|
| 1 | +% MOOSE |
| 2 | +% "Herein, an acoustic FSI formulation is implemented in ... (MOOSE)" |
| 3 | +% https://www.researchgate.net/publication/360076033_Development_verification_and_validation_of_comprehensive_acoustic_fluid-structure_interaction_capabilities_in_an_open-source_computational_platform |
| 4 | +@Article{Dhulipala_2022d, |
| 5 | + author = {Som Dhulipala and Chandrakanth Bolisetti and Lynn Munday and William Hoffman and Ching-Ching Yu and Faizan Ul Haq Mir and Fande Kong and Alexander D. Lindsay and Andrew Whittaker}, |
| 6 | + title = {Development, verification, and validation of comprehensive acoustic fluid-structure interaction capabilities in an open-source computational platform}, |
| 7 | + journal = {Earthquake Engineering \& Structural Dynamics}, |
| 8 | + month = aug, |
| 9 | + year = 2022, |
| 10 | + volume = 51, |
| 11 | + number = 10, |
| 12 | + pages = {2188--2219}, |
| 13 | + note = {\url{https://doi.org/10.1002/eqe.3659}, ResearchGate Preprint: \url{https://tinyurl.com/yckp6n4m}} |
| 14 | +} |
| 15 | + |
| 16 | +% MOOSE |
| 17 | +% Confirmed on ResearchGate that the authors use MOOSE |
| 18 | +@Article{Rizza_2022, |
| 19 | + author = {Giovanni Rizza and Manuela Galati and Luca Iuliano}, |
| 20 | + title = {{Sintering during Electron Beam--Powder Bed Fusion (EB-PBF) of Ti6Al4V Alloy}}, |
| 21 | + journal = {Defect and Diffusion Forum}, |
| 22 | + month = jul, |
| 23 | + year = 2022, |
| 24 | + volume = 417, |
| 25 | + pages = {73--78}, |
| 26 | + note = {\url{https://doi.org/10.4028/p-12866k}} |
| 27 | +} |
| 28 | + |
| 29 | +% MOOSE |
| 30 | +% Confirmed that the authors use MOOSE on Research Gate |
| 31 | +@Article{Pai_2022, |
| 32 | + author = {Namit Pai and Aditya Prakash and Indradev Samajdar and Anirban Patra}, |
| 33 | + title = {{Study of grain boundary orientation gradients through combined experiments and strain gradient crystal plasticity modeling}}, |
| 34 | + journal = {International Journal of Plasticity}, |
| 35 | + month = sep, |
| 36 | + year = 2022, |
| 37 | + volume = 156, |
| 38 | + pages = {103360 (xx pages)}, |
| 39 | + note = {\url{https://doi.org/10.1016/j.ijplas.2022.103360}} |
| 40 | +} |
| 41 | + |
| 42 | +% Bison |
| 43 | +% Confirmed on ResearchGate that BISON was used to design the experiments. |
| 44 | +@Article{Spencer_2022, |
| 45 | + author = {Benjamin W. Spencer and Nicolas E. Woolstenhulme and Jason L. Schulthess and Austin D. Fleming and Leigh A. Astle and D. {Devin Imholte} and Connie M. Hill and James R. Parry and Daniel B. Chapman and Charles P. Folsom and David Ban and Matthew R. Ramirez and Connor T. Woolum and Ju-Yuan Yeh and Mary Lou Dunzik-Gougar and Colby B. Jensen and Daniel M. Wachs}, |
| 46 | + title = {{Dry In-Pile Fracture Test (DRIFT) for separate-effects validation of ceramic fuel fracture models}}, |
| 47 | + journal = {Journal of Nuclear Materials}, |
| 48 | + month = sep, |
| 49 | + year = 2022, |
| 50 | + volume = 568, |
| 51 | + pages = {153816 (xx pages)}, |
| 52 | + note = {\url{https://doi.org/10.1016/j.jnucmat.2022.153816}} |
| 53 | +} |
| 54 | + |
| 55 | +% MOOSE |
| 56 | +% "All PFM simulations are performed using the open-source-code framework MOOSE..." |
| 57 | +@Article{Xuan_2022, |
| 58 | + author = {Changji Xuan and Wangzhong Mu}, |
| 59 | + title = {New insights of heterogeneous nucleation and anisotropic growth of acicular ferrite on non-metallic inclusion}, |
| 60 | + journal = {Materials \& Design}, |
| 61 | + month = sep, |
| 62 | + year = 2022, |
| 63 | + volume = 221, |
| 64 | + pages = {110892 (xx pages)}, |
| 65 | + note = {\url{https://doi.org/10.1016/j.matdes.2022.110892}} |
| 66 | +} |
| 67 | + |
| 68 | +% MOOSE |
| 69 | +% "The nonlinear physical simulations are solved within the Finite Element framework MOOSE..." |
| 70 | +@Misc{Guo_2022, |
| 71 | + author = {Theron Guo and Francesco A. B. Silva and Ond{\v{r}}ej Roko{\v{s}} and Karen Veroy}, |
| 72 | + title = {{Learning constitutive models from microstructural simulations via a non-intrusive reduced basis method: Extension to geometrical parameterizations}}, |
| 73 | + month = jul, |
| 74 | + year = 2022, |
| 75 | + howpublished = {ArXiv e-print}, |
| 76 | + note = {\url{https://arxiv.org/abs/2206.13627}} |
| 77 | +} |
| 78 | + |
1 | 79 | % libMesh |
2 | 80 | % "The methods are implemented in libMesh..." |
3 | 81 | % ResearchGate Preprint: https://www.researchgate.net/publication/358814241_Comparing_the_convected_level-set_and_the_Allen-Cahn_phase-field_methods_in_AMRC_simulations_of_two-phase_flows |
@@ -933,19 +1011,6 @@ @Article{Capps_2022 |
933 | 1011 | note = {\url{https://doi.org/10.1016/j.jnucmat.2022.153621}} |
934 | 1012 | } |
935 | 1013 |
|
936 | | -% libMesh |
937 | | -% "The reference simulations of the model are carried out using the libMesh finite element library..." |
938 | | -% ResearchGate Preprint: https://www.researchgate.net/publication/358919495_Data-driven_simulation_of_Fisher-Kolmogorov_tumor_growth_models_using_Dynamic_Mode_Decomposition |
939 | | -% author:viguerie author:grave author:barros fisher kolmogorov |
940 | | -@Misc{Viguerie_2022b, |
941 | | - author = {Alex Viguerie and Mal{\'{u}} Grave and Gabriel F. Barros and Guillermo Lorenzo and Alessandro Reali and Alvaro L. G. A. Coutinho}, |
942 | | - title = {{Data-driven simulation of Fisher--Kolmogorov tumor growth models using dynamic mode decomposition}}, |
943 | | - month = feb, |
944 | | - year = 2022, |
945 | | - howpublished = {ArXiv e-print}, |
946 | | - note = {\url{https://arxiv.org/abs/2202.13860}} |
947 | | -} |
948 | | - |
949 | 1014 | % MOOSE |
950 | 1015 | % "... the numerical simulation has been performed with the finite element method in the MOOSE framework ..." |
951 | 1016 | @phdthesis{Yao_thesis, |
|
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