Consistent phase-field modeling of dynamic ductile fracture in shear-deformable curved shells
Van-Hoi Nguyen, Minh-Chien Trinh, Hyungmin Jun†
International Journal of Plasticity, 203:104751·2026. 06. 18
Publications
Our Contributions to Knowledge – Please have a look at our most recent publications.
2026
Highlights
Shear-Deformable Phase-Field Fracture Framework
This study develops a consistent phase-field framework for dynamic ductile fracture in curved shells. It integrates transverse shear deformation, plane-stress plasticity, and coupled geometric and material nonlinearities within a robust shell formulation.
Numerical Benchmarks and Fracture Predictions
Numerical benchmarks reproduce published fracture responses under static and dynamic loading. The framework captures crack initiation, propagation, curving, branching, and crack-tip velocities in thin and moderately thick shells.
A novel stability-preserving load regulation for coupled thermomechanical buckling optimization of shell structures
Thanh Thien Banh, Minh-Chien Trinh, Hyungmin Jun†
Computer Methods in Applied Mechanics and Engineering, 453:118809·2026. 05. 01
Highlights
Stability-Preserving Load Regulation (SPLR) for Thermomechanical Buckling
To resolve numerical instabilities in conventional buckling analyses, this study introduces the SPLR scheme. This maintains the positive definiteness of the stiffness matrix throughout the optimization process and suppresses complex eigenvalues, ensuring reliable and physically meaningful buckling evaluations.
Multimaterial Topology Optimization and RACM Application for Shells
The Refined Adaptive Continuation Method (RACM) is extended to multimaterial systems to enhance convergence and numerical robustness. Furthermore, using the MITC4 element eliminates shear locking, thereby optimizing the thermomechanical buckling performance of complex curved shell structures.
A novel stability-preserving load regulation scheme for thermoelastic vibration optimization
Thanh Thien Banh, Minh-Chien Trinh, Hyungmin Jun†
Engineering with Computers, 42:50·2026. 02. 17
Partition of unity-based tetrahedral element for nonlinear structural analysis of nearly incompressible hyperelastic materials
Taejung Lim, Minh-Chien Trinh, Hyungmin Jun†
Finite Elements in Analysis and Design, 254:104464·2026. 02. 01
Highlights
Development of the Partition of Unity-based Four-node Tetrahedral Element
The paper introduces TET4E, a refined element using the Partition of Unity method to enrich displacement fields and eliminate volumetric locking in nearly incompressible materials. It integrates Mooney-Rivlin and Neo-Hookean models within a Total Lagrangian framework to accurately handle large deformations without adding nodes.
Nonlinear Modal Analysis and Numerical Validation
This study validates TET4E using a new iterative procedure for nonlinear modal analysis to capture amplitude-dependent frequencies and mode shapes. Numerical examples, such as soft robots and distorted plates, demonstrate its superior accuracy and convergence over traditional elements, even with coarse meshes.
Computer-aided design software and simulation tools for DNA nanoparticles
Trinh, M.C., Jun, H.†
Advanced Materials Technologies, 11(4):e00438·2026. 02. 19
Highlights
Classification of DNA Nanoparticle CAD Software
This review chronologically examines computer-aided design (CAD) software designed to overcome limitations of manual design. It categorizes design methodologies into bottom-up and top-down strategies, encompassing tile-based and frame-based architectures.
Simulation Methodologies and Future Prospects
The study classifies simulation tools into finite-element and coarse-grained molecular dynamics models. It highlights future needs, including unified automation platforms and deep learning integration to conserve time and effort.
2025
Stochastic static behaviors and dynamic responses of penta-graphene plates
Trinh, M.C., Jun, H.*(Contributed Equally), Duc, N.D., Kim, S.E., Thai, D.K.
Structural Engineering and Mechanics, 95(2): 113-127·2025. 07. 25
2024
Fracture behavior of thermal mismatch in functionally graded materials using phase-field modeling
Nguyen, V.H., Trinh, M.C. and Jun, H.†
Engineering Fracture Mechanics, 310:110433·2024. 11. 08
Highlights
Phase-Field Modeling for FGM Thermal Fracture
This paper presents a phase-field model to analyze thermal-mismatch fracture behavior in functionally graded materials (FGMs). By homogenizing fracture resistance via the rule of mixtures , the model accurately captures complex experimental crack patterns in bi-material plates, showing better agreement with experimental data than theoretical models.
Crack and Energy Evolution in Various Plate Shapes
The validated model is applied to investigate thermal fractures in circular, square, and triangular FGM plates. It provides a fundamental understanding of fracture mechanisms by analyzing three key aspects: damage fields for crack propagation, principal stress fields in fracture-critical regions, and energy evolution during deformation.
2023
Ligamentous tethering and intradiscal pressure affecting the mechanical environment of scoliotic spines
Nafo, W., Guldeniz, O., Jun, H., Kim, E.
Medical Engineering & Physics, 104035·2023. 08. 16
Stochastic bending and buckling analysis of laminated composite plates using Latin hypercube sampling
Trinh, M.C. and Jun, H.†
Engineering with Computers 39: 1459-97·2023. 08. 16
Geometrically nonlinear analysis of functionally graded composite shells using MITC4 and MITC9 elements
Trinh, M.C. and Jun, H.†
Thin-Walled Structures, 185: 110632·2023. 04. 16
2022
Planar 2D wireframe DNA origami
Wang, X., W., Li, S., Jun, H.*, John, T., Zhang, K., Fowler, H., Doye, J., Chiu, W., Bathe, M.
Science Advances, 8: eabn0039·2022. 05. 16
Programming 2D Supramolecular Assemblies with Wireframe DNA Origami
Wang, X., Jun, H., Bathe
Journal of the American Chemical Society, 144: 4403-9·2022. 03. 16
Self-updated four-node finite element using deep learning
Jung, J., Jun, H., Lee, P.S.
Computational Mechanics, 63: 23-44·2022. 01. 16
2021
Rapid prototyping of arbitrary 2D and 3D wireframe DNA origami
Jun, H.*, Wang, X., Parsons, M., Bricker, W., Torsten, J., Li, S., Jackson, S., Chiu, W., Bathe, M.
Nucleic Acids Research, 49(18): 10265-74·2021. 09. 16
Continuum-based modeling of collective cell migration
Jun, H.*, Kim, J.J., Jang, H., Park, Y., Shim, E.B.
Journal of Mechanical Science and Technology, 35: 4271-7·2021. 08. 16
Stochastic free vibration analysis of functionally graded beams using artificial neural networks
Trinh, M.C. and Jun, H.†
Structural Engineering and Mechanics, 78(5): 529-43·2021. 06. 16
A higher-order quadrilateral shell finite element for geometrically nonlinear analysis
Trinh, M.C. and Jun, H.†
European Journal of Mechanics / A Solids, 89: 104283·2021. 04. 01
A computer vision-based approach for behavior recognition of gestating sows fed different fiber levels during high ambient temperature
Kasani, P.H., Oh, S.M., Choi, Y.H., Ha, S.H., Jun, H., ...
Journal of Animal Science and Technology, 63(2): 367-79·2021. 03. 16
Stochastic buckling quantification of laminated composite plates using cell-based smoothed finite elements
Trinh, M.C., Jun, H., Nguyen-Thoi, T., Nguyen, S.N.
Thin-Walled Structures, 163: 107674·2021. 03. 16
2020
Rapid prototyping of wireframe scaffolded DNA origami using ATHENA
Jun, H.*, Wang, X., Parsons, M., Bricker, W., Jackson, S., Bathe, M.
bioRxiv·2020. 01. 16
New higher-order triangular shell finite elements based on the partition of unity
Jun, H.*,†
Structural Engineering and Mechanics, 73: 1-16·2020. 01. 16
2019
Automated sequence design of 2D wireframe DNA origami with honeycomb edges
Jun, H.*, Wang, X., Bricker, W., Bathe, M.
Nature Communications, 10: 5419·2019. 11. 16
Programming structured DNA assemblies to probe biophysical processes
Wamhoff, E., Banal, J., Bricker, W., Shepherd, Stone, M., Jun, H., Wang X., Bathe, M.,...
Annual Review Biophysics·2019. 01. 16
Automated sequence design of 3D polyhedral wireframe DNA origami with honeycomb edges
Jun, H.*, Shepherd, T., Zhang, K., Bricker, W., Li, S., Chiu W., Bathe, M.
ACS Nano, 13: 2083-93·2019. 01. 16
Autonomously designed free-form 2D DNA origami
Jun, H.*, Zhang, F., Ratanalert, S., Shepherd, T., Qi, X., Yan, H., Bathe, M.
Science Advances, 5: eaav0655·2019. 01. 16
2018
Benchmark tests of MITC triangular shell elements
Jun, H.*,†, Mukai, P., San, K.
Structural Engineering and Mechanics, 68: 17-38·2018. 10. 16
The MITC3+ shell element enriched in membrane displacements by interpolation covers
Jun, H.*, Yoon, K., Bathe, K.J., Lee, P.S.
Computer Methods in Applied Mechanics and Engineering, 337: 458-80·2018. 08. 16
2015
The modal behavior of the MITC3+ triangular shell element
Lee, Y., Jeon, H.M., Lee, P.S., Bathe, K.J.
Computers & Structures, 153: 148-64·2015. 06. 16
The MITC3+ shell element in geometric nonlinear analysis
Jeon, H.M.*, Lee, Y., Lee, P.S., Bathe, K.J.
Computers & Structures, 146: 91-104·2015. 01. 16
2014
The MITC3 shell finite element enriched by interpolation covers
Jeon, H.M.*, Lee, P.S., Bathe, K.J.
Computers & Structures, 134: 128-42·2014. 04. 01
2008
A new integrated method using a cell-hemodynamics-autonomic nerve control coupled model of the cardiovascular system
Shim, E.B., Jun, H.M., Leem, C.H., Matusuoka, S., Noma, A.
Progress in Biophysics and Molecular Biology, 96: 44-59·2008. 04. 01
2007
Theoretical analysis of the cross-bridge sliding rate in modulating heart mechanics
Jun, H.M.* and Shim, E.B.
International Journal of Vascular Biomedical Engineering, 5: 34-45·2007. 07. 10
IF n/a