functional teams, and leveraging simulation tools to test system performance before implementation. Regular communication with colleagues from various engineering backgrounds helps ensure seamless integration and problem-solving.

What are the most commonly searched types of Mechatronics Robotics jobs in Texas?

The most popular types of Mechatronics Robotics jobs in Texas are:

Infographic showing various Mechatronics Robotics job openings in Texas as of August 2026, with employment types broken down into 70% Full Time, 6% Part Time, and 24% Contract. Highlights an 100% In-person job distribution, with an average salary of $53,641 per year, or $25.8 per hour.

Full-time

Re-posted 11 days ago


Job description

What we're doing isn't easy, but nothing worth doing ever is. 

Diligent builds helpful robots that work safely and autonomously in real world environments. We move quickly, solve messy problems, and care deeply about reliability at scale. As a Fleet Engineer, you'll own the reliability and continuous improvement of our deployed robotic fleet - leading hands-on investigations into how and why robots fail in the field, across the mobile base, charging/docking, motion and power, connectivity (modem), and sensor hardware. You'll combine remote data analysis with bench/lab failure analysis at our Austin HQ, turning field-technician reports and fleet data into clear problem statements, validated root causes, and corrective actions driven to closure with engineering, operations, manufacturing, and vendors.

This role is based in Austin, TX. It will require 15-20% travel along with close collaboration across software, hardware, operations, and product engineering teams.

Key Responsibilities

  • Fleet Reliability & Hands-On Debugging: Lead triage and bench/lab failure analysis across the mobile base, charging/docking, motion and power, connectivity, and sensor hardware -
    getting hands-on with returned units to reproduce, instrument, and isolate the failure.
  • Root Cause Analysis: Diagnose failures from component level (electrical, mechanical, firmware) to system level, applying standard methodologies (5-why, fishbone, fault-tree, FMEA, 8D).
  • Data-Driven Investigation: Pull and analyze fleet data and logs to define problem statements, surface trends, and validate hypotheses quantitatively - accounting for confounding factors, base rates, and sample size.
  • Field Synthesis & On-Call: Turn field-technician reports into crisp problem statements; own escalated issues (on-call) to support the field team and minimize downtime.
  • Corrective Action & Cross-Functional: Drive short- and long-term fixes (hardware, software, operational, process) to closure with engineering, operations, and product - including supplier corrective actions and design feedback with vendors and manufacturing. 
  • Tooling & Test Infrastructure: Build the fixtures, instrumentation, and bench test setups that accelerate debug workflows.
  • Documentation & Standards: Document debugging procedures and root-cause findings; contribute to fleet reliability standards.
  • Growth: Raise the team's investigative rigor, work closely with technicians, and grow into mentoring over time.

What Success Looks Like

  • Improved FPY and reduced rework rates across production builds.
  • Reduced per-unit cycle time for test/provisioning while increasing test coverage.
  • Stable, fully automated provisioning flow with minimal manual intervention.

Basic Qualifications

  • Hands-on electrical debugging - schematics, multimeter/oscilloscope, power, connector and harness fault isolation, basic instrumentation.
  • Hands-on mechanical debugging - mechanisms, tolerances and fits, fixturing, dimensional/force measurement, mechanical drawings; able to pinpoint what is physically wrong with a unit.
  • Hypothesis-driven, quantitative debugging - frame the problem, design discriminating tests, reason about confounding factors, base rates, and sample size, and update conclusions when the evidence contradicts them.
  • System log analysis - read raw system/robot logs to reconstruct events and isolate failures (the backbone of most investigations).
  • End-to-end versatility - comfortable across subsystems, running an investigation independently to conclusion.
  • 3+ years in robotics, autonomous vehicles, or complex electro-mechanical systems - or an adjacent field (medical devices, industrial automation, semiconductor and capital-equipment field service, automotive or aerospace Maintenance/Repair/Overhaul, EV charging). 5+ years / senior scope preferred.
  • Bachelor's in Electrical, Mechanical, Mechatronics, Robotics, or a related engineering field (required); Master's a plus.

Preferred Qualifications

  • Experience with robotics stacks (ROS or equivalent) and robotic sensor calibration/test.
  • Experience with deployed robot or autonomous-vehicle fleets.
  • Networking (Ethernet, CAN bus, time-sync) and firmware familiarity.
  • Driving supplier corrective actions and design feedback with vendors and manufacturing.
  • Hardware-in-the-loop test and validation-rig design.
  • Compute platforms (NVIDIA Jetson/Orin, GPUs).