Abstract: A device for perforating a well-casing. The device includes a body that has a passageway defined in it. The passageway has a first portion and a second portion. The body is configured to transition from a first condition to a second condition. When the body is in the first condition, the first portion of the passageway is not fluidly connected to the second portion passageway. When the body is in the second condition, the first portion of the passageway is fluidly connected via the second portion of the passageway to an exterior surface of the well casing.

Abstract: The present invention provides a device for perforating a well-casing. The device includes a body that has a passageway defined in it. The passageway has a first portion and a second portion. The body is configured to transition from a first condition to a second condition. When the body is in the first condition, the first portion of the passageway is not fluidly connected to the second portion passageway. When the body is in the second condition, the first portion of the passageway is fluidly connected via the second portion of the passageway to an exterior surface of the well casing.

Abstract: The present invention provides an auxiliary power system to provide supplemental power by compressed hydrogen. The system includes a motor configured to be driven by the compressed hydrogen. The motor includes a cartridge for the generation of hydrogen. The cartridge is configured to generate high pressure and high temperature hydrogen. The motor is configured such that hydrogen generated by the cartridge is directed through a manifold and moves pistons in a cylinder block such that the cylinder block rotates. A clutch assembly is provided to transmit power from the motor.

Abstract: The present invention provides a motor powered by an expandable, combustible gas. The motor includes a cartridge for the generation of hydrogen. The cartridge is configured to generate high pressure and high temperature hydrogen. The motor is configured such that hydrogen generated by the cartridge is directed into a series of expandable chambers defined by at least one flywheel. The flywheel is connected to a shaft such that power generated by the hydrogen can be transmitted out of the motor. The motor is configured such that power can be generated by expansion of the hydrogen and subsequent combustion of the hydrogen.

Abstract: The present invention provides assembly for use with a cartridge for the generation of hydrogen and a method for bonding metals with the cartridge. The cartridge includes a case, an igniter, and a structural component. The case defines an interior cavity and the igniter is positioned within the cavity. The structural component is also positioned within the cavity and is formed of a particulate embedded in a matrix and the particulate includes a metallic material. An oxidizing agent is positioned within the cavity. The structural component is configured such that the metallic material and the oxidizing agent react together to generate hydrogen after the igniter generates sufficient heat to remove the matrix from the structural component and to initiate the reaction between the metallic material and the oxidizing agent. The cartridge is positioned within the assembly relative to a metal flyer such that when the cartridge is discharged, the flyer is bonded to a metal anvil.

Abstract: The present invention provides assembly for use with a cartridge for the generation of hydrogen and a method for bonding metals with the cartridge. The cartridge includes a case, an igniter, and a structural component. The case defines an interior cavity and the igniter is positioned within the cavity. The structural component is also positioned within the cavity and is formed of a particulate embedded in a matrix and the particulate includes a metallic material. An oxidizing agent is positioned within the cavity. The structural component is configured such that the metallic material and the oxidizing agent react together to generate hydrogen after the igniter generates sufficient heat to remove the matrix from the structural component and to initiate the reaction between the metallic material and the oxidizing agent. The cartridge is positioned within the assembly relative to a metal flyer such that when the cartridge is discharged, the flyer is bonded to a metal anvil.

Abstract: The present invention provides an auxiliary power system to provide supplemental power by compressed hydrogen. The system includes a motor configured to be driven by the compressed hydrogen. The motor includes a cartridge for the generation of hydrogen. The cartridge is configured to generate high pressure and high temperature hydrogen. The motor is configured such that hydrogen generated by the cartridge is directed through a manifold and moves pistons in a cylinder block such that the cylinder block rotates. A clutch assembly is provided to transmit power from the motor.

Abstract: The present invention provides a motor powered by an expandable, combustible gas. The motor includes a cartridge for the generation of hydrogen. The cartridge is configured to generate high pressure and high temperature hydrogen. The motor is configured such that hydrogen generated by the cartridge is directed into a series of expandable chambers defined by at least one flywheel. The flywheel is connected to a shaft such that power generated by the hydrogen can be transmitted out of the motor. The motor is configured such that power can be generated by expansion of the hydrogen and subsequent combustion of the hydrogen.

Abstract: The present invention provides a cartridge for the generation of hydrogen. The cartridge includes a case, an igniter, and a structural component. The case defines an interior cavity and the igniter is positioned within the cavity. The structural component is also positioned within the cavity and is formed of a particulate embedded in a matrix and the particulate includes a metallic material. An oxidizing agent is positioned within the cavity. The structural component is configured such that the metallic material and the oxidizing agent react together to generate hydrogen after the igniter generates sufficient heat to remove the matrix from the structural component and to initiate the reaction between the metallic material and the oxidizing agent.

Abstract: The present invention provides a cartridge for the generation of hydrogen. The cartridge includes a case, an igniter, and a structural component. The case defines an interior cavity and the igniter is positioned within the cavity. The structural component is also positioned within the cavity and is formed of a particulate embedded in a matrix and the particulate includes a metallic material. An oxidizing agent is positioned within the cavity. The structural component is configured such that the metallic material and the oxidizing agent react together to generate hydrogen after the igniter generates sufficient heat to remove the matrix from the structural component and to initiate the reaction between the metallic material and the oxidizing agent.