Abstract: A system for treating urinary incontinence provides an implant device that holds threads of a sling/graft, and further allows for adjustment of the threads. The implant device includes a bobbin on which the threads may be wound, a drive assembly configured to rotate the bobbin, the drive assembly comprising a shaft and a gear assembly, the gear assembly configured to transfer a rotational motion of the shaft to the bobbin to effectuate an axial rotation of the bobbin. The bobbin and drive assembly may be retained in a device housing. The drive assembly may be cycloidal for a high gear ratio with reduced device size.

Abstract: A method and a system are provided to control an actuator for exerting forces upon a loading area, particularly a vehicle seat, in an adjusting direction, especially a longitudinal vehicle direction extending from a front end of the vehicle to a tail end of the vehicle. The loading area is mounted on a body of a motor vehicle, particularly a passenger car, such that it can be adjusted in the adjusting direction. An imminent collision of the motor vehicle is detected, and an actuator is driven in order to accelerate the loading area in the adjusting direction prior to the imminent collision in the event an imminent collision is detected.

Abstract: A method and a system are configured to control an actuator for imposing forces in an adjusting direction, in particular a vehicle longitudinal direction from a vehicle front towards a vehicle rear, onto a loading surface, such as a vehicle seat, which is adjustably mounted on a body of a motor vehicle. A collision-based event is anticipate or detected. An actuator is activated in response to detection of the collision-based event in order to activate an actuator-driven movement of the loading surface relative to the body in adjusting direction for influencing, and in particular decelerate a collision-based movement of the loading surface relative to the body against the adjusting direction.

Abstract: The invention relates to a process for representing vehicle surroundings information of a motor vehicle, wherein the process comprises the following steps: recording a front surrounding environment of a vehicle by at least two cameras provided on a vehicle front end of the motor vehicle; detecting objects within the recorded front surrounding environment; if at least one object is detected within the front surrounding environment, determining a field of view of a driver of the motor vehicle and making a comparison to determine whether the object detrimentally affects the field of view of the driver of the motor vehicle; if the field of view of the driver is detrimentally affected by the detected object, acquiring information from the recorded front surrounding environment that is not within the field of view of the driver of the motor vehicle; and providing a perspective representation of the acquired information in the determined field of view of the driver.

Abstract: A motor vehicle, encompassing a body, a drive motor, in particular an internal combustion engine and/or an electric motor, a crash detection device, a computing unit, at least one front seat with a seat part and a back part, at least one rear seat with a seat part and a back part, at least one rearward displacement device for the at least partial rearward displacement of the at least one front seat during a pre-crash phase acquired by the crash detection device, wherein the seat part of the at least one rear seat has built into it a first means for lifting up the legs of an individual on the at least one rear seat during the pre-crash phase, and the back part of the at least one front seat has built into it a second means for the rearward movement of the legs of the individual on the at least one rear seat during the pre-crash phase.

Abstract: A method and a system are provided to control an actuator for exerting forces upon a loading area, particularly a vehicle seat, in an adjusting direction, especially a longitudinal vehicle direction extending from a front end of the vehicle to a tail end of the vehicle. The loading area is mounted on a body of a motor vehicle, particularly a passenger car, such that it can be adjusted in the adjusting direction. An imminent collision of the motor vehicle is detected, and an actuator is driven in order to accelerate the loading area in the adjusting direction prior to the imminent collision in the event an imminent collision is detected.

Abstract: A method and a system are configured to control an actuator for imposing forces in an adjusting direction, in particular a vehicle longitudinal direction from a vehicle front towards a vehicle rear, onto a loading surface, such as a vehicle seat, which is adjustably mounted on a body of a motor vehicle. A collision-based event is anticipate or detected, An actuator is activated in response to detection of the collision-based event in order to activate an actuator-driven movement of the loading surface relative to the body in adjusting direction for influencing, and in particular decelerate a collision-based movement of the loading surface relative to the body against the adjusting direction.

Abstract: A motor vehicle, encompassing a body, a drive motor, in particular an internal combustion engine and/or an electric motor, a crash detection device, a computing unit, at least one front seat with a seat part and a back part, at least one rear seat with a seat part and a back part, at least one rearward displacement device for the at least partial rearward displacement of the at least one front seat during a pre-crash phase acquired by the crash detection device, wherein the seat part of the at least one rear seat has built into it a first means for lifting up the legs of an individual on the at least one rear seat during the pre-crash phase, and the back part of the at least one front seat has built into it a second means for the rearward movement of the legs of the individual on the at least one rear seat during the pre-crash phase.

Abstract: The invention relates to a process for representing vehicle surroundings information of a motor vehicle, wherein the process comprises the following steps: recording a front surrounding environment of a vehicle by at least two cameras provided on a vehicle front end of the motor vehicle; detecting objects within the recorded front surrounding environment; if at least one object is detected within the front surrounding environment, determining a field of view of a driver of the motor vehicle and making a comparison to determine whether the object detrimentally affects the field of view of the driver of the motor vehicle; if the field of view of the driver is detrimentally affected by the detected object, acquiring information from the recorded front surrounding environment that is not within the field of view of the driver of the motor vehicle; and providing a perspective representation of the acquired information in the determined field of view of the driver.

Abstract: A suspension is provided for a vehicle axle, with a twist-beam axle having two trailing arms interconnected via a cross brace, of which each trailing arm comprises a mounting device for the rotatable fastening of the twist-beam axle to a vehicle body, which includes, but is not limited to a bushing and a connecting element, which is formed on the trailing arm and in which the bushing is received such that the twist-beam axle can be pivoted about the longitudinal axis of the bushing. The bushing is fastened to a holder, which can be connected to the vehicle body, and the bushing with its longitudinal axis is arranged in a horizontal vehicle plane.

Abstract: A rear floor structure for a motor vehicle includes, but is not limited to two longitudinal girders extending between rear wheel houses. A downwardly open pocket for receiving a shock absorber is formed in each of the longitudinal girders.

Abstract: A suspension is provided for a vehicle axle, with a twist-beam axle having two trailing arms interconnected via a cross brace, of which each trailing arm comprises a mounting device for the rotatable fastening of the twist-beam axle to a vehicle body, which includes, but is not limited to a bushing and a connecting element, which is formed on the trailing arm and in which the bushing is received such that the twist-beam axle can be pivoted about the longitudinal axis of the bushing. The bushing is fastened to a holder, which can be connected to the vehicle body, and the bushing with its longitudinal axis is arranged in a horizontal vehicle plane.

Abstract: A rear floor structure for a motor vehicle includes, but is not limited to two longitudinal girders extending between rear wheel houses. A downwardly open pocket for receiving a shock absorber is formed in each of the longitudinal girders.

Abstract: A damping bushing is provided for an axle bearing of a trailing arm of a torsion-beam rear axle for a motor vehicle, in particular for an automobile, which includes, but is not limited to a bushing outer sleeve, a bushing inner sleeve, and a damping body. The interposed damping body is disposed coaxially to the bushing outer sleeve and to the bushing inner sleeve between these two elements. The bushing inner sleeve forms a radially outwardly extending spherical surface and the damping bushing has at least one further element that abuts extensively against the spherical surface formed by the bushing inner sleeve. Furthermore, a torsion-beam axle is provided that is fitted with these bushings.