Abstract: The present application provides a collector terminal dust mitigation assembly for use with collector terminals of generators to prevent dust entry into a collector terminal bore in a collector ring, wherein the collector terminals may have varying positions with respect to the collector rings. The collector terminal dust mitigation assembly may include one of a number of inner elements configured for a specific position of a collector terminal with respect to a collector ring and a standard outer element sized to accommodate the inner element.

Abstract: The present application provides an amortisseur-spring assembly for use about at least one of a wedge and a retaining ring of a generator. The amortisseur-spring assembly may include an amortisseur, a spring, a creepage block, and a locking mechanism extending through the amortisseur, the spring, and the creepage block.

Abstract: The present application provides an amortisseur-spring assembly for use about at least one of a wedge and a retaining ring of a generator. The amortisseur-spring assembly may include an amortisseur, a spring, a creepage block, and a locking mechanism extending through the amortisseur, the spring, and the creepage block.

Abstract: A method and system is provided for calculating a number of wedges for a slot in a dynamoelectric machine. The method includes the steps of providing a computer that is programmed to perform a method for calculating, which includes the steps of acquiring a length of the slot, acquiring a length of one or more wedges, and calculating a number of wedges required for the slot. The number of wedges required for the slot is displayed on a display device.

Abstract: A locking wedge for a slot of a dynamoelectric machine is provided. The locking wedge includes a main body extending in an axial direction. The main body has a top surface and a bottom surface with a greater surface area than the top surface, and a first end surface and a second end surface opposed to the first end surface. First and second locking slots extend in the axial direction into a portion of the main body. The first locking slot begins in the first end surface and the second locking slot begins in the second end surface. A first locking member is disposed to fit into the first locking slot, and a second locking member is disposed to fit into the second locking slot. The first and second locking members can be inserted into the first and second locking slots, respectively, to lock the locking wedge in the slot.

Abstract: A locking wedge for a slot of a dynamoelectric machine is provided. The locking wedge has a main body extending in an axial direction, and includes a top and a bottom surface. The bottom surface has a greater surface area than the top surface. A first end surface faces towards an axial-inward direction and a second end surface faces towards an axial-outward direction. A locking slot extends in the axial direction into a portion of the main body, and begins in the second end surface and extends axially inward. A locking member is disposed to fit into the locking slot, and is inserted into the locking slot to lock the locking wedge in the slot.

Abstract: A locking wedge for a slot of a dynamoelectric machine is provided. The locking wedge includes a main body extending in an axial direction. The main body has a top surface and a bottom surface with a greater surface area than the top surface, and a first end surface and a second end surface opposed to the first end surface. First and second locking slots extend in the axial direction into a portion of the main body. The first locking slot begins in the first end surface and the second locking slot begins in the second end surface. A first locking member is disposed to fit into the first locking slot, and a second locking member is disposed to fit into the second locking slot. The first and second locking members can be inserted into the first and second locking slots, respectively, to lock the locking wedge in the slot.

Abstract: A locking wedge for a slot of a dynamoelectric machine is provided. The locking wedge has a main body extending in an axial direction, and includes a top and a bottom surface. The bottom surface has a greater surface area than the top surface. A first end surface faces towards an axial-inward direction and a second end surface faces towards an axial-outward direction. A locking slot extends in the axial direction into a portion of the main body, and begins in the second end surface and extends axially inward. A locking member is disposed to fit into the locking slot, and is inserted into the locking slot to lock the locking wedge in the slot.

Abstract: A method and system is provided for calculating a number of wedges for a slot in a dynamoelectric machine. The method includes the steps of providing a computer that is programmed to perform a method for calculating, which includes the steps of acquiring a length of the slot, acquiring a length of one or more wedges, and calculating a number of wedges required for the slot. The number of wedges required for the slot is displayed on a display device.