Abstract: Processing a plurality of packets through at least one service, a privilege granter monitors at least two authentication packets to obtain a source unique network identifier, one of which does not have a vendor specific attribute and detects an authentication packet among the at least two authentication packets, and the authentication packet having the vendor specific attribute. The privilege granter receives at least one response authentication packet having at least one service definition identifier, the service definition identifier corresponding to the source unique network identifier, responsive to detecting the authentication packet having the vendor specific attribute and builds an entitlement database to pair the source unique network identifier to the service definition identifier. The privilege granter receives a session packet and determines that the source unique network identifier corresponds to a user entitlement in the entitlement database.

Abstract: Processing a plurality of packets through at least one service, a privilege granter monitors at least two authentication packets to obtain a source unique network identifier, one of which does not have a vendor specific attribute and detects an authentication packet among the at least two authentication packets, and the authentication packet having the vendor specific attribute. The privilege granter receives at least one response authentication packet having at least one service definition identifier, the service definition identifier corresponding to the source unique network identifier, responsive to detecting the authentication packet having the vendor specific attribute and builds an entitlement database to pair the source unique network identifier to the service definition identifier. The privilege granter receives a session packet and determines that the source unique network identifier corresponds to a user entitlement in the entitlement database.

Abstract: Processing a plurality of packets through at least one service, a privilege granter monitors at least two authentication packets to obtain a source unique network identifier, one of which does not have a vendor specific attribute and detects an authentication packet among the at least two authentication packets, and the authentication packet having the vendor specific attribute. The privilege granter receives at least one response authentication packet having at least one service definition identifier, the service definition identifier corresponding to the source unique network identifier, responsive to detecting the authentication packet having the vendor specific attribute and builds an entitlement database to pair the source unique network identifier to the service definition identifier. The privilege granter receives a session packet and determines that the source unique network identifier corresponds to a user entitlement in the entitlement database.

Abstract: Processing a plurality of packets through at least one service, a privilege granter monitors at least two authentication packets to obtain a source unique network identifier, one of which does not have a vendor specific attribute and detects an authentication packet among the at least two authentication packets, and the authentication packet having the vendor specific attribute. The privilege granter receives at least one response authentication packet having at least one service definition identifier, the service definition identifier corresponding to the source unique network identifier, responsive to detecting the authentication packet having the vendor specific attribute and builds an entitlement database to pair the source unique network identifier to the service definition identifier. The privilege granter receives a session packet and determines that the source unique network identifier corresponds to a user entitlement in the entitlement database.

Abstract: A method is provided for making blast explosive molding powder. According to an aspect of the invention, energetic solids and a metal powder are suspended in a bulk phase fluid. Lacquer is added to an energetic solids and metal powder suspension to achieve a super-saturated solution. Final granulation of the super-saturated solution is optimized to form a fluidized metallized energetic molding powder. The fluidized metallized energetic molding powder is distilled to remove an organic solvent component of the lacquer, which is reclaimed through distillation. The bulk phase fluid is decanted to recover a wet metallized energetic molding powder. The bulk phase fluid is reclaimed through distillation. The wet metallized energetic molding powder is dried to form a dry metallized energetic molding powder. This method is especially useful in making insensitive enhanced blast explosive molding powders with high metal powder content.

Abstract: A pressable explosive composition is provided. The composition includes at least 40 weight percent of substantially uncoated fuel particles, a nitramine mechanically blended with the substantially uncoated fuel particles, and a binder coating the nitramine. The binder constitutes about 1 to about 6 weight percent of the pressable explosive composition. Also provided are a pressed thermobaric explosive, weapons containing the pressed thermobaric explosive, and methods for making the composition and thermobaric explosive.

Abstract: A pressable explosive composition is provided. The composition includes at least 40 weight percent of substantially uncoated fuel particles, a nitramine mechanically blended with the substantially uncoated fuel particles, and a binder coating the nitramine. The binder constitutes about 1 to about 6 weight percent of the pressable explosive composition. Also provided are a pressed thermobaric explosive, weapons containing the pressed thermobaric explosive, and methods for making the composition and thermobaric explosive.

Abstract: A side load detection and protection system (10) operable using pressure sensors (26, 28) to determine side load as a function of a difference in media pressure between two ports (40, 42) of a pneumatic/hydraulic rotation motor (22). When the side load exceeds a pre-established limiting value, the system (10) shuts off functions that could be causing the side load. The system (10) includes a visual display (34) to communicate the actual amount of side load and to present a warning when the limiting side load value has been reached or exceeded. The system (10) is able to differentiate between loads applied to the rotation mechanism through operation of the pneumatic/hydraulic rotation motor (22) and loads due to external forces acting directly or indirectly on the system (10). Furthermore, in order to account for different efficiencies, the system (10) can have separate set-points for side load in clockwise or counterclockwise directions.

Abstract: A side load detection and protection system (10) operable using pressure sensors (26, 28) to determine side load as a function of a difference in media pressure between two ports (40, 42) of a pneumatic/hydraulic rotation motor (22). When the side load exceeds a pre-established limiting value, the system (10) shuts off functions that could be causing the side load. The system (10) includes a visual display (34) to communicate the actual amount of side load and to present a warning when the limiting side load value has been reached or exceeded. The system (10) is able to differentiate between loads applied to the rotation mechanism through operation of the pneumatic/hydraulic rotation motor (22) and loads due to external forces acting directly or indirectly on the system (10). Furthermore, in order to account for different efficiencies, the system (10) can have separate set-points for side load in clockwise or counterclockwise directions.