## What is/are Thermomechanical Modeling?

Thermomechanical Modeling - Thermomechanical modeling of epoxy/graphene oxide under quasi-static and dynamic loading requires thermo-mechanical properties such as Young’s modulus, Poisson’s ratio, thermal conductivity, and frequency-temperature dependent viscoelastic properties.^{[1]}This paper addresses the thermomechanical modeling of the LPBF process in two aspects.

^{[2]}An electrical conductivity model has been developed and coupled with the existing thermomechanical modeling capability in the BISON nuclear fuel performance code.

^{[3]}The dataset presented here is associated with the article “Young Silicic Magmatism of the Greater Caucasus, Russia with implication for its delamination origin based on zircon petrochronology and thermomechanical modeling” [1].

^{[4]}The origin of sudden spikes of voluminous silicic magmatism is further investigated using thermomechanical modeling of the collisional environment.

^{[5]}Finite element thermomechanical modeling of the deflection dynamics in response to photothermal actuation was performed to determine the NCD and μCD thermal diffusivities and conductivities.

^{[6]}This paper presents a novel phase-field thermomechanical modeling framework for predicting complicated behaviors of thermal cracking in glass panes under fire.

^{[7]}This work utilizes in situ high-speed optical imaging combined with thermomechanical modeling to elucidate the effect of preheating and alloying with 2 wt% rare earth oxides on the cracking behavior in powderless single track and hatch strategy laser scans.

^{[8]}In this work, thermomechanical modeling of contactless laser ablation was implemented to analyze the sensitivity of independent variables on the optimal treatment conditions.

^{[9]}With the element birth and death technique in process-based thermomechanical modeling, substrate expansion could already be forecasted, and package assembly problems avoided.

^{[10]}In addition, depending on model complexity and available computational resources, a few heuristic-numerical models are potentially applicable in favor of more detailed thermomechanical modeling regarding i.

^{[11]}In engineering, it was commonly simulated by pure heat conduction-based thermomechanical modeling with an experimentally calibrated heat source model.

^{[12]}Thermomechanical modeling offers a path to study the complex nature of these bonded materials, guides their design and selection, and, in conjunction with experimental results, plays an important role in predicting their lifetime.

^{[13]}The analysis of the process is based in the thermomechanical modeling developed in the last years.

^{[14]}Results of thermomechanical modeling with a typical 0.

^{[15]}Here, we apply and further develop the large scale (crust and the upper mantle) I2VIS magmatic-thermomechanical modeling code to investigate the potential origins of chemical and isotopic trends in the Yellowstone hot spot track, perhaps the best studied and constrained subcontinental mantle plume system on Earth.

^{[16]}The measured deformations agree well with the results of thermomechanical modeling using finite element method simulations, and with the results of focal length shift measurements.

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