Abstract: A method for manufacturing a rotor assembly of an electric engine, comprising: loading a first and second plurality of magnets in a magnet insertion tool, loading a sleeve in the magnet insertion tool: performing an insertion movement of the first plurality of magnets with respect to the second plurality of magnets using the magnet insertion tool, wherein the insertion movement comprises: moving the first plurality of magnets in a radial direction of the sleeve; moving the second plurality of magnets in an axial direction of the sleeve; and expanding a radius of the sleeve in the radial direction using the magnet insertion tool during the insertion movement.

Abstract: A rotor assembly has a sleeve, a rotor hub, a lamination core, and a plurality of tapered magnets disposed circumferentially around an inner diameter of the sleeve. The plurality of tapered magnets are configured to abut on one another. The plurality of tapered magnets includes a first set of tapered magnets and a second set of tapered magnets. Insertion of the first set of tapered magnets axially relative to the second set of tapered magnets is configured to increase a diameter of the sleeve. The rotor hub is configured to retain at least one of the lamination core, the plurality of tapered magnets, or the sleeve.

Abstract: A method for manufacturing a rotor assembly of an electric engine, comprising: loading a first and second plurality of magnets in a magnet insertion tool, loading a sleeve in the magnet insertion tool, performing a first insertion movement using the magnet insertion tool, wherein the first insertion movement comprises moving one of the first plurality of magnets or the second plurality of magnets in a radial direction of the sleeve, and performing a second insertion movement using the magnet insertion tool, wherein the second insertion movement comprises moving one of the first plurality of magnets or the second plurality of magnets with respect to the sleeve in an axial direction of the sleeve. The radius of the sleeve is expanded in a radial direction during one of the first insertion movement or the second insertion movement.

Abstract: One or more aspects of the present application relate to cooling management system implemented as part of an electric motor. Illustratively, the cooling management system corresponds to a sealed system/component that surrounding the motor stator magnetic core such that a cooling fluid is able to provide heat mitigation functionality during the operation of the AC induction motor, referred to generally as the electric motor. More specifically, illustratively, the cooling management system includes a reservoir configured to hold a cooling fluid, a pump configured to pump the cooling fluid, a heat exchanger configured to interact with the cooling fluid, and a sealed stator fluid jacket. The sealed stator fluid jacket further includes an over molded inner layer that defines an interior channel characterizing a space for the plurality of stator bars and that defines a plurality of flow channels for the flow of the cooling fluid.

Abstract: A rotor assembly has a sleeve, a rotor hub, a lamination core, and a plurality of tapered magnets disposed circumferentially around an inner diameter of the sleeve. The plurality of tapered magnets are configured to abut on one another. The plurality of tapered magnets includes a first set of tapered magnets and a second set of tapered magnets. Insertion of the first set of tapered magnets axially relative to the second set of tapered magnets is configured to increase a diameter of the sleeve. The rotor hub is configured to retain at least one of the lamination core, the plurality of tapered magnets, or the sleeve.

Abstract: Systems and methods for controlling a trailer. One example system includes a transceiver and an electronic controller coupled to the trailer and the transceiver. The electronic controller is configured to determine that a tractor has entered an area proximate to the trailer. The electronic controller is configured to determine that the tractor has mechanically coupled to the trailer. The electronic controller is configured to receive, via the transceiver, a command related to a component of the trailer. The electronic controller is configured to operate the component based on the command.

Abstract: A rotor assembly has a sleeve, a rotor hub, a lamination core, and a plurality of tapered magnets disposed circumferentially around an inner diameter of the sleeve. The plurality of tapered magnets are configured to abut on one another. The plurality of tapered magnets includes a first set of tapered magnets and a second set of tapered magnets. Insertion of the first set of tapered magnets axially relative to the second set of tapered magnets is configured to increase a diameter of the sleeve. The rotor hub is configured to retain at least one of the lamination core, the plurality of tapered magnets, or the sleeve.

Abstract: Methods of using phosphotetrahydropyran compounds for treatment of fibrotic and scarring disorders, e.g. pulmonary fibrosis, fibrosis associated with surgical procedures, wound healing disorders, scar formation, sclerotic disorders, ocular fibrotic disorders, ocular healing disorders, ocular fibrosis after surgery, glaucoma, tendon scarring disorders, joint scarring disorders, kidney interstitial fibrosis and glomerular fibrosis and tubular fibrosis of the kidney.

Abstract: Methods of using phosphotetrahydropyran compounds for treatment of fibrotic and scarring disorders, e.g. pulmonary fibrosis, fibrosis associated with surgical procedures, wound healing disorders, scar formation, sclerotic disorders, ocular fibrotic disorders, ocular healing disorders, ocular fibrosis after surgery, glaucoma, tendon scarring disorders, joint scarring disorders, kidney interstitial fibrosis and glomerular fibrosis and tubular fibrosis of the kidney.

Abstract: The present invention relates to a peptide for modulating an immune response, said peptide comprising an amino acid sequence corresponding to at least a portion of one of a Src homology 3 (SH3) domain, a Src homology 2 (SH2) domain, or a pleckstrin homology (PH) domain.