A sealing structure, an inner wheel drive system and a method for assembling a dustproof member in a sealing structure. The sealing structure is used for sealing a radial clearance between a first component and a second component, and comprises a sealing member and a dustproof member, wherein the sealing member is sealed in the radial clearance, the dustproof member is located on an axial outer side of the sealing member, a first end of the dustproof member is fixed on the first component, an opposite second end extends in a radial direction so as to cover the radial clearance, and the second end and the second component are spaced apart and partially overlap with each other in an axial direction. Since the dustproof member is not arranged in the radial clearance, the axial size of the radial clearance is reduced, and axial sizes of the first component and the second component are also accordingly reduced. The sealing structure is especially suitable for the inner wheel drive system, is helpful for reducing the axial size of the inner wheel drive system, and improves the applicability of the inner wheel drive system.

In a rotating body, a rotating electric machine, an electric compressor, and a method of manufacturing a rotating body, a rotary shaft having a pair of flange portions provided at an interval in an axial direction, an iron core made of a magnet that has a cylindrical shape, is divided into a plurality of pieces in a circumferential direction, and is disposed between the pair of flange portions on an outer side of the rotary shaft in a radial direction, and a holding sleeve that has a cylindrical shape, is disposed on an outer side of the iron core, and has one end portion and the other end portion in the axial direction fixed to outer peripheral portions of the pair of flange portions are provided.

In a rotating body, a rotating electric machine, an electric compressor, and a method of manufacturing a rotating body, a rotary shaft having a pair of flange portions provided at an interval in an axial direction, an iron core made of a magnet that has a cylindrical shape, is divided into a plurality of pieces in a circumferential direction, and is disposed between the pair of flange portions on an outer side of the rotary shaft in a radial direction, and a holding sleeve that has a cylindrical shape, is disposed on an outer side of the iron core, and has one end portion and the other end portion in the axial direction fixed to outer peripheral portions of the pair of flange portions are provided.

An assembly for forming windings for electric machines, comprising: a supporting frame, a collection drum which has a central axis of symmetry and is supported on a plane of arrangement of the frame wherein the drum has a plurality of seats arranged according to a predefined distribution; at least one grip element which is configured to pick up at least one electrically conductive element from a delivery station and to move the picked-up element up to the insertion at least of a portion of interest of the element in a seat of the drum.

The assembly comprises means for translation which are configured to translate the drum on the plane of arrangement so as to vary the position of the central axis of the drum on the plane of arrangement.

An assembly for forming windings for electric machines, comprising: a supporting frame, a collection drum which has a central axis of symmetry and is supported on a plane of arrangement of the frame wherein the drum has a plurality of seats arranged according to a predefined distribution; at least one grip element which is configured to pick up at least one electrically conductive element from a delivery station and to move the picked-up element up to the insertion at least of a portion of interest of the element in a seat of the drum.

The assembly comprises means for translation which are configured to translate the drum on the plane of arrangement so as to vary the position of the central axis of the drum on the plane of arrangement.

An electric machine includes a stator, which has a stator laminated core and a stator winding arranged in the stator laminated core. In addition, the electric machine includes a temperature sensor, which is thermally conductively coupled to the stator winding and is configured to measure a temperature of the stator winding. The thermally conductive coupling is created by a fastening clip with a latching connection, wherein the fastening clip presses the temperature sensor against the stator winding or a heat-conducting element thermally conductively connected to the stator winding. The invention furthermore specifies a vehicle having such an electric machine, and also a method for producing a thermally conductive coupling between a temperature sensor and a stator winding or a heat-conducting element of an electric machine, the heat-conducting element being thermally conductively connected to the stator winding.

An electric machine includes a stator, which has a stator laminated core and a stator winding arranged in the stator laminated core. In addition, the electric machine includes a temperature sensor, which is thermally conductively coupled to the stator winding and is configured to measure a temperature of the stator winding. The thermally conductive coupling is created by a fastening clip with a latching connection, wherein the fastening clip presses the temperature sensor against the stator winding or a heat-conducting element thermally conductively connected to the stator winding. The invention furthermore specifies a vehicle having such an electric machine, and also a method for producing a thermally conductive coupling between a temperature sensor and a stator winding or a heat-conducting element of an electric machine, the heat-conducting element being thermally conductively connected to the stator winding.

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.

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.

A method for manufacturing a motor core includes forming multiple blocks, stacking the blocks to form a stacked body, and detecting an identifying portion with a detection device. The forming the blocks includes forming, only in the iron core piece that forms one end face of each block, an identifying portion for identifying the progressive press device that forms that block. The forming, only in the iron core piece that forms one end face of each block, the identifying portion includes forming the identifying portion in a surface of the iron core piece that forms the one end face of the block. The stacking the blocks to form the stacked body includes stacking, to form the stacked body, only the blocks formed by the progressive press device corresponding to the detected identifying portion among the multiple blocks.