We developed micro-structured thin films with ultra-low coefficient of thermal expansion. These low-weight, flexible, thermally stable films are expected to be a useful tool in aerospace applications, for example, as a reflective layers of deformable space telescope mirrors. The low-CTE films are composed of a Ti frame supporting hexagonal Al plates arranged in a two-dimensional periodic lattice. The effective CTE of these materials can be controlled by selecting the appropriate constitutent material properties of the frame and plates, and the geometry of the lattice. Aluminum and titanium were selected as constituent materials to create thin films with a CTE close to zero. The 2D bi-metallic lattice was microfabricated, and characterized f...
This paper describes a new athermal approach for high performance metal optics, particularly with re...
High-temperature applications of microelectromechanical systems (MEMS), especially in new temperatur...
In this article we present the status of our new setup to determine coefficients of thermal expansi...
We developed micro-structured thin films with ultra-low coefficient of thermal expansion. These low-...
We fabricate and characterize bi-metallic structured thin films (~1 um thick) with ultra-low effecti...
Ultra-low coefficient of thermal expansion (CTE) is an elusive property, and narrow temperature rang...
Microscale bi-material lattices with near zero thermal expansion are designed to create a thermally ...
[[abstract]]The coefficient of thermal expansion (CTE) is an important mechanical property for thin ...
We design, fabricate, and test thin thermally stable metastructures consisting of bi-metallic unit c...
The coefficient of thermal expansion (CTE) of architected materials, as opposed to that of conventio...
We report the design, fabrication, and characterization of ultralight highly emissive structures wit...
[[abstract]]In this research, the coefficient of thermal expansion (CTE) of thin films was studied t...
The geometry and constituent materials of metastructures can be used to engineer the thermal expansi...
This paper describes a new athermal approach for high performance metal optics, particularly with re...
A family of robust stretch-dominated bimaterial lattices is introduced which combines low (or zero) ...
This paper describes a new athermal approach for high performance metal optics, particularly with re...
High-temperature applications of microelectromechanical systems (MEMS), especially in new temperatur...
In this article we present the status of our new setup to determine coefficients of thermal expansi...
We developed micro-structured thin films with ultra-low coefficient of thermal expansion. These low-...
We fabricate and characterize bi-metallic structured thin films (~1 um thick) with ultra-low effecti...
Ultra-low coefficient of thermal expansion (CTE) is an elusive property, and narrow temperature rang...
Microscale bi-material lattices with near zero thermal expansion are designed to create a thermally ...
[[abstract]]The coefficient of thermal expansion (CTE) is an important mechanical property for thin ...
We design, fabricate, and test thin thermally stable metastructures consisting of bi-metallic unit c...
The coefficient of thermal expansion (CTE) of architected materials, as opposed to that of conventio...
We report the design, fabrication, and characterization of ultralight highly emissive structures wit...
[[abstract]]In this research, the coefficient of thermal expansion (CTE) of thin films was studied t...
The geometry and constituent materials of metastructures can be used to engineer the thermal expansi...
This paper describes a new athermal approach for high performance metal optics, particularly with re...
A family of robust stretch-dominated bimaterial lattices is introduced which combines low (or zero) ...
This paper describes a new athermal approach for high performance metal optics, particularly with re...
High-temperature applications of microelectromechanical systems (MEMS), especially in new temperatur...
In this article we present the status of our new setup to determine coefficients of thermal expansi...