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Computational Fluid Dynamics Engineer Jobs in Wisconsin

Molg

WI · On-site

$100 - $125/hr

... dynamics of individual components. Our synthesis and computational design platform sits at the ... As a Synthesis / Computational Design Engineer, you will: * Design and implement algorithms for ...

Pace Industries, LLC

Propulsion Engineer III

Madison, WI · On-site

$100.60 - $138.35/hr

This position requires a deep understanding of propulsion engineering principles, including fluid dynamics, thermodynamics, and combustion processes. The successful candidate will be responsible for ...

Varsity Tutors

Applied Mathematics Tutor

Milwaukee, WI · Remote

$18 - $40/hr

... engineering, physics, finance, and computational science applications. * Conceptual Teaching ... fluid dynamics, signal processing, and operations research contexts. * Curriculum Awareness ...

Varsity Tutors

Applied Mathematics Tutor

Madison, WI · Remote

$18 - $40/hr

... engineering, physics, finance, and computational science applications. * Conceptual Teaching ... fluid dynamics, signal processing, and operations research contexts. * Curriculum Awareness ...

Latent AI

WI · On-site

$80 - $100/hr

Strong working knowledge of fluid dynamics, thermodynamics, and process engineering * Demonstrated expertise in designing and operating cryogenic fluid systems * Experience in the filtration and ...

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All JobsComputational Fluid Dynamics Engineer JobsComputational Fluid Dynamics Engineer Jobs in Wisconsin

Computational Fluid Dynamics Engineer information

See Wisconsin salary details

$11.1K

$93.9K

$133.2K

How much do computational fluid dynamics engineer jobs pay per year?

As of Sep 8, 2026, the average yearly pay for computational fluid dynamics engineer in Wisconsin is $93,885.00, according to ZipRecruiter salary data. Most workers in this role earn between $86,300.00 and $111,000.00 per year, depending on experience, location, and employer.

What is a computational fluid dynamics engineer?

Computational Fluid Dynamics (CFD) Engineers are specialists who use computer simulations and mathematical models to analyze and solve problems involving fluid flows, such as air, water, or gases. They apply principles of fluid mechanics, thermodynamics, and numerical methods to design and optimize products or processes in industries like aerospace, automotive, and energy. CFD Engineers use specialized software to create virtual models, run simulations, and interpret results to improve performance, efficiency, and safety. Their expertise helps reduce the need for physical prototypes, saving time and development costs.

How does a computational fluid dynamics engineer typically collaborate with other engineering teams during a project?

Computational Fluid Dynamics (CFD) Engineers often work closely with multidisciplinary teams, such as mechanical, aerospace, and thermal engineers, to integrate simulation results into the overall design process. They regularly participate in design reviews, share simulation findings, and suggest design modifications based on fluid flow analyses. Effective communication is key, as CFD Engineers must translate complex simulation data into actionable insights for colleagues who may not have a CFD background. This collaborative environment fosters innovation and ensures that designs meet both performance and safety requirements.

What are the key skills and qualifications needed to thrive as a computational fluid dynamics engineer, and why are they important?

To excel as a Computational Fluid Dynamics Engineer, you need a solid background in fluid mechanics, thermodynamics, and numerical methods, typically supported by a degree in mechanical, aerospace, or related engineering fields. Proficiency with CFD software such as ANSYS Fluent, OpenFOAM, and experience with programming languages like Python or C++ is highly valued, along with relevant certifications. Strong analytical thinking, problem-solving skills, and the ability to communicate complex concepts clearly set outstanding candidates apart. These skills and qualifications are essential for designing accurate simulations, interpreting data, and providing actionable engineering solutions in diverse industries.

What is the difference between Computational Fluid Dynamics Engineer vs Mechanical Engineer?

AspectComputational Fluid Dynamics EngineerMechanical Engineer
Required CredentialsBachelor's or Master's in Mechanical, Aerospace, or related fields; CFD certificationsBachelor's or Master's in Mechanical Engineering; Professional Engineer (PE) license optional
Work EnvironmentResearch labs, aerospace, automotive, energy sectors, primarily using simulation softwareManufacturing, design, testing, often involving CAD and physical prototyping
Industry UsageSpecialized in fluid flow analysis, heat transfer, and simulation tasksBroader engineering tasks including design, analysis, and manufacturing

While both roles require a strong engineering background, Computational Fluid Dynamics Engineers focus specifically on fluid flow simulations and analysis using specialized software, whereas Mechanical Engineers have a broader scope including design, manufacturing, and system integration. CFD Engineers often work within industries like aerospace, automotive, and energy, emphasizing simulation expertise.

What are popular job titles related to Computational Fluid Dynamics Engineer jobs in Wisconsin?

For Computational Fluid Dynamics Engineer jobs in Wisconsin, the most frequently searched job titles are:

What job categories do people searching Computational Fluid Dynamics Engineer jobs in Wisconsin look for?

The top searched job categories for Computational Fluid Dynamics Engineer jobs in Wisconsin are:

Computational Fluid Dynamics Engineer jobs near you
Infographic showing various Computational Fluid Dynamics Engineer job openings in Wisconsin as of August 2026, with employment types broken down into 100% Full Time. Highlights an 100% In-person job distribution, with an average salary of $93,885 per year, or $45.1 per hour.

Lead Industrial Application Engineer

FLUID SYSTEM COMPONENTS INC

De Pere, WI • On-site

$88K - $110K/yr

Full-time

Re-posted 18 days ago

Job description

Description:

JOB PURPOSE or JOB SUMMARY:

 The Lead Industrial Hydraulics Engineer is responsible for planning, leading, and delivering large-scale,  high-complexity hydraulic projects. As a technical expert and project leader, this role collaborates across  departments, aligns engineering output with strategic goals, and ensures design quality, performance,  and innovation throughout all phases of system development. The Lead Industrial Hydraulics Engineer builds strong internal and external relationships, contributes to a collaborative culture, and consistently demonstrates integrity and accountability. 


ESSENTIAL DUTIES and RESPONSIBILITIES:

Applications Support

  • Lead technical evaluations during pre-sales and project scoping stages
  • Define hydraulic system architecture based on performance and application requirements
  • Drive technical proposal creation, ensuring feasibility and cost alignment
  • Interface with customers and sales teams to clarify specifications and technical deliverables
  • Identify potential risks or gaps early in the application phase and provide mitigation strategies

Review Product Design

  • Set and enforce engineering standards, design practices, and review protocols
  • Guide key design decisions across multiple projects and engineering teams
  • Lead complex design reviews involving cross-disciplinary feedback
  • Ensure designs comply with relevant safety codes, industry standards, and internal QA processes
  • Evaluate prototype and test results to inform design iterations and system validation

Field Service and Project Support

  • Oversee development of commissioning plans, field test procedures, and validation documentation
  • Lead resolution of escalated field issues, coordinating multidisciplinary resources as needed
  • Analyze failure data and implement corrective/preventative measures across designs
  • Support post-installation reviews and customer feedback loops for continuous improvement

Clerical/General Administrative

  • Align technical milestones with overall project schedules and business priorities
  • Track key performance indicators (KPIs), technical risks, and resource utilization
  • Lead project reporting and communication with senior leadership and stakeholders


Requirements:
  • Bachelor’s or Master’s degree in Mechanical Engineering, (Fluid Power, or related field is an asset.)
  • 5+ years of experience
  • Proficiency in AutoCAD, SolidWorks, and hydraulic simulation tools (e.g., Automation Studio, Simscape)
  • Familiarity with UL, CE, ISO, or other industry-specific compliance and safety standards
  • Track record of delivering high-performance, custom-engineered hydraulic systems
  • Ability to manage a facility in a safe, cost-effective, and comfortable working environment.


 COMPETENCIES:

  • Deep expertise in industrial hydraulic systems, controls, and fluid dynamics
  • Strong leadership in technical planning, resource coordination, and project delivery
  • Skilled in cross-functional collaboration and system-level integration
  • Effective communicator across technical, operational, and executive audiences
  • Demonstrated ability to manage ambiguity, prioritize tasks, and make sound engineering decisions

PHYSICAL AND MENTAL DEMANDS:

  • Frequently required to sit, use hands, talk, and hear
  • Occasionally required to lift up to 25 lbs and visit industrial facilities or customer sites
  • Must be capable of analyzing complex data, making decisions, and working independently
  • Visual abilities include color perception, depth, and near/far vision essential for schematic work
  • Requires attention to detail, multitasking, and mental focus in a dynamic work environment

The mental and physical requirements described here are representative of those that must be met by an individual to successfully perform the essential functions of this position 


WORKING ENVIRONMENT:

  • Typical office setting with regular visits to shop floor and customer facilities
  • 40-hour work week, with occasional evening/weekend support depending on project needs
  • Use of standard office equipment, CAD stations, and engineering tools
  • Travel requirement: Up to 15%