Abstract: A method includes a first computing entity receiving a request for first data from an affiliated source device by a user device. When a re-encryption key of the user device is not based on a key pair of the first computing entity the method further includes decrypting the first encrypted data using a private key of the first computing entity and encrypting the recovered first data with a public key of a second computing entity to produce second encrypted data. The method further includes encrypting the second encrypted data with the re-encryption key of the user device to produce double encrypted data. The method further includes sending the double encrypted data to the user device, where the user device is capable of decrypting the double encrypted data to recover the first data using a private key of the user device based on a key pair of the second computing entity.

Abstract: A method includes a first computing entity editing an entry in a first copy of a common responsibility list of a proprietary network, where the entry includes information regarding the first computing entity's service responsibility for a first user computing device. The method further includes the first computing entity sending at least the edited entry to other computing entities. The method further includes the first computing entity receiving at least a second edited entry from a second computing entity. The method further includes the first computing entity updating the first copy of the common responsibility list with the at least the second edited entry.

Abstract: A method includes receiving, via a core network in accordance with a regional data routing plan, an affiliation request from a data source device based on a first level regional affiliation of the data source device and a first computing entity. The method further includes determining whether a second level regional affiliation is substantially equal to the first level regional affiliation. When the second level regional affiliation is not substantially equal to the first level regional affiliation, the method further includes identifying a second computing entity based on the second level regional affiliation and sending a notification message to the second computing entity regarding the data source device being affiliated with the second computing entity. The method further includes broadcasting a gateway message to the core network to change the regional data routing plan such that data from the data source device is routed to the second computing entity.

Abstract: A method includes a source computing device receiving an actual transmission time of a previous data message sent from the source computing device to a target computing device. When the actual transmission time is within a timing tolerance of a desired transmission time, the method further includes setting a transmission change indicator for a next data message to no-change. When the actual transmission time is greater than the timing tolerance plus the desired transmission time, the method further includes and setting the transmission change indicator to increase transmission speed. When the actual transmission time is less than the desired transmission time minus the timing tolerance, the method further includes setting the transmission change indicator to decrease transmission speed.

Abstract: A method includes receiving, via a core network in accordance with a regional data routing plan, an affiliation request from a data source device based on a first level regional affiliation of the data source device and a first computing entity. The method further includes determining whether a second level regional affiliation is substantially equal to the first level regional affiliation. When the second level regional affiliation is not substantially equal to the first level regional affiliation, the method further includes identifying a second computing entity based on the second level regional affiliation and sending a notification message to the second computing entity regarding the data source device being affiliated with the second computing entity. The method further includes broadcasting a gateway message to the core network to change the regional data routing plan such that data from the data source device is routed to the second computing entity.

Abstract: A method includes a first computing entity editing an entry in a first copy of a common responsibility list of a proprietary network, where the entry includes information regarding the first computing entity's service responsibility for a first user computing device. The method further includes the first computing entity sending at least the edited entry to other computing entities. The method further includes the first computing entity receiving at least a second edited entry from a second computing entity. The method further includes the first computing entity updating the first copy of the common responsibility list with the at least the second edited entry.

Abstract: A method includes a source computing device receiving an actual transmission time of a previous data message sent from the source computing device to a target computing device. When the actual transmission time is within a timing tolerance of a desired transmission time, the method further includes setting a transmission change indicator for a next data message to no-change. When the actual transmission time is greater than the timing tolerance plus the desired transmission time, the method further includes and setting the transmission change indicator to increase transmission speed. When the actual transmission time is less than the desired transmission time minus the timing tolerance, the method further includes setting the transmission change indicator to decrease transmission speed.

Abstract: A method includes a first computing entity receiving a request for first data from an affiliated source device by a user device. When a re-encryption key of the user device is not based on a key pair of the first computing entity the method further includes decrypting the first encrypted data using a private key of the first computing entity and encrypting the recovered first data with a public key of a second computing entity to produce second encrypted data. The method further includes encrypting the second encrypted data with the re-encryption key of the user device to produce double encrypted data. The method further includes sending the double encrypted data to the user device, where the user device is capable of decrypting the double encrypted data to recover the first data using a private key of the user device based on a key pair of the second computing entity.

Abstract: The invention is based on a power tool with at least one handle (10, 26, 50, 62, 104) that comprises at least one grip part (12, 72, 106) that is firmly connected to a mounting part (16, 70, 110) via at least one elastic, vibration-damping element (14, 24, 52, 108), via which the grip part (12, 72, 106) is affixable to a housing (60). It is proposed that the connection between the grip part (12, 72, 106) and the mounting part (16, 70, 110) is secured by means of the elastic element (14, 24, 52, 108) via at least one movable retaining element (20, 22, 28, 64, 112).

Abstract: A hand power tool has a housing; at least one handle having at least one gripping part; at least one elastic, vibration-damping element; a mounting part mounted on the elastic element; the gripping part being mounted on the housing through the elastic element and through the mounting element; and at least one movable safety element through which the gripping part is connected with the mounting part.

Abstract: The invention describes a handle for a hand-held machine tool comprising a grip element (20) and a fastening element (10) for fastening the handle to a housing of a hand-held machine tool, wherein the fastening element (10) partially protrudes into the grip element (20) and a damping element (30) is provided between the grip element (20) and the fastening element (10), and wherein the fastening element (10) forms an undercut (12, 15) in the grip element (20).

Abstract: The invention relates to a hand grip having a grip core and a grip cover disposed on the grip core. The grip cover has at least one vibration-damping element. A fastening element is attached to the grip core. The vibration-damping means can be prestressed.

Abstract: A hand power tool has a housing; at least one handle having at least one gripping part; at least one elastic, vibration-damping element; a mounting part mounted on the elastic element; the gripping part being mounted on the housing through the elastic element and through the mounting element; and at least one movable safety element through which the gripping part is connected with the mounting part.

Abstract: The invention describes a handle including a grip element and a fastening element, which are situated spaced apart from each other by at least one damping element; at least one of the contact surfaces of the grip element or fastening element, which are oriented toward each other via the damping element, is embodied as profiled so that the contact surface is enlarged.

Abstract: The invention describes a handle for a hand-held machine tool comprising a grip element (20) and a fastening element (10) for fastening the handle to a housing of a hand-held machine tool, wherein the fastening element (10) partially protrudes into the grip element (20) and a damping element (30) is provided between the grip element (20) and the fastening element (10), and wherein the fastening element (10) forms an undercut (12, 15) in the grip element (20).

Abstract: A hand power tool has a housing; at least one handle having at least one gripping part; at least one elastic, vibration-damping element; a mounting part mounted on the elastic element; the gripping part being mounted on the housing through the elastic element and through the mounting element; and at least one movable safety element through which the gripping part is connected with the mounting part.

Abstract: A handle includes a handle sleeve and a handle core, the handle core includes a fastening element on one end and extends to the end of the handle sleeve opposite to the fastening element, an intermediate space is located between the handle sleeve and the handle core, and at least one dampening element is provided in the intermediate space, and the handle core includes a contactless overhanging section in the handle sleeve.

Abstract: In an armature packet (1) for an electric motor, having a plurality of armature laminations (2, 3), in each of which a plurality of winding slots (4) for receiving an armature winding (5) are embodied, and the winding slots (4) of adjacent armature laminations (2, 3) are located in alignment with one another and form a conduit (6), a better positional fixation of the armature winding (5) is attained by providing that the winding slots (4), associated with one conduit (6), of different armature laminations (2, 3) have different geometries. The same is attained by providing that at least some of the winding slots (4) each have an influx conduit (11), each of which discharges into its region oriented toward the center of the armature packet (1).

Abstract: A handheld power tool, in particular a handheld right-angle grinder (10), has an electric motor drive for a motor housing (11) that accommodates a tool and also has a handle (15), which is retained on the motor housing (11) by means of a handle mounting device (30) located between them, which handle mounting device has a mount (40), fastened to the motor housing (11), and at least one vibration-damping element (50) that is in communication with the mount (40) and the handle (15). The handle mounting device (30) has a mounting plate (60), on which the handle (15) is fastened by means of a fixation device. The at least one vibration-damping element (50) is located between the mount (40) and the mounting plate (60) and is solidly joined to them to form a unitary component.

Abstract: In an armature packet (1) for an electric motor, having a plurality of armature laminations (2, 3), in each of which a plurality of winding slots (4) for receiving an armature winding (5) are embodied, and the winding slots (4) of adjacent armature laminations (2, 3) are located in alignment with one another and form a conduit (6), a better positional fixation of the armature winding (5) is attained by providing that the winding slots (4), associated with one conduit (6), of different armature laminations (2, 3) have different geometries. The same is attained by providing that at least some of the winding slots (4) each have an influx conduit (11), each of which discharges into its region oriented toward the center of the armature packet (1).