Abstract: For an asynchronous machine (1), in particular for use in electric vehicles or hybrid vehicles, comprising a rotor (10) and a stator (20) which surrounds the rotor (10), wherein an external stator yoke (21) with a stator yoke height (h21) is formed on the stator (20) and a large number of radially inwardly projecting stator teeth (22) of the same length are formed on the stator yoke (21), wherein a stator slot (23) is respectively formed between adjacent stator teeth (22), wherein an internal rotor yoke (11) is formed on the rotor (10) and a large number of radially outwardly projecting rotor teeth (12) of the same length are formed by the rotor yoke (11), wherein a rotor slot (13) is respectively formed between adjacent rotor teeth (12), wherein the asynchronous machine is of six-phase design, it is proposed that a total number (N1) of stator slots, which denotes the total number of stator slots (23) formed on the stator (20), is seventy-two.

Abstract: For an asynchronous machine (1), in particular for use in electric vehicles or hybrid vehicles, comprising a rotor (10) and a stator (20) which surrounds the rotor (10), wherein an external stator yoke (21) with a stator yoke height (h21) is formed on the stator (20) and a large number of radially inwardly projecting stator teeth (22) of the same length are formed on the stator yoke (21), wherein a stator slot (23) is respectively formed between adjacent stator teeth (22), wherein an internal rotor yoke (11) is formed on the rotor (10) and a large number of radially outwardly projecting rotor teeth (12) of the same length are formed by the rotor yoke (11), wherein a rotor slot (13) is respectively formed between adjacent rotor teeth (12), wherein the asynchronous machine is of six-phase design, it is proposed that a total number (N1) of stator slots, which denotes the total number of stator slots (23) formed on the stator (20), is seventy-two.

Abstract: An electric machine, includes a housing; a rotor supported for rotation relative to the housing about a rotation axis, wherein the rotor has at least one rotor projection which extends axially toward the housing, wherein the housing has at least one housing projection which extends axially toward the rotor, wherein the rotor projection and the housing projection overlap each other in a direction along the rotation axis; and at least one gasket received between the rotor projection and the housing projection for sealing a fluid space formed between the rotor and the housing

Abstract: An energy transmission device for contactless transmission of electric energy includes a primary coil device and a secondary coil device, the secondary coil device being supported for rotation relative to the primary coil device about a rotation axis. The primary coil device has a primary yoke element, multiple primary leg elements and a primary winding, the secondary coil device having a secondary yoke element, multiple secondary leg elements and a secondary winding, said primary yoke element and/or the secondary yoke element being made of a laminated core. When viewed in longitudinal section of the rotation axis, the primary yoke element rests against at least one of the primary leg elements and/or the secondary yoke element rests against at least one of the secondary leg elements along a respective joint edge, said respective joint edge and/or a longitudinal center axis of the respective joint edge being slanted relative to the rotation axis.