© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. date presented to by Carl J. Poplawsky Femap Symposium Ann Arbor, MI. June.

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Presentation transcript:

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. date presented to by Carl J. Poplawsky Femap Symposium Ann Arbor, MI. June 4th, 2015 Femap Thermal & Flow V11

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. OEM Foundation Siemens PLM Partner 30+ years Software Developer Femap (Thermal, Flow, SAToolkit) NX, I-deas, BuildIT, DC Clarity Software Reseller NX, Femap, LMS Services Provider Structural, Thermal/Flow, Femap/NX API, SW development, Training, Support 120+ Qualified Domain Experts Advanced Degrees in Heat Transfer, CFD and Structural Analysis Presence Across North America Headquartered in Montreal Offices in Dallas, Chicago, Phoenix 2 MAYA Company Overview

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Thermal & Flow Siemens OEM Thermal and Flow solvers (developed by Maya) embedded into Femap Not 3 rd party software No file translations Single unambiguous user interface No revision mismatch issues NX Nastran Femap Thermal/Flow MSC.Nastran LS-DYNA ANSYS ABAQUS Sinda NEi Nastran Adina

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Thermal Comprehensive heat transfer simulation package Steady state / transient Conduction Implicit convection Thermal Couplings Thermal Boundary Conditions Radiation Joule heating Temperature mapping for structural

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Thermal Conduction Finite elements for modeling but finite volume for the solution technique Allows for use of all element types, including beams, shells, solid tetrahedral, and solid brick elements…even axi-symmetric and multi-layer shells! Supports orthotropic and anisotropic material properties and phase change Provides for nonlinear material properties, including temperature dependency

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Thermal Convection and Boundary Conditions Convection can be defined using heat transfer coefficient and gas temperature distributions provided by the user – Includes the ability to read in 3 rd party data files When coupled to Femap Flow, convection is fully automated Thermal boundary conditions include heat flow, heat flux, heat generation, temperature, and radiation Thermal loads can be spatially mapped using the Femap data surface Heat loads can be controlled by a thermostat or a P, PI, or PID controller

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Thermal – Thermal Couplings Thermal couplings allow the user to thermally connect dissimilar meshes, with a conductance of any value – Bonded or bolted joints – Card edge guides – Semiconductor package “theta’s” Also allows the user to greatly simplify the physical representation of an entity – Makes the meshing burden much lower since continuous meshes are not required

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Thermal Radiation Allows for 2 bandwidths (typically thermal and solar), with different surface properties for each Will detect enclosures, calculate view factors, perform shadowing checks, calculate diffuse and reflected radiative exchanges and compute radiative heating (if any) within the model View factor algorithms include Hemicube, Deterministic, and Monte Carlo Hemicube and Deterministic are supported for multi-processing

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Flow Provides advanced computational fluid dynamics (CFD) capability used to determine the effects of fluid flow Finite-volume solution technique Fans and vents Flow surfaces Symmetry planes and periodicity Screens and blockages Rotating frame of reference High speed flow Pressure and shear load mapping

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Flow Fans and Vents Allows the user to define air sources (fans) Velocity, volumetric flow, mass flow, pressure rise, or fan curve Fans can be at the flow boundary or embedded A recirculating fan (closed loop) is also available with or without heating or heat removal The user can include secondary effects Fan swirl, motor heating, louvers, perforated inlet plates, etc. Vents can be defined at the flow boundary The software determines flow direction The user can include secondary effects Fan swirl, motor heating, louvers, perforated inlet plates, etc.

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Flow – Flow Surfaces Allows the user to designate surfaces for convection and drag The user can provide characteristic roughness Or the software will calculate characteristic roughness given a set of “obstruction elements” Femap also provides a setting for “auto-convecting” from all free surfaces

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Flow Symmetry Planes and Periodicity Includes the ability to take advantage of both geometric and flow/thermal symmetry Can significantly reduce the size of a model, and hence the solution run time Flow symmetry planes Forces the flow parallel to the plane with zero friction Periodicity Forces a mirror image of the flow from the source surfaces onto the slave surfaces

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Flow Screens and Blockages Femap provides for head losses associated with entities that impede or block flow Screens Allow the user to define head loss factors for one or more surfaces Very useful for screens, thin filters, perforated plates (such as EMI shields), etc. Blockages Allows for directional head loss factors defined in a 3D area Useful for flow straighteners, porous media, bundles of wires, etc.

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Flow Rotating Frame of Reference, High Speed Flow, Mapping Provides the ability to define a rotating frame of reference for rotationally dominant flows Useful when analyzing rotating machinery (such as impellers, turbine blades, etc.) Produces accurate results with far less computation Solves high speed compressible flow to Mach 3 Mapping tool will interpolate pressure and shear loads onto dissimilar structural mesh

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Fully Coupled Femap Thermal and Flow Multiphysics Multiple solvers interact (couple) with each other The Femap Thermal and Flow Solvers are fully coupled The conjugate heat transfer problem is handled automatically Fluid temperatures and heat transfer coefficients Wall heat fluxes Useful for virtually any convection cooling or heating application, forced or free Automotive Electronics systems Manufacturing Etc.

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Coupled Thermal / Flow Demonstration

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Femap Advanced Thermal Advanced suite of thermal simulation extensions to the Femap Thermal solver Radiative Heating & Orbital Modeling Duct Flow (1D fluid networks) Convection Correlations

© Copyright 2014 Maya Heat Transfer Technologies, Ltd. All rights reserved. Q & A Find out more (toll-free)