In this paper, a phase-field approach for structural topology optimization for a 3D-printing process which includes stress constraints and potentially multiple materials or multiscales is analyzed. First-order necessary optimality conditions are rigorously derived and a numerical algorithm which implements the method is presented. A sensitivity study with respect to some parameters is conducted for a two-dimensional cantilever beam problem. Finally, a possible workflow to obtain a 3D-printed object from the numerical solutions is described and the final structure is printed using a fused deposition modeling (FDM) 3D printer
Advancement of additive manufacturing is driving a need for design tools that exploit the increasing...
This thesis a method is described to include manufacturing constraints of the additive manufacturing...
This work aims at introducing stress responses within a topology optimization framework applied to t...
In this paper, a phase-field approach for structural topology optimization for a 3D-printing process...
In this paper a phase-field approach for structural topology optimization for a 3D-printing process...
This work concerns a structural topology optimisation problem for 4D printing based on the phase fie...
In the present work we introduce a novel graded-material design based on phase-field and topology op...
Abstract In topology optimization the goal is to find the ideal material distribution in a domain su...
Topology optimization is an optimization method to reduce material usage while also enhance the tens...
The main aim of this project is to assess the use of topology optimization (TO) methods in additive...
Mechanical properties of 3d printed polymers have witnessed remarkable improvements as a result of o...
In recent developments in the field of multi-material additive manufacturing, differences in materia...
In this thesis a method is presented to couple additive manufacturing simulations with topology opti...
A multi‐material topology optimization scheme is presented. The formulation includes an arbitrary nu...
In recent years, Topology Optimization (TO) gained interest in the scientific community. It assists ...
Advancement of additive manufacturing is driving a need for design tools that exploit the increasing...
This thesis a method is described to include manufacturing constraints of the additive manufacturing...
This work aims at introducing stress responses within a topology optimization framework applied to t...
In this paper, a phase-field approach for structural topology optimization for a 3D-printing process...
In this paper a phase-field approach for structural topology optimization for a 3D-printing process...
This work concerns a structural topology optimisation problem for 4D printing based on the phase fie...
In the present work we introduce a novel graded-material design based on phase-field and topology op...
Abstract In topology optimization the goal is to find the ideal material distribution in a domain su...
Topology optimization is an optimization method to reduce material usage while also enhance the tens...
The main aim of this project is to assess the use of topology optimization (TO) methods in additive...
Mechanical properties of 3d printed polymers have witnessed remarkable improvements as a result of o...
In recent developments in the field of multi-material additive manufacturing, differences in materia...
In this thesis a method is presented to couple additive manufacturing simulations with topology opti...
A multi‐material topology optimization scheme is presented. The formulation includes an arbitrary nu...
In recent years, Topology Optimization (TO) gained interest in the scientific community. It assists ...
Advancement of additive manufacturing is driving a need for design tools that exploit the increasing...
This thesis a method is described to include manufacturing constraints of the additive manufacturing...
This work aims at introducing stress responses within a topology optimization framework applied to t...