Abstract: A motor for an electric vehicle includes a motor housing for receiving a stator. A plurality of caps each have an outer rim and a washer portion defining a bolt receiving opening. The outer rim of each of the caps is press-fit into the receptacles in the motor housing. The caps are each attached to the stator by one of the bolts. The heads of the bolts clamp the cap to the stator to retain one end of the stator. The outer rim holds the cap in the motor housing while the washer portion flexes axially in response to thermal expansion and contraction of the motor housing. A method is disclosed for assembling the stator into the motor housing.

Abstract: A motor for an electric vehicle includes a motor housing for receiving a stator. A plurality of caps each have an outer rim and a washer portion defining a bolt receiving opening. The outer rim of each of the caps is press-fit into the receptacles in the motor housing. The caps are each attached to the stator by one of the bolts. The heads of the bolts clamp the cap to the stator to retain one end of the stator. The outer rim holds the cap in the motor housing while the washer portion flexes axially in response to thermal expansion and contraction of the motor housing. A method is disclosed for assembling the stator into the motor housing.

Abstract: A vehicle transaxle includes a housing, an electric machine stator, a plurality of mounting plates, and a first set of fasteners. The housing has internal walls that define a cavity and an access opening to the cavity. The electric machine stator is disposed within the cavity between a first of the internal walls and the opening. The plurality of mounting plates secures a first longitudinal end of the stator to the housing proximate the opening. Each fastener of the first set of fasteners extends through one of the mounting plates, through the stator, and engages the first of the internal walls to secure a second longitudinal end of the stator to the first of the internal walls.

Abstract: A vehicle transaxle includes a housing, an electric machine stator, a plurality of mounting plates, and a first set of fasteners. The housing has internal walls that define a cavity and an access opening to the cavity. The electric machine stator is disposed within the cavity between a first of the internal walls and the opening. The plurality of mounting plates secures a first longitudinal end of the stator to the housing proximate the opening. Each fastener of the first set of fasteners extends through one of the mounting plates, through the stator, and engages the first of the internal walls to secure a second longitudinal end of the stator to the first of the internal walls.

Abstract: A vehicle transmission includes a housing, an electric machine, a bracket, and a plurality of fasteners. The housing has internal rear and internal side walls that define a cavity. The electric machine stator and the bracket are disposed within the cavity. The bracket has a metallic inner ring and an elastomer outer ring. The elastomer outer ring engages the internal side wall. The electric machine stator is disposed between the bracket and the internal rear wall. The plurality of fasteners extends through the metallic inner ring, through the stator, and engages the rear internal wall to secure the stator to the housing.

Abstract: A vehicle transmission includes a housing, an electric machine stator, a support plate, and a plurality of fasteners. The housing has an internal rear wall and a side wall that define a cavity. The electric machine stator is disposed within the cavity. The support plate is disposed within the cavity. The support plate engages the internal side wall such that a press-fit engagement is formed between the support plate and the internal side wall. The electric machine is disposed between the support plate and the internal rear wall. The plurality of fasteners extends through the support plate, through the stator, and engages the rear internal wall to secure the stator to the housing.

Abstract: A vehicle transmission includes a housing, an electric machine stator, a support plate, and a plurality of fasteners. The housing has an internal rear wall and a side wall that define a cavity. The electric machine stator is disposed within the cavity. The support plate is disposed within the cavity. The support plate engages the internal side wall such that a press-fit engagement is formed between the support plate and the internal side wall. The electric machine is disposed between the support plate and the internal rear wall. The plurality of fasteners extends through the support plate, through the stator, and engages the rear internal wall to secure the stator to the housing.

Abstract: A vehicle transmission includes a housing, an electric machine, a bracket, and a plurality of fasteners. The housing has internal rear and internal side walls that define a cavity. The electric machine stator and the bracket are disposed within the cavity. The bracket has a metallic inner ring and an elastomer outer ring. The elastomer outer ring engages the internal side wall. The electric machine stator is disposed between the bracket and the internal rear wall. The plurality of fasteners extends through the metallic inner ring, through the stator, and engages the rear internal wall to secure the stator to the housing.

Abstract: Exemplary systems and methods of the disclosure are directed to managing payday accounts over a mobile network. The system includes at least one mobile computing device and at least one host computing device. The mobile computing device is associated with a customer and configured to retrieve customer account information from the host computing device over the network. The mobile computing device generates a customized payday product menu based on the customer account information. The customer account information indicates a status of active payday accounts for the customer or the customer's eligibility for opening new payday accounts.

Abstract: Approaches to embedding source graphs into targets graphs in a computing system are disclosed. Such may be advantageously facilitate computation with computing systems that employ one or more analog processors, for example one or more quantum processors.

Abstract: Approaches to embedding source graphs into targets graphs in a computing system are disclosed. Such may be advantageously facilitate computation with computing systems that employ one or more analog processors, for example one or more quantum processors.

Abstract: Approaches to embedding source graphs into targets graphs in a computing system are disclosed. Such may be advantageously facilitate computation with computing systems that employ one or more analog processors, for example one or more quantum processors.

Abstract: Systems, methods and articles for performing preference filtering on a database query. Example embodiments provide a new algorithm, called BNL#, that operates with a worst-case running time of O(ntce+ne+np) where {ne, np}<<nt?O(ntce). This represents an improvement over existing algorithms that are known in the art, such as the BNL algorithm which operates with a worst-case running time of O(nt2) and the BNL++ algorithm which operates with a worst-case running time of O(ntceneme), with ne<<nt. This abstract is provided to comply with rules requiring an abstract, and is submitted with the intention that it will not be used to interpret or limit the scope or meaning of the claims.

Abstract: Approaches to embedding source graphs into targets graphs in a computing system are disclosed. Such may be advantageously facilitate computation with computing systems that employ one or more analog processors, for example one or more quantum processors.

Abstract: A quantum integrated development environment is provided for designing quantum logic that utilizes N qubits, compiling the quantum logic into quantum machine language instructions, and running the machine language instructions on a quantum computing system. Additionally, the results of the execution are provided as an output.