Abstract: An adjustable bench includes a frame and a hinge. A back support is pivotably coupled to the hinge and has a back cushion. A seat support has a first end defining apertures, a second end pivotably coupled to the hinge, and a seat cushion. A leg support is pivotably coupled to the first end at a pivot point defining a rotation axis for the leg support. The leg support is selectively engageable with one of the apertures via a pin. In a first configuration, the pin also engages with the leg support to define a fixed angular position of the leg support relative to the seat support. In a second configuration, the pin is engaged with one of the apertures without capturing the leg support such that the pin defines a rotational stop for the leg support and the leg support is movable at least partially around the rotational axis.

Abstract: An exercise device includes a substantially U-shaped bar having an interface at each end. A leg secured to each interface includes a pair of tapered projections extending from the interface. The leg defines a leg opening. A plate-support post secured to each interface includes a first, plate-receiving end extending away from the interface and second end disposed within the interface and defining a threaded bore. A handle unit is removably secured proximate each interface and includes a handle base at least partially defining a handle opening and a pair of receivers. A screw removably secures each handle unit to the leg proximate each interface and extends into the handle and leg openings and is threadably received in the threaded bore. When the screw is received in the threaded bore, each of the pair of receivers receives one of the pair of tapered projections.

Abstract: Porosity causing gas-based defects are detected, located, identified, and/or characterized by the use of defect information generated from gas flow data corresponding to gas flow characteristics measured by one or more sensors on a composite part processing piece such as a mould or membrane used during a composite manufacturing process. The defect information is generated using techniques including one or more of profiling the gas flow data, fingerprinting, line leak detection, analytical triangulation.

Abstract: Porosity causing gas-based defects are detected, located, identified, and/or characterized by the use of defect information generated from gas flow data corresponding to gas flow characteristics measured by one or more sensors on a composite part processing piece such as a mould or membrane used during a composite manufacturing process. The defect information is generated using techniques including one or more of profiling the gas flow data, fingerprinting, line leak detection, analytical triangulation.

Abstract: Porosity causing gas-based defects are detected, located, identified, and/or characterized by the use of defect information generated from gas flow data corresponding to gas flow characteristics measured by one or more sensors on a composite part processing piece such as a mold or membrane used during a composite manufacturing process. The defect information is generated using techniques including one or more of profiling the gas flow data, fingerprinting, line leak detection, analytical triangulation.

Abstract: Porosity causing gas-based defects are detected, located, identified, and/or characterized by the use of defect information generated from gas flow data corresponding to gas flow characteristics measured by one or more sensors on a composite part processing piece such as a mould or membrane used during a composite manufacturing process. The defect information is generated using techniques including one or more of profiling the gas flow data, fingerprinting, line leak detection, analytical triangulation.