It was recognized that the traditional hot rod type deposition process for decomposing silane is energy intensive, and a different approach for converting silane to silicon was chosen. A 1200 metric tons/year capacity commercial plant was constructed in Moses Lake, Washington. A fluidized bed processor was chosen as the most promising technology and several encouraging test runs were conducted. This technology continues to be very promising in producing low cost polysilicon. The Union Carbide silane process and the research development on the fluidized bed silane decomposition are discussed
High temperature reactions of silicon halides with alkali metals for the production of solar grade s...
The presence of copper promotes a more rapid approach to the steady stete operating condition and re...
The Silicon Material Task of the Flat-Plate Solar Array Project was assigned the objective of develo...
Silicon deposition on silicon seed particles by silane pyrolysis in a fluidized bed reactor (FBR) wa...
The commercial production of low-cost semiconductor-grade silicon is an essential requirement of the...
Silane produced via the redistribution of dichlorosilane and purified by distillation followed by ad...
The overall objective of the LSA Silicon Material Task is to establish a chemical process for produc...
Techniques are being developed to provide lower cost polysilicon material for solar cells. Existing ...
The purpose of this program is to establish the practicality of a process for the high volume, low c...
The development of a dichlorosilane-based reductive chemical vapor deposition process for the produc...
Silane decomposition in a fluidized-bed reactor (FBR) process development unit (PDU) to make semicon...
Dichlorosilane (DCS) was used as the feedstock for an advanced decomposition reactor for silicon pro...
Silicon tetrachloride, hydrogen and metallurgical silicon are reacted at about 400.degree.-600.degre...
The goal of this program is to demonstrate that a dichlorosilane-based reductive chemical vapor depo...
Part of the development effort of the JPL in-house technology involved in the Flat-Plate Solar Array...
High temperature reactions of silicon halides with alkali metals for the production of solar grade s...
The presence of copper promotes a more rapid approach to the steady stete operating condition and re...
The Silicon Material Task of the Flat-Plate Solar Array Project was assigned the objective of develo...
Silicon deposition on silicon seed particles by silane pyrolysis in a fluidized bed reactor (FBR) wa...
The commercial production of low-cost semiconductor-grade silicon is an essential requirement of the...
Silane produced via the redistribution of dichlorosilane and purified by distillation followed by ad...
The overall objective of the LSA Silicon Material Task is to establish a chemical process for produc...
Techniques are being developed to provide lower cost polysilicon material for solar cells. Existing ...
The purpose of this program is to establish the practicality of a process for the high volume, low c...
The development of a dichlorosilane-based reductive chemical vapor deposition process for the produc...
Silane decomposition in a fluidized-bed reactor (FBR) process development unit (PDU) to make semicon...
Dichlorosilane (DCS) was used as the feedstock for an advanced decomposition reactor for silicon pro...
Silicon tetrachloride, hydrogen and metallurgical silicon are reacted at about 400.degree.-600.degre...
The goal of this program is to demonstrate that a dichlorosilane-based reductive chemical vapor depo...
Part of the development effort of the JPL in-house technology involved in the Flat-Plate Solar Array...
High temperature reactions of silicon halides with alkali metals for the production of solar grade s...
The presence of copper promotes a more rapid approach to the steady stete operating condition and re...
The Silicon Material Task of the Flat-Plate Solar Array Project was assigned the objective of develo...