A stator includes: a stator core including a plurality of stator teeth in a circumferential direction with respect to a center of rotation of a rotary electric machine; a stator coil disposed on a bottom portion side of each of a plurality of stator slots formed between the stator teeth; and a stator magnet disposed on an opening side of each of the plurality of stator slots and having the same polarity in a radial direction. In each of the stator slots, a plate-shaped fixing member is provided between the stator coil and the stator magnet so as to be fitted to opposed two wall surfaces of the stator slot, and a magnetic body is provided between the stator coil and the stator magnet.

The present disclosure to electromagnetically-controlled magnetic cycloidal gear assemblies and methods of operating same. In one example embodiment, such an assembly includes a stator that is concentric with respect to a primary axis of the assembly, and that includes a plurality of first magnetic devices, where each of those devices includes a respective electromagnet. Also, the assembly includes an input shaft that includes an offset cam, a cycloid mounted at least indirectly upon the offset cam, and an output hub. The cycloid is eccentric with respect to the primary axis and includes a plurality of second magnetic devices, and the output hub is at least indirectly rotationally coupled to the cycloid. The assembly also includes a controller coupled to each of the electromagnets by way of one or more linkages, and configured to govern at least one electric current that is passed through at least one of the electromagnets.

There is provided a magnetic drive apparatus having a magnetic drive mechanism driven by a magnet. The magnetic drive apparatus includes a magnetizing yoke disposed in the magnetic drive apparatus at a standby position and configured to be moved to magnetize the magnet and a magnetizing yoke holder configured to hold the magnetizing yoke at a magnetizing position for magnetizing the magnet when the magnetic drive mechanism is stopped.

A magnetic pole piece device according to an embodiment is a magnetic pole piece device disposed between an inner diameter side magnet field and an outer diameter side magnet field of a magnetic gear that includes an annular member which includes a plurality of magnetic pole pieces disposed at intervals in a circumferential direction, and a plurality of holding members respectively disposed between the plurality of magnetic pole pieces, and a cover member which is made of a composite material obtained by impregnating continuous fiber extending along the circumferential direction with a matrix resin. The cover member is disposed on at least one of an outer circumferential surface and an inner circumferential surface of the annular member. A relation of ⅙.Math.tc≤t≤½.Math.tc is satisfied, where tc is a gap between the annular member and the magnet field and t is a thickness of the cover member.

A magnetic driving apparatus includes a base, at least one passive magnetic unit, and a switching unit. The at least one passive magnetic unit includes two passive magnets movable on the base and a translation-to-rotation device for interconnecting the passive magnets. The switching unit includes two active magnetic units, and a driving unit. The passive magnets are located between the active magnetic units. Each of the active magnetic units includes at least two active magnets. The amount of the active magnets of each of the active magnetic units is the amount of the at least one passive magnetic unit plus one. The driving unit reciprocates the active magnetic units between two positions relative to the at least one passive magnetic unit so that the active magnets reciprocate the passive magnets.

A transmission system suitable for operation with a drive machine includes an input shaft for a drive power, at least one output shaft for outputting drive power, a power-split transmission section having at least one variable transmission branch and a mechanical transmission branch, a manual transmission, a transmission system controller, and at least one first and second electric machine for generator and motor operation. The electric machines are electrically connected to one another. The drive power is divided up and conducted by the mechanical and variable transmission branch. An input-coupled, magnetically electric epicyclic gear stage brings together the variable transmission branch and mechanical transmission branch, and is activated by the second electric machine such that the output shaft of the transmission system rotates counter to a direction of rotation at the input shaft to provide a forward and reverse operation of the transmission system.

The disclosure provides a pole-piece structure for a magnetic gear, comprising a plurality of laminate plates, wherein each plate comprises one or more apertures and an aperture in each plate aligns with an aperture in an adjacent plate to form one or more channels extending from a first end of the laminate plates to a second, opposite end of the laminate plates, wherein a resin cast is provided within each channel to hold the plurality of laminate plates together.

A stator includes: a stator core including a plurality of stator teeth in a circumferential direction with respect to a center of rotation of a rotary electric machine; a stator coil disposed on a bottom portion side of each of a plurality of stator slots formed between the stator teeth; and a stator magnet disposed on an opening side of each of the plurality of stator slots and having the same polarity in a radial direction. In each of the stator slots, a cooling portion is provided between the stator coil and the stator magnet.

A magnetic linear actuator includes a stator and a rotor. The stator includes a first helical array of magnets. The rotor is disposed within the stator and includes a second helical array of magnets. The second helical array of magnets includes a first helical band of magnets and a second helical band of magnets. A first of the magnets of the first helical band coupled to at least one other of the magnets of the first helical band. A first of the magnets of the second helical band coupled to at least one other of the magnets of the second helical band.

This pump comprises: a housing; a second cover coupled to the housing; a stator disposed inside the housing; a pump gear disposed so as to correspond to the stator; and magnets disposed on the pump gear, wherein the pump gear comprises a first guide part protruding towards the second cover, and the second cover comprises a guide groove into which the first guide part is inserted.