Thermal/Flow, Electronic Systems Cooling, and Space Systems Thermal > Solution options > Requesting output results from thermal and flow solvers
Thermal output requests
This table list the available output result sets that you can request from the thermal solver in Thermal/Flow, Electronic Systems Cooling, Space Systems Thermal, or Multiphysics.
| Output request type | Result set in Post Processing Navigator | Description | |||||
|---|---|---|---|---|---|---|---|
| Temperatures | Ply Temperatures — Elemental | Temperature at each element’s center of gravity separately displayed for each ply. The software writes this result set when the model contains a solid laminate physical property with multiple plies. | |||||
| Temperature — Elemental****Temperature — Nodal | Temperature results for all solid thermal elements.Note: For multi-layer shells, the nodal temperature is the average of the top and bottom layer temperatures. | ||||||
| Temperatures Protective Layer Bottom Face — ElementalTemperatures Protective Layer Middle — ElementalTemperatures Protective Layer Top Face — Elemental | The elemental temperature at the bottom, middle, and top protective layer of the various plies. | ||||||
| Min/Max Temperatures and Occurrence Times | Max Temperature — Elemental****Min Temperature — Elemental | Maximum and minimum elemental temperature in a transient analysis. These result sets are displayed under the Time Invariant node in the Post Processing Navigator. | |||||
| Time at Max Temperature — Elemental****Time at Min Temperature — Elemental | Analysis time at which the element reaches its maximum or minimum temperature in a transient analysis. These result sets are displayed under the Time Invariant node in the Post Processing Navigator. | ||||||
| Total Temperatures | Total Absolute Fluid Temperature — Elemental****Total Absolute Fluid Temperature — Nodal | Total absolute fluid temperature at the walls where you defined One-Sided Total Temperature Effects or Two-Sided Total Temperature Effects types of the Duct Flow Boundary Conditions simulation object, or one of the convective boundary conditions. | |||||
| Total Relative Fluid Temperature — Elemental****Total Relative Fluid Temperature — Nodal | Total relative fluid temperature at the walls where you defined One-Sided Total Temperature Effects or Two-Sided Total Temperature Effects types of the Duct Flow Boundary Conditions simulation object, or one of the convective boundary conditions.The thermal solver computes the total relative fluid temperatures only when wall rotational effects are present. In these boundary condition dialog boxes, from the Rotational Effects list, select any option except Neglect Wall Rotation. | ||||||
| Local Temperature Error Estimate | Temperature Error Estimates — Elemental****Temperature Error Estimates — Nodal | Temperature error estimate results estimate the local spatial discretization errors caused by the mesh used for the simulation of conduction. The elemental temperature error estimate, εT, is the maximum temperature difference of all boundary elements computed as follows:εT = max | TBE – fBE(T1, T2, ..., TN) | where:TBE are the calculated boundary element temperaturesTi are the N smoothed nodal temperaturesN is the number of nodesThe fBE function uses element shape functions to interpolate the nodal temperatures to the boundary elementThe error estimate is measured in units of temperature difference.These result sets are always computed for all elements and nodes. | εT = max | TBE – fBE(T1, T2, ..., TN) | |
| εT = max | TBE – fBE(T1, T2, ..., TN) | where:TBE are the calculated boundary element temperaturesTi are the N smoothed nodal temperaturesN is the number of nodesThe fBE function uses element shape functions to interpolate the nodal temperatures to the boundary element | |||||
| Maximum Temp Error Estimates — Elemental****Maximum Temp Error Estimates — Nodal | Maximum temperature error estimate of each element and node in a transient analysis. These result sets are displayed under the Time Invariant node in the Post Processing Navigator.These result sets are always computed for all elements and nodes. | ||||||
| Time of Maximum Error Estimates — Elemental****Time of Maximum Error Estimates — Nodal | Analysis time at which the element or node reaches its maximum temperature error estimate in a transient analysis. These result sets are written only for transient runs, and displayed under the Time Invariant node in the Post Processing Navigator.These result sets are always computed for all elements and nodes. | ||||||
| Conductive Heat Fluxes | Conductive Flux — Elemental****Conductive Flux — Nodal | Vector data equal to the conductive heat flux. The magnitude, │q│, is computed as:│q│=q/Aelbq is the heat flowing through the element boundary, and Aelb is the area of its boundary. | |||||
| Convective Heat Fluxes | Convective Flux — Elemental****Convective Flux — Nodal | Scalar data equal to the convective heat flux. This result set is displayed only on 2D shell elements. | |||||
| Temperature Gradients | Temperature Gradient — Elemental****Temperature Gradient — Nodal | Vector data equal to the temperature gradient of the element. | |||||
| Transverse Temperature Gradients | Transverse Temperature Gradient — Elemental****Transverse Temperature Gradient — Nodal | Elemental transverse temperature gradient data through multi-layer shells, computed as follows:∂T/∂n = (Ttop—Tbottom)/ttotalTtop is the elemental temperature of the top layer, Tbottom is the elemental temperature of the bottom layer, and ttotal is the total thickness of the multi-layer shell.Note: You must use multi-layer shells or 2D elements with the Divide Thickness into Uniform Layers or Create Top and Bottom as Two-Layer Shells check box selected to output this result set. | |||||
| Total Loads and Fluxes | Total Heat Load — Elemental | Element data that represents the combined overall loads from all sources, including thermal boundary conditions. | |||||
| Total Heat Flux — Elemental | Element data that represents the combined overall fluxes from all sources. The sources can include thermal boundary conditions, radiative fluxes, and orbital fluxes. | ||||||
| Immersed Ducts Heat Loads — Elemental | Heat load at the solid element's center of gravity received from ducts where you defined a Immersed Ducts simulation object. | ||||||
| Residuals | Heat Residual — Elemental | Heat imbalance data at the elements. This result set is useful only for a steady-state solution. | |||||
| Free and Forced Convection Coefficients | Convection Coefficient — Elemental****Convection Coefficient — Nodal | Convective heat transfer coefficient data. | |||||
| Immersed Ducts Convection Coefficient — Elemental | Element data that represents the heat transfer coefficient on ducts where you defined a Immersed Ducts simulation object. | ||||||
| Area Corrected Free and Forced Convection Coefficients | Area Corrected Convection Coefficients — Elemental****Area Corrected Convection Coefficients — Nodal | Area corrected convection coefficient data for elements where you defined one of the convective boundary conditions. These result sets report the heat transfer coefficient values that are corrected via the Area Correction Factor or Area Override property of each element or node. | |||||
| Wall Velocities | Wall Velocity — Elemental****Wall Velocity — Nodal | Rotational wall velocity on elements and nodes where you defined one of the convective boundary conditions. | |||||
| Joule Data | Voltage — Elemental | Voltage at each element in the electrical heating network. | |||||
| Power Density — Elemental | Dissipated power density at each element due to an electrical heating effect. | ||||||
| Current Density — Elemental | Current density vector at each element in the electrical heating network. | ||||||
| Phase Change Quality | Quality — Elemental | Proportion of each element that is in its higher temperature phase. This result set can be useful when studying the melting or solidification of objects or materials under analysis. | |||||
| RC Products | RC Product — Elemental | RC product is:RCproduct = R x C**R is the resistance and C is the capacitance of an element in a transient analysis. | |||||
| Displacements | Displacements — Nodal | Vector data equal to the displacement at node points. The software writes this result set only for coupled solutions. |
Note:
The software generates elemental result sets when the corresponding Results Location is set to Elements or Elements and Nodes. Elemental results are computed at element’s center of gravity.
The software generates nodal result sets when the corresponding Results Location is set to Nodes or Elements and Nodes. Nodal results are interpolated from elemental results of the surrounding calculation points.
The solid laminate physical property is only available in Multiphysics.
The multi-layer shells are not available in Multiphysics.
The convective boundary conditions are the following load types:Thermal Convective ZoneThermal StreamThermal Void
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Source: https://docs.sw.siemens.com/en-US/doc/289054037/PL20200601120302950.advanced/xid641684 · retrieved 2026-07-17