View source for 20240051025. ADDITIVELY MANUFACTURED POROUS COMPONENT STRUCTURE AND MEANS FOR MANUFACTURING SAME simplified abstract (Siemens Energy Global GmbH & Co. KG)

=ADDITIVELY MANUFACTURED POROUS COMPONENT STRUCTURE AND MEANS FOR MANUFACTURING SAME=


==Organization Name==

[[:Category:Siemens Energy Global GmbH & Co. KG|Siemens Energy Global GmbH & Co. KG]]


[[Category:Siemens Energy Global GmbH & Co. KG]]

==Inventor(s)==

[[:Category:Johannes Albert of Berlin (DE)|Johannes Albert of Berlin (DE)]][[Category:Johannes Albert of Berlin (DE)]]

[[:Category:Jan Pascal Bogner of Berlin (DE)|Jan Pascal Bogner of Berlin (DE)]][[Category:Jan Pascal Bogner of Berlin (DE)]]

[[:Category:Ole Geisen of Berlin (DE)|Ole Geisen of Berlin (DE)]][[Category:Ole Geisen of Berlin (DE)]]

[[:Category:Michael Hajduk of Berlin (DE)|Michael Hajduk of Berlin (DE)]][[Category:Michael Hajduk of Berlin (DE)]]

[[:Category:Timo Heitmann of Berlin (DE)|Timo Heitmann of Berlin (DE)]][[Category:Timo Heitmann of Berlin (DE)]]

[[:Category:Christoph Kiener of München (DE)|Christoph Kiener of München (DE)]][[Category:Christoph Kiener of München (DE)]]

==ADDITIVELY MANUFACTURED POROUS COMPONENT STRUCTURE AND MEANS FOR MANUFACTURING SAME - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240051025 titled 'ADDITIVELY MANUFACTURED POROUS COMPONENT STRUCTURE AND MEANS FOR MANUFACTURING SAME

==Simplified Explanation==

The abstract describes a method for providing manufacturing instructions for the additive manufacturing of a component using a powder-bed-based process. The method involves defining the geometry of the component based on CAD data, and varying the irradiation parameters (such as power, speed, pitch, and layer thickness) within a transition region of the component. This variation in parameters creates a porosity gradient between the solid material region and the porous component region of the structure.

* The method involves using CAD data to define the geometry of a component for additive manufacturing.
* The manufacturing instructions include varying the irradiation parameters within a transition region of the component.
* The variation in parameters creates a porosity gradient in the structure of the component.
* The porosity gradient is formed between the solid material region and the porous component region.

Potential Applications:
* This method can be applied in industries that utilize additive manufacturing, such as aerospace, automotive, and medical.
* It can be used to manufacture components with tailored porosity, which can have applications in filtration, heat transfer, and lightweight design.

Problems Solved:
* Traditional additive manufacturing processes often result in components with uniform porosity throughout, limiting their functionality.
* This method solves the problem by allowing the creation of a porosity gradient within the component, providing enhanced functionality and performance.

Benefits:
* The method enables the manufacturing of components with controlled porosity gradients, allowing for improved performance and functionality.
* It provides flexibility in designing components with specific material properties and characteristics.
* The ability to vary irradiation parameters within the transition region allows for precise control over the porosity gradient, resulting in optimized component structures.


==Original Abstract Submitted==

a method for providing cam manufacturing instructions for the powder-bed-based additive manufacturing of a component wherein a geometry of the component, with a solid material region, a transition region, and a porous component region, is defined on the basis of cad data. irradiation parameters for the manufacturing of the component, including an irradiation power, a scanning speed, a scanning pitch, and a layer thickness, are varied within the transition region in such a way as to form a porosity gradient of the structure of the component between the solid material region of the component and the porous component region.



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[[Category:B22F10/28]]
[[Category:B22F10/366]]
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