Abstract: A method for removing a gas from a propellant composition includes providing an uncured propellant composition comprising a bonding agent, energetic particles, and a polymeric binder, and flowing an inert gas through the uncured propellant composition to remove an evolved gas from the uncured propellant composition.

Abstract: A multistage aspirator for an inflatable assembly may comprise a first end defining a primary gas inlet and a second end defining a gas outlet. An internal surface of the multistage aspirator may define a flow path extending from the primary gas inlet to the gas outlet. A first stage of the multistage aspirator may include a first stage orifice extending from the internal surface to an external surface of the multistage aspirator. A second stage of the multistage aspirator may include a second stage orifice located downstream of the first stage orifice and extending from the external surface to the internal surface.

Abstract: An energy conversion system may comprise a substrate including a first conductive trace and a second conductive trace electrically isolated from the first conductive trace. A housing may be coupled to the substrate. An ignition compound may be located in the housing. A solder may be thermally coupled to the ignition compound such that ignition of the ignition compound melts the solder. The housing may be configured to output the solder onto the first conductive trace and the second conductive trace.

Abstract: A multistage aspirator for an inflatable assembly may comprise a first end defining a primary gas inlet and a second end defining a gas outlet. An internal surface of the multistage aspirator may define a flow path extending from the primary gas inlet to the gas outlet. A first stage of the multistage aspirator may include a first stage orifice extending from the internal surface to an external surface of the multistage aspirator. A second stage of the multistage aspirator may include a second stage orifice located downstream of the first stage orifice and extending from the external surface to the internal surface.

Abstract: An energy conversion system may comprise a substrate including a first conductive trace and a second conductive trace electrically isolated from the first conductive trace. A housing may be coupled to the substrate. An ignition compound may be located in the housing. A solder may be thermally coupled to the ignition compound such that ignition of the ignition compound melts the solder. The housing may be configured to output the solder onto the first conductive trace and the second conductive trace.

Abstract: A countermass liquid for a shoulder launched propulsion system that has low corrosivity, high density, low viscosity, and a constant viscosity as a function of temperature. Upon function of the shoulder launched propulsion system, the countermass liquid may be expelled through the breach end of the shoulder launched propulsion system by expanding propellant gas. The countermass liquid may be an organic salt selected from the group consisting of at least one or more of cesium formate and potassium formate.

Abstract: Methods and systems for an explosive cord are disclosed. An explosive cord may comprise a tubing comprising an inner surface and an outer surface, a reactive material comprising hexanitrostilbene and/or boron potassium nitrate coupled to the inner surface of the tubing, and a hollow or solid core through the center of the explosive cord.

Abstract: A pyrotechnic egress system may comprise a case defining an opening, a gas generator disposed within the case, the gas generator configured to generate a gas flame in response to being ignited, and an ignition line disposed at the opening and configured to ignite the gas generator, wherein the case directs the gas flame through the opening for deflagrating a window.

Abstract: Methods and systems for an explosive cord are disclosed. An explosive cord may comprise a tubing comprising an inner surface and an outer surface, a reactive material comprising hexanitrostilbene and/or boron potassium nitrate coupled to the inner surface of the tubing, and a hollow or solid core through the center of the explosive cord.

Abstract: A pyrotechnic egress system may comprise a case defining an opening, a gas generator disposed within the case, the gas generator configured to generate a gas flame in response to being ignited, and an ignition line disposed at the opening and configured to ignite the gas generator, wherein the case directs the gas flame through the opening for deflagrating a window.

Abstract: A countermass liquid for a shoulder launched propulsion system that has low corrosivity, high density, low viscosity, and a constant viscosity as a function of temperature. Upon function of the shoulder launched propulsion system, the countermass liquid may be expelled through the breach end of the shoulder launched propulsion system by expanding propellant gas. The countermass liquid may be an organic salt selected from the group consisting of at least one or more of cesium formate and potassium formate.

Abstract: Methods and systems for an explosive cord are disclosed. An explosive cord may comprise a tubing comprising an inner surface and an outer surface, a reactive material comprising hexanitrostilbene and/or boron potassium nitrate coupled to the inner surface of the tubing, and a hollow or solid core through the center of the explosive cord.

Abstract: Methods and systems for an explosive cord are disclosed. An explosive cord may comprise a tubing comprising an inner surface and an outer surface, a reactive material comprising hexanitrostilbene and/or boron potassium nitrate coupled to the inner surface of the tubing, and a hollow or solid core through the center of the explosive cord.

Abstract: Methods and systems for an explosive cord are disclosed. An explosive cord may comprise a tubing comprising an inner surface and an outer surface, a reactive material comprising hexanitrostilbene and/or boron potassium nitrate coupled to the inner surface of the tubing, and a hollow or solid core through the center of the explosive cord.

Abstract: A system and method for text interpretation and normalization is presented. The method for text interpretation and normalization may include receiving a reference data entry that includes one or more strings of text and one or more associated numeric codes, creating a plurality of tokens from the one or more strings of text, each token being tied to an associated numeric code, formatting the plurality tokens with operations codes (opcodes) that provides additional information about the tokens, retrieving configuration data including the plurality of tokens, the opcodes, and numeric codes associated with the tokens, selecting one inbound, non-reference string for interpretation, comparing tokens from the configuration data to the non-reference string to determine the best matching token, and applying, using the processor, the numeric code associated with the best matching token to the non-reference string in order to normalize the non-reference string.

Abstract: Systems and methods for data aggregation, targeting and acquisition are described. A method may receive data and storing the data in one or more source data tables and select one of the one or more source data tables. The selected source data table includes updated data fields. The method may also identify a plurality of destination data tables that need to be updated, in which each destination data table is linked to and contains an aggregation of a subset of data from the selected source data table, identify one or more data fields in the identified destination data tables that need to be updated with data from the updated data fields in the selected source data table, and determine using the processor, for each identified destination data table, a best aggregation source data table.

Abstract: Systems and methods for data aggregation, targeting and acquisition are described. A method may receive data and storing the data in one or more source data tables and select one of the one or more source data tables. The selected source data table includes updated data fields. The method may also identify a plurality of destination data tables that need to be updated, in which each destination data table is linked to and contains an aggregation of a subset of data from the selected source data table, identify one or more data fields in the identified destination data tables that need to be updated with data from the updated data fields in the selected source data table, and determine using the processor, for each identified destination data table, a best aggregation source data table.

Abstract: A system and method for text interpretation and normalization is presented. The method for text interpretation and normalization may include receiving a reference data entry that includes one or more strings of text and one or more associated numeric codes, creating a plurality of tokens from the one or more strings of text, each token being tied to an associated numeric code, formatting the plurality tokens with operations codes (opcodes) that provides additional information about the tokens, retrieving configuration data including the plurality of tokens, the opcodes, and numeric codes associated with the tokens, selecting one inbound, non-reference string for interpretation, comparing tokens from the configuration data to the non-reference string to determine the best matching token, and applying, using the processor, the numeric code associated with the best matching token to the non-reference string in order to normalize the non-reference string.