Predictive Simulation Approach for Quenching Heat Treatment Optimization Using AVL FIRE™ M

Presented by: David Greif, PhD, Product Manger, AVL-AST


The automotive industry is facing demand for increased specific engine performance and lowest possible engine weights. Likewise, weight reduction is also an ongoing objective in the aerospace industry. Targets such as these are pushing designers toward the limits of material properties and heat treatment.

Quenching is a common heat treatment technique used in the production of cast or otherwise-produced metal components. In particular, the immersion or direct quenching process is a widely adopted procedure in the automotive and aerospace industries to minimize the formation of undesirable thermal and transformational gradients, which may lead to increased distortion and cracking. 

AVL FIRE™ M offers state-of-the art modeling functionality in the field of quenching. Various heat treatment approaches can be simulated: direct quenching in water or oil and air quenching. The structure and the quenchant fluid are simulated simultaneously, where the time and space resolved temperature distribution within the solid is thereafter applied as an input for Finite Element Analysis (FEA) of stresses and deformations with any standard FEA tool.

Webinar Outline

The webinar will outline the simulation approach for direct quenching featuring a realistic aluminum cylinder head. CFD and FEA results will be presented. The methodology will be explained as follows:

  • Step 1: Problem formulation
  • Step 2: Definition of domains; fluid side vs. solid side
  • Step 3: Single step multi-domain meshing
  • Step 4: Multi-material setup in FIRE™ M
  • Step 5: CFD simulation results
  • Step 6: Results transfer to FEA
  • Step 7: Stress results 

Who Should Attend?

Component designers, heat treatment designers and managers will gain a deep understanding about simulation possibilities for optimizing the heat treatment process in terms of controlling and minimizing the residual stresses and deformations.

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Tuesday, September 26th 10:00am EST/16:00 CET