Conjugate Heat Transfer (IBM)

Conjugate heat transfer (IBM) is a very robust method to simulate flow and heat transfer in complex CAD assemblies. It solves the same physics as Conjugate Heat Transfer v2.0 but immerses the CAD parts in a Cartesian background grid (Immersed Boundary Method) avoiding to resolve all parts in an exact way during meshing (body-fitted). It therefore is resilient to undesired details that are insignificant for the overall thermal behavior. It is particularly suited for early stage design studies on complex CAD assemblies like system-level electronics cooling or HVAC applications. Learn more. | Page 26

This project demonstrates the validity of the CHTv2 and IBM solver. through a Conjugate Heat Transfer (CHT) analysis of a battery pack.
 
Validation Experiment Reference:
A peer-reviewed publication on battery pack thermal validation  has been used as basis for this study (with reasonable assumptions and approximations): 
https://www.mdpi.com/1996-1073/10/8/1157

Un proyecto para extraer e impulsar aire dentro de una casa

CFD of Differential Compartment Size Sump

CHT simulation of an LED COB module luminaire with the Immersed boundary method for minimal preparation time and fast design iterations.

conjugate heat transfer over rooftop section - Copy - Copy - Copy

Realizar una simulación de un disipador de calor de un motor eléctrico.

The tutorial project is a sample Electronic cooling sink which consists of 3 solid regions and 1 fluid region. The solid regions are two FB-4 chips, which have a higher initial temperature and a heat sink over one of the chips. The air flows over the solid regions to remove the heat from it. - Copy

Trabalho com objetivo de simular a temperatura de um pack de 12V - Copy

This project demonstrates the validity of the CHTv2 and IBM solver. through a Conjugate Heat Transfer (CHT) analysis of a battery pack.
 
Validation Experiment Reference:
A peer-reviewed publication on battery pack thermal validation  has been used as basis for this study (with reasonable assumptions and approximations): 
https://www.mdpi.com/1996-1073/10/8/1157 - Copy

testing the dynamics of a empty grow layer

Calculating temp change as steam flows down an pipe