Highlights
Highlights
Our automated optimization processes respond flexibly to changing boundary conditions and extract the technically feasible maximum from every component.
Welded Consoles
Objective:
Reduction of stress concentrations at the console run-out before fatigue cracks can occur.
Method:
Fully automated shape finding
Sliding of the console across bended surfaces
Result:
Optimal console trajectory
Optimal console height
Optimal console thickness
All achieved in a single step and directly transferable to CAD.
Classic casting- & plastic-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape finding of the rib structure
Result:
Optimal height distribution of the ribs
Optimal thickness distribution in the base plate and ribs
All in a single step and easy to transfer to CAD.
Advanced casting- & plastic-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape and thickness optimization of the rib structure and the base surface
Result:
Optimal height distribution and shape of the ribs
Optimal shape of the base surface
Optimal thickness distribution in the base surface and ribs
The high-end level of component design. One click for an ideal, fully bionic design.
Solid- & forged-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape finding of the entire geometry based on a primitive starting design
Consideration of complex manufacturing constraints and load cases
Result:
Optimal component shape
The high-end level of component design. One click to generate an ideal design.
Welded Consoles
Objective:
Reduction of stress concentrations at the console run-out before fatigue cracks can occur.
Method:
Fully automated shape finding
Sliding of the console across bended surfaces
Result:
Optimal console trajectory
Optimal console height
Optimal console thickness
All achieved in a single step and directly transferable to CAD.
Classic casting- & plastic-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape finding of the rib structure
Result:
Optimal height distribution of the ribs
Optimal thickness distribution in the base plate and ribs
All in a single step and easy to transfer to CAD.
Advanced casting- & plastic-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape and thickness optimization of the rib structure and the base surface
Result:
Optimal height distribution and shape of the ribs
Optimal shape of the base surface
Optimal thickness distribution in the base surface and ribs
The high-end level of component design. One click for an ideal, fully bionic design.
Solid- & forged-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape finding of the entire geometry based on a primitive starting design
Consideration of complex manufacturing constraints and load cases
Result:
Optimal component shape
The high-end level of component design. One click to generate an ideal design.
Welded Consoles
Objective:
Reduction of stress concentrations at the console run-out before fatigue cracks can occur.
Method:
Fully automated shape finding
Sliding of the console across bended surfaces
Result:
Optimal console trajectory
Optimal console height
Optimal console thickness
All achieved in a single step and directly transferable to CAD.
Classic casting- & plastic-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape finding of the rib structure
Result:
Optimal height distribution of the ribs
Optimal thickness distribution in the base plate and ribs
All in a single step and easy to transfer to CAD.
Advanced casting- & plastic-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape and thickness optimization of the rib structure and the base surface
Result:
Optimal height distribution and shape of the ribs
Optimal shape of the base surface
Optimal thickness distribution in the base surface and ribs
The high-end level of component design. One click for an ideal, fully bionic design.
Solid- & forged-parts
Objective:
Precise performance at minimal weight.
Method:
Fully automated shape finding of the entire geometry based on a primitive starting design
Consideration of complex manufacturing constraints and load cases
Result:
Optimal component shape
The high-end level of component design. One click to generate an ideal design.