Abstract: An axial field rotary energy device can include a housing having an axis with an axial direction. A stator assembly can include a plurality of stator panels that are discrete panels from each other. The stators panels can be mechanically and stationarily coupled to the housing. Each stator panel can include a printed circuit board (PCB) having coils that are electrically conductive, each stator panel consists of a single electrical phase. In addition, rotors can be rotatably mounted within the housing on opposite axial ends of the stator assembly. The rotors can be mechanically coupled together with a rotor spacer. Each rotor can include magnets. In addition, in one version, no rotor is disposed between axially adjacent ones of the stator panels.

Abstract: An axial field rotary energy device can include a rotor having an axis of rotation and magnets. Each magnet can extend in a radial direction relative to the axis. Each magnet can include a magnet radial edge. The device also includes a stator that is coaxial with the rotor. The stator has printed circuit board (PCB) layers each having coils. Each coil has a coil radial edge. When the radial edge portions of the magnets and the coils rotationally align relative to the axis, the magnet radial edges and the coil radial edges are not parallel and are angularly skewed relative to each other.

Abstract: An axial field rotary energy device can include a housing having coupling structures configured to mechanically couple the housing to a second housing of a second module. In addition, the housing can include electrical elements configured to electrically couple the housing to the second housing. A rotor can be rotatably mounted to the housing. The rotor can include an axis and a magnet. A stator can be mounted to the housing coaxially with the rotor. The stator can include a printed circuit board (PCB) having a PCB layer comprising a coil.

Abstract: A system for an axial field rotary energy device can include modules that each are an axial field rotary energy device. The modules can be connected together for a desired power input or output. Each module can include a housing having an axis. The housing can be mechanically coupled to at least one other module. In addition, the housing can be electrically coupled to one other module. Rotors can be rotatably mounted to the housing. Each rotor can include magnets. The housing also can have stators. Each stator can include a printed circuit board (PCB) having PCB layers comprising coils.

Abstract: An axial field rotary energy device can include a rotor having an axis of rotation and a magnet; a stator coaxial with the rotor, the stator can have a printed circuit board (PCB) having a plurality of PCB layers that are spaced apart in an axial direction, each PCB layer can include a coil having only two terminals for electrical connections, each coil is continuous and uninterrupted between its only two terminals, each coil consists of a single electrical phase, and one of the two terminals of each coil is electrically coupled to another coil with a via to define a coil pair; and each coil pair is electrically coupled to another coil pair with another via.

Abstract: An axial field rotary energy device can include a housing. A rotor can be mounted inside the housing. The rotor can include an axis of rotation and a magnet. A stator can be mounted inside the housing coaxial with the rotor. The stator can include a printed circuit board (PCB) having a PCB layer with a trace that is electrically conductive. The trace can include radial traces that extend in a radial direction relative to the axis and end turn traces that extend between the radial traces. The trace can include slits that extends through at least some portions of the trace.

Abstract: An axial field rotary energy device can include a housing. A rotor can be mounted inside the housing. The rotor can include an axis of rotation and a magnet. A stator also can be mounted inside the housing coaxial with the rotor. The stator can include a printed circuit board (PCB) having a PCB layer with a coil. A sensor can be integrated within the housing. The sensor can be configured to monitor, detect or generate data regarding operation of the axial field rotary energy device.

Abstract: An axial field rotary energy device can include a rotor comprising an axis of rotation and a magnet. In addition, a stator can be coaxial with the rotor. The stator can include a plurality of stator segments that are coupled together about the axis. Each stator segment can include a printed circuit board (PCB) having a PCB layer comprising a coil. Each stator segment also can include only one electrical phase. The stator itself can include one or more electrical phases.

Abstract: Disclosed herein is a delivery apparatus for delivering a self-expanding stent to a target position along the inside of a microcatheter, the delivery apparatus including an outer tube configured to communicate with the microcatheter, a shaft part configured to pass through the microcatheter while moving forwards and backwards in the outer tube and including a distal marker and a proximal marker to specify a position of the stent at the target position, and an elastic coating part formed on the outer surface of the shaft part between the distal marker and the proximal marker.

Abstract: A transactional server is configured to receive a transactional procedure call from a client to initiate one or more transaction processes. Said transactional server includes a Lightweight Directory Access Protocol (LDAP) authentication server which is configured to forward the transactional procedure call from the transactional server to a distributed authentication server for authentication. When the transactional procedure call to initiate a transaction is received at the transactional server, the LDAP authentication server identifies a user associated with the transactional procedure call, determines that the distributed authentication server should authenticate the user, and initiates an LDAP session between the transactional server and the distributed authentication server.

Abstract: A transactional server is configured to receive a transactional procedure call from a client to initiate one or more transaction processes. Said transactional server includes a Lightweight Directory Access Protocol (LDAP) authentication server which is configured to forward the transactional procedure call from the transactional server to a distributed authentication server for authentication. When the transactional procedure call to initiate a transaction is received at the transactional server, the LDAP authentication server identifies a user associated with the transactional procedure call, determines that the distributed authentication server should authenticate the user, and initiates an LDAP session between the transactional server and the distributed authentication server.

Abstract: A method for providing single security administration comprising the steps of: allowing a client (e.g. a Tuxedo client) to access a default security plugin; issuing a call (e.g. tpinit) to an LDAP authentication server at a first (e.g. Tuxedo) server; passing query user information from the LDAP authentication server to an embedded LDAP server at a second (e.g. WLS) server; returning corresponding user information to the LDAP authentication server; and, providing an authentication token for use by the client.

Abstract: A method for providing single security administration comprising the steps of: allowing a client (e.g. a Tuxedo client) to access a default security plugin; issuing a call (e.g. tpinit) to an LDAP authentication server at a first (e.g. Tuxedo) server; passing query user information from the LDAP authentication server to an embedded LDAP server at a second (e.g. WLS) server; returning corresponding user information to the LDAP authentication server; and, providing an authentication token for use by the client.