FEMAP

Product Details:

SIEMENS Femap with Simcenter Nastran : Nastran for Femap : Interactively supports a broad range of capabilities
Optimization : Designing and producing an innovative product that meets its performance criteria is a goal of every manufacturer. Using optimization techniques, an engineer can improve a proposed design, resulting in the best possible product for minimum cost. Because your designs may have hundreds of variable parameters, with complex inter-relationships, finding an optimal design through manual iterations is hit-or-miss at best. NX Nastran–Optimization software relieves the burden involved in improving product designs by automating the iterative process of comparing your design’s performance against its performance specifications.
Rotor Dynamics : Rotating systems are subject to gyroscopic forces such as Coriolis and centrifugal forces that are not present in stationary systems. NX Nastran® Rotor Dynamics software provides the capability to predict the dynamic behavior of rotating systems. With the Rotor Dynamics functionality now integrated into NX Nastran, users can now more easily simulate rotating system loads, perform synchronous and asynchronous analysis to generate Campbell Diagram data, predict whirl frequencies and critical speeds and detect instability in rotating components.
Superelements : Despite the ever-increasing power of computers, finite element models are continuing to get larger, which means that finite element analysis (FEA) solutions can require hours of compute time. NX Nastran® software solves large systems of equations efficiently using sparse matrix algorithms; however, NX Nastran – Superelements offers still greater efficiency. Superelements, an add-on to NX Nastran – Basic, plays a key role when solving very large and complex finite element models by decomposing larger structures into equivalent sets of smaller substructures called superelements. NX Nastran – Superelements can be used with all NX Nastran analysis capabilities; is particularly efficient in large, full-system analysis such as an entire aircraft, vehicle or ship; and performs incremental and partial assembly solutions.
Advanced Nonlinear : The NX Nastran® Advanced Nonlinear software solution enables you to analyze models with nonlinearity from contacting parts, material nonlinearities and/or geometric nonlinearities (that is, large deformations). An add-on module of NX Nastran – Basic, the Advanced Nonlinear solver is an NX Nastran as Solution 601 for implicit solutions or Solution 701 for explicit solutions.
Aeroelasticity : Aeroelastic analysis is a capability that enables the analysis of structural models in the presence of an airstream. With NX Nastran® – Aeroelasticity, an optional add-on module to NX Nastran – Basic software, you have access to static aeroelastic capabilities for stress, load, aerodynamic and control system analysis and design using a common finite element representation. As such, it is applicable in the design of airplanes, helicopters, missiles, suspension bridges and even tall chimneys and power lines.
Dynamic Response : NXT Nastran® – Dynamic Response software enables you to calculate your product’s forced dynamic response to inputs (loads or motions) that vary with time or frequency. An add-on option to NX Nastran – Basic, it complements the linear static and mode solution capabilities found in the Basic solution. Dynamic response capabilities play a key role in various industries such as assessing passenger comfort in aircraft and automobiles under different operating conditions; determining whether engine frequencies or tire excitations from the road suface will adversely affect responses at other areas of a vehicle, such as at the steering column or in the seats; or evaluating the effect of vibrations on the performance of consumer products and other high-tech electronic devices.

Product Details:

Femap™ Flow software is a computational fluid dynamics (CFD) solution that is fully embedded into the native Femap environment. It provides fast, efficient and accurate functionality to simulate fluid flow and heat transfer for complex parts and assemblies. You also can explicitly couple Femap Flow with Femap Thermal and Femap Advanced Thermal for comprehensive thermofluid modeling of a wide range ofmulti-physics problems. Femap Flow simulation applications are typically used in the following industries: aerospace and defense, automotive, consumer products, high-tech electronics, medical devices and instruments, power generation and process
Femap Flow models 3D fluid velocity, temperature, pressure and other industry-specific results by solving the Navier-Stokes equations for both steady-state and transient applications. It uses an efficient and robust elementbased finite volume, multigrid solver enabling simulation of both low-speed and high-speed compressible flows. 
Solver and modeling features include: • Steady-state and transient analysis (adaptive correction multigrid solver) • Unstructured fluid meshes (supports tetrahedral, brick and wedge element types)• Turbulent, laminar and mixed flows • CFD solution intermediate results recovery and restart • Heat loads and temperature restraints on the fluid • Forced, natural and mixed convection• Non-Newtonian fluids • Fluid buoyancy • Multiple enclosures • Immiscible fluids and homogeneous gas mixtures • Internal and external flows • Complete and seamless coupling to Femap Thermal for simulation of conjugate heat transfer (handles disjoint meshes at fluid/solid boundaries) • Losses in fluid flow due to screens, filters and other fluid obstructions (including orthotropic porousblockages) • Head loss inlets and openings  (fixed or proportional to calculated velocity or squared velocity) Benefits • Allows investigation of multiple “what-if” scenarios involving complex assemblies• Provides extensive set of tools for creating CFD analysis-ready geometry • Allows troubleshooting of operational thermo-fluid problems prior to expensive physical prototyping time • Enables advanced CFD simulation within Femap such as high-speed flows, rotational flows, nonNewtonian fluids, static motion of surfaces, particle tracking • By default, all 2D and 3D solids transfer heat to the fluid they adjoin and serve as obstructions to the fluid flow; users can control the surface roughness and walls’ convective properties globally and locally Femap Flow Computational fluid dynamics (CFD) toaccurately and efficiently simulate fluid flowFemap Flow FEMAP • Fluid swirl and turbulence at inlet and internal fans • Fluid recirculation loop with head loss or heat input/loss or fluid temperature change between unconnected fluid regions • Automatic connection between disjoint fluid meshes for assembly modeling • Altitude effects • Nonlinear flow boundary conditions
Reliable and robust CFD solver technology Femap Flow combines the versatility of finite element-based analysis technology with the power and accuracy of a control volume formulation. • Algebraic multigrid solver technology • Solver solution time linear with model size • Co-located calculation points for momentum, mass and energy • Momentum and mass equations solved simultaneously, not separately• Expanded support for turbulence models: fixed viscosity, mixing length, k-epsilon, k-omega, SST, LES • Near wall effects and convection handled for flow simulation with and without wall functions• First- and second-order advection schemes • Solver monitor with dynamic plotting of solution convergence and attributes • Intermediate results display and recovery directly from solver progressmonitor

Product Details:

FEMAP TMG Thermal : FEMAP  TMG Thermal is a comprehensive thermal simulation product that adds advanced thermal analysis tools to Femap. Using advanced finite difference control volume technology, Femap  TMG Thermal facilitates faithful modeling of nonlinear and transient heat transfer processes, including conduction, radiation, natural convection and forced convection, fluid dynamics in conduct, as well as phase changes.
FEMAP TMG Thermal includes conduction, convection, radiation and phase change modeling functionality. The software offers a range of thermal and solver boundary conditions. It also offers a thermal assembly control modeling tool, called Thermal Couplings, which allows you to create thermal connections between different parts of large assembled systems. 
FEMAP  TMG Advanced Thermal adds many advanced thermal modeling and fluid modeling features to the base version, including modeling of driving fluid dynamics, and natural or forced convection and flow. A comprehensive toolset is provided for advanced radiation and spacecraft modeling, including solar and orbital warming, orbital modeling and display, specular reflections with ray tracing, and structural articulation. . In addition, these powerful modeling tools are complemented by several more advanced solver features, including the ability for each user to create custom subroutines, model simplification, the substructuring and interfaces with commercial thermal software. FEMAP TMG Advanced Thermal offers full coupling with Femap TMG Flow for the comprehensive modeling of heat flows and fluids in a wide range of problems involving multiple areas of physics. In addition, the results obtained withFEMAP  Thermal can be exported for use by FEMAP's solver for structural calculations. TMG's radiation modeling capabilities are used to simulate headlight enclosures.
The FEMAP TMG Thermal base package includes the following features: Transient and stationary, linear and non-linear thermal analysis solutions; Thermal boundary conditions, including temperatures, thermal loads, flows, initial conditions and thermostats; Tools for coupled thermal systems, which make it possible to create thermal contacts between models with disjoint finite elements, including assemblies of surfaces, edges and points; Conduction, including isotropic and orthotropic properties, radial heat flow, phase changes, and properties that are a function of time, temperature and direction;Radiation, including calculation of form factors taking into account shading, varying surface properties, modeling of axisymmetric radiation, and multiple radiation enclosures; Convection, specifying boundary conditions using data tables or formulas; Additional functions, in particular the axisymmetric modelization, non-linear thermal characteristics expressed in the form of tables, the non-geometric modelization and the “monitoring” of the solutions.
Features of FEMAP  TMG Advanced Thermal : Modeling of fluid networks in 1-D conduits with simulation of forced convection and natural convection for several fluids and modeling of both incompressible and compressible flows; Diurnal and radiant solar and orbital (spacecraft) heating, including modeling and interactive display of orbits; Modeling of specular and hemicube radiation with ray tracing and modeling of transmission surfaces; Articulation structures for radiation modeling, including translation and rotation of joints and rotation of spacecraft assemblies; Heating by Joule effect simulated by electric resistance circuits; Application of temperatures in meshes; Interfaces with commercial thermal software including Sinda, Esatan, Trasys, Nevada, ESARAD, TSS and Thermica. Advanced solver features including model simplification, substructuring and the ability for each user to write their own subroutines, batch solution processing, and editable input files.

Product Details:

Simcenter Femap : Minimize costly prototyping using best-in-class simulation workflows for analysts
Simcenter Femap is an advanced simulation application for creating, editing, and inspecting finite element models of complex products or systems. You can use advanced workflows in Simcenter Femap to model components, assemblies, or systems, to then determine a model’s behavioral response when subjected to real-world conditions. In addition, Simcenter Femap provides powerful data-driven and graphical results visualization and evaluation, which in combination with the industry-leading Simcenter Nastran, delivers a comprehensive 
Composites : In the quest to make products lighter yet stronger, manufacturers are increasing their use of composite materials. Simcenter is at the leading edge of composites analysis through continuous development of material models and element types. Simcenter speeds the entire process for simulating laminate composite materials through a seamless connection to composites design, accurate solvers and comprehensive post-processing. Computational fluid dynamics (CFD) simulation : Simcenter provides industry leading computational fluid dynamics (CFD) software for fast, accurate CFD simulation of almost any engineering problem that involves the flow of liquids, gases (or a combination of both), together with all of the associated physics. Structural Simulation : Understanding how a component or product assembly reacts under stress or vibration is critical in any industry, but as products and materials become increasingly complex, engineers need tools that go beyond linear statics analyses. Simcenter includes the structural solutions you need for a wide range of structural analysis problems within a single user environment.
Thermal Simulation : Simcenter includes comprehensive, best-in-class thermal simulation capabilities that can help you to understand the thermal characteristics of your product and subsequently tailor your thermal management solution for optimal performance. Meshing : Efficiently mesh your models using extensive modeling functions for automatic and manual mesh generation of 1D, 2D and 3D elements in addition to numerous techniques for the application of loads and boundary conditions. User-defined geometry edits, mesh and boundary conditions are all associated to the base design, which means when the base design geometry changes, you can rapidly update your model. This approach greatly reduces downstream modeling time, which results in huge time savings across a project’s many design-analysis iterations.
Optimization : How can I reduce material in a component or change its properties while ensuring it continues to meet performance targets? Simcenter delivers engineering optimization techniques that can help you answer these this question by systematically searching for the best design that satisfies certain criteria. Reduce component weight or find the right combination of parameters to improve product performance through comprehensive topology, geometry, and parameter optimization capabilities.
Pre / Postprocessing : Reduce the time you spend preparing analysis models, and spend more time evaluating results. Quickly move from multi-CAD geometry data to a complete, run-ready analysis model using unique tools for CAE geometry editing, comprehensive meshing, FE assembly management, multi-CAE solver environments, and fast simulation results post processing and reporting.
Simulation Automation & Scalability : As companies increase their reliance on simulation, they are seeking ways to speed-up the analysis process and increase simulation throughput. One way to increase simulation throughput is to capture repetitive CAE processes, standardize them, and then automate them.