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Cfd Simulation Openfoam Jobs in Minnesota (NOW HIRING)

Cfd Simulation Openfoam information

What is CFD simulation with OpenFOAM?

CFD (Computational Fluid Dynamics) simulation with OpenFOAM involves using the open-source OpenFOAM software to analyze and predict fluid flow, heat transfer, and related physical phenomena. OpenFOAM provides a suite of solvers and utilities for solving complex fluid dynamics problems in engineering and research. Users can customize and extend its capabilities through programming, making it a popular choice for both academic and industrial applications. The software supports simulations in areas such as aerodynamics, hydrodynamics, chemical reactions, and multiphase flows.

What are the key skills and qualifications needed to thrive as a CFD simulation engineer using OpenFOAM?

To thrive as a CFD Simulation Engineer with OpenFOAM, you need a solid background in fluid dynamics, numerical methods, and a relevant engineering or physics degree. Proficiency with OpenFOAM software, scripting languages (like Python or Bash), and familiarity with Linux environments are typically required. Strong analytical thinking, problem-solving abilities, and effective communication help you interpret results and collaborate on multidisciplinary teams. These skills ensure accurate simulations, efficient workflow, and actionable insights for engineering projects.

What are some common challenges faced when running CFD simulations with OpenFOAM, and how can they be addressed?

A common challenge in running CFD simulations with OpenFOAM is ensuring mesh quality and convergence, as poor mesh or inappropriate boundary conditions can lead to inaccurate results or simulation failures. New users often encounter difficulties in setting up complex case files and understanding solver settings. To address these issues, it's important to familiarize yourself with OpenFOAM's documentation, leverage community forums, and start with simpler cases before advancing to more complex simulations. Collaborating with experienced team members or mentors can also be invaluable for troubleshooting and learning best practices.

What is the difference between Cfd Simulation Openfoam vs Cfd Engineer?

AspectCfd Simulation OpenfoamCfd Engineer
CredentialsKnowledge of OpenFOAM, engineering backgroundEngineering degree, CFD software skills
Work EnvironmentResearch labs, engineering firms, academiaDesign firms, manufacturing, aerospace
Industry UsageSimulation development, research projectsDesign optimization, product testing

While Cfd Simulation Openfoam focuses on using and developing CFD simulations with OpenFOAM software, a Cfd Engineer applies CFD tools like OpenFOAM in practical engineering projects. The former is more research-oriented, whereas the latter emphasizes application and design optimization in industry.

What are popular job titles related to Cfd Simulation Openfoam jobs in Minnesota?

For Cfd Simulation Openfoam jobs in Minnesota, the most frequently searched job titles are:

What cities in Minnesota are hiring for Cfd Simulation Openfoam jobs?

Cities in Minnesota with the most Cfd Simulation Openfoam job openings:

Infographic showing various Cfd Simulation Openfoam job openings in Minnesota as of July 2026, with employment types broken down into 84% Full Time, 14% Part Time, and 2% Contract. Highlights an 83% Physical, 4% Hybrid, and 13% Remote job distribution.

Staff Development Engineer IV - Engineering Data Scientist and Digital Twin Specialist

Daikin Applied

Plymouth, MN • On-site

Full-time

Medical, Dental, Vision, Retirement, PTO

Posted 15 days ago


Job description

Join the world's largest HVAC company, named by Forbes as one of America's Best-In-State Employers 2025!
Staff Development Engineer IV - Engineering Data Scientist & Digital Twin Specialist- Plymouth, MN - Hybrid
Daikin Applied is seeking an Engineering Data Scientist & Digital Twin Specialist with a strong focus on Reduced Order Modeling (ROM). In this role, you will bridge the gap between high-fidelity 3D physic-based (FEA/CFD), 1D system performance simulations, lab, and real-time operational data. You will build, validate, and deploy fast-running surrogate models and hybrid digital twins that power predictive maintenance, real-time edge analytics, and automated design optimization for our physical assets and systems.
Come be a part of an exciting journey at Daikin Applied, where innovation and excellence drive our every endeavor!
Location: Hybrid - Plymouth, MN
Your Responsibilities:
  • Reduced Order Modeling (ROM): Develop, calibrate, and validate ROMs from complex 3D/multiphysics simulations (e.g., thermal, structural, fluid dynamics) to accelerate computation speeds by orders of magnitude without losing fidelity.
  • Hybrid Digital Twin Development: Design and implement hybrid digital twins that combine first-principles physical models with machine learning/AI (physics-informed neural networks, surrogate modeling) to mirror real-world asset behavior.
  • Data Integration & Pipelines: Ingest, clean, and utilize high-frequency time-series telemetry and IoT sensor data from physical machinery/assets to continuously update and retrain digital models.
  • Deployment & Scaling: Package and deploy ROMs into production environments, cloud platforms, or real-time edge devices using platforms like Ansys Twin Builder, Siemens Simcenter, or custom Python/C++ frameworks.
  • Cross-Functional Collaboration: Work tightly with domain engineers, software developers, and data engineers to integrate digital twin frameworks into broader enterprise architectures and PLM.
  • Model Validation: Conduct rigorous regression testing, scenario analysis, and test-data correlation to ensure numerical stability and accuracy against physical counterparts.

Your Qualifications:
  • Master's or Ph.D. in Mechanical Engineering, Aerospace Engineering, Computer Science, Applied Mathematics, Data Science, or a related technical discipline
  • 6+ years of industry/research experience in applied machine learning, scientific computing, or physics-based simulation
  • Proven track record of building and deploying Reduced Order Models (ROMs) (e.g., Proper Orthogonal Decomposition (POD), Dynamic Mode Decomposition (DMD), or machine learning surrogates like Gaussian Processes and neural networks)
  • Advanced proficiency in Python (NumPy, PyTorch/TensorFlow, Scikit-learn) and/or C++
  • Familiarity with engineering simulation software suites (e.g., Ansys Twin Builder, Siemens Simcenter, MATLAB/Simulink, or OpenFOAM/FEA tools)
  • Experience with time-series databases, IoT data streams (MQTT, OPC UA), and containerization (Docker, Kubernetes) for model deployment
  • Strong understanding of physical principles (dynamics, thermodynamics, heat transfer, structures, or fluid mechanics) alongside statistical modeling and machine learning
  • Strong communication and presentation skills, with the ability to clearly convey technical concepts to both technical and non-technical audiences
  • Demonstrated ability to lead technical project teams and mentor engineers
  • Knowledge of systems engineering and architecture principles
  • Demonstrated ability to work independently and drive collaboration in a cross-functional, globally distributed environment
  • Understanding of model reuse, simulation governance, and lifecycle management concepts
  • Track record of leading cross-disciplinary simulation initiatives or shaping organizational modeling strategy

Your Preferred Qualifications:
  • Experience with MiL and HiL simulation workflows
  • Experience with machine learning, data analytics, or AI-assisted modeling and automation
  • Background in experimental data acquisition and validation of simulation models using test data
  • Experience with physics-informed machine learning (PINMs) or geometric deep learning
  • Exposure to industrial IoT platforms or 3D real-time visualization frameworks (NVIDIA Omniverse, Unity/Unreal)
  • Knowledge of Model-Based Systems Engineering (MBSE) methodologies
  • Deep understanding of thermodynamic cycle modeling, HVAC&R systems, fluid mechanics, heat transfer fundamentals, oil circulation effects, and both steady-state and dynamic system behavior
  • Extensive experience developing, calibrating, and troubleshooting complex model libraries, parameter databases, and calibration routines

Your Benefits:
Daikin Applied offers the following benefits for this position, subject to applicable eligibility requirements:
  • Multiple medical insurance plan options + dental and vision insurance
  • 401K retirement plan with employer match
  • Paid time off and company paid holidays
  • Paid sick time in accordance with the federal, state and local law
  • Tuition Reimbursement after 6 months of continuous service

Work visa sponsorship is not available for this position
The typical annual base salary for this position ranges from $109,100 - $188,700 plus a 15% bonus in Minnesota. The range displayed represents the pay range for all positions in the job grade which these positions fall. Individual base pay will depend on a wide range of factors including your skills, qualifications, experience, and location.
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If you're looking for an engaging career with growth opportunities in a supportive environment, you'll love a career at Daikin Applied!