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Remote Fluid Engineering Jobs in New York (NOW HIRING)

Bachelor's Degree in Mechanical Engineering or Equivalent * Knowledge of fluid mechanics principles ... Hybrid remote if not located near a local engineering office; Limited travel (10-20%) * Previous ...

Familiarity with responsive email frameworks (e.g., hybrid/fluid design techniques) * Experience ... Excellent communication skills and self-motivation while working autonomously in a remote ...

Familiarity with responsive email frameworks (e.g., hybrid/fluid design techniques) * Experience ... Excellent communication skills and self-motivation while working autonomously in a remote ...

Partner closely with Engineering, Product, and Data teams to enable scalable marketing operations ... We have a naturally agile and fluid culture. The whole team is fully remote, which means you work ...

MarTech Manager

New York, NY ยท On-site +1

Partner closely with Engineering, Product, and Data teams to enable scalable marketing operations ... We have a naturally agile and fluid culture. The whole team is fully remote, which means you work ...

Partner closely with Engineering, Product, and Data teams to enable scalable marketing operations ... We have a naturally agile and fluid culture. The whole team is fully remote, which means you work ...

Remote Fluid Engineering information

What is remote fluid engineering?

Remote fluid engineering involves the analysis, design, and optimization of systems involving fluids (liquids and gases) by professionals who work remotely, often utilizing advanced simulation software and digital collaboration tools. These engineers may work on projects such as pipelines, HVAC systems, or fluid dynamics in industrial processes, providing solutions without being physically present on-site. This role requires a strong background in fluid mechanics, computational modeling, and effective communication to collaborate with teams across different locations.

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

To thrive as a Remote Fluid Engineer, you need a solid background in fluid dynamics, mechanical or chemical engineering, and a relevant engineering degree. Proficiency in simulation software like ANSYS Fluent or COMSOL Multiphysics, as well as familiarity with remote collaboration tools, is typically required. Strong problem-solving skills, effective communication, and self-motivation are crucial soft skills for remote work environments. These skills ensure accurate analysis, successful project delivery, and efficient teamwork despite geographical distances.

What are some common challenges faced by remote fluid engineers, and how can they be addressed?

Remote fluid engineers often encounter challenges such as limited access to on-site equipment, difficulties in real-time collaboration with colleagues, and ensuring accurate data transfer between teams. To address these, many teams utilize advanced simulation software, maintain clear communication channels through regular virtual meetings, and establish standardized data-sharing protocols. Additionally, remote engineers can benefit from strong documentation practices and leveraging cloud-based engineering platforms to stay aligned with project goals and updates.

What is the difference between Remote Fluid Engineering vs Remote Mechanical Engineering?

AspectRemote Fluid EngineeringRemote Mechanical Engineering
Required CredentialsBachelor's in Mechanical, Civil, or Chemical Engineering; relevant certificationsBachelor's in Mechanical Engineering; certifications vary by specialization
Work EnvironmentDesign, analysis, and simulation of fluid systems remotelyDesign, analysis, and testing of mechanical systems remotely
Industry UsageOil & gas, aerospace, HVAC, energy sectorsManufacturing, automotive, aerospace, consumer products
Search & Comparison IntentOften compared for roles involving fluid dynamics and system designCompared for broader mechanical system roles

Remote Fluid Engineering focuses on fluid systems, requiring expertise in fluid dynamics and related certifications, often within energy or aerospace sectors. Remote Mechanical Engineering covers a wider range of mechanical systems, with similar credentials but broader application areas. Both roles are performed remotely, but their industry focus and technical scope differ.

What are the most commonly searched types of Fluid Engineering jobs in New York?

The most popular types of Fluid Engineering jobs in New York are:

What cities in New York are hiring for Remote Fluid Engineering jobs?

Cities in New York with the most Remote Fluid Engineering job openings:

Infographic showing various Remote Fluid Engineering job openings in New York as of August 2026, with employment types broken down into 89% Full Time, 7% Part Time, 3% Contract, and 1% Nights. Highlights an 85% Physical, 4% Hybrid, and 11% Remote job distribution.

Remote | Computational Mechanics & FEA Expert $60-$75/hour

24-Mag Llc

Manhattan, NY โ€ข On-site, Remote

$60 - $75/hr

Part-time

This job post hasย expired today.ย Applications are no longer accepted.


Job description

Specialised Part-Time Consulting OpportunityWe are sharing a specialised part-time consulting opportunity for computational structural and mechanical engineering professionals with graduate-level expertise in numerical simulation, finite-element analysis, computational mechanics, and scientific software.

This role supports the development of advanced AI benchmarks for research-level computational engineering. Selected experts will design original technical problems that require AI systems to use real scientific software, execute simulations, interpret numerical results, plan computational experiments, and reason through complex engineering workflows.

Key ResponsibilitiesComputational Engineering Problem DesignCreate original graduate-level problems in structural, mechanical, thermal, and computational engineeringDevelop tasks based on realistic scientific and engineering workflowsDesign problems that require multi-step numerical reasoning rather than simple formula applicationConstruct tasks with clearly defined setups, expected outputs, and objective validation criteriaRefine problem difficulty based on model performance and evaluation resultsFinite-Element & Structural MechanicsDevelop computational problems involving beam, plate, and shell analysisWork with linear and nonlinear elasticity, continuum mechanics, and solid mechanicsDesign tasks using finite-element and variational formulationsIncorporate mesh refinement, convergence studies, and numerical verificationApply theories such as Eulerโ€“Bernoulli and Timoshenko beam formulations where relevantScientific Simulation & Numerical MethodsBuild problems requiring specialised open-source scientific softwareApply finite-element, finite-volume, Galerkin, PDE discretisation, and related numerical methodsDevelop tasks involving constitutive modelling, numerical linear algebra, and nonlinear solution techniquesEvaluate numerical stability, convergence, accuracy, and modelling assumptionsCreate workflows that reflect genuine computational research practiceMechanical, Thermal & Multiphysics ModellingDesign tasks involving computational fluid dynamics and fluid mechanicsDevelop thermal-fluid, heat-transfer, and mass-transfer simulationsCreate problems involving thermodynamics, combustion, and HVAC or thermal systemsWork with coupled multiphysics simulations and engineering system modelsDevelop optimisation, reliability, and manufacturing-simulation problems where relevantScientific Software & Solver WorkflowsApply hands-on expertise with tools such as FEniCSx/DOLFINx, scikit-fem, OpenFOAM, deal. II, MFEM, MOOSE, CalculiX, Elmer FEM, Code_Aster, SfePy, FiPy, Devito, Cantera, CoolProp, Pyomo, or SimPyDevelop problem setups and reference solutions using domain-specific computational toolsWork with other open-source structural, mechanical, and scientific solver frameworks where appropriateDiagnose solver limitations, numerical edge cases, and implementation failure modesUse Python and, where relevant, C, C++, or Fortran-based scientific codesAI Benchmark DevelopmentTest computational problems against advanced AI systemsAnalyse whether models can correctly execute scientific workflows and interpret resultsDesign tasks where models must strategically choose simulations, measurements, or queriesCreate challenges where hidden information must be inferred from partial computational resultsIteratively adjust tasks until they achieve the intended level of difficulty and discriminationValidation & ReproducibilityWrite reference implementations, oracle functions, and solution validatorsVerify that benchmark answers are numerically and scientifically correctEnsure computational tasks are reproducible across controlled environmentsDocument assumptions, parameters, boundary conditions, and expected outputs clearlyWork within Linux-based and remote computational environmentsIdeal ProfileMaster's degree, PhD, or equivalent research experience in Mechanical Engineering, Structural Engineering, Computational Engineering, Applied Mechanics, or a closely related STEM disciplineStrong hands-on experience with computational structural or mechanical engineering softwareProven proficiency with at least one relevant open-source scientific computing or simulation frameworkProfessional or research experience using numerical methods to solve real engineering problemsStrong understanding of finite-element analysis, computational mechanics, PDE-based modelling, or related numerical disciplinesStrong Python programming skillsAbility to develop computational setups, reference solutions, and automated validatorsComfortable working in Linux and terminal-based environmentsAbility to diagnose numerical edge cases, solver failures, and modelling limitationsResearch publications, open-source contributions, or substantial professional simulation work are highly valuedExperience across multiple computational engineering tools or disciplines is advantageousFamiliarity with benchmark design, scientific teaching, or advanced problem-set development is beneficialExperience with computational reproducibility or containerised environments is advantageousEngagement DetailsPart-time independent contractor engagementFully remoteExpected commitment of at least 15โ€“20 hours per weekFlexible scheduling based on project requirementsCompensation: $60โ€“$75/hourWork involves computational task design, validation, and AI benchmark developmentProjects may be extended, shortened, or concluded based on project needs and performanceWork must be completed without using confidential or proprietary information belonging to any employer, client, institution, or other third partyH1-B and STEM OPT support is unavailable for this engagementAbout the PlatformThis opportunity is available through 24-MAG LLC. We connect experienced professionals with remote consulting opportunities across technical, evaluation, and project-based workstreams.

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