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 14

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caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

We’re comparing two different heat sink designs for an LED lamp with respect to their heat dissipation effectiveness. The LED itself is not visible, but from only seeing the heat sink temperature, can you spot which one performs better and why? - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy - Copy

caso 01 - Copy - Copy - Copy - Copy - Copy - Copy

our goal is to determine temperature of air from outlet of pipe , conjecutive heat transfer simulation type is going to use , in this project we have to determine temperature difference by atmospheric air go through pipe which is immersed in soil of temperature like 20 degree and then atmospheric air go through pipe is transfer heat and get cooled and comes outside from other end , pipe material we use is pvc

Goal is to see how much heat is dissipated between frontside and back side heat sink

Thermal analysis Copper bus bar 55mm with fins - Copy

Conjugate Heat Transfer (IBM) | SimScale Project Library | Page 14