Abstract: A method used for forming ceramic matrix composite components includes several steps. The method comprises arranging a layup of a predetermined number of prepreg ceramic plies on a layup too and a plurality of different stages to debulk and consolidate the layup.

Abstract: A method used for forming ceramic matrix composite components includes several steps. The method comprises arranging a layup of a predetermined number of prepreg ceramic plies on a layup too and a plurality of different stages to debulk and consolidate the layup.

Abstract: A method used for forming ceramic matrix composite components includes several steps. The method comprises arranging a layup of a predetermined number of prepreg ceramic plies on a layup too and a plurality of different stages to debulk and consolidate the layup.

Abstract: A method used for forming ceramic matrix composite components includes several steps. The method comprises arranging a layup of a predetermined number of prepreg ceramic plies on a layup too and a plurality of different stages to debulk and consolidate the layup.

Abstract: There is disclosed a method of manufacturing a composite component, the method comprising laying-up a plurality of successive plies of composite material to produce a pre-form (12) for the component in a lay-up procedure, wherein a portion of each ply of composite material is heated to at least a threshold temperature of 45° C. during a period of the lay-up procedure.

Abstract: An electrical device having a bus side and a load side is provided. The electrical device includes a plurality of conductive line terminals disposed on the bus side of said electrical device, and a plurality of electrical connectors. Each electrical connector of the plurality of electrical connectors includes a first end coupled to a respective line terminal of the plurality of line terminals, a second end distal from the first end, and a connector clip disposed at the second end. Each connector clip is configured to engage a bus bar to electrically couple the electrical device to the bus bar, and includes a first contact segment and a second contact segment spaced apart from the first contact segment. The first and second contact segments are configured to deflect towards one another from a relaxed position to a depressed position when inserted into a connector channel defined by the bus bar.

Abstract: A method is provided of producing a rigid raft comprising electrical conductors enclosed in the raft. The method includes: providing a cured, composite material base layer; laying up electrical conductors on the base layer; and overlaying the laid-up electrical conductors with a cover layer, thereby producing a rigid raft in which the electrical conductors are enclosed in the raft.

Abstract: An electrical device having a bus side and a load side is provided. The electrical device includes a plurality of conductive line terminals disposed on the bus side of said electrical device, and a plurality of electrical connectors. Each electrical connector of the plurality of electrical connectors includes a first end coupled to a respective line terminal of the plurality of line terminals, a second end distal from the first end, and a connector clip disposed at the second end. Each connector clip is configured to engage a bus bar to electrically couple the electrical device to the bus bar, and includes a first contact segment and a second contact segment spaced apart from the first contact segment. The first and second contact segments are configured to deflect towards one another from a relaxed position to a depressed position when inserted into a connector channel defined by the bus bar.

Abstract: An electrical device having a bus side and a load side is provided. The electrical device includes a plurality of conductive line terminals disposed on the bus side of said electrical device, and a plurality of electrical connectors. Each electrical connector of the plurality of electrical connectors includes a first end coupled to a respective line terminal of the plurality of line terminals, a second end distal from the first end, and a connector clip disposed at the second end. Each connector clip is configured to engage a bus bar to electrically couple the electrical device to the bus bar, and includes a first contact segment and a second contact segment spaced apart from the first contact segment. The first and second contact segments are configured to deflect towards one another from a relaxed position to a depressed position when inserted into a connector channel defined by the bus bar.

Abstract: There is disclosed a method of manufacturing a composite component, the method comprising laying-up a plurality of successive plies of composite material to produce a pre-form (12) for the component in a lay-up procedure, wherein a portion of each ply of composite material is heated to at least a threshold temperature of 45° C. during a period of the lay-up procedure.

Abstract: An electrical distribution apparatus is provided. The electrical distribution apparatus includes a stacked bus bar assembly including a plurality of bus bars. Each bus bar includes a first plate, a second plate spaced from the first plate in a first direction, and an intermediate member disposed between and interconnecting the first plate and the second plate. At least one of the first plate and said second plate is constructed of an electrically conductive material.

Abstract: An electrical device includes a power connector coupleable to a cable. The power connector includes a body defining a first opening and an interior space. The power connector is arranged to receive the cable into the interior space through the first opening. The electrical device also includes a barrier coupled to the power connector to at least partially cover the first opening. The barrier includes a wall defining a second opening. The wall contacts the body. The second opening is arranged to receive the cable therein when the cable is coupled to the power connector.

Abstract: An electrical device having a bus side and a load side is provided. The electrical device includes a plurality of conductive line terminals disposed on the bus side of said electrical device, and a plurality of electrical connectors. Each electrical connector of the plurality of electrical connectors includes a first end coupled to a respective line terminal of the plurality of line terminals, a second end distal from the first end, and a connector clip disposed at the second end. Each connector clip is configured to engage a bus bar to electrically couple the electrical device to the bus bar, and includes a first contact segment and a second contact segment spaced apart from the first contact segment. The first and second contact segments are configured to deflect towards one another from a relaxed position to a depressed position when inserted into a connector channel defined by the bus bar.

Abstract: An electrical distribution apparatus is provided. The electrical distribution apparatus includes a stacked bus bar assembly including a plurality of bus bars. Each bus bar includes a first plate, a second plate spaced from the first plate in a first direction, and an intermediate member disposed between and interconnecting the first plate and the second plate. At least one of the first plate and said second plate is constructed of an electrically conductive material.

Abstract: A machine server system includes a video processor adapted with logic to identify a physical object representation in a video, an object fingerprinter adapted to assign an object type to the physical object representation, a resource allocator adapted to match the object type to pre-defined relocation resource values for physical objects having the object type, and weighting logic adapted to adjust the pre-defined relocation resource values for physical objects having the object type by an adjustment amount that varies according to geolocation coordinates correlated to the physical object representation.

Abstract: A method of manufacturing two or more composite parts, the method comprising: assembling the composite parts on a mandrel by laying a series of layers of bands of composite material onto the mandrel with a placement machine,—rotating the mandrel as the bands are laid onto the mandrel; attaching two or more debulk frames (10, 11) to the mandrel between opposed edges of the composite parts after the composite parts have been assembled; wrapping the mandrel, debulk frames (10, 11) and composite parts in a debulk bag; heating the composite parts,—forming a vacuum between the mandrel and the debulk bag so that the debulk bag is sucked into voids between the debulk frames and the heated composite parts and progressively presses against the heated composite parts whereby excess material is squeezed by the debulk bag towards their opposed edges; and removing the debulk bag and the composite parts from the mandrel.

Abstract: A method of manufacturing two or more composite parts, the method comprising: assembling the composite parts on a mandrel by laying a series of layers of bands of composite material onto the mandrel with a placement machine,—rotating the mandrel as the bands are laid onto the mandrel; attaching two or more debulk frames (10, 11) to the mandrel between opposed edges of the composite parts after the composite parts have been assembled; wrapping the mandrel, debulk frames (10, 11) and composite parts in a debulk bag; heating the composite parts,—forming a vacuum between the mandrel and the debulk bag so that the debulk bag is sucked into voids between the debulk frames and the heated composite parts and progressively presses against the heated composite parts whereby excess material is squeezed by the debulk bag towards their opposed edges; and removing the debulk bag and the composite parts from the mandrel.