This paper describes an approach for designing lightweight components produced through additive manufacturing (AM). Lightweight design is often done through topology optimization (TO). However, the process of manually interpreting mesh-based and imprecise results from a TO into a geometry that fulfils all requirements is complex. To aid in this process, this paper suggest an approach based on combining overhang-constrained TO with lattice-based TO to automate complex tasks, retain parametric control, and to minimize manufacturing cost. The approach is validated through a benchmark part
Topology optimization is a mathematical approach that deals with determination of connectivity, geom...
Topology optimisation enables profound insight into the optimal material distribution for a given st...
Additive manufacturing encompasses all technologies that produce three-dimensional objects, usually ...
Topology optimization is an optimization method that employs mathematical tools to optimize material...
Additive Manufacturing (AM), also known as rapid prototyping, rapid manufacturing, layer manufacturi...
This paper gives an overview of the issues and opportunities for the application of topology optimi...
Manufacturing-oriented topology optimization has been extensively studied the past two decades, in p...
The potential of topology optimization to amplify the benefits of additive manufacturing (AM), by fu...
With the development of additive manufacturing (AM), the constraints associated with traditional sub...
Topology optimization has become a subject of study unto itself in recent years, not only because it...
Topology optimization is widely used as a design tool for advanced application in mechanical, aerosp...
Designs to be manufactured by Additive Manufacturing (AM) are subject to geometrical restrictions wh...
The development of new materials and new manufacturing techniques have experienced a rapid developme...
Additive manufacturing (AM) offers exciting opportunities to manufacture parts of unprecedented comp...
Additive Manufacturing (AM) is a term used to group the different manufacturing processes that use v...
Topology optimization is a mathematical approach that deals with determination of connectivity, geom...
Topology optimisation enables profound insight into the optimal material distribution for a given st...
Additive manufacturing encompasses all technologies that produce three-dimensional objects, usually ...
Topology optimization is an optimization method that employs mathematical tools to optimize material...
Additive Manufacturing (AM), also known as rapid prototyping, rapid manufacturing, layer manufacturi...
This paper gives an overview of the issues and opportunities for the application of topology optimi...
Manufacturing-oriented topology optimization has been extensively studied the past two decades, in p...
The potential of topology optimization to amplify the benefits of additive manufacturing (AM), by fu...
With the development of additive manufacturing (AM), the constraints associated with traditional sub...
Topology optimization has become a subject of study unto itself in recent years, not only because it...
Topology optimization is widely used as a design tool for advanced application in mechanical, aerosp...
Designs to be manufactured by Additive Manufacturing (AM) are subject to geometrical restrictions wh...
The development of new materials and new manufacturing techniques have experienced a rapid developme...
Additive manufacturing (AM) offers exciting opportunities to manufacture parts of unprecedented comp...
Additive Manufacturing (AM) is a term used to group the different manufacturing processes that use v...
Topology optimization is a mathematical approach that deals with determination of connectivity, geom...
Topology optimisation enables profound insight into the optimal material distribution for a given st...
Additive manufacturing encompasses all technologies that produce three-dimensional objects, usually ...