Understand product performance before you build. Make informed engineering decisions with simulation-led design verification, performance evaluation and optimization.
Benedes Engineering provides computer aided engineering services across structural analysis, fluid dynamics, thermal simulation and system-level performance studies—helping engineering teams investigate design behaviour under defined operating conditions.
Computer Aided Engineering (CAE) uses numerical simulation and engineering methods to assess how a product or system may behave under specified conditions. It helps teams explore design alternatives, understand critical performance factors and identify areas that may need further engineering attention.
Benedes combines engineering knowledge with established simulation tools to support product development and problem-solving. We work with customer-provided geometry, material data, operating conditions and acceptance criteria to develop an analysis approach suited to the engineering question.
From individual components to assemblies and flow systems, we scope the method around the physics, inputs and results needed for your project.
Assess stress, strain, displacement and load paths. Where required, include nonlinear material behaviour, large deformation or nonlinear contact based on the problem definition.
Discuss structural FEA →
Investigate interface contact, bolt preload, load transfer, separation and local stress in mechanical assemblies, with assumptions documented in the analysis scope.
Discuss assembly analysis →
Explore flow distribution, pressure drop, velocity, turbulence and flow-related performance in components and equipment such as pumps, valves, manifolds and ducts.
Discuss CFD →
Evaluate temperature distribution and heat transfer through conduction, convection and other relevant mechanisms. Coupled thermal-structural assessment can be considered where needed.
Discuss thermal analysis →
Study fatigue life, cyclic loading response, eigenvalue buckling or other durability concerns when suitable loading histories, material data and assessment criteria are available.
Discuss durability analysis →
Model flow networks and system behaviour to investigate pressure, flow rate, operating conditions and transient effects such as surge where the model and input data support it.
Discuss system simulation →Reliable simulation depends on appropriate assumptions, suitable inputs, verification checks and engineering interpretation—not just colourful plots.
Clarify objectives, loads, operating conditions and acceptance criteria.
Review geometry, materials, boundary conditions and model idealization.
Set up the appropriate CAE model and run the analysis.
Review results, convergence, sensitivities and engineering limits.
Present findings, assumptions, limitations and recommendations.
Simulation methods are selected to match each product's function, operating environment and engineering objectives.
Automotive & Transportation
Industrial Equipment & Machinery
Pumps, Valves & Compressors
Energy & Power Systems
Aerospace & Defence
Heat Exchangers & Thermal Systems
Oil & Gas / Process Equipment
General Product EngineeringBenedes provides engineering software solutions and technical services that support computer aided engineering workflows. As a Siemens-authorized Value-Added Channel Partner, we can also discuss software selection, implementation, training and support for relevant products.
Tool selection depends on the engineering physics, model complexity, project requirements and available software environment.
Talk to a CAE Specialist →Depending on the project, workflows may use:
Software availability and licensing depend on the specific products and customer environment. A software name does not imply every tool is used in every project.
Deliverables are agreed before the study begins and are tailored to the project objectives and data available.
Agreed native model files and key setup details, subject to project scope and software compatibility.
Relevant stress, displacement, pressure, velocity, temperature or other result plots.
Objectives, assumptions, material data, boundary conditions, results and engineering observations.
Findings and possible design improvements or further checks where supported by the analysis.
Simulation is an engineering assessment based on stated assumptions and input data. Results do not replace required physical testing, certification or independent design approval.
Our aim is to make analysis useful to the design team—with transparent assumptions, relevant outputs and clear technical communication.
Start with the physical question and acceptance criteria, then choose a suitable simulation method.
Connect CAD preparation, model setup, simulation and design review within the agreed scope.
Document important modelling assumptions, input requirements and study limitations.
Present results in a way that helps engineering teams understand risks and next steps.
Answers to common questions about computer aided engineering and simulation projects.
CAE is the use of computer-based engineering methods to analyse and predict product or system behaviour. It includes methods such as finite element analysis (FEA), computational fluid dynamics (CFD), thermal analysis and system simulation.
CAD is primarily used to create and modify digital product geometry and drawings. CAE uses engineering models and numerical methods to evaluate behaviour such as stress, deformation, flow, temperature or durability. CAD data often provides the geometry used in a CAE workflow.
Typically, we need available CAD geometry or drawings, material properties, load cases, supports or constraints, operating conditions and the objective or acceptance criteria. Additional data may be required depending on the physics and analysis type.
We can review existing designs and investigate defined engineering concerns when adequate geometry, material and loading information is available. Failure investigations may require additional evidence, testing or material characterization; achievable conclusions depend on the evidence provided.
These studies can be considered for suitable applications. The model needs appropriate contact definitions, preload information, material properties, boundary conditions and solver settings. The exact approach and scope are confirmed during technical review.
Yes, deliverables can include a PDF technical report, selected result plots and agreed native simulation files. The precise deliverables, file formats and handover requirements are confirmed in the quotation.
Cost and schedule depend on geometry, analysis complexity, load cases, data readiness, required iterations and deliverables. Share a brief description and available files for an initial scope review.
No. Simulation results depend on model assumptions, input data, numerical settings and the physical phenomena represented. CAE supports engineering decisions but does not guarantee failure-free performance or replace required testing, certification and design approval.
Share your design, operating conditions and analysis objectives. We can review the information and discuss a suitable CAE approach.