Abstract: The rotor with a non-through shaft for an electrical machine comprises a cylindrical magnetic mass gripped between two half-shafts each comprising a mounting flange connected to the magnetic mass. Each half-shaft is made in a single piece and comprises a coupling flange located opposite the mounting flange.

Abstract: The disclosed assembly comprises a housing and a stator inserted inside a cylindrical cavity in said housing. Said assembly comprises a means for point-to-point attachment of the stator to the housing.

Abstract: Element of a rotating electrical machine, of the rotor or stator type, comprising a plurality of stacks of magnetic sheets each equipped with a tooth comprising notches intended to accommodate electrical windings, and pins arranged between two successive bundles of sheets forming an air-flow duct. A portion of the pins is distributed asymmetrically on the tooth of the stator or rotor sheet with respect to a median axis of the width of the tooth.

Abstract: The disclosed assembly (E) comprises a housing (4) and a stator (29) inserted inside a cylindrical cavity in said housing (4). Said assembly comprises a means for point-to-point attachment (40, 46) of the stator (29) to the housing (4).

Abstract: A rotor for an asynchronous electrical machine comprising a magnetic ring comprising a plurality of layers of ferromagnetic metal sheets stacked axially and a squirrel cage having a plurality of conductive elements regularly distributed over the periphery of the magnetic ring and each having two opposite ends extending axially beyond the magnetic ring and each connected to a short-circuit crown, arranged axially on either side of the magnetic ring and intended to connect the ends of the conductive elements electrically. The rotor is segmented circumferentially into at least two rotor segments.

Abstract: The rotor with a non-through shaft for an electrical machine comprises a cylindrical magnetic mass gripped between two half-shafts each comprising a mounting flange connected to the magnetic mass. Each half-shaft is made in a single piece and comprises a coupling flange located opposite the mounting flange.

Abstract: A cradle for an electric machine comprises a frame delimiting a seat for receiving part of the machine and extending in a vertical direction and comprising a lower edge and an upper edge, the lower edge being intended for connection to a support. The upper edge comprises one or two receiving seats able to receive a respective bearing and comprising a base wall and two side walls.

Abstract: Element of a rotating electrical machine, of the rotor or stator type, comprising a plurality of stacks of magnetic sheets each equipped with a tooth (13) comprising notches intended to accommodate electrical windings, and pins (9) arranged between two successive bundles of sheets forming an air-flow duct. A portion of the pins is distributed asymmetrically on the tooth of the stator or rotor sheet with respect to a median axis (M) of the width (L) of the tooth.

Abstract: A rotor for an asynchronous electrical machine comprising a magnetic ring comprising a plurality of layers of ferromagnetic metal sheets stacked axially and a squirrel cage having a plurality of conductive elements regularly distributed over the periphery of the magnetic ring and each having two opposite ends extending axially beyond the magnetic ring and each connected to a short-circuit crown, arranged axially on either side of the magnetic ring and intended to connect the ends of the conductive elements electrically. The rotor is segmented circumferentially into at least two rotor segments.

Abstract: A cradle for an electric machine comprises a frame delimiting a seat for receiving part of the machine and extending in a vertical direction and comprising a lower edge and an upper edge, the lower edge being intended for connection to a support. The upper edge comprises one or two receiving seats able to receive a respective bearing and comprising a base wall and two side walls.

Abstract: A method and an installation for constructing a layer (12) of armor strips around a tubular core (10) of a flexible pipe. The installation has a support wheel (14) of a plurality of armor strips (32, 34) having, respectively, two opposite faces (44, 46) and a plurality of pairs of guide members (20, 22). The pairs of guide members include upstream guide members (52, 54) and downstream guide members (56, 58) which sets of guide members extend along axes that are angularly offset from one another. The support wheel (14) has devices (78, 92) for adjusting the downstream guide members (56, 58) into a position such that the two opposite faces (44, 46) of the armor strip entering and leaving the downstream guide members (56, 58) are substantially perpendicular to the plane of flexing (Pf) defined by the entering and leaving armor strip.

Abstract: A method and an installation for constructing a layer (12) of armour strips around a tubular core (10) of a flexible pipe. The installation has a support wheel (14) of a plurality of armour strips (32, 34) having, respectively, two opposite faces (44, 46) and a plurality of pairs of guide members (20, 22). The pairs of guide members include upstream guide members (52, 54) and downstream guide members (56, 58) which sets of guide members extend along axes that are angularly offset from one another. The support wheel (14) has devices (78, 92) for adjusting the downstream guide members (56, 58) into a position such that the two opposite faces (44, 46) of the armour strip entering and leaving the downstream guide members (56, 58) are substantially perpendicular to the plane of flexing (Pf) defined by the entering and leaving armor strip.