Robotics Software Intern, Manipulation & Simulation

About Valstad Valstad is rebuilding how ships are made. American shipbuilding is constrained by slow, labor-intensive production methods and a shortage of skilled manufacturing capacity. We are developing robotic production systems that can turn engineering data directly into finished steel structures, dramatically reducing the time and manual programming required to build ships. Our first platform combines industrial robots, automated material handling, welding, sensing and AI-driven manufacturing software to produce large ship panels and structural assemblies. Instead of programming each new part by hand, our goal is for the system to understand the CAD model, determine how the structure should be assembled and welded, and generate the robotic plan required to build it. Achieving that requires solving difficult robotics problems involving kinematics, coordinate frames, motion planning, simulation, calibration, collision checking, sensor integration and execution on real industrial hardware. The software you build will be tested against full-scale industrial robots in our Austin facility, not only in simulation. The Internship Valstad is seeking a Robotics Software Intern to work on manipulation, motion‑planning, simulation or robot‑verification software. You will own a defined technical project that improves the reliability, performance or diagnosability of Valstad’s robotic manufacturing systems. Depending on your background and our current priorities, you may work on planning algorithms, simulation infrastructure, coordinate‑frame visualization, calibration analysis, robot‑log replay or automated path verification. This is not a shadowing program or a collection of disconnected research tasks. You will be expected to implement, test and document a working capability that can become part of Valstad’s robotics platform. You will work closely with a robotics engineer and will receive structured mentorship, code review and access to real robotic systems. Potential Projects Your primary project will be selected based on your experience and Valstad’s highest‑priority technical needs. Possible projects include: Building a motion‑planning regression‑test suite using representative manufacturing scenarios Developing tools for visualizing coordinate frames, transforms, robot poses and calibration results Generating reachability maps for robots mounted on linear rails Testing inverse‑kinematics continuity along long Cartesian paths Detecting singularities, wrist flips, joint‑limit conditions and trajectory discontinuities Creating automated collision‑checking and path‑validation scenarios Building a robot‑log replay system for reproducing hardware failures in simulation Comparing commanded, simulated and physically executed robot trajectories Developing cycle‑time prediction and trajectory‑analysis tools Evaluating planning algorithms for constrained welding or scanning paths Building tools for calibration‑data analysis and error visualization Supporting integration of a laser scanner, camera, force sensor or other non‑safety‑critical device Developing simulation models for robots, fixtures, tools and workpieces Improving visualization of robot work envelopes, collision geometry and external axes Creating automated pre‑execution checks for generated robot programs What You Will Do Design and implement a scoped robotics‑software project. Work with rust, Python or both. Use simulation and recorded data to test your work. Work with rigid‑body transformations, robot kinematics and 3D geometry where relevant. Build automated tests for nominal and failure scenarios. Participate in robotics architecture discussions and code reviews. Analyze logs and robot behavior to diagnose planning or execution issues. Validate your work using real robotic hardware when appropriate and under supervision. Document assumptions, algorithms, interfaces and limitations. Present your results and demonstrate the completed capability to the Valstad team. Required Qualifications Currently pursuing a bachelor’s, master’s or doctoral degree in robotics, computer science, mechanical engineering, electrical engineering, aerospace engineering or a related field. Strong programming fundamentals. Experience with Python, rust or both. Coursework or practical experience in linear algebra, three‑dimensional geometry, kinematics, dynamics, controls or motion planning. Experience completing a meaningful robotics, software or research project. Ability to reason about technical systems and debug unexpected behavior. Ability to work independently within a defined project scope. Strong written and verbal communication skills. Interest in robotic manipulation and real‑world industrial systems. Availability to work full‑time and on‑site in Austin for the duration of the internship. Strongly Preferred Strong rust experience. Experience with ROS or ROS 2. Experience with MoveIt, Tesseract, OMPL, Drake, MuJoCo, Isaac Sim, Gazebo or another robotics framework. Experience with forward and inverse kinematics. Experience with homogeneous transformations, quaternions and coordinate‑frame conventions. Experience with collision detection or motion planning. Experience working with robotic manipulators. Experience with Eigen, NumPy or similar numerical libraries. Experience developing simulation or verification tools. Experience with industrial robot arms, linear rails or external axes. Experience with robot calibration, hand‑eye calibration or sensor localization. Experience working with cameras, laser scanners, force‑torque sensors or other robotics hardware. Participation in a robotics laboratory, student robotics team, Formula SAE, combat robotics or relevant open‑source project. What We Look For We value evidence that you can apply robotics concepts to systems that behave imperfectly outside the laboratory. Strong candidates often have: A manipulator or hardware project they can explain in depth Research involving real robot experiments Open‑source robotics contributions Experience debugging coordinate‑frame or calibration problems Simulation work connected to physical validation A clear understanding of the difference between an algorithm working once and a system operating reliably You do not need industrial‑robot or shipbuilding experience. We care more about robotics fundamentals, software quality and an interest in making algorithms work on physical machines. Safety and Production Boundaries Interns may work with industrial robots under the supervision of qualified Valstad personnel. Interns will not independently: Modify safety systems Authorize production releases Commission energized equipment without supervision Make uncontrolled changes to production robot or PLC programs Bypass interlocks, protective devices or established review procedures Production‑facing changes will be reviewed and approved by full‑time engineers. What Success Looks Like By the end of the internship, you will have delivered a working robotics‑software capability that improves planning, simulation, verification or hardware debugging. Your project will have: A clearly defined technical objective A tested implementation Representative nominal and failure scenarios Documentation of assumptions and limitations Integration with Valstad’s software or simulation environment where appropriate A final demonstration using real robot data or physical hardware The strongest interns may be considered for future internships or full‑time positions. Compensation and Benefits The anticipated pay range for this internship is $34 to $42 per hour , depending on experience and technical depth. The internship also includes: A dedicated robotics mentor Access to industrial robotic systems Ownership of a substantive technical project Regular technical feedback and code review Potential relocation or temporary‑housing assistance where appropriate Consideration for future internship or full‑time opportunities Valstad is an equal‑opportunity employer. We evaluate candidates based on their ability, experience and potential to contribute to the company’s mission. #J-18808-Ljbffr Valstad