SEARCH · Search NASA
Results for “Multilayers”
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.
High-Resolution Characterization of Josephson Junctions and Magnetic Multilayers for Low-Power Superconducting Logic and Memory Devices.
Abstract not provided.
Corrosion-resistant Mg-based multilayer coatings for sources > 25 nm
Explore the source record for details and available documents.
Thermal Transport in Reactive Metal Multilayers Influence of Periodicity and Interfacial Mixing.
Abstract not provided.
Fuel cell system including multilayer interconnect
In some examples, a fuel cell comprising a first electrochemical cell including a first anode and a first cathode; a second electrochemical cell including a second anode and a second cathode; and an interconnect configured to conduct a flow of electrons from the first anode to the second cathode, wherein the interconnect comprises a first portion and a second portion, wherein the first portion is closer to the anode than the second portion, and the second portion is closer to the cathode than the first portion, wherein the first portion comprises one or more of doped ceria, doped lanthanum chromite, and doped yttrium chromite, and wherein the second portion comprises one or more of a Co—Mn spinel and a ABO3 perovskite.
Fabrication of multilayered carbon MEMS devices
The various technologies presented herein relate to formation of carbon micromechanical systems (CMEMS), wherein the CMEMS comprise multiple layers of carbon structures and are formed using a plurality of photoresist precursors that are processed to form carbon. The various embodiments can be utilized in producing a plurality of CMEMS with full production level fabrication, e.g., 6 inch wafers can be processed. A pyrolyzed layer of carbon is lithographically defined after pyrolysis, wherein the post-pyrolysis etch process can produce carbon structures having repeatable and accurate device geometries, with straight sidewalls. A sacrificial layer can be applied to facilitate separation of a first carbon layer from a second carbon layer, wherein, upon pyrolysis to form the second carbon layer and lithography thereof, the sacrificial layer is removed to form a CMEMS comprising a first carbon layer (e.g., comprising bottom contacts) located beneath a second carbon layer (e.g., a mechanical layer).
Thermal Shock Resistance of Multilayered Silicon Carbide Receiver Tubes for 720 oC Molten Salt Concentrating Solar Power Application.
Abstract not provided.
Atomic Resolution Analysis of Defect Structures in Multilayer Chalcogenide Films.
Abstract not provided.
Thermal Shock Resistance of Multilayered Silicon Carbide Receiver Tubes for 720 oC Molten Salt Concentrating Solar Power Application.
Abstract not provided.
Propagating Exothermic Reactions in Al/Pt Multilayers of Varied Composition.
Abstract not provided.
Propagating Exothermic Reactions in Al/Pt Multilayers of Varied Composition.
Abstract not provided.
Exothermic Reactions in Al/Pt Multilayers of Varied Stoichiometry.
Abstract not provided.
Helium Bubble Evolution in Implanted Erbium Deuteride Bulk and Multilayered Structures.
Abstract not provided.