Session
Technical Session X: Enabling New Technologies and Methods II
Abstract
Making small satellites that meet mission objectives within size, weight and cost constraints is quite a challenge. New micromachining technologies are making small mechanical designs that put function in a small package a reality. Micromachining bridges the gap between MEMS manufacturing and the capabilities of conventional machining. The technology creates the opportunity to use familiar materials (e.g. aluminum, titanium, stainless steel) and designs to shorten development time and reduce costs. Unique applications of 10 axis Swiss screw Daniel Fox 2 14th Annual/USU Conference on Small Satellites machines, 5 axis grinding and laser machining technology results in features as small as 0.0013 inches (34mm). This paper discusses the capabilities of the latest micromachining technologies and guidelines for design for manufacturability. An example of a part produced as an interface with a MEMS device will also be discussed.
Micromachining – Function in a Small Package
Making small satellites that meet mission objectives within size, weight and cost constraints is quite a challenge. New micromachining technologies are making small mechanical designs that put function in a small package a reality. Micromachining bridges the gap between MEMS manufacturing and the capabilities of conventional machining. The technology creates the opportunity to use familiar materials (e.g. aluminum, titanium, stainless steel) and designs to shorten development time and reduce costs. Unique applications of 10 axis Swiss screw Daniel Fox 2 14th Annual/USU Conference on Small Satellites machines, 5 axis grinding and laser machining technology results in features as small as 0.0013 inches (34mm). This paper discusses the capabilities of the latest micromachining technologies and guidelines for design for manufacturability. An example of a part produced as an interface with a MEMS device will also be discussed.
