B
- baffles: Planar Resistances
- band width for contour plots: Contour Attributes
- Basic parameters dialog box: The Model manager Window
- Basic parameters panel: Specifying the Problem Parameters
- Basic settings dialog box: The Model manager Window
-
Basic
settings panel: Initializing the Solution
-
Reset button: Forced- or Natural-Convection Effects, Setting Under-Relaxation Factors, Initializing the Solution
- transient
simulations: User Inputs for Transient Simulations
- batch
- execution: Batch Processing of Ansys Icepak Projects on a Windows Machine
- file: Batch Processing of Ansys Icepak Projects on a Windows Machine
- bay stations: Enclosures
- block: Blocks
- combination: Block-Combination Thermal Characteristics, Cylinder, Polygon, Ellipsoid, or Elliptical Cylinder Blocks
Positioned on a Prism Block
- coincident surfaces: Blocks with Coincident Surfaces
- intersecting volumes: Blocks with Intersecting Volumes
- creating: Adding a Block to Your Ansys Icepak Model
- detailed heat sink macro: Detailed Heat Sink
- fixed heat: Physical and Thermal Specifications
- fixed temperature: Physical and Thermal Specifications
- fluid: Block Type, User Inputs for the Block Thermal Specification
- hollow: Block Type, User Inputs for the Block Thermal Specification
- individual sides: Physical and Thermal Specifications, User Inputs for the Block Surface Specification
- joule heating: User Inputs for the Block Thermal Specification
- meshing: Meshing Parameters for Blocks
- 3D polygon: Meshing Parameters for Blocks
- cylinder: Meshing Parameters for Blocks
- ellipsoid: Meshing Parameters for Blocks
- elliptical cylinder: Meshing Parameters for Blocks
- prism: Meshing Parameters for Blocks
- network: Block Type, Network Blocks, User Inputs for Network Blocks, Network Block Values Report
- on external wall: Blocks Positioned on an External Wall
- plate
- intersecting volume: A Block and an Intersecting Plate
- surface coincident: Blocks with Intersecting Volumes
- radiation: User Inputs for the Block Surface Specification, Radiation Modeling for Objects
- emissivity: User Inputs for Specification of Radiation in Individual Object
Panels
- specification: User Inputs for Specification of Radiation in Individual Object
Panels
- resistance: User Inputs for the Block Surface Specification
- solid: Block Type, User Inputs for the Block Thermal Specification
- surface roughness: Surface Roughness
- thermal properties: Physical and Thermal Specifications, Block-Combination Thermal Characteristics, User Inputs for the Block Surface Specification, User Inputs for the Block Thermal Specification
- transient simulations: User Inputs for the Block Thermal Specification, User Inputs for Transient Simulations
- type: Block Type
- Block thermal conditions dialog box: User Inputs for the Block Thermal Specification
-
Blocks dialog box: Adding a Block to Your Ansys Icepak Model
- blower: Blowers
- centrifugal: Centrifugal Blowers
- creating: Adding a Blower to Your Ansys Icepak Model
- curve window: Adding a Blower to Your Ansys Icepak Model
- meshing: Meshing Parameters for Blowers
- operating
point: Fan Operating Points Report
- swirl: Specifying Swirl
-
Blowers dialog box: Adding a Blower to Your Ansys Icepak Model
- board layer information: Importing Trace Files
-
Board properties dialog box: Reading an IDF File into Ansys Icepak
- body forces: Choosing the Discretization Scheme, Spatial Discretization
- bolt: Adding PCB Attachments to Your Ansys Icepak Model
- boundaries
- periodic: Periodic Boundaries
- boundary conditions
- parameterization: Overview of Parameterization
- radiative
heat transfer: Radiative Heat Transfer
- species: User Inputs for Species Transport Simulations
- trace
object: Trace Heating Boundary Conditions
- boundary profiles: User Inputs for a Free Opening, Using the Curve specification Panel to Specify a Spatial Boundary
Profile
- Boussinesq
approximation: Forced- or Natural-Convection Effects, The Boussinesq Model
- Boussinesq hypothesis: Advanced Turbulence Models
- bubble help: Accessing Online Help, Miscellaneous Options
- building a model: Building a Model
- buoyancy
forces: Buoyancy-Driven Flows and Natural Convection
C
- cabinet
- color: Modifying the Graphical Style of the Cabinet
- creating: Defining the Cabinet
- default: Defining the Cabinet
-
Edit window
: Defining the Cabinet
- line width: Modifying the Graphical Style of the Cabinet
- meshing: Meshing Parameters for Cabinets
- mirroring: Repositioning the Cabinet
- moving: Repositioning the Cabinet
- name: Changing the Name of the Cabinet
- notes: Changing the Name of the Cabinet
- resizing: Resizing the Cabinet
- to fit objects: Resizing the Cabinet
- rotating: Repositioning the Cabinet
- scaling: Resizing the Cabinet, Repositioning the Cabinet
- snap to grid: Repositioning the Cabinet
- translating: Repositioning the Cabinet
- wall: Changing the Walls of the Cabinet, Walls
- Cabinet dialog box: Resizing the Cabinet
- Cabinet node: The Cabinet Context Menu
- CAD geometry: Importing and Exporting Model Files
- cadence powermap files: Gradient, Cadence, and Apache Sentinel Powermap Files
- calculating a solution: Calculating a Solution, Performing Calculations
- in batch mode: Batch Processing of Ansys Icepak Projects on a Windows Machine
- capabilities: Program Capabilities
- boundary conditions: Boundary Conditions
- general: General
- materials: Materials
- meshing: Meshing
- model building: Model Building
- physical models: Physical Models
- reporting: Reporting
- solver: Solver
- visualization: Visualization
- case files: Solver Files
- Cavity Down BGA
Die dialog box: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages
- Cavity Down BGA Dimensions dialog box: Adding a Package to Your Ansys Icepak Model
- Cavity Down BGA Solder dialog box: User Inputs for BGA Packages
- Cavity Down BGA Substrate dialog box: User Inputs for BGA Packages
- cell values: Spatial Discretization
- Check model button: The Ansys Icepak Toolbars
- checking the design: Checking the Design of Your Model, Design Checks
- checking the mesh: Checking the Mesh
- element
volume: Checking the Element Volume
- face alignment: Checking the Face Alignment
- skewness: Checking the Skewness
- circular object: Geometry
- meshing: Meshing Parameters for Grilles
- Clean up project data: Cleaning up the Project Data
- Clean up project data
dialog box: Cleaning up the Project Data
- co-located
scheme: Spatial Discretization
- coarse mesh
- hexahedral: Hexahedral Meshing Procedure
- cocooning: Overview, Global Refinement for a Hex-Dominant Mesh, Global Refinement for a Hexahedral Mesh
- color: Editing the Graphical Styles
- cabinet: Modifying the Graphical Style of the Cabinet
- contour plot: Contour Attributes
- graphical displays: The Significance of Color in Graphical Displays
- group: Changing the Graphical Style of a Group
- object: Graphical Style
- particle trace: Particle Trace Attributes
- vector plot: Vector Attributes
- color legend
- data format: Display Options
- moving: Moving the Display Identifiers
- color levels
- contour plot: Contour Attributes
- color spectrum: The Significance of Color in Graphical Displays
- changing: Changing the Color Spectrum
- contour plot: Contour Attributes
- data format: Display Options
- compare
- temperature limits: Comparing the Object Temperatures with the Temperature Limits
- Complex lighting: The Ansys Icepak Menus
-
Component selection dialog box: Reading an IDF File into Ansys Icepak
- compressing project data: Cleaning up the Project Data
- compute nodes: Parallel Processing
- computing view factors: User Inputs for Specification of Radiation Using the Form factors
Panel
- adaptive method: User Inputs for Specification of Radiation Using the Form factors
Panel
- hemicube method: User Inputs for Specification of Radiation Using the Form factors
Panel
- condenser: Modeling a Planar Heat Exchanger in Ansys Icepak
- conduction: Energy Conservation Equation
- transient
simulations: Transient Simulations
- configuring a project: Configuring a Project
- conjugate-gradient methods: Multigrid Method
- conservation equations
- discretization: Spatial Discretization
- integral form: Spatial Discretization
- context menu
- set levels: Using the Context Menus in the Graphics Display Window
- set orientation: Using the Context Menus in the Graphics Display Window
- context menus
- graphics display: Using the Context Menus in the Graphics Display Window
- context-specific help: Accessing Online Help
- continuity equation: The Mass Conservation Equation
- contours: Contour Attributes
- control panels: Control Panels
- control volume technique: Overview of Numerical Scheme
- convection: Buoyancy-Driven Flows and Natural Convection
- forced: Forced- or Natural-Convection Effects
- natural: Forced- or Natural-Convection Effects
- transient simulations: Transient Simulations
- conventions
- keyboard: Mouse and Keyboard Conventions Used In This Manual
- mouse: Mouse and Keyboard Conventions Used In This Manual
- used in this manual: Typographical Conventions Used In This Manual
- convergence: Solution Residuals
- criteria: Initializing the Solution, Overview of Numerical Scheme
- history: The Solution residuals Graphics Display and Control Window
- judging: Judging Convergence, Solution Residuals
- monitoring: Changing the Solution Monitors During the Calculation
- conversion factors
- units: Defining a New Unit
- coordinate axes
- moving: Moving the Display Identifiers
- coordinate systems: Repositioning an Object
-
Copy assembly dialog box: Copying an Assembly
-
Copy from button: Copying an Object
- Copy object button: The Ansys Icepak Toolbars, Copying an Object, Copying a Material, Copying an Assembly
-
Copy object dialog box: Copying an Object
- copying
- assembly: Copying an Assembly
- group: Copying Groups
- materials: Copying a Material
- mesh data: Saving a Project File
- object: Copying an Object
- solution data: Saving a Project File
- Coupled algorithm: Spatial Discretization
- Create
assemblies button: The Ansys Icepak Toolbars, Creating and Adding an Assembly
- Create blocks button: The Ansys Icepak Toolbars, Adding a Block to Your Ansys Icepak Model
- Create blowers button: The Ansys Icepak Toolbars, Adding a Blower to Your Ansys Icepak Model
-
Create Detailed Heatsink dialog box: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- Create enclosures button: The Ansys Icepak Toolbars, Adding an Enclosure to Your Ansys Icepak Model
- Create
fans button: The Ansys Icepak Toolbars, Adding a Fan to Your Ansys Icepak Model
- Create grille button: The Ansys Icepak Toolbars, Adding a Grille to Your Ansys Icepak Model
- Create heat exchangers button: The Ansys Icepak Toolbars, Adding a Heat Exchanger to Your Ansys Icepak Model
- Create heat sinks button: The Ansys Icepak Toolbars, Adding a Heat Sink to Your Ansys Icepak Model
- Create image file button: The Ansys Icepak Toolbars, The File commands Toolbar
-
Create JEDEC Test Chamber dialog box: Forced-Convection Test Chamber, Natural-Convection Test Chamber
- Create Krylov ROM dialog box: Creating and Using a Krylov ROM
- Create materials button: The Ansys Icepak Toolbars, Creating a New Material
- Create networks button: The Ansys Icepak Toolbars, Adding a Network to Your Ansys Icepak Model
- Create openings button: The Ansys Icepak Toolbars, Adding an Opening to Your Ansys Icepak Model
- Create packages button: The Ansys Icepak Toolbars, Adding a Package to Your Ansys Icepak Model
-
Create PCB - Detailed and Compact dialog box: Adding a PCB to Your Ansys Icepak Model
- Create periodic boundaries button: The Ansys Icepak Toolbars, Adding a Periodic boundary to Your Ansys Icepak Model
- Create plates button: The Ansys Icepak Toolbars, Adding a Plate to Your Ansys Icepak Model
- Create
printed circuit boards button: The Ansys Icepak Toolbars, Adding a PCB to Your Ansys Icepak Model
- Create resistances button: The Ansys Icepak Toolbars, Adding a Resistance to Your Ansys Icepak Model
- Create sources button: The Ansys Icepak Toolbars, Adding a Source to Your Ansys Icepak Model
- Create
walls button: The Ansys Icepak Toolbars, Adding a Wall to Your Ansys Icepak Model
- creating
- assembly: Creating and Adding an Assembly
- block: Adding a Block to Your Ansys Icepak Model
- blower: Adding a Blower to Your Ansys Icepak Model
- cabinet: Defining the Cabinet
- enclosure: Adding an Enclosure to Your Ansys Icepak Model
- fan: Adding a Fan to Your Ansys Icepak Model
- grille: Adding a Grille to Your Ansys Icepak Model
- group: Creating a Group
- heat exchanger: Adding a Heat Exchanger to Your Ansys Icepak Model
- heat sink object: Adding a Heat Sink to Your Ansys Icepak Model
- isosurface: Displaying Results on Isosurfaces
- local coordinate
system: Creating a New Local Coordinate System
- materials: Creating a New Material
- network: Adding a Network to Your Ansys Icepak Model
- new point: Creating a History Plot
- object: Creating a New Object
- object face: Displaying Results on Object Faces
- opening: Adding an Opening to Your Ansys Icepak Model
- package: Adding a Package to Your Ansys Icepak Model
- PCB: Adding a PCB to Your Ansys Icepak Model
- periodic boundary: Adding a Periodic boundary to Your Ansys Icepak Model
- plane cut: Displaying Results on Cross-Sections of the Model
- plate: Adding a Plate to Your Ansys Icepak Model
- point: Displaying Results at a Point
- project: Creating, Opening, Reloading, and Deleting a Project File
- resistance: Adding a Resistance to Your Ansys Icepak Model
- source: Adding a Source to Your Ansys Icepak Model
- wall: Adding a Wall to Your Ansys Icepak Model
- cross-section
- displaying results: Displaying Results on Cross-Sections of the Model
- displaying the mesh: Displaying the Mesh on a Cross-Section of the Model
- CSV/Excel files: Importing Other Files into Ansys Icepak, General Procedure for CSV/Excel Files, CSV/Excel Files
- cursors
- classic display: Changing the Mouse Controls
- curve
specification: User Inputs for Species Transport Simulations
-
Curve specification dialog box: Using the Curve specification Panel, User Inputs for a Free Opening, Using the Curve specification Panel to Specify the Pressure
Drop Curve for a Grille, User Inputs for Thermal specification, User Inputs for the Thermal Model, Using the Curve specification Panel to Specify a Spatial Boundary
Profile, Using the Curve specification Panel to Specify the Curve for
a Characteristic Curve Fan Type, User Inputs for a Simplified Heat Sink, Using the Curve specification Panel to Specify a Piecewise
Linear Variation With Time
- custom assembly: Custom Assemblies
- customizing
- materials: Editing an Existing Material, Saving Materials and Properties
- mesh parameters: Overview
- units: Customizing Units
- cylinder: Cylindrical Objects
- elliptical: Elliptical Cylinder Objects
- meshing: Meshing Parameters for Blocks
- meshing: Global Refinement for a Hex-Dominant Mesh, Global Refinement for a Hexahedral Mesh, Meshing Parameters for Blocks
D
- data files: Solver Files
- date: Graphics Windows, Moving the Display Identifiers
- default file location: Miscellaneous Options
- default materials: Default Fluid, Solid, and Surface Materials
- default project location: Miscellaneous Options
- default script file location: Miscellaneous Options
-
Define full report dialog box: Full Reports
-
Define point report dialog box: Point Reports
- Define summary report dialog box: Defining Reports, Summary Reports
- defining
- isosurface: Displaying Results on Isosurfaces
- meshing parameters: Defining Meshing Parameters for Multiple Objects
- object face (facet): Displaying Results on Object Faces
- object face (node): Displaying Results on Object Faces
- plane cut: Displaying Results on Cross-Sections of the Model
- point: Displaying Results at a Point
- postprocessing
objects: Defining Postprocessing Objects
- project: Defining a Project
- summary report: Defining Reports, Summary Reports
- Delete object button: The Ansys Icepak Toolbars, Deleting a Material, Managing Postprocessing Objects
- deleting
- assembly: Deleting an Assembly
- group: Deleting a Group
- isosurface: Displaying Results on Isosurfaces
- local coordinate
system: Deleting Local Coordinate Systems
- materials: Deleting a Material
- object: Deleting an Object
- object face: Displaying Results on Object Faces
- parameters: Deleting Parameters
- plane cut: Displaying Results on Cross-Sections of the Model
- point: Creating a History Plot, Displaying Results at a Point
- postprocessing objects: Managing Postprocessing Objects
- delphi package: Delphi Package Characterization
- density: Editing an Existing Material, Overview of Modeling Species Transport
- incompressible ideal
gas law: Incompressible Ideal Gas Law
- derived variables: Generating Reports, General Information about Variables
- deselecting
- object: Selecting and Deselecting an Object
- design
- checking: Checking the Design of Your Model, Design Checks
- of heat
sinks: Detailed Heat Sinks, Detailed Heat Sink
- optimization: Overview of Parameterization
- design
variable
- creating a new design variable: Defining a Parameter (Design Variable) Using the Parameters
and optimization Panel
- Detect gaps between overlapped
objects: Meshing Options
- diagnostic
- files: Solver Files
- tools: Diagnostic Tools for Technical Support
- die
stack information: User Inputs for Stacked Die Packages
- Diffuse reflectance: The Ansys Icepak Menus
- diffusion coefficient: Overview of Modeling Species Transport
- diffusivity: Editing an Existing Material
- discrete ordinates (DO)
- radiation : The Discrete Ordinates (DO) Radiation Model
- discrete values
- storage points: Spatial Discretization
- discretization: Choosing the Discretization Scheme, Spatial Discretization, Time Discretization
- body force weighted interpolation schemes: Choosing the Discretization Scheme
- first-order
scheme: Spatial Discretization
- pressure interpolation
schemes: Spatial Discretization
- second-order scheme: Spatial Discretization
- spatial: Spatial Discretization
- temporal: Time Discretization
-
DISPLAY
: Environment Variables on Linux Systems
- Display object
names button: The Ansys Icepak Toolbars
-
Display/Background Color 1
: Display Options
- displaying
- cut plane mesh: Using the Context Menus in the Graphics Display Window
- mesh: Using the Context Menus in the Graphics Display Window, Displaying the Mesh
- cross-section: Displaying the Mesh on a Cross-Section of the Model
- individual
objects: Displaying the Mesh on Individual Objects
- residuals: Plotting Residuals
- results: Examining the Results
- view
factors: User Inputs for Specification of Radiation Using the Form factors
Panel
- distributed compute gateway
- Ansys Icepak in Workbench: Using Icepak With Remote Solve Manager (RSM)
- divergence: Setting Under-Relaxation Factors
- documentation: Accessing the Ansys Icepak Manuals
- double precision: Solution Residuals
- solver: Selecting the Version of the Solver
- drilled holes: Overview of Importing IDF Files into Ansys Icepak, Reading an IDF File into Ansys Icepak
- drop-down list: Control Panels
- DUAL Die dialog box: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages
- DUAL Dimensions dialog box: Adding a Package to Your Ansys Icepak Model
- DUAL Solder dialog box: User Inputs for BGA Packages
- DUAL Substrate dialog box: User Inputs for BGA Packages
- dynamic head: Modeling the Pressure Loss through a Heat Exchanger
- dynamic-q optimization method: Optimization, The Dynamic-Q Optimization method
F
- F-cycle multigrid: Multigrid Method
-
F1 key: Accessing Online Help
- F9 key: Switching Between Modes
- face alignment: Checking the Face Alignment
- face flow rate: Spatial Discretization
- fan: Fans
- characteristic curve: Fans, Fan Characteristic Curve, Using the Fan curve Window to Specify the Curve for a Characteristic
Curve Fan Type, Using the Curve specification Panel to Specify the Curve for
a Characteristic Curve Fan Type
- circular: Simple Fans
- combination
- parallel: Fans in Parallel
- series: Fans in Series
- creating: Adding a Fan to Your Ansys Icepak Model
- efficiency: Fan Efficiency
- exhaust: Defining a Fan in Ansys Icepak, Flow Direction, Fan Characteristic Curve, Adding a Fan to Your Ansys Icepak Model
- failed: Adding a Fan to Your Ansys Icepak Model
- fixed flow: Fans, Fixed Flow
- flow: Fans
- flow direction: Flow Direction, Adding a Fan to Your Ansys Icepak Model
- flow rate: Adding a Fan to Your Ansys Icepak Model
- housing: Fans on Solid Blocks
- failed: Adding a Fan to Your Ansys Icepak Model
- guard: Adding a Fan to Your Ansys Icepak Model
- hub: Fans, Simple Fans, Adding a Fan to Your Ansys Icepak Model
- intake: Defining a Fan in Ansys Icepak, Flow Direction, Fan Characteristic Curve, Adding a Fan to Your Ansys Icepak Model
- internal: Defining a Fan in Ansys Icepak, Flow Direction, Fan Characteristic Curve, Adding a Fan to Your Ansys Icepak Model
- library: Loading a Pre-Defined Fan Object
- search: Loading a Pre-Defined Fan Object
- located on a block: Fans on Blocks
- meshing: Meshing Parameters for Fans
- operating point: Fan Operating Points Report
- pressure drop: Fan Characteristic Curve
- rectangular: Simple Fans
- resistance modeling: Fan Resistance Modeling
- RPM: Fan RPM
- species: User Inputs for Species Transport Simulations
- static pressure: Fan Characteristic Curve
- swirl magnitude: Swirl Magnitude
- transient simulations: Defining a Fan in Ansys Icepak, Adding a Fan to Your Ansys Icepak Model, User Inputs for Transient Simulations
-
Fan curve window: Using the Fan curve Window to Specify the Curve for a Characteristic
Curve Fan Type
-
Fans dialog box: Adding a Fan to Your Ansys Icepak Model
-
fans node: The fans and packages Node Context Menu
- File commands toolbar: The Ansys Icepak Toolbars, The File commands Toolbar
- File menu: The Ansys Icepak Menus
- Ansys Icepak in Workbench: The Ansys File Menu
- file selection
- current directory: File Selection Dialog Boxes
- favorite button: File Selection Dialog Boxes
- home: File Selection Dialog Boxes
- new directory: File Selection Dialog Boxes
- root directory: File Selection Dialog Boxes
-
File selection dialog
box: File Selection Dialog Boxes
- File/Cleanup menu: The Ansys Icepak Menus, Cleaning up the Project Data
- File/Command prompt menu: The Ansys Icepak Menus
- File/Create image file menu: The Ansys Icepak Menus
- File/Export menu: The Ansys Icepak Menus
- File/Import menu: The Ansys Icepak Menus, Files That Can Be Imported into Ansys Icepak
- File/Merge project menu: The Ansys Icepak Menus, Merging Model Data
- File/New project menu: The Ansys Icepak Menus
- File/Open project menu: The Ansys Icepak Menus, Opening an Existing Project
- File/Pack menu: Diagnostic Tools for Technical Support
- File/Pack project menu: The Ansys Icepak Menus, Packing and Unpacking Model Files
- File/Print options dialog box: The Ansys Icepak Menus
- File/Print screen menu: The Ansys Icepak Menus
- File/Quit menu: The Ansys Icepak Menus
- File/Reload main version menu: The Ansys Icepak Menus
- File/Save project as menu: The Ansys Icepak Menus, Saving a Project File
- File/Save project menu: The Ansys Icepak Menus, Saving a Project File
- File/Shell window menu: The Ansys Icepak Menus
- File/Unpack project menu: The Ansys Icepak Menus, Packing and Unpacking Model Files
- files: Importing Other Files into Ansys Icepak
- AEDT script: Export Ansys Electronics Desktop Script
- ANF: Importing Trace Files into Ansys Icepak, Adding a PCB to Your Ansys Icepak Model, Adding a Block to Your Ansys Icepak Model, Adding a Package to Your Ansys Icepak Model
- Ansys Icepak: Files Created by Ansys Icepak
- AutoTherm: Overview of Importing IDF Files into Ansys Icepak, Saving an AutoTherm File
- batch: Batch Processing of Ansys Icepak Projects on a Windows Machine
- cadence powermap: Gradient, Cadence, and Apache Sentinel Powermap Files
- cadence
thermal resistance: Gradient, Cadence Thermal Resistance and SIwave Temperature
Files
- case: Solver Files
- CSV/Excel: Importing Other Files into Ansys Icepak, General Procedure for CSV/Excel Files, CSV/Excel Files
- data: Solver Files
- diagnostic: Solver Files
- EC XML: Importing Electronics Cooling XML Files into Ansys Icepak, Electronics Cooling XML Files
- exporting: Exporting Ansys Icepak Files
- gradient: Gradient, Cadence, and Apache Sentinel Powermap Files
- gradient thermal resistance: Gradient, Cadence Thermal Resistance and SIwave Temperature
Files
- grid: Mesh Files
- IDF: Importing IDF Files into Ansys Icepak, IDF Files
- IDX: Importing IDX Files into Ansys Icepak
- image: Saving Image Files
- format: Choosing the Image File Format
- frame: Choosing the Image File Format
- label: Choosing the Image File Format
- landscape: Saving Image Files
- portrait: Saving Image Files
- PostScript options: Choosing the Image File Format
- scaling: Saving Image Files
- importing: Importing and Exporting Model Files
- JEDEC PTD/JEP30: Importing JEDEC PTD/JEP30 Files into Ansys Icepak, Exporting JEDEC PTD/JEP30 Files into Ansys Icepak
-
job
: Problem Setup Files
- log: The Message Window
- mesh: Mesh Files
- model: Problem Setup Files
- node: Workstation Cluster
- ODB++: Importing Trace Files into Ansys Icepak, Adding a PCB to Your Ansys Icepak Model, Adding a Block to Your Ansys Icepak Model, Adding a Package to Your Ansys Icepak Model
- opening: File Selection Dialog Boxes
- optimization: Optimization Files
- input: Optimization Files
- log: Optimization Files
- output: Optimization Files
- postprocessing: Optimization Files
- tab: Optimization Files
- overview: Overview of Files Written and Read by Ansys Icepak
- postprocessing: Postprocessing Files
- PostScript: Choosing the Image File Format, Printing Options
- problem: Problem Setup Files
- problem setup: Problem Setup Files
- reading: File Selection Dialog Boxes
- Redhawk CTM: Apache RedHawk Chip Thermal Model (CTM) Powermap Files
- residual: Solver Files, Diagnostic Tools for Technical Support
- saving: File Selection Dialog Boxes
- transient simulations: User Inputs for Transient Simulations
- scratch: Cleaning up the Project Data
- script: Solver Files, Advanced Solution Control Options
- selecting: File Selection Dialog Boxes
- sentinel: Gradient, Cadence, and Apache Sentinel Powermap Files
- Sentinel TI: Write Sentinel TI HTC File
- SIwave temperature files: Gradient, Cadence Thermal Resistance and SIwave Temperature
Files
- solution: Cleaning up the Project Data
- solver: Solver Files
- input: Solver Files
- output: Solver Files
- stacked die: Gradient Powermap Files for Stacked Die Packages
- Total for project: Cleaning up the Project Data
- Twin Builder: Write Twin Builder Files
- version: Cleaning up the Project Data
- writing: File Selection Dialog Boxes
- filter
efficiency: User Inputs for Species Transport Simulations
- Find in tree dialog box: The Ansys Icepak Menus
- finite-volume scheme: Spatial Discretization
- finned heat sink: Detailed Heat Sink
- theory: Simplified Heat Sinks, Detailed Heat Sinks
- first-order
accuracy: Choosing the Discretization Scheme, Spatial Discretization
-
Fix values
: Changing the Units for a Quantity
- flex-cycle multigrid: Multigrid Method
- Flip-Chip Die dialog box: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages
- Flip-Chip Dimensions dialog box: Adding a Package to Your Ansys Icepak Model
- Flip-Chip Solder dialog box: User Inputs for BGA Packages
- Flip-Chip Substrate dialog box: User Inputs for BGA Packages
- floating toolbars: Control Panels
- flow
- conductivity: Modeling a Simplified Heat Sink
- heat: Variables Available for Reporting, Temperature-Related Quantities
- mass: Variables Available for Reporting, Velocity-Related Quantities
- radiative
heat: Variables Available for Reporting
- regime: Flow Regime
- variables: Solution Variables
- postprocessing: Solution Variables
- volume: Variables Available for Reporting, Velocity-Related Quantities
-
Flow dependent heat transfer dialog box: User Inputs for a Stationary or Moving Wall
- Fluent: What is Ansys Icepak?, Solver
- fluid material
- default: Default Fluid, Solid, and Surface Materials
- properties: Editing an Existing Material
- flux
- heat: Variables Available for Reporting, Temperature-Related Quantities
- radiation: Radiation Modeling for Objects
- font: Editing the Graphical Styles
- forced convection: Solution Variables, Forced- or Natural-Convection Effects
- forces
- inertial: Forced- or Natural-Convection Effects
- viscous: Forced- or Natural-Convection Effects
-
Form factors dialog box: User Inputs for Specification of Radiation Using the Form factors
Panel
- Four viewing windows button: The Ansys Icepak Toolbars
-
FPBGA Die dialog box: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages
- FPBGA Dimensions dialog box: Adding a Package to Your Ansys Icepak Model
-
FPBGA Solder dialog box: User Inputs for BGA Packages
- FPBGA Substrate dialog box: User Inputs for BGA Packages
- fraction menu: User Inputs for Species Transport Simulations
- frame
- image: Choosing the Image File Format
G
- gas law: Incompressible Ideal Gas Law
- Gauss-Seidel
method: Multigrid Method
- Generate mesh button: The Ansys Icepak Toolbars, Creating a Minimum-Count Hex-Dominant Mesh, Creating a Minimum-Count Hexahedral Mesh
- geometric transformations
- cabinet: Resizing the Cabinet, Repositioning the Cabinet, Resizing an Object
- for merging model data: Geometric Transformations
- object: Repositioning an Object, Copying an Object
- geometry
- object: Geometry
- parameterization: Overview of Parameterization
- getting started: Getting Started
- governing equations: Governing Equations
- discretization: Spatial Discretization
- integral form: Spatial Discretization
- gradient files: Gradient, Cadence, and Apache Sentinel Powermap Files
- gradient powermap files: Gradient Powermap Files for Stacked Die Packages
-
Graph
editor
: Using the Temperature value curve Window, Using the Pressure drop curve Window to Specify the Curve for
a Grille, Using the Fan curve Window to Specify the Curve for a Characteristic
Curve Fan Type, User Inputs for a Simplified Heat Sink, Using the Time/value curve Window to Specify a Piecewise Linear
Variation With Time
- graphical displays: Graphical Displays
- color: The Significance of Color in Graphical Displays
- graphical styles
- editing: Editing the Graphical Styles
- graphical user interface (GUI): The Graphical User Interface
- configuring: Configuring a Project
- graphics
display and control window: Graphics Windows
- graphics driver: Startup Options for Linux Systems
-
Graphics file options dialog
box: Saving Image Files, Choosing the Image File Format, Specifying the Print Region
- graphics tools for postprocessing: Examining the Results
-
graphics window: Startup Screen, Graphics Windows
- adding annotations: Graphics Windows
- adding arrows: Graphics Windows
- adding
lines: Graphics Windows
- adding markers: The Ansys Icepak Menus, Graphics Windows
- adding text: Graphics Windows
- isometric view: The Ansys Icepak Menus, The Ansys Icepak Toolbars
- lighting options: The Ansys Icepak Menus
- scale to fit: The Ansys Icepak Menus, The Ansys Icepak Toolbars
- views: The Ansys Icepak Menus
- zooming: The Ansys Icepak Menus, The Ansys Icepak Toolbars, Using the Keyboard
- Grashof number: Buoyancy-Driven Flows and Natural Convection
- gravity: Forced- or Natural-Convection Effects
- grid: Overview
- files: Mesh Files
- storage points: Spatial Discretization
- grille: Grilles
- approach
velocity: Pressure Drop Calculations for Grilles, Adding a Grille to Your Ansys Icepak Model
- creating: Adding a Grille to Your Ansys Icepak Model
- device velocity: Pressure Drop Calculations for Grilles, Adding a Grille to Your Ansys Icepak Model
- flow direction: Pressure Drop Calculations for Grilles, Adding a Grille to Your Ansys Icepak Model
- free area ratio: Pressure Drop Calculations for Grilles, Adding a Grille to Your Ansys Icepak Model
- loss coefficient: Pressure Drop Calculations for Grilles, Adding a Grille to Your Ansys Icepak Model
- meshing: Meshing Parameters for Grilles
- 2D polygon: Meshing Parameters for Grilles
- circular: Meshing Parameters for Grilles
- inclined: Meshing Parameters for Grilles
- rectangular: Meshing Parameters for Grilles
- planar resistance: Planar Resistances
- approach velocity: Planar Resistances
- device velocity: Planar Resistances
- free area ratio: Planar Resistances
- loss coefficient: Planar Resistances
- meshing: Planar Resistances
- pressure drop: Pressure Drop Calculations for Grilles
- pressure drop curve: Using the Pressure drop curve Window to Specify the Curve for
a Grille
- Pressure drop curve: Using the Curve specification Panel to Specify the Pressure
Drop Curve for a Grille
- species: User Inputs for Species Transport Simulations
- stagnation pressure: Adding a Grille to Your Ansys Icepak Model
- static pressure: Adding a Grille to Your Ansys Icepak Model
- vent: Vents
- pressure drop: Vents
-
Grille dialog box: Adding a Grille to Your Ansys Icepak Model
- group: The Model manager Window, Grouping Objects
- activating: Activating or Deactivating a Group
- adding objects: Adding Objects to a Group
- color: Changing the Graphical Style of a Group
- copying: Copying Groups
- created during IDF import: Using the Imported IDF File in Ansys Icepak
- created during IDX import: Using the Imported IDX File in Ansys Icepak
- creating: Creating a Group
- assembly: Using a Group to Create an Assembly, Creating and Adding an Assembly
- deactivating: Activating or Deactivating a Group
- deleting: Deleting a Group
- displaying results: Displaying Results on Object Faces
- editing object properties: Editing the Properties of Like Objects in a Group
- including objects: Description
- line width: Changing the Graphical Style of a Group
- moving: Moving a Group
- node: The Groups Node Context Menus, The Model manager Window
- removing objects: Removing Objects From a Group
- renaming: Renaming a Group
- saving: Saving a Group as a Project
- shading: Changing the Graphical Style of a Group
- texture: Changing the Graphical Style of a Group
- transparency: Changing the Graphical Style of a Group
- GUI: The Graphical User Interface
H
- heat exchanger: Heat Exchangers
- creating: Adding a Heat Exchanger to Your Ansys Icepak Model
- heat transfer: Modeling the Heat Transfer through a Heat Exchanger
- heat transfer
coefficient: Calculating the Heat Transfer Coefficient
- meshing: Meshing Parameters for Heat Exchangers
- pressure drop: Modeling the Pressure Loss through a Heat Exchanger
- Heat exchangers dialog box: Adding a Heat Exchanger to Your Ansys Icepak Model
- heat flow: Variables Available for Reporting, Temperature-Related Quantities
- heat flux: Variables Available for Reporting, Temperature-Related Quantities
- radiation: Radiation Modeling for Objects
- heat pipes: Heat Pipes
- heat sink: Heat Sinks
- bonded fin: Detailed Heat Sinks, User Inputs for a Detailed Heat Sink, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- creating
object: Adding a Heat Sink to Your Ansys Icepak Model
- cross cut extrusion: Detailed Heat Sinks, User Inputs for a Detailed Heat Sink, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- cylindrical
pin: Detailed Heat Sinks, User Inputs for a Detailed Heat Sink, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- design: Detailed Heat Sinks, Detailed Heat Sink
- detailed: Detailed Heat Sinks, User Inputs for a Detailed Heat Sink, Detailed Heat Sink
- extruded: Detailed Heat Sinks, User Inputs for a Detailed Heat Sink, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- longitudinal: Simplified Heat Sinks
- macro
- bonded fin: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- cross cut
extrusion: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- cylindrical
pin: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- detailed: Detailed Heat Sink, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- extruded: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- meshing: Meshing Parameters for Heat Sink Objects
- pins: Simplified Heat Sinks
- radiation: Adding a Heat Sink to Your Ansys Icepak Model
- emissivity: User Inputs for Specification of Radiation in Individual Object
Panels
- specification: User Inputs for Specification of Radiation in Individual Object
Panels
- simplified: Simplified Heat Sinks, User Inputs for a Simplified Heat Sink
- simplified
flow conductivity: Modeling a Simplified Heat Sink
- simplified modeling: Modeling a Simplified Heat Sink
- thermal resistance
curve: User Inputs for a Simplified Heat Sink
- heat sinks
- flow resistance: Modeling Compact Heat Sinks Using Geometry-Based Correlations
- thermal resistance: Modeling Compact Heat Sinks Using Geometry-Based Correlations
-
Heat sinks dialog box: Adding a Heat Sink to Your Ansys Icepak Model
- heat sources: Energy Conservation Equation
-
Heat tr. coeff parameters dialog box: Temperature-Related Quantities
- heat transfer: When to Include Radiation, Energy Conservation Equation
- conducting solids: Energy Conservation Equation
- heat transfer coefficient: Modeling the Heat Transfer through a Heat Exchanger, Calculating the Heat Transfer Coefficient, Variables Available for Reporting, Temperature-Related Quantities
- heaters: Openings
- help: Accessing the Ansys Icepak Manuals, Accessing Online Help
- bubble: Accessing Online Help
- context-specific: Accessing Online Help
- F1 key: Accessing Online Help
- online: Accessing Online Help
- Help menu: The Ansys Icepak Menus
- Help/About Ansys Icepak menu: The Ansys Icepak Menus
- Help/Ansys Customer Portal menu: The Ansys Icepak Menus
- Help/Help menu: The Ansys Icepak Menus
- Help/Icepak on the Web menu: The Ansys Icepak Menus
- Help/List shortcuts menu: The Ansys Icepak Menus
- hex-dominant mesh: Hex-Dominant and Hexahedral Meshes
- hexahedral mesh: Hex-Dominant and Hexahedral Meshes
- hidden line removal: The Ansys Icepak Menus
- high
end: Definitions of Object-Specific Meshing Parameters
- high side: Definitions of Object-Specific Meshing Parameters
-
High side surface properties dialog box: Adding a PCB to Your Ansys Icepak Model, User Inputs for the Low- and High-Side Properties of the Plate
- History plot button: The Ansys Icepak Toolbars, Creating a History Plot
-
History
plot dialog box: Creating a History Plot
- history plot for transient
simulations: Creating a History Plot
- hollow block
- species: User Inputs for Species Transport Simulations
-
HOME
: Environment Variables on Linux Systems
- Home position button: The Ansys Icepak Toolbars
- HTC files
- exporting
Sentinel TI: Write Sentinel TI HTC File
- HTML report: HTML Reports
-
HTML report dialog box: HTML Reports
- hub: Simple Fans
- housing: Fans on Solid Blocks
- humidity ratio: User Inputs for Species Transport Simulations
I
- I-deas: Results Solution Control Options
-
icepak
: Starting Ansys Icepak on a Linux System
-
icepak -unpack
: Startup Options for Linux Systems
-
icepak -x
: Startup Options for Linux Systems
-
icepak -xfast
: Startup Options for Linux Systems
-
icepak projectname
: Startup Options for Linux Systems
-
ICEPAK_JOB_DIRECTORY
: Environment Variables on Linux Systems
-
ICEPAK_LIB_PATH
: Environment Variables on Linux Systems
-
ICEPAK_LICENSE_FILE
: Environment Variables on Linux Systems
- ideal gas law: Forced- or Natural-Convection Effects, Incompressible Ideal Gas Law
- IDF files: Importing IDF Files into Ansys Icepak, IDF Files
- board files: Reading an IDF File into Ansys Icepak, Updating the Imported IDF File in Ansys Icepak
- detailed import: Overview of Importing IDF Files into Ansys Icepak, Reading an IDF File into Ansys Icepak
- drilled
holes: Overview of Importing IDF Files into Ansys Icepak, Reading an IDF File into Ansys Icepak
- exporting AutoTherm files: Overview of Importing IDF Files into Ansys Icepak, Saving an AutoTherm File
- groups: Using the Imported IDF File in Ansys Icepak
- library files: Reading an IDF File into Ansys Icepak, Updating the Imported IDF File in Ansys Icepak
- Miscellaneous options: Reading an IDF File into Ansys Icepak
- modeling
components as 2D sources: Reading an IDF File into Ansys Icepak
- modeling
components as 3D blocks: Reading an IDF File into Ansys Icepak
- overview: Overview of Importing IDF Files into Ansys Icepak
- panel files: Reading an IDF File into Ansys Icepak, Updating the Imported IDF File in Ansys Icepak
- simple import: Overview of Importing IDF Files into Ansys Icepak, Reading an IDF File into Ansys Icepak
-
IDF import dialog
box: Reading an IDF File into Ansys Icepak, Updating the Imported IDF File in Ansys Icepak
- IDX files: Importing IDX Files into Ansys Icepak
- board files: Reading an IDX File into Ansys Icepak
- groups: Using the Imported IDX File in Ansys Icepak
- Miscellaneous options: Reading an IDX File into Ansys Icepak
- modeling components as 2D sources: Reading an IDX File into Ansys Icepak
- modeling components as 3D blocks: Reading an IDX File into Ansys Icepak
- overview: Overview of Importing IDX Files into Ansys Icepak
-
IDX import dialog box: Reading an IDX File into Ansys Icepak
- image: Saving Image Files
- file format: Choosing the Image File Format
- frame: Choosing the Image File Format
- label: Choosing the Image File Format
- landscape: Saving Image Files
- options: Saving Image Files
- portrait: Saving Image Files
- PostScript options: Choosing the Image File Format
- scaling: Saving Image Files
- importing: Importing Other Files into Ansys Icepak
- ANF: Importing Trace Files, Adding a PCB to Your Ansys Icepak Model, Adding a Package to Your Ansys Icepak Model
- BOOL: Adding a PCB to Your Ansys Icepak Model
- CAD geometry: Importing and Exporting Model Files
- CSV/Excel files: Importing Other Files into Ansys Icepak, General Procedure for CSV/Excel Files
- EC XML files: Importing Electronics Cooling XML Files into Ansys Icepak
- IDF files: Importing IDF Files into Ansys Icepak
- IDX files: Importing IDX Files into Ansys Icepak
- JEDEC PTD/JEP30 files: Importing JEDEC PTD/JEP30 Files into Ansys Icepak, Exporting JEDEC PTD/JEP30 Files into Ansys Icepak
- ODB++: Importing Trace Files, Adding a PCB to Your Ansys Icepak Model, Adding a Package to Your Ansys Icepak Model
- overview: Files That Can Be Imported into Ansys Icepak
- trace files: Importing Trace Files
- importing trace files
- license requirements: Licensing Requirements for Importing Trace Files
- improving the mesh
- hex-dominant: Hex-Dominant Meshing Procedure
- hexahedral: Hexahedral Meshing Procedure
- Inactive: The Model manager Window
-
Inactive node: The Inactive Node Context Menu, The Model manager Window
- inclined object: Geometry
- meshing: Meshing Parameters for Grilles
-
Individual side specification dialog box: User Inputs for the Block Surface Specification
- inertial
forces: Forced- or Natural-Convection Effects
- information
- die stack: User Inputs for Stacked Die Packages
- initial conditions: Initial Conditions
- initializing the solution: Initializing the Solution
- interactive editing: Interactive Editing
-
Interactive editing dialog box: Repositioning the Cabinet
-
Interface thermal resistance dialog box: User Inputs for a Detailed Heat Sink
- internal assembly: Editing Properties of an Assembly
- interpolation: Spatial Discretization
- interpolation method
- 2D profile: Miscellaneous Options
- introduction: Getting Started
- isometric view: The Ansys Icepak Menus, The Ansys Icepak Toolbars
- Isometric
view button: The Ansys Icepak Toolbars
- isosurface
- clipping: Displaying Results on Isosurfaces
- displaying results: Displaying Results on Isosurfaces
- Isosurface
button: The Ansys Icepak Toolbars, Displaying Results on Isosurfaces
-
Isosurface contours dialog box: Contour Attributes
-
Isosurface dialog box: Displaying Results on Isosurfaces
-
Isosurface particles dialog box: Particle Trace Attributes
-
Isosurface vectors dialog box: Vector Attributes
- iterations: Initializing the Solution
- transient simulations: User Inputs for Transient Simulations
- iterative procedure: Overview of Numerical Scheme
M
- macros: Using Macros
- CRAC: CRAC macro
- adding: CRAC macro
- modifying: CRAC macro
- data center: Data Center Components
- heat sink
- bonded fin: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- cross cut extrusion: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- cylindrical pin: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- detailed: Detailed Heat Sink, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- extruded: Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- JEDEC test chambers: JEDEC Test Chambers
- forced-convection: Forced-Convection Test Chamber
- natural-convection: Natural-Convection Test Chamber
- PCB: Printed Circuit Board (PCB), Adding a PCB to Your Ansys Icepak Model
- pdu
- adding: PDU Macro
- PDU
- modifying: PDU Macro
- PDU object: PDU Macro
- power dependent power: Power Dependent Power
- rack: Rack Macro
- Rack
- adding: Rack Macro
- modifying: Rack Macro
- tile: Tile Object
- adding: Tile Object
- Tile
- modifying: Tile Object
- Macros menu: The Ansys Icepak Menus, Using Macros
- Macros/Geometry/Approximation menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/1/4 Cylinder-Polygonal menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/Circular-Polygonal menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/Cylinder-Plates menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/Cylinder-Polygonal menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/Hemisphere menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/Polygonal enclosure menu: The Ansys Icepak Menus
- Macros/Geometry/Approximation/Thin Adiabatic Enclosure menu: The Ansys Icepak Menus
- Macros/Geometry/Data Center Components menu: The Ansys Icepak Menus
- Macros/Geometry/Data Center Components/CRAC menu: The Ansys Icepak Menus
- Macros/Geometry/Data Center Components/PDU menu: The Ansys Icepak Menus
- Macros/Geometry/Data Center Components/Rack (Front to Rear)
menu: The Ansys Icepak Menus
- Macros/Geometry/Data Center Components/Rack (Front to Top)
menu: The Ansys Icepak Menus
- Macros/Geometry/Data Center Components/Tile menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Align Heatsinks menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Angled Fin Heatsink menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Circular Based Pin Fin - Generalized Pin
menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Detailed Heatsink menu: The Ansys Icepak Menus, Adding a Detailed Heat Sink Macro to Your Ansys Icepak Model
- Macros/Geometry/Heatsinks/Folded Fin menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Lance + Offset - Blocks menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Lance + Offset menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Radial - Cylindrical Hub menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Radial - Cylindrical Hub Triangular Fins
menu: The Ansys Icepak Menus
- Macros/Geometry/Heatsinks/Skived menu: The Ansys Icepak Menus
- Macros/Geometry/Packages - Network menu: The Ansys Icepak Menus
- Macros/Geometry/Packages - TO Devices menu: The Ansys Icepak Menus
- Macros/Geometry/Packages menu: The Ansys Icepak Menus
- Macros/Geometry/PCB menu: The Ansys Icepak Menus
- Macros/Geometry/PCB/Bolt menu: The Ansys Icepak Menus
- Macros/Geometry/PCB/Compact Vias Filled menu: The Ansys Icepak Menus
- Macros/Geometry/PCB/Compact Vias II menu: The Ansys Icepak Menus
- Macros/Geometry/PCB/Compact Vias menu: The Ansys Icepak Menus
- Macros/Geometry/PCB/PCB - Detailed and Compact menu: The Ansys Icepak Menus, Adding a PCB to Your Ansys Icepak Model
- Macros/Geometry/PCB/Stiffener menu: The Ansys Icepak Menus
- Macros/Geometry/PCB/Wedgelock menu: The Ansys Icepak Menus
- Macros/Modeling/ IC Packages/Conduction Enclosure menu: The Ansys Icepak Menus
- Macros/Modeling/ IC Packages/Extract Delphi Network menu: The Ansys Icepak Menus
- Macros/Modeling/ IC Packages/Extract JC and JC menu: The Ansys Icepak Menus
- Macros/Modeling/ IC Packages/JEDEC Test Chamber menu: The Ansys Icepak Menus
- Macros/Modeling/Bio-Heat Source menu: The Ansys Icepak Menus
- Macros/Modeling/Extract Network Information menu: The Ansys Icepak Menus
- Macros/Modeling/Heatsink Wind Tunnel menu: The Ansys Icepak Menus
- Macros/Modeling/Heatsink Wind Tunnel/Create Wind Tunnel
menu: The Ansys Icepak Menus
- Macros/Modeling/Heatsink Wind Tunnel/Process Wind Tunnel - Plate-Fin
Heatsink Configuration menu: The Ansys Icepak Menus
-
Macros/Modeling/IC Packages/JEDEC Test Chamber menu: Forced-Convection Test Chamber, Natural-Convection Test Chamber
- Macros/Modeling/Import Power Matrix File menu: The Ansys Icepak Menus
- Macros/Modeling/Multi-Die Characterization menu: The Ansys Icepak Menus
- Macros/Modeling/Multi-Die Characterization Post menu: The Ansys Icepak Menus
- Macros/Modeling/Power Dependent Power Macro menu: The Ansys Icepak Menus
- Macros/Modeling/Siwave Icepak Coupling/PCB Iterator menu: The Ansys Icepak Menus
- Macros/Modeling/Solar Flux Calculator menu: The Ansys Icepak Menus
- Macros/Modeling/Source/Fan Thermostat menu: The Ansys Icepak Menus
- Macros/Modeling/Thermoelectric Cooler menu: The Ansys Icepak Menus
- Macros/Modeling/Transient Temperature Dependent Power menu: The Ansys Icepak Menus
- Macros/Other/ATX/Micro-ATX Chassis menu: The Ansys Icepak Menus
- Macros/Other/Network Heat Exchanger menu: The Ansys Icepak Menus
-
Macros/Other/Network Heatpipe - Straight menu: The Ansys Icepak Menus
- Macros/Post Processing/AutomaticPostprocessing menu: The Ansys Icepak Menus
- Macros/Post Processing/Ensight Export menu: The Ansys Icepak Menus
- Macros/Post Processing/Export CSV Reports menu: The Ansys Icepak Menus
- Macros/Post Processing/Report Max Values menu: The Ansys Icepak Menus
- Macros/Post Processing/Temperature Field to Ansys WB menu: The Ansys Icepak Menus
- Macros/Post Processing/Write Average Metal Fractions menu: The Ansys Icepak Menus
- Macros/Post Processing/Write Detailed Report menu: The Ansys Icepak Menus
- Macros/Productivity/Automatic Case Check Tool menu: The Ansys Icepak Menus
- Macros/Productivity/Automatic CutCell Meshing menu: The Ansys Icepak Menus
- Macros/Productivity/Automatic Mesh Settings menu: The Ansys Icepak Menus
- Macros/Productivity/Change Background Color menu: The Ansys Icepak Menus
- Macros/Productivity/Cleanup Object Names menu: The Ansys Icepak Menus
- Macros/Productivity/Copy Assembly Settings menu: The Ansys Icepak Menus
- Macros/Productivity/Debug Divergence menu: The Ansys Icepak Menus
- Macros/Productivity/Delete Unused Materials menu: The Ansys Icepak Menus
- Macros/Productivity/Delete Unused Parameters menu: The Ansys Icepak Menus
- Macros/Productivity/Dimensionless Parameter Calculator menu: The Ansys Icepak Menus
- Macros/Productivity/Export materials to Fluent menu: The Ansys Icepak Menus
- Macros/Productivity/Find Zero-Slack Assemblies menu: The Ansys Icepak Menus
- Macros/Productivity/Macros Toolbar menu: The Ansys Icepak Menus
- Macros/Productivity/Make All Objects Visible menu: The Ansys Icepak Menus
- Macros/Productivity/Mesh Settings Comparison menu: The Ansys Icepak Menus
- Macros/Productivity/Sort Inactive Node menu: The Ansys Icepak Menus
-
Macros/Rotate menu: The Ansys Icepak Menus
- Macros/Rotate/Groups of Prism Blocks menu: The Ansys Icepak Menus
- Macros/Rotate/Individual Plates menu: The Ansys Icepak Menus
- Macros/Rotate/Individual Polygonal Blocks menu: The Ansys Icepak Menus
- Macros/Rotate/Individual Prism Blocks menu: The Ansys Icepak Menus
- Main library node: The Main library Node Context Menu, The Materials Node Context Menu
- Main window: Startup Screen, The Main Window
- managing
- postprocessing objects: Managing Postprocessing Objects
- manuals: Accessing the Ansys Icepak Manuals
- using: What’s In This Manual
- mass diffusion coefficients: Overview of Modeling Species Transport
- mass flow: Variables Available for Reporting, Velocity-Related Quantities
-
Match edges button: Matching Object Edges
-
Match faces button: Matching Object Faces
- materials: Material Properties
- copying: Copying a Material
- creating: Creating a New Material
- default: Default Fluid, Solid, and Surface Materials
- deleting: Deleting a Material
- editing: Editing an Existing Material
- fluid: Editing an Existing Material
- parameterization: Overview of Parameterization
- saving: Saving Materials and Properties
- solid: Editing an Existing Material
- conductivity: Editing an Existing Material, Defining a Parameter in an Input Field
- summary: Object and Material Summaries
- surface: Editing an Existing Material
- temperature dependence: Material Properties, Defining Properties Using Temperature-Dependent Functions
- velocity dependence: Defining Properties Using Velocity-Dependent Functions
- viewing properties: Viewing the Properties of a Material
-
Materials dialog box: Using the Materials Library and the Materials Panel, Editing an Existing Material
- Materials node: The Materials Node Context Menu
- mathematical conventions: Mathematical Conventions
- menus
- Ansys Icepak: The Ansys Icepak Menus
- postprocessing context: Using the Context Menus in the Graphics Display Window
- Merge project dialog box: Merging Model Data
- merging
- assembly: Merging an Assembly With Another Project
- model data: Merging Model Data
- projects: Merging Model Data
- mesh: Overview, General Procedure
- checking: Checking the Mesh
- element volume: Checking the Element Volume
- face alignment: Checking the Face Alignment
- skewness: Checking the Skewness
- controlling order for
objects: Controlling the Meshing Order for Objects
- copying: Saving a Project File
- defining
parameters: Defining Meshing Parameters for Multiple Objects
- displaying: Displaying the Mesh
- cross-section: Displaying the Mesh on a Cross-Section of the Model
- individual objects: Displaying the Mesh on Individual Objects
- files: Mesh Files, Cleaning up the Project Data
- global
- parameters: Global Refinement for a Hex-Dominant Mesh
- guidelines: Guidelines for Mesh Generation
- hex-dominant: Hex-Dominant and Hexahedral Meshes
- examining: Hex-Dominant Meshing Procedure
- improving: Hex-Dominant Meshing Procedure
- minimum-count: Creating a Minimum-Count Hex-Dominant Mesh
- object-specific controls: Hex-Dominant Meshing Procedure
- procedure: Hex-Dominant Meshing Procedure
- refining: Global Refinement for a Hex-Dominant Mesh
- hexahedral: Hex-Dominant and Hexahedral Meshes
- coarse: Hexahedral Meshing Procedure
- examining: Hexahedral Meshing Procedure
- improving: Hexahedral Meshing Procedure
- minimum-count: Hexahedral Meshing Procedure, Creating a Minimum-Count Hexahedral Mesh
- object-specific controls: Hexahedral Meshing Procedure
- parameters: Global Refinement for a Hexahedral Mesh
- procedure: Hexahedral Meshing Procedure
- refining: Hexahedral Meshing Procedure, Global Refinement for a Hexahedral Mesh, General Procedure
- loading: Loading an Existing Mesh
- multi-level
- parameters: Global Refinement for a Hex-Dominant Mesh
- object-specific
controls: General Procedure, Definitions of Object-Specific Meshing Parameters
- parameters
- 2D polygon: Meshing Parameters for Grilles
- 3D polygon: Meshing Parameters for Blocks
- assembly: Meshing Parameters for Assemblies
- block: Meshing Parameters for Blocks
- blower: Meshing Parameters for Blowers
- cabinet: Meshing Parameters for Cabinets
- circular object: Meshing Parameters for Grilles
- cylinder: Meshing Parameters for Blocks
- ellipsoid: Meshing Parameters for Blocks
- elliptical cylinder: Meshing Parameters for Blocks
- enclosure: Meshing Parameters for Enclosures
- fan: Meshing Parameters for Fans
- grille: Meshing Parameters for Grilles
- heat exchanger: Meshing Parameters for Heat Exchangers
- heat sink object: Meshing Parameters for Heat Sink Objects
- inclined object: Meshing Parameters for Grilles
- network: Meshing Parameters for Networks
- opening: Meshing Parameters for Openings
- Packages: Meshing Parameters for Packages
- PCB: Meshing Parameters for PCBs
- plate: Meshing Parameters for Plates
- prism: Meshing Parameters for Blocks
- rectangular object: Meshing Parameters for Grilles
- resistance: Meshing Parameters for Resistances
- source: Meshing Parameters for Sources
- traces: Meshing Parameters for Traces
- wall: Meshing Parameters for Walls
- partitioning: Partitioning the Grid
- planar resistance: Planar Resistances
- quality: Mesh Quality and Type
- resistance: Resistances
- skew: Mesh Quality
- units: Units for Meshing
- Mesh control dialog box: Creating a Minimum-Count Hex-Dominant Mesh, Creating a Minimum-Count Hexahedral Mesh
- mesh type: Meshing Options
-
Message window: Startup Screen, The Message Window
- METIS: Partitioning the Grid
- Microsoft Excel location: Miscellaneous Options
-
Min/max locations dialog box: Displaying Results at a Point
- minimum-count
mesh
- hex-dominant: Creating a Minimum-Count Hex-Dominant Mesh
- hexahedral: Hexahedral Meshing Procedure, Creating a Minimum-Count Hexahedral Mesh
- mirroring
- cabinet: Repositioning the Cabinet
- merged model data: Geometric Transformations
- object: Copying an Object
- model: The Model manager Window
- adding objects: Adding Objects to the Model
- building: Building a Model
- files: Cleaning up the Project Data
- merging: Merging Model Data
- parameterization: Overview of Parameterization
- Model and solve toolbar: The Ansys Icepak Toolbars
-
Model Display window: Graphics Windows
- model file: Problem Setup Files
-
Model
manager window: Startup Screen, The Model manager Window
- collapsing nodes: The Model manager Window
- context menus: Using the Context Menus in the Model manager Window
- expanding nodes: The Model manager Window
- Groups node: The Model manager Window
-
Inactive node: The Model manager Window
- Libraries node: The Model manager Window
- fans: Loading a Pre-Defined Fan Object
- packages: Loading a Pre-Defined Package Object
- searching for fans: Loading a Pre-Defined Fan Object
- searching
for packages: Loading a Pre-Defined Package Object
- Model node: The Model manager Window
-
Points node: The Model manager Window
-
Postprocessing node: The Model manager Window
- postprocessing objects: Managing Postprocessing Objects
- Problem setup node: The Model manager Window
- Solution settings node: The Model manager Window
-
Surfaces node: The Model manager Window
-
Trash node: The Model manager Window
-
Model menu: The Ansys Icepak Menus, The Model Menu
- Model node: The Model Node Context Menus, The Model manager Window
- Model/Check model menu: The Ansys Icepak Menus, Design Checks
- Model/Create material library menu: The Ansys Icepak Menus
- Model/Create object menu: The Ansys Icepak Menus, The Model Node Context Menus
- Model/Display/Material: The Ansys Icepak Menus
- Model/Display/Property: The Ansys Icepak Menus
- Model/Display/Type : The Ansys Icepak Menus
- Model/Edit grid cutouts menu: The Ansys Icepak Menus
- Model/Edit overlaps menu: The Ansys Icepak Menus
- Model/Edit priorities menu: The Ansys Icepak Menus, Controlling the Meshing Order for Objects
- Model/Find object menu: The Model Node Context Menus
- Model/Generate mesh menu: The Ansys Icepak Menus, Creating a Minimum-Count Hex-Dominant Mesh, Creating a Minimum-Count Hexahedral Mesh
- Model/Load assembly
menu: The Model Node Context Menus
- Model/Merge
project menu: The Model Node Context Menus
- Model/Object view/Flat
menu: The Model Node Context Menus
- Model/Object view/Types
menu: The Model Node Context Menus
- Model/Object view/Types/subtypes menu: The Model Node Context Menus
- Model/Object view/Types/subtypes/shapes menu: The Model Node Context Menus
- Model/Paste from clipboard
menu: The Model Node Context Menus
- Model/Power and temperature limits menu: The Ansys Icepak Menus
- Model/Radiation form factors menu: The Ansys Icepak Menus, User Inputs for Specification of Radiation Using the Form factors
Panel
- Model/Sort menu: The Model Node Context Menus
- Model/Sort/Alphabetical menu: The Model Node Context Menus
- Model/Sort/Creation order menu: The Model Node Context Menus
- Model/Sort/Meshing
priority menu: The Model Node Context Menus
- modeling
- species: Species Transport Modeling
-
Modify form factors dialog box: User Inputs for Specification of Radiation Using the Form factors
Panel
- Modify point dialog box: Defining Solution Monitors
- Modify surface dialog box: Defining Solution Monitors
- molecular weight: Editing an Existing Material, Overview of Modeling Species Transport
- momentum equation: Momentum Equations
- monitor point
- frequency: Optimizing the Parallel Solver Performance
- Monitor window: Plotting Residuals
- monitoring
- convergence: Solution Residuals
- residuals: Solution Residuals
- solution: Monitoring the Solution, The Solution residuals Graphics Display and Control Window, Changing the Solution Monitors During the Calculation
- Morph edges button: The Ansys Icepak Toolbars
- Morph faces button: The Ansys Icepak Toolbars
- mounting
holes: Overview of Importing IDF Files into Ansys Icepak
- mouse: Using the Mouse
- 3Dconnexion: 3-D Input Device Support
- adding objects: Adding Objects to the Model
- changing color spectrum: Changing the Color Spectrum
- changing controls: Changing the Mouse Controls
- controlling panel inputs: Controlling Panel Inputs
- cursors: Triad (coordinate axis) and Rotation Cursors
- manipulating graphics: Manipulating Graphics With the Mouse
- Model manager
window: Using the Mouse in the Model manager Window
- moving color legend: Moving the Display Identifiers
- moving coordinate axes: Moving the Display Identifiers
- moving date: Moving the Display Identifiers
- moving title: Moving the Display Identifiers
- pointer modes: Pointer Modes
- resizing objects: Resizing Objects within a Model
- rotating the model: Rotating a Model
- selecting objects: Selecting Objects within a Model
- switching modes: Switching Between Modes
- translating objects: Translating Objects within a Model
- translating the
model: Translating a Model
- zooming the model: Zooming In and Out
-
Move all objects in model dialog box: Resizing the Cabinet, Repositioning the Cabinet, Resizing an Object
-
Move assembly dialog
box: Moving an Assembly
-
Move group dialog box: Moving a Group
- Move object button: The Ansys Icepak Toolbars, Resizing the Cabinet, Moving an Assembly
- moving
- assembly: Moving an Assembly
- cabinet: Repositioning the Cabinet
- group: Moving a Group
- object: Repositioning an Object
- point: Displaying Results at a Point
- MPEG file: Displaying Results on Cross-Sections of the Model
- multigrid solver: Selecting the Multigrid Scheme, Multigrid Method
- cycles: Multigrid Method
- F cycle: Multigrid Method
- flex cycle: Multigrid Method
- prolongation: Multigrid Method
- residual reduction rate: Multigrid Method
- restriction: Multigrid Method
- termination criteria: Multigrid Method
- V cycle: Multigrid Method
- W cycle: Multigrid Method
- multiprocessor workstations: Parallel Processing
O
- object
- adding
to group: Adding Objects to a Group
- aligning
- centers: Aligning Object Centers
- edges: Aligning Object Edges
- face centers: Aligning Object Face Centers
- faces: Aligning Object Faces
- matching edges: Matching Object Edges
- matching faces: Matching Object Faces
- using edit window : Aligning an Object with Another Object in the Model
- using object modification toolbar: Aligning an Object with Another Object in the Model
- vertices: Aligning Object Vertices
- with another object: Aligning an Object with Another Object in the Model
- assembly: Custom Assemblies
- attributes: Object Attributes
- block: Blocks
- blower: Blowers
- circular: Geometry
- color: Graphical Style
- controlling meshing order: Controlling the Meshing Order for Objects
- copying: Copying an Object
- creating: Creating a New Object
- cylindrical: Cylindrical Objects
- defining mesh parameters: Defining Meshing Parameters for Multiple Objects
- deleting: Deleting an Object
- deselecting: Selecting and Deselecting an Object
- displaying results: Displaying Results on Object Faces
- displaying the mesh: Displaying the Mesh on Individual Objects
- Edit window: Overview of the Object Panels and Object Edit Windows
- editing: Editing an Object
- properties of like objects in a group: Editing the Properties of Like Objects in a Group
- ellipsoid: Ellipsoid Objects
- elliptical cylinder: Elliptical Cylinder Objects
- enclosure: Enclosures
- excluding: Description
- fan: Fans
- geometry: Geometry
- grille: Grilles
- grouping: Grouping Objects
- heat exchanger: Heat Exchangers
- heat sink: Heat Sinks
- high side: Definitions of Object-Specific Meshing Parameters
- inclined: Geometry
- including
- in a group: Description
- in model: Description
- line width: Graphical Style
- low side: Definitions of Object-Specific Meshing Parameters
- minimum separation: Meshing Options
- mirroring: Copying an Object
- name: Description
- network: Networks
- notes: Description
- opening: Openings
- package: Packages
- parameterization: Overview of Parameterization
- PCB: Printed Circuit Boards (PCBs)
- periodic boundary: Periodic Boundaries
- physical characteristics: Physical Characteristics
- plate: Plates
- polygon
- 2D: Two-Dimensional Polygons
- 3D: Three-Dimensional Polygons
- position: Position and Size
- postprocessing
- activating: Managing Postprocessing Objects
- deactivating: Managing Postprocessing Objects
- managing: Managing Postprocessing Objects
- prism: Prism Objects
- radiation
- modeling: Radiation Modeling for Objects
- surface-to-surface model: User Inputs for Specification of Radiation in Individual Object
Panels
- rectangular: Geometry
- removing
from group: Removing Objects From a Group
- report
- full: Full Reports
- summary: Summary Reports
- resistance: Resistances
- resizing: Resizing an Object
- rotating: Repositioning an Object, Copying an Object
- scaling: Copying an Object
- selecting: Selecting and Deselecting an Object
- shading: The Ansys Icepak Menus, Graphical Style
- size: Position and Size
- source: Sources
- summary: Object and Material Summaries
- texture: Graphical Style
- translating: Repositioning an Object, Copying an Object
- transparency: Graphical Style
- wall: Walls
- Object creation toolbar: The Ansys Icepak Toolbars, The Object Creation Toolbar
-
Object dialog box: Overview of the Object Panels and Object Edit Windows
-
Object face (facet) dialog box: Displaying Results on Object Faces
- Object face button: The Ansys Icepak Toolbars, Displaying Results on Object Faces
-
Object face
contours dialog box: Contour Attributes
-
Object face dialog box: Displaying Results on Object Faces
-
Object face particles dialog box: Particle Trace Attributes
- Object face vectors dialog box: Vector Attributes
- Object modification toolbar: The Ansys Icepak Toolbars, The Object Modification Toolbar
-
Object priority dialog box: Controlling the Meshing Order for Objects
-
Object selection dialog box: Copying an Object
- object-specific meshing controls: General Procedure, Definitions of Object-Specific Meshing Parameters
- hex-dominant: Hex-Dominant Meshing Procedure
- hexahedral: Hexahedral Meshing Procedure
-
Objects outside dialog box: Repositioning an Object
- One viewing window button: The Ansys Icepak Toolbars
- online help: Accessing Online Help
- Open project button: The Ansys Icepak Toolbars, The File commands Toolbar, Opening an Existing Project
- Open
project dialog box: Startup Screen, File Selection Dialog Boxes, Opening an Existing Project
- opening: Openings
- creating: Adding an Opening to Your Ansys Icepak Model
- flow direction: Flow Direction for Recirculation Openings, User Inputs for a Free Opening, User Inputs for a Recirculation Opening
- free: Openings, Free Openings, User Inputs for a Free Opening
- heat flow: Recirculation Opening Thermal Specifications
- mass flow rate: Recirculation Mass Flow Rate, User Inputs for a Free Opening, User Inputs for a Recirculation Opening
- meshing: Meshing Parameters for Openings
- pressure: Free Openings
- profiles: User Inputs for a Free Opening
- recirculation: Openings, Recirculation Openings, Recirculation Mass Flow Rate, User Inputs for a Recirculation Opening
- mass flow rate: Openings
- report: Summary Reports
- species: User Inputs for Species Transport Simulations
- thermal specification: Recirculation Opening Thermal Specifications
- species: User Inputs for Species Transport Simulations
- augmentation: User Inputs for Species Transport Simulations
- filtering: User Inputs for Species Transport Simulations
- temperature: Free Openings
- thermal specification: Recirculation Opening Thermal Specifications, User Inputs for a Recirculation Opening
- transient simulations: User Inputs for a Free Opening, User Inputs for Transient Simulations
- opening a file: File Selection Dialog Boxes
- opening a project: Opening an Existing Project
-
Openings dialog box: Adding an Opening to Your Ansys Icepak Model
- operating
density: Forced- or Natural-Convection Effects, Incompressible Ideal Gas Law
- operating point
- blower: Fan Operating Points Report
- fan: Fan Operating Points Report
- operating pressure: Forced- or Natural-Convection Effects, Incompressible Ideal Gas Law
- optimization: Optimization
- dynamic-q
method: The Dynamic-Q Optimization method
- files: Optimization Files
- input: Optimization Files
- log: Optimization Files
- output: Optimization Files
- postprocessing: Optimization Files
- tab: Optimization Files
- specification: User Inputs for Optimization
-
Option parameter dialog box: Defining Radio Button Parameters (Option Parameters)
- Orient menu: The Ansys Icepak Menus
- Orient negative Z button: The Ansys Icepak Toolbars
- Orient positive X button: The Ansys Icepak Toolbars
- Orient positive Y button: The Ansys Icepak Toolbars
- Orient/Clear user views menu: The Ansys Icepak Menus, Managing Postprocessing Objects
-
Orient/Home position menu: The Ansys Icepak Menus
- Orient/Isometric view menu: The Ansys Icepak Menus
- Orient/Nearest axis menu: The Ansys Icepak Menus
- Orient/Orient negative X menu: The Ansys Icepak Menus
- Orient/Orient negative Y menu: The Ansys Icepak Menus
- Orient/Orient negative Z menu: The Ansys Icepak Menus
- Orient/Orient positive X menu: The Ansys Icepak Menus
- Orient/Orient positive Y menu: The Ansys Icepak Menus
- Orient/Orient positive Z menu: The Ansys Icepak Menus
- Orient/Read user views from file menu: The Ansys Icepak Menus
- Orient/Reverse orientation menu: The Ansys Icepak Menus
- Orient/Save user view menu: The Ansys Icepak Menus, Managing Postprocessing Objects
- Orient/Scale to fit menu: The Ansys Icepak Menus
- Orient/Write user views to file menu: The Ansys Icepak Menus
- Orient/Zoom in menu: The Ansys Icepak Menus
- Orientation commands toolbar: The Ansys Icepak Toolbars
-
Output units button: Units for Postprocessing
P
- package: Packages
- cavity-down
BGA: User Inputs for BGA Packages
- CCM: Compact Conduction Model (CCM) Packages
- BGA: Ball Grid Array (BGA) Packages
- lead-frame: Lead-Frame Packages
- creating: Adding a Package to Your Ansys Icepak Model
- detailed: Detailed Packages
- BGA: Detailed Packages
- lead-frame: Detailed Features
- flip-chip: User Inputs for BGA Packages
- FPBGA: User Inputs for BGA Packages
- JB: Junction-to-Board Characterization Model
- JC: Junction-to-Case Characterization Model
- library: Loading a Pre-Defined Package Object
- search: Loading a Pre-Defined Package Object
- meshing: Meshing Parameters for Packages
- node: The fans and packages Node Context Menu
- package on package
(POP): User Inputs for Package on Package
- PBGA: User Inputs for BGA Packages
- QFP: User Inputs for Lead-Frame Packages
- radiation: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages, User Inputs for Stacked Die Packages, User Inputs for Package on Package, Radiation Modeling for Objects
- emissivity: User Inputs for Specification of Radiation in Individual Object
Panels
- specification: User Inputs for Specification of Radiation in Individual Object
Panels
- top side: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages, User Inputs for Stacked Die Packages, User Inputs for Package on Package
-
Packages dialog box: Adding a Package to Your Ansys Icepak Model
- packing up a project: Startup Options for Linux Systems, Packing and Unpacking Model Files, Diagnostic Tools for Technical Support
- panels: Control Panels
- parallel processing: Parallel Processing
- efficiency: Parallel Processing
- GPU: Parallel Processing
- on a dedicated
parallel machine: Parallel Processing
- on a multiprocessor workstation: Parallel Processing
- on a workstation
cluster: Workstation Cluster
- Job Scheduler: Starting Parallel Ansys Icepak with the Job Scheduler
- partitioning: Partitioning the Grid
- Parallel settings dialog
box: The Model manager Window, Parallel Processing
- parallel solver: Parallel Processing
- optimize: Optimizing the Parallel Solver Performance
-
Param value dialog box: Defining a Parameter in an Input Field
- parameterization: Parameterizing the Model
- creating
a new parameter: Defining a Parameter in an Input Field, Defining a Parameter (Design Variable) Using the Parameters
and optimization Panel
- deleting parameters: Deleting Parameters
- trials
- defining: Defining Trials
- running: Running Trials
- saving: Running Multiple Trials
- selecting: Selecting Trials
-
Parameters
and optimization dialog box: User Inputs for Optimization, Defining a Parameter (Design Variable) Using the Parameters
and optimization Panel, Perform State-Space Characterization
- particle trace: Particle Trace Attributes
- animation: Particle Trace Attributes
- partition
- radiation: Radiation Modeling for Objects
- partitioning the mesh: Partitioning the Grid
-
PATH
: Environment Variables on Linux Systems
- PATRAN: Results Solution Control Options
- PBGA Die
dialog box: User Inputs for BGA Packages, User Inputs for Lead-Frame Packages
- PBGA Dimensions dialog box: Adding a Package to Your Ansys Icepak Model
- PBGA Solder dialog box: User Inputs for BGA Packages
- PBGA Substrate dialog box: User Inputs for BGA Packages
- PCB: Printed Circuit Boards (PCBs)
- compact: Compact PCBs
- components: Adding a PCB to Your Ansys Icepak Model
- creating: Adding a PCB to Your Ansys Icepak Model
- detailed: Detailed PCBs
- high side: Adding a PCB to Your Ansys Icepak Model
- hollow: Hollow PCBs
- components
height: Hollow PCBs
- components
number: Hollow PCBs
- heat dissipation: Hollow PCBs
- high side: Hollow PCBs
- low side: Hollow PCBs
- side specification: Hollow PCBs
- low side: Adding a PCB to Your Ansys Icepak Model
- macro: Printed Circuit Board (PCB), Adding a PCB to Your Ansys Icepak Model
- meshing: Meshing Parameters for PCBs
- racks: Racks of PCBs, Adding a PCB to Your Ansys Icepak Model
- radiation: Adding a PCB to Your Ansys Icepak Model, Radiation Modeling for Objects
- emissivity: User Inputs for Specification of Radiation in Individual Object
Panels
- specification: User Inputs for Specification of Radiation in Individual Object
Panels
- PCB attachments
- bolt: Adding PCB Attachments to Your Ansys Icepak Model
- stiffener: Adding PCB Attachments to Your Ansys Icepak Model
- wedgelock: Adding PCB Attachments to Your Ansys Icepak Model
- Peclet number: Forced- or Natural-Convection Effects, Initializing the Solution
-
Per-object mesh
parameters dialog box: General Procedure
-
Per-object parameters
: General Procedure
- periodic boundaries: Periodic Boundaries
- creating: Adding a Periodic boundary to Your Ansys Icepak Model
- Periodic boundaries dialog box: Adding a Periodic boundary to Your Ansys Icepak Model
- picture file: Cleaning up the Project Data
- saving: File Selection Dialog Boxes, Saving a Project File
- planar resistance: Planar Resistances
- plane
cut
- clipping: Displaying Results on Cross-Sections of the Model
- Plane cut button: The Ansys Icepak Toolbars, Displaying Results on Cross-Sections of the Model
-
Plane cut contours dialog box: Contour Attributes
-
Plane cut dialog box: Displaying Results on Cross-Sections of the Model
-
Plane cut particles dialog box: Particle Trace Attributes
-
Plane cut vectors dialog box: Vector Attributes
- planning the analysis: Planning Your Ansys Icepak Analysis
- computational
model: Planning Your Ansys Icepak Analysis
- modeling goals: Planning Your Ansys Icepak Analysis
- physical models: Planning Your Ansys Icepak Analysis
- solution
procedure: Planning Your Ansys Icepak Analysis
- plate: Plates
- adiabatic thin: Plates, Thermal Model Type, User Inputs for the Thermal Model
- block surface coincident: Blocks with Intersecting Volumes
- conducting thick: Plates, Thermal Model Type, User Inputs for the Thermal Model
- conducting thin: Plates, Thermal Model Type, User Inputs for the Thermal Model
- contact resistance: Plates, Thermal Model Type, User Inputs for the Thermal Model
- creating: Adding a Plate to Your Ansys Icepak Model
- fluid: Plates, User Inputs for the Thermal Model
- high side: Defining a Plate in Ansys Icepak, User Inputs for the Low- and High-Side Properties of the Plate
- hollow thick: Plates, Thermal Model Type, User Inputs for the Thermal Model
- intersecting block: A Block and an Intersecting Plate
- joule heating: User Inputs for the Thermal Model
- low side: Defining a Plate in Ansys Icepak, User Inputs for the Low- and High-Side Properties of the Plate
- meshing: Meshing Parameters for Plates
- modeling a PCB: Using Plates in Combination with Other Objects
- radiation: User Inputs for the Low- and High-Side Properties of the Plate
- emissivity: User Inputs for Specification of Radiation in Individual Object
Panels
- specification: User Inputs for Specification of Radiation in Individual Object
Panels
- resistance: User Inputs for the Low- and High-Side Properties of the Plate
- surface roughness: Surface Roughness
- temperature dependence: User Inputs for the Thermal Model
- thermal model: Thermal Model Type, User Inputs for the Thermal Model
- thickness: Plate Thickness
- transient simulations: User Inputs for the Thermal Model, User Inputs for Transient Simulations
- using with other objects: Using Plates in Combination with Other Objects
-
Plates dialog box: Adding a Plate to Your Ansys Icepak Model
- plots
- network temperature: Network Temperature Plots
- point: The Model manager Window
- add: Creating a History Plot
- creating
new: Creating a History Plot
- deleting: Creating a History Plot
- displaying
results: Displaying Results at a Point
- editing: Creating a History Plot
- node: The Model manager Window, The Points Node Context Menus
- report: Point Reports
- Point button: The Ansys Icepak Toolbars, Displaying Results at a Point
-
Point dialog
box: Displaying Results at a Point
-
Point particles dialog box: Particle Trace Attributes
-
Point vectors dialog box: Vector Attributes
- polygon
- 2D: Two-Dimensional Polygons
- 3D: Three-Dimensional Polygons
- meshing: Global Refinement for a Hex-Dominant Mesh, Global Refinement for a Hexahedral Mesh
- 2D: Meshing Parameters for Grilles
- 3D: Meshing Parameters for Blocks
- portrait: Saving Image Files
- position
- object: Position and Size
- Post menu: The Ansys Icepak Menus, The Post Menu
- Post-processing node: The Post-processing Node Context Menu
- Post/3D Variation plot menu: The Ansys Icepak Menus
- Post/Convergence plot menu: The Ansys Icepak Menus, Plotting Residuals
- Post/Create zoom-in model menu: The Ansys Icepak Menus, Zoom-In Modeling
- Post/Display powermap property menu: The Ansys Icepak Menus
- Post/History plot menu: The Ansys Icepak Menus, Creating a History Plot
- Post/Isosurface menu: The Ansys Icepak Menus, Displaying Results on Isosurfaces
- Post/Load post objects from file menu: The Ansys Icepak Menus, Managing Postprocessing Objects
- Post/Load solution ID menu: The Ansys Icepak Menus, Selecting a Solution Set to be Examined
- Post/Min/max locations menu: The Ansys Icepak Menus
- Post/Network temperature plot: The Ansys Icepak Menus
- Post/Object face (facet) menu: The Ansys Icepak Menus, Displaying Results on Object Faces
- Post/Object face (node) menu: The Ansys Icepak Menus, Displaying Results on Object Faces
- Post/Plane cut menu: The Ansys Icepak Menus, Displaying Results on Cross-Sections of the Model
- Post/Point menu: The Ansys Icepak Menus, Displaying Results at a Point
- Post/Postprocessing units menu: The Ansys Icepak Menus, Units for Postprocessing
- Post/Power and temperature values menu: The Ansys Icepak Menus
- Post/Rescale vectors menu: The Ansys Icepak Menus, The Significance of Color in Graphical Displays, Managing Postprocessing Objects
- Post/Save post objects to file menu: The Ansys Icepak Menus, Managing Postprocessing Objects
- Post/Surface probe menu: The Ansys Icepak Menus
- Post/Transient settings menu: The Ansys Icepak Menus, Examining Results at a Specified Time
- Post/Trials plot menu: The Ansys Icepak Menus, Trials Plots
- Post/Variation plot menu: The Ansys Icepak Menus, Variation Plots
- Post/Workflow data menu: The Ansys Icepak Menus
- postprocessing: Examining the Results
- animation: Creating an Animation, Particle Trace Attributes
- cascade modeling: Zoom-In Modeling
- color: The Significance of Color in Graphical Displays
- contour attributes: Contour Attributes
- cross-section: Displaying Results on Cross-Sections of the Model
- files: Postprocessing Files, Cleaning up the Project Data
- graphical displays: Graphical Displays
- isosurface: Displaying Results on Isosurfaces
- clipping: Displaying Results on Isosurfaces
- min/max points: Displaying Results at a Point
- node: The Model manager Window
- object face: Displaying Results on Object Faces
- object face (facet)
- defining: Displaying Results on Object Faces
- object face (node)
- defining: Displaying Results on Object Faces
- objects
- activating: Managing Postprocessing Objects
- deactivating: Managing Postprocessing Objects
- defining: Defining Postprocessing Objects
- managing: Managing Postprocessing Objects
-
Model manager window : Managing Postprocessing Objects
- saving: Saving a Project File
- particle trace: Particle Trace Attributes
- plane cut: Displaying Results on Cross-Sections of the Model
- clipping: Displaying Results on Cross-Sections of the Model
- defining: Displaying Results on Cross-Sections of the Model
- point: Displaying Results at a Point
- solution ID: Selecting a Solution Set to be Examined
- solution variables: Solution Variables
- species transport: Postprocessing for Species Calculations
- transient simulations: Postprocessing for Transient Simulations
- animation: Creating an Animation
- trials plot: Trials Plots
- units: Units for Postprocessing
- variables: Variables for Postprocessing and Reporting
- variation plot: Variation Plots
- vectors: Vector Attributes
- XY plot: XY Plots
- zoom-in modeling: Zoom-In Modeling
- Postprocessing toolbar: The Ansys Icepak Toolbars
-
Postprocessing units dialog box: Units for Postprocessing
- PostScript files: Choosing the Image File Format, Printing Options
- power and temperature
- setup: Setting Up the Power and Temperature Limit Values
- Power and temperature limit setup dialog
box: Setting Up the Power and Temperature Limit Values
- Power and temperature limits button: The Ansys Icepak Toolbars
- Power and temperature values button: The Ansys Icepak Toolbars
- power setup: Power and Temperature Limit Setup
- Prandtl number: Forced- or Natural-Convection Effects, Initializing the Solution
- precision: Selecting the Version of the Solver, Solution Residuals
- preferences
- display options: Display Options
- editing options: Editing Options
- meshing options: Meshing Options
- miscellaneous
options: Miscellaneous Options, Delphi Package Characterization
- postprocessing
options: Postprocessing Options
- printing options: Printing Options
- solution
options: Solution Options
-
Preferences dialog
box: Built-In Unit Systems in Ansys Icepak, Configuring a Project
- preferences panel
- Ansys Icepak in
Workbench: The Preferences Panel
- pressure: Variables Available for Reporting, Pressure-Related Quantities
- drop: Modeling the Pressure Loss through a Heat Exchanger
- interpolation schemes: Spatial Discretization
- variable: Pressure-Related Quantities
- postprocessing: Solution Variables
-
Pressure drop curve window: Using the Pressure drop curve Window to Specify the Curve for
a Grille
- pressure-correction equation: Spatial Discretization
- pressure-velocity coupling: Spatial Discretization
- primary variables: Generating Reports, General Information about Variables
- Print options dialog box: The Ansys Icepak Toolbars
- print region: Specifying the Print Region
- Print screen
button: The Ansys Icepak Toolbars, The File commands Toolbar
- printed circuit board: Printed Circuit Boards (PCBs)
- Printed circuit boards dialog box: Adding a PCB to Your Ansys Icepak Model
- printing images: Saving Image Files
- file format: Choosing the Image File Format
- frame: Choosing the Image File Format
- label: Choosing the Image File Format
- landscape: Saving Image Files
- portrait: Saving Image Files
- PostScript options: Choosing the Image File Format
- print region: Specifying the Print Region
- scaling: Saving Image Files
- printing text files: Printing Options
- printing trials plots: Trials Plots
- printing variation plots: Variation Plots
- prism: Prism Objects
- meshing: Meshing Parameters for Blocks
- problem files: Problem Setup Files
- problem parameters: Specifying the Problem Parameters
- problem setup: Problem Solving Steps
- wizard: Problem Setup Wizard
- Problem setup node: The Model manager Window
- Basic parameters: The Model manager Window
- Local coords: The Model manager Window
- Title/notes: The Model manager Window
- profiles: User Inputs for a Free Opening, Using the Curve specification Panel to Specify a Spatial Boundary
Profile
- species mass fraction: Using the Curve specification Panel to Specify a Spatial Boundary
Profile
- program structure: Program Structure
- project
- compressing data: Cleaning up the Project Data
- configuring: Configuring a Project
- creating: Creating, Opening, Reloading, and Deleting a Project File
- defining: Defining a Project
- merging: Merging Model Data
- notes: Creating a New Project
- opening: Opening an Existing Project
- packing: Startup Options for Linux Systems, Packing and Unpacking Model Files, Diagnostic Tools for Technical Support
- parameters: Specifying the Problem Parameters
- reloading: Reloading the Main Version of a Project
- removing data: Cleaning up the Project Data
- saving: Saving a Project File, Creating a New Project
- active objects: Saving a Project File
- assembly structure: Saving a Project File
- at specified frequency: Results Solution Control Options
- mesh data: Saving a Project File
- picture files: Saving a Project File
- postprocessing
objects: Saving a Project File
- solution data: Saving a Project File
- transient
simulations: User Inputs for Transient Simulations
- scaling: Display Options
- title: Creating a New Project
- unpacking: Startup Options for Linux Systems, Packing and Unpacking Model Files
- projects
- recent: Recent Projects
- prolongation: Multigrid Method
- pseudo transient
- under-relaxation: Pseudo Transient Under-Relaxation
R
- radiation: Radiation Modeling
- discrete ordinates
radiation model: Discrete Ordinates Radiation Modeling
- heat flow: Variables Available for Reporting, Radiation-Related Quantities
- heat
flux: Radiation Modeling for Objects
- modeling: Solution Variables
- ray tracing model: Ray tracing Radiation Modeling, The Ray Tracing Radiation Model
- solar load model: Modeling Solar Radiation Effects
- specification: User Inputs for Radiation Modeling
- surface-to-surface model: Radiation Modeling for Objects, The Surface-to-Surface Radiation Model
- for individual objects: User Inputs for Specification of Radiation in Individual Object
Panels
- objects to include in calculation: User Inputs for Specification of Radiation Using the Form factors
Panel
- using Form factors
: User Inputs for Specification of Radiation Using the Form factors
Panel
- view factors: User Inputs for Specification of Radiation Using the Form factors
Panel
- temperature: Radiation Modeling for Objects
- variables: Solution Variables, Radiation-Related Quantities
- postprocessing: Solution Variables
- radiation behavior: Editing an Existing Material
- Radiation
button: The Ansys Icepak Toolbars, User Inputs for Specification of Radiation Using the Form factors
Panel
-
Radiation object selection dialog box: User Inputs for Specification of Radiation in Individual Object
Panels
-
Radiation specification dialog box: User Inputs for Specification of Radiation in Individual Object
Panels
- radiator: Modeling a Planar Heat Exchanger in Ansys Icepak
- ray tracing radiation
model: The Ray Tracing Radiation Model
- Rayleigh
number: Forced- or Natural-Convection Effects, Initializing the Solution, Buoyancy-Driven Flows and Natural Convection
- reading a file: File Selection Dialog Boxes
- real number entry: Control Panels
- recent projects: Recent Projects
- rectangular object: Geometry
- meshing: Meshing Parameters for Grilles
- Redo button: The Ansys Icepak Toolbars
- reference temperature: Temperature-Related Quantities
- refining
the mesh: General Procedure
- globally: Refining the Mesh Globally
- hex-dominant: Global Refinement for a Hex-Dominant Mesh
- hexahedral: Hexahedral Meshing Procedure, Global Refinement for a Hexahedral Mesh, General Procedure
- locally: Refining the Mesh Locally
- refrigeration circuits: Openings
- relative
humidity: User Inputs for Species Transport Simulations
- relaxation scheme: Multigrid Method
- relaxation sweeps: Multigrid Method
- reloading a project: Reloading the Main Version of a Project
- Remote execution parameters dialog box: Advanced Solution Control Options
- removing
- object from group: Removing Objects From a Group
- project
data: Cleaning up the Project Data
- renaming
- group: Renaming a Group
- renormalization group (RNG) theory: Advanced Turbulence Models
- report
- solution overview: Reviewing a Solution
- Report menu: The Ansys Icepak Menus, Overview: The Report Menu
-
Report point data dialog box: Point Reports
-
Report summary data dialog box: Summary Reports
-
Report window: Full Reports
- Report/EM heat losses menu: The Ansys Icepak Menus, EM Heat Losses Report
- Report/Export menu: The Ansys Icepak Menus
- Report/Fan operating points menu: The Ansys Icepak Menus, Fan Operating Points Report
- Report/Full report menu: The Ansys Icepak Menus, Full Reports
- Report/HTML report menu: The Ansys Icepak Menus, HTML Reports
- Report/Network block values menu: The Ansys Icepak Menus, Network Block Values Report
- Report/Point report menu: The Ansys Icepak Menus, Point Reports
- Report/Show optimization/param results menu: The Ansys Icepak Menus
- Report/Solar loads menu: The Ansys Icepak Menus
- Report/Solution overview/Create menu: The Ansys Icepak Menus, Reviewing a Solution
- Report/Solution overview/View menu: The Ansys Icepak Menus, Reviewing a Solution
- Report/Summary report menu: The Ansys Icepak Menus, Summary Reports
- Report/Write Autotherm file menu: The Ansys Icepak Menus, Saving an AutoTherm File, Write Sentinel TI HTC File
- reports: Generating Reports
- EM heat losses: EM Heat Losses Report
- fan operating point: Fan Operating Points Report
- files: Cleaning up the Project Data
- full: Full Reports
- transient simulation: Full Reports
- HTML: HTML Reports
- loading format: HTML Reports
- network blocks
- internal node temperatures: Network Block Values Report
- point: Point Reports
- transient
simulation: Point Reports
- saving format: HTML Reports, Summary Reports, Point Reports
- summary: Defining Reports, Summary Reports
- transient simulation: Summary Reports
- transient simulations: Generating a Report
- variables: Variables Available for Reporting, Variables for Postprocessing and Reporting
- rescaling vectors: Managing Postprocessing Objects
- resetting variation plots: Variation Plots
- residual files: Solver Files
- residual
reduction rate criteria: Multigrid Method
- residuals: Initializing the Solution, Defining Solution Monitors, Diagnostic Tools for Technical Support
- definition of: Solution Residuals
- monitoring: Solution Residuals
- plotting: Plotting Residuals
- reduction rate: Multigrid Method
- scaling
of: Solution Residuals
- resistance: Resistances
- approach
velocity: Resistances, Pressure Drop Calculation for a 3D Resistance, Adding a Resistance to Your Ansys Icepak Model
- creating: Adding a Resistance to Your Ansys Icepak Model
- device velocity: Resistances, Pressure Drop Calculation for a 3D Resistance, Adding a Resistance to Your Ansys Icepak Model
- flow
- pressure drop: Pressure Drop Calculation for a 3D Resistance
- free area ratio: Resistances, Pressure Drop Calculation for a 3D Resistance
- heat transfer coefficient: Adding a Heat Exchanger to Your Ansys Icepak Model
- loss
coefficient: Modeling the Pressure Loss through a Heat Exchanger, Resistances, Pressure Drop Calculation for a 3D Resistance, Adding a Resistance to Your Ansys Icepak Model
- meshing: Resistances, Meshing Parameters for Resistances
- power law: Resistances, Pressure Drop Calculation for a 3D Resistance, Adding a Resistance to Your Ansys Icepak Model
- pressure drop: Resistances, Pressure Drop Calculation for a 3D Resistance
- species: User Inputs for Species Transport Simulations
- transient simulations: Adding a Resistance to Your Ansys Icepak Model, User Inputs for Transient Simulations
-
Resistance curve window: User Inputs for a Simplified Heat Sink
-
Resistances dialog box: Adding a Resistance to Your Ansys Icepak Model
- resizing
- Ansys Icepak Windows: The Main Window
- cabinet: Resizing the Cabinet
- object: Resizing Objects within a Model, Resizing an Object
- restarting
the solution: Using the Solve Panel to Set the Solver Controls
- Restore complex defaults: The Ansys Icepak Menus
- restriction: Multigrid Method
- Reverse orientation button: The Ansys Icepak Toolbars
- Reynolds averaging: Advanced Turbulence Models
- Reynolds number: Forced- or Natural-Convection Effects, Initializing the Solution, Buoyancy-Driven Flows and Natural Convection
- Rotate
about screen normal button: The Ansys Icepak Toolbars
- rotating
- cabinet: Repositioning the Cabinet
- merged model data: Geometric Transformations
- model: Rotating a Model
- object: Repositioning an Object, Copying an Object
- roughness: Editing an Existing Material
- round-off error: Solution Residuals
- Run optimization button: The Ansys Icepak Toolbars
- Run solution button: The Ansys Icepak Toolbars, Defining Solution Monitors, Using the Solve Panel to Set the Solver Controls
S
- sample session: Sample Session
-
Save image dialog box: Saving Image Files
-
Save object dialog
box: CSV/Excel Files
- Save picture file: File Selection Dialog Boxes
- Save project button: The Ansys Icepak Toolbars, Saving a Project File, The File commands Toolbar
-
Save project dialog
box: File Selection Dialog Boxes, Saving a Project File
-
Save table dialog box: Setting Up the Power and Temperature Limit Values
- saving
- active
objects: Saving a Project File
- assembly: Saving an Assembly
- assembly structure: Saving a Project File
- blower curve: Adding a Blower to Your Ansys Icepak Model
- contour plot: Contour Attributes
- fan curve: Adding a Fan to Your Ansys Icepak Model, Using the Fan curve Window to Specify the Curve for a Characteristic
Curve Fan Type
- files: File Selection Dialog Boxes
- grille
curve: Adding a Grille to Your Ansys Icepak Model, Using the Pressure drop curve Window to Specify the Curve for
a Grille
- group: Saving a Group as a Project
- log files: The Message Window
- materials: Saving Materials and Properties
- picture file: File Selection Dialog Boxes, Saving a Project File, Cleaning up the Project Data
- postprocessing objects: Saving a Project File, Managing Postprocessing Objects
- postprocessing
views: Managing Postprocessing Objects
- pressure drop curve: User Inputs for a Simplified Heat Sink
- project: Saving a Project File, Creating a New Project
- active objects: Saving a Project File
- assembly structure: Saving a Project File
- at specified interval: Results Solution Control Options
- mesh data: Saving a Project File
- picture file: Saving a Project File
- postprocessing objects: Saving a Project File
- solution
data: Saving a Project File
- report
- full: Full Reports
- point: Point Reports
- summary: Using the Solve Panel to Set the Solver Controls, Summary Reports
- report
format: HTML Reports, Summary Reports, Point Reports
- resistance curve: Adding a Resistance to Your Ansys Icepak Model
- solution data: Results Solution Control Options
- thermal
resistance curve: User Inputs for a Simplified Heat Sink
- trials plot: Trials Plots
- variation plot: Variation Plots
- view factors: User Inputs for Specification of Radiation Using the Form factors
Panel
- scalar variables: General Information about Variables
- scale (in a GUI panel): Control Panels
- scale to fit: Using the Context Menus in the Graphics Display Window
- Scale to
fit button: The Ansys Icepak Toolbars
- scaling
- cabinet: Resizing the Cabinet, Repositioning the Cabinet
- merged model data: Geometric Transformations
- object: Repositioning an Object, Copying an Object
- project: Display Options
- vectors: Vector Attributes
- scratch files: Cleaning up the Project Data
- screens: Planar Resistances
- script files: Solver Files, Advanced Solution Control Options
-
Search fan library dialog box: Loading a Pre-Defined Fan Object
-
Search package library dialog box: Loading a Pre-Defined Package Object
- second-order accuracy: Choosing the Discretization Scheme, Spatial Discretization
- Selected solid shading: The Ansys Icepak Menus
- selecting
- assembly: Selecting an Assembly
- files: File Selection Dialog Boxes
- object: Selecting Objects within a Model, Selecting and Deselecting an Object
-
Selection dialog box: Saving Materials and Properties
- Sentinel TI: Write Sentinel TI HTC File
- sequential
solution: Overview of Numerical Scheme
- serial
solver: Parallel Processing
- set levels: Using the Context Menus in the Graphics Display Window
- set orientation (see set
orientation)
-
Set range dialog box: Using the Temperature value curve Window, Using the Pressure drop curve Window to Specify the Curve for
a Grille, Using the Fan curve Window to Specify the Curve for a Characteristic
Curve Fan Type, Using the Time/value curve Window to Specify a Piecewise Linear
Variation With Time
- setting up a problem: Problem Solving Steps
- setup
- power and temperature: Setting Up the Power and Temperature Limit Values
- shading: The Ansys Icepak Menus, Editing the Graphical Styles
- contour plot: Contour Attributes
- group: Changing the Graphical Style of a Group
- hidden line: Using the Context Menus in the Graphics Display Window
- object: Graphical Style
- selected solid: Using the Context Menus in the Graphics Display Window
- solid: Using the Context Menus in the Graphics Display Window
- solid/wire: Using the Context Menus in the Graphics Display Window
- wire: Using the Context Menus in the Graphics Display Window
- shift +right-click: Changing the Mouse Controls
- Shininess: The Ansys Icepak Menus
- SIMPLE algorithm: Spatial Discretization
- single-precision solvers: Selecting the Version of the Solver
- single-selection list: Control Panels
- SIwave powermap files: Gradient, Cadence, and Apache Sentinel Powermap Files
- size
- object: Position and Size
- skewness: Mesh Quality, Checking the Skewness
- slider bar: Control Panels
- snap to grid: Repositioning the Cabinet
-
Snap to grid dialog box: Repositioning the Cabinet
- Solar load model
- solar participation: Modeling Solar Radiation Effects
- user inputs: Modeling Solar Radiation Effects
- solid material
- default: Default Fluid, Solid, and Surface Materials
- properties: Editing an Existing Material
-
Solid specific heat dialog box: Defining Properties Using Temperature-Dependent Functions
- solution
- accuracy: Spatial Discretization
- batch
file: Batch Processing of Ansys Icepak Projects on a Windows Machine
- calculating: Calculating a Solution, General Procedure for Setting Up and Calculating a Solution, Performing Calculations
- on another computer: Advanced Solution Control Options
- cascade modeling: Zoom-In Modeling
- continuation of: Using the Solve Panel to Set the Solver Controls
- control: Setting the Solver Controls
- advanced options: Advanced Solution Control Options
- results options: Results Solution Control Options
- convergence: Judging Convergence, Solution Residuals
- criteria: Initializing the Solution
- copying data: Saving a Project File
- diagnostic
tools: Diagnostic Tools for Technical Support
- discretization scheme: Choosing the Discretization Scheme
- ending: Ending the Calculation
- examining results of: Examining the Results
- initial conditions: Initial Conditions
- initializing: Initializing the Solution
- linear solver advanced controls: Selecting Linear Solver Advanced Controls
- monitoring: Monitoring the Solution, The Solution residuals Graphics Display and Control Window, Changing the Solution Monitors During the Calculation
- multigrid: Selecting the Multigrid Scheme
- numerical
scheme: Overview of Numerical Scheme
- overview: Reviewing a Solution
- parallel: Parallel Processing
- parameters: Setting the Solver Controls
- under-relaxation: Setting Under-Relaxation Factors
- plotting residuals: Plotting Residuals
- precision: Selecting the Version of the Solver
- procedure: Setting Under-Relaxation Factors
- restarting: Using the Solve Panel to Set the Solver Controls
- reuse existing input files: Advanced Solution Control Options
- script file: Advanced Solution Control Options
- serial: Parallel Processing
- setup procedure: General Procedure for Setting Up and Calculating a Solution
- under-relaxation: Setting Under-Relaxation Factors, Spatial Discretization
- variables: Solution Variables
- postprocessing: Solution Variables
- version: Selecting a Solution Set to be Examined
-
Solution dialog box: Reviewing a Solution
- Solution ID button: The Ansys Icepak Toolbars
- Solution monitor definition dialog box: Plotting Residuals, Changing the Solution Monitors During the Calculation
- Solution monitor parameters dialog box: Defining Solution Monitors
-
Solution residuals window: Graphics Windows, Plotting Residuals, Starting the Calculation, The Solution residuals Graphics Display and Control Window
- Solution settings node: The Model manager Window
- Advanced settings: The Model manager Window
- Basic settings: The Model manager Window
- Parallel settings: The Model manager Window
- solve
- create krylov rom: The Ansys Icepak Menus
- define report: The Ansys Icepak Menus
- define trials: The Ansys Icepak Menus
- diagnostics: The Ansys Icepak Menus
- patch temperatures: The Ansys Icepak Menus
- run optimization: The Ansys Icepak Menus
- run solution: The Ansys Icepak Menus
- settings: The Ansys Icepak Menus
- solution monitor: The Ansys Icepak Menus
- Solve dialog box: Using the Solve Panel to Set the Solver Controls, Batch Processing of Ansys Icepak Projects on a Windows Machine
-
Solve menu: The Ansys Icepak Menus, Overview
- Solve/Create Krylov ROM menu: The Ansys Icepak Menus
- Solve/Define report menu: The Ansys Icepak Menus, Defining Reports
- Solve/Define trials menu: The Ansys Icepak Menus, Defining Trials
- Solve/Diagnostics menu: The Ansys Icepak Menus, Diagnostic Tools for Technical Support
- Solve/Patch temperatures: The Ansys Icepak Menus
- Solve/Run optimization menu: The Ansys Icepak Menus
-
Solve/Run solution menu: The Ansys Icepak Menus, Defining Solution Monitors, Using the Solve Panel to Set the Solver Controls
-
Solve/Settings menu: The Ansys Icepak Menus
- Solve/Settings/Advanced menu: The Ansys Icepak Menus, Choosing the Discretization Scheme
- Solve/Settings/Basic menu: The Ansys Icepak Menus, Initializing the Solution
- Solve/Settings/Parallel menu: The Ansys Icepak Menus, Parallel Processing
- Solve/Solution monitor menu: The Ansys Icepak Menus, Plotting Residuals, Changing the Solution Monitors During the Calculation
- solver: What is Ansys Icepak?, Solver
- control: Using the Solve Panel to Set the Solver Controls
- advanced
options: Advanced Solution Control Options
- results
options: Results Solution Control Options
- discretization: Spatial Discretization
- double-precision: Selecting the Version of the Solver
- files: Solver Files
- input: Solver Files
- output: Solver Files
- linear solver advanced controls: Selecting Linear Solver Advanced Controls
- linearization: Overview of Numerical Scheme
- multigrid: Spatial Discretization, Multigrid Method
- numerical
scheme: Overview of Numerical Scheme
- overview of: Overview of Numerical Scheme
- parallel: Parallel Processing
- precision: Selecting the Version of the Solver
- serial: Parallel Processing
- single-precision: Selecting the Version of the Solver
- source: Sources
- creating: Adding a Source to Your Ansys Icepak Model
- heat parameters: Thermal Options, User Inputs for Thermal specification
- joule heating: User Inputs for Thermal specification
- meshing: Meshing Parameters for Sources
- radiation: Adding a Source to Your Ansys Icepak Model, Radiation Modeling for Objects
- emissivity: User Inputs for Specification of Radiation in Individual Object
Panels
- specification: User Inputs for Specification of Radiation in Individual Object
Panels
- species: User Inputs for Species Transport Simulations
- temperature dependent: Thermal Options, User Inputs for Thermal specification
- transient simulations: Adding a Source to Your Ansys Icepak Model, User Inputs for Transient Simulations
- using: Source Usage
- Sources dialog box: Adding a Source to Your Ansys Icepak Model
- Spalart-Allmaras
model: Advanced Turbulence Models
- spatial power profile: Specifying a Spatial Power Profile
- species: Species Transport Modeling
- adding: User Inputs for Species Transport Simulations
- augmentation: User Inputs for Species Transport Simulations
- boundary conditions: User Inputs for Species Transport Simulations
- concentration: User Inputs for Species Transport Simulations
- concentrations: User Inputs for Species Transport Simulations
- filtering: User Inputs for Species Transport Simulations
- heat flow: Species-Transport-Related Quantities
- initial concentrations: User Inputs for Species Transport Simulations
- inputs
for transport: User Inputs for Species Transport Simulations
- material properties: Overview of Modeling Species Transport
- order of: User Inputs for Species Transport Simulations
- properties: Overview of Modeling Species Transport
- specification: User Inputs for Species Transport Simulations
- transient
simulations: User Inputs for Species Transport Simulations
- transport
- postprocessing: Postprocessing for Species Calculations
- transport equations: Species Transport Equations
- variables: Species-Transport-Related Quantities
- specific heat: Editing an Existing Material
- specific heat capacity: Overview of Modeling Species Transport
- Specular reflectance: The Ansys Icepak Menus
- speed: Variables Available for Reporting, Velocity-Related Quantities
-
Square Wave Time-Step
Parameters dialog box: User Inputs for Transient Simulations
- stability: Spatial Discretization
- stacked die packages
- gradient powermap files: Gradient Powermap Files for Stacked Die Packages
- starting Ansys Icepak: Starting Ansys Icepak
- on a Linux system: Starting Ansys Icepak on a Linux System
- on a Windows system: Starting Ansys Icepak on a Windows System
- startup options for Linux systems: Startup Options for Linux Systems
- startup screen: Startup Screen
- state-space characterization: State-Space Characterization
- static
pressure: Pressure-Related Quantities
- steady-state calculation: Time Variation
- stiffener: Adding PCB Attachments to Your Ansys Icepak Model
- summary
- assembly: Summary Information for an Assembly
- material: Object and Material Summaries
- object: Object and Material Summaries
- Summary output
- files: Cleaning up the Project Data
- summary report: Defining Reports, Summary Reports
- Summary report button: The Ansys Icepak Toolbars, Defining Reports, Summary Reports
- support engineer
- when to call: When To Call Your Ansys Icepak Support Engineer
- surface: The Model manager Window
- high
side: Definitions of Object-Specific Meshing Parameters
- low side: Definitions of Object-Specific Meshing Parameters
- material
- default: Default Fluid, Solid, and Surface Materials
- properties: Editing an Existing Material
- node: The Model manager Window, The Surfaces Node Context Menus
- plane cut: Displaying Results on Cross-Sections of the Model
- Surface
probe button: The Ansys Icepak Toolbars, Displaying Results at a Point
- surface roughness: Editing an Existing Material, Surface Roughness, Surface Roughness, Surface Roughness
- surface-to-surface radiation model: Radiation Modeling, Radiation Modeling for Objects, The Surface-to-Surface Radiation Model
- adaptive method: User Inputs for Specification of Radiation Using the Form factors
Panel
- objects to include in calculation: User Inputs for Specification of Radiation Using the Form factors
Panel
- specification
for individual objects: User Inputs for Specification of Radiation in Individual Object
Panels
- using Form factors
: User Inputs for Specification of Radiation Using the Form factors
Panel
- view factors
- computing: User Inputs for Specification of Radiation Using the Form factors
Panel
- displaying: User Inputs for Specification of Radiation Using the Form factors
Panel
- editing: User Inputs for Specification of Radiation Using the Form factors
Panel
- saving: User Inputs for Specification of Radiation Using the Form factors
Panel
- swirling flow: Spatial Discretization
- turbulence modeling in: Advanced Turbulence Models
- system environment
variables: Environment Variables on Linux Systems
T
- tabs: Control Panels
- geometry: Control Panels
- info: Control Panels
- notes: Control Panels
- properties: Control Panels
- temperature: Variables Available for Reporting, Temperature-Related Quantities
- reference: Temperature-Related Quantities
- variables: Temperature-Related Quantities
- Temperature dependent power dialog box: User Inputs for Thermal specification, User Inputs for the Thermal Model, User Inputs for the Block Thermal Specification
- temperature limits
- compare: Comparing the Object Temperatures with the Temperature Limits
-
Temperature or velocity dependent
fluid conductivity dialog box: Defining Properties Using Velocity-Dependent Functions
- temperature variables: Solution Variables
- postprocessing: Solution Variables
- temperature-dependent material parameters: Defining Properties Using Temperature-Dependent Functions
-
Temperature/value curve window: Using the Temperature value curve Window
- temporal discretization: Time Discretization
-
TERM
: Environment Variables on Linux Systems
- termination criteria: Multigrid Method
-
Text editor
: Using the Curve specification Panel, Using the Curve specification Panel to Specify the Pressure
Drop Curve for a Grille, Using the Curve specification Panel to Specify the Curve for
a Characteristic Curve Fan Type, User Inputs for a Simplified Heat Sink, Using the Curve specification Panel to Specify a Piecewise
Linear Variation With Time
- text window: Miscellaneous Options
- texture
- group: Changing the Graphical Style of a Group
- object: Graphical Style
- thermal conductivity: Editing an Existing Material, Overview of Modeling Species Transport
- anisotropic: Editing an Existing Material
- parameterization: Defining a Parameter in an Input Field
- biaxial: Editing an Existing Material
- orthotropic: Editing an Existing Material
- variables: Thermal Conductivity-Related Quantities
- thermal resistance: Variables Available for Reporting
- This project button: Configuring a Project, Editing the Library Paths
- time variation: Time Variation
- time-dependent calculations: Transient Simulations
- time-dependent variables: Specifying Variables as a Function of Time
- Time/value curve window: Using the Time/value curve Window to Specify a Piecewise Linear
Variation With Time
- title: Graphics Windows, Creating a New Project
- moving: Moving the Display Identifiers
- Title: File Selection Dialog Boxes
- Title/notes dialog box: The Model manager Window, Creating a New Project
-
TKE
: Variables Available for Reporting
- toolbars
- Ansys Icepak: The Ansys Icepak Toolbars
- Ansys Icepak in Workbench: The Ansys Icepak Toolbar
- tooling holes: Overview of Importing IDF Files into Ansys Icepak
- Top side surface properties dialog box: User Inputs for BGA Packages
- total area
- assembly: Total Area of an Assembly
- total volume
- assembly: Total Volume of an Assembly
- trace
- boundary conditions: Trace Heating Boundary Conditions
- files: Importing Trace Files into Ansys Icepak
- heating: Trace Heating
- mesh: Meshing Parameters for Traces
- transformations
- cabinet: Resizing the Cabinet, Repositioning the Cabinet, Resizing an Object
- merging model data: Geometric Transformations
- object: Repositioning an Object, Copying an Object
-
Transient animation dialog
box: Creating an Animation
-
Transient
current dialog box: User Inputs for Transient Simulations
- Transient fan strength dialog box: User Inputs for Transient Simulations
-
Transient heat tr coeff dialog box: User Inputs for Transient Simulations
-
Transient parameters dialog box: User Inputs for Transient Simulations
-
Transient power dialog box: User Inputs for Transient Simulations
-
Transient power/area dialog box: User Inputs for Transient Simulations
-
Transient pressure dialog box: User Inputs for Transient Simulations
- Transient settings button: The Ansys Icepak Toolbars, Examining Results at a Specified Time
- transient simulations: Time Variation, Transient Simulations
- animation: Creating an Animation
-
Basic parameters panel
: User Inputs for Transient Simulations
-
Basic settings panel
: User Inputs for Transient Simulations
- block: User Inputs for Transient Simulations
- fan: User Inputs for Transient Simulations
- history
plot: Creating a History Plot
- initial conditions: User Inputs for Transient Simulations
- iterations: User Inputs for Transient Simulations
- opening: User Inputs for Transient Simulations
- plate: User Inputs for Transient Simulations
- postprocessing: Postprocessing for Transient Simulations
- report: Generating a Report
- full: Full Reports
- point: Point Reports
- summary: Summary Reports
- resistance: User Inputs for Transient Simulations
- saving: User Inputs for Transient Simulations
- solving: User Inputs for Transient Simulations
- source: User Inputs for Transient Simulations
- specifying
variables as a function of time: Specifying Variables as a Function of Time
- user inputs: User Inputs for Transient Simulations
- variation of temperature with time: User Inputs for Transient Simulations
- wall: User Inputs for Transient Simulations
-
Transient
temperature dialog box: User Inputs for Transient Simulations
-
Transient
X velocity dialog box: User Inputs for Transient Simulations
-
Transient Y velocity dialog box: User Inputs for Transient Simulations
-
Transient Z velocity dialog
box: User Inputs for Transient Simulations
-
Transients dialog box: Displaying the Variation of Transient Parameters with Time
- translating
- assembly: Editing Properties of an Assembly
- cabinet: Repositioning the Cabinet
- merged model data: Geometric Transformations
- model: Translating a Model
- object: Translating Objects within a Model, Repositioning an Object, Copying an Object
- transparency
- %: Using the Context Menus in the Graphics Display Window
- group: Changing the Graphical Style of a Group
- object: Graphical Style
- Off: Using the Context Menus in the Graphics Display Window
- transport equation
- coupling
SST transport and transition model: Advanced Turbulence Models
- transition
SST model: Advanced Turbulence Models
- Trash node: The Model manager Window, The Trash Node Context Menus
- trials: Overview of Parameterization
- defining: Defining Trials
- export: Import and Export of Trial Data
- import: Import and Export of Trial Data
- plot: Trials Plots
- set range: Trials Plots
- reporting and plotting: Function Reporting and Plotting
- running: Running Trials
- multiple trials: Running Multiple Trials
- single trial: Running a Single Trial
- saving: Running Multiple Trials
- selecting: Selecting Trials
- Trials plot button: The Ansys Icepak Toolbars, Trials Plots
-
Trials plot dialog box: Trials Plots
-
Trials plot window: Trials Plots
- turbulence: Flow Regime, Turbulence
- buoyancy effects: Advanced Turbulence Models
- enhanced two-equation model: Flow Regime, Advanced Turbulence Models
- K-ω
SST: Flow Regime
- mixing-length model: Zero-Equation Turbulence Model
- modeling: Advanced Turbulence Models
- production: Advanced Turbulence Models
- realizable k-ε model: Advanced Turbulence Models
- realizable k-ε model: Flow Regime
- RNG k-ε model: Flow Regime, Advanced Turbulence Models
- RNGk-ε model: Advanced Turbulence Models
- Spalart-Allmaras
model: Flow Regime, Advanced Turbulence Models
- standard k-ε model: Flow Regime, Advanced Turbulence Models
- two-equation
model: Flow Regime, Advanced Turbulence Models
- variables: Turbulence-Related Quantities
- zero-equation model: Flow Regime, Zero-Equation Turbulence Model
- turbulent
dissipation rate: Variables Available for Reporting, Turbulence-Related Quantities
- turbulent
kinetic energy: Variables Available for Reporting, Turbulence-Related Quantities
- turbulent viscosity: Flow Regime, Advanced Turbulence Models
- turbulent
viscosity ratio: Variables Available for Reporting
- tutorial: Sample Session, Accessing Online Help