
Draft Post 2 – Just a Random Title
Posted on October 11, 2025 by CSML Admin
The Computational Solid Mechanics Laboratory (CSML) at UC Berkeley explores the fundamental mechanics that govern materials, structures, and biological systems. Our work spans materials modeling, biomechanics, computational contact mechanics, continuum mechanics, and the dynamics of pseudo-rigid bodies. Through advanced computation and theory, we aim to understand and predict how complex materials and structures behave across scales.
The Computational Solid Mechanics Laboratory (CSML) at UC Berkeley explores the fundamental mechanics that govern materials, structures, and biological systems. Our work spans materials modeling, biomechanics, computational contact mechanics, continuum mechanics, and the dynamics of pseudo-rigid bodies. Through advanced computation and theory, we aim to understand and predict how complex materials and structures behave across scales.
The Computational Solid Mechanics Laboratory (CSML) at UC Berkeley explores the fundamental mechanics that govern materials, structures, and biological systems. Our work spans materials modeling, biomechanics, computational contact mechanics, continuum mechanics, and the dynamics of pseudo-rigid bodies. Through advanced computation and theory, we aim to understand and predict how complex materials and structures behave across scales.

The Computational Solid Mechanics Laboratory (CSML) at UC Berkeley explores the fundamental mechanics that govern materials, structures, and biological systems. Our work spans materials modeling, biomechanics, computational contact mechanics, continuum mechanics, and the dynamics of pseudo-rigid bodies. Through advanced computation and theory, we aim to understand and predict how complex materials and structures behave across scales.
The Computational Solid Mechanics Laboratory (CSML) at UC Berkeley explores the fundamental mechanics that govern materials, structures, and biological systems. Our work spans materials modeling, biomechanics, computational contact mechanics, continuum mechanics, and the dynamics of pseudo-rigid bodies. Through advanced computation and theory, we aim to understand and predict how complex materials and structures behave across scales.