Research & Publications Featuring DANTE

This study examines the effects of pack carburizing, a type of case-hardening heat treatment, and other heat treatment processes on the microstructure and behavior of AISI 1080 mild steel.

This study uses simulation to investigate microstructural evolution and kinetic parameters for quenching simulation to better and more accurately model phase transformations in high-strength alloy steels.

In this study, gradient boosting models were created to predict microstructural phase fractions and mechanical properties in order to optimize heat treatment processes through machine learning.

This article discusses the relevance of the Jominy End-Quench Test, which was foundational in estimating hardenability and comparing materials, after the development of other types of quench tests over the last two decades.

In this article, the hardening process for AISI 4140 steel tubes is designed and simulated using a commercial finite element heat treatment simulation software to better optimize the processes including induction heating, spray quenching, and tempering.

This articles studies the formation of residual stress in low carbon bainitic-martensitic rail wheels using a commercially available finite-element (FE) model to promote the development of compressive residual stress in the rail wheels.

This article is a study into attempting to predict deformation during the carburizing quenching heat treatment process using a multi-field model with the material properties of 8620RH.

This study attempts to create a material model based on several existing frameworks to move toward a more overall consistent modeling approach for quenching, welding, and/or heat treatment.

In this study and discussion on predicting the response of powder metallurgy steels to heat treatment, FL-4065 PM alloy was modeled to predict dimensional change, distortion, and residual stress.