Abstract: A hydraulic pressure supply unit has a storage chamber which stores hydraulic fluid, a hydraulic pump which is arranged within the storage chamber and dips at least partially into the stored hydraulic fluid, and an electric motor which drives the hydraulic pump. The electric motor is arranged below the hydraulic pump in a separate motor chamber which is situated below the storage chamber, is dry, and is not connected fluidically to the storage chamber. The electric motor is coupled in a thermally transmitting manner to a separating floor, the upper side of which delimits the storage chamber and is wetted continuously with stored hydraulic fluid.

Abstract: A hydraulic component for vehicles, such as for maritime applications, is a hydraulic cylinder-piston unit. The piston of the hydraulic component has a piston rod with a measurement section. A magnetic rod in the piston rod extends over the measurement section. The magnetic rod has a helically varied magnetic field direction. The hydraulic component includes a sensor device having a scanning region measuring the field direction. The sensor device is arranged such that, over the entire stroke path of the piston, at least a part of the magnetic rod is located in the scanning region. The sensor device has a sensor unit configured to transmit measurement results for the field direction to a processing unit, configured to process and output the measurement results. Furthermore, the present invention relates to a hydraulic adjustment system having at least one hydraulic component and a vehicle having at least one hydraulic adjustment system.

Abstract: A housing pressure supply unit has a storage chamber which stores hydraulic fluid, a hydraulic pump which is arranged within the storage chamber and dips at least partially into the stored hydraulic fluid, and an electric motor which drives the hydraulic pump. The electric motor is arranged below the hydraulic pump in a separate motor chamber which is situated below the storage chamber, is dry, and is not connected fluidically to the storage chamber. The electric motor is coupled in a thermally transmitting manner to a separating floor, the upper side of which delimits the storage chamber and is wetted continuously with stored hydraulic fluid.

Abstract: A hydraulic pressure supply unit has a storage chamber which stores hydraulic fluid, a hydraulic pump which is arranged within the storage chamber and dips at least partially into the stored hydraulic fluid, and an electric motor which drives the hydraulic pump. The electric motor is arranged below the hydraulic pump in a separate motor chamber which is situated below the storage chamber, is dry, and is not connected fluidically to the storage chamber. The electric motor is coupled in a thermally transmitting manner to a separating floor, the upper side of which delimits the storage chamber and is wetted continuously with stored hydraulic fluid.

Abstract: In a mobile stretcher, in order to change the height position of a patient support mounted on a chassis, the chassis geometry is modifiable by a hydraulic drive system. The drive system includes a linear actuator, a pressure supply unit, and a receiving space for hydraulic fluid. A manually actuatable unlocking valve unit directly connects a lifting working chamber of the linear actuator to the receiving space. The valve unit has a control space delimited by a piston element movably guided relative to the housing of the valve unit and which communicates with a lifting attachment, which communicates with the working chamber. The piston element is operatively connected to a valve body interacting with a valve seat of a relief valve between the lifting attachment and a tank attachment communicating with the receiving space. A mechanical actuation input acts on the valve body, with a spring element interposed.

Abstract: In a mobile stretcher, in order to change the height position of a patient support mounted on a chassis, the chassis geometry is modifiable by a hydraulic drive system. The drive system includes a linear actuator, a pressure supply unit, and a receiving space for hydraulic fluid. A manually actuatable unlocking valve unit directly connects a lifting working chamber of the linear actuator to the receiving space. The valve unit has a control space delimited by a piston element movably guided relative to the housing of the valve unit and which communicates with a lifting attachment, which communicates with the working chamber. The piston element is operatively connected to a valve body interacting with a valve seat of a relief valve between the lifting attachment and a tank attachment communicating with the receiving space. A mechanical actuation input acts on the valve body, with a spring element interposed.

Abstract: A hydraulic component for vehicles, such as for maritime applications, is a hydraulic cylinder-piston unit. The piston of the hydraulic component has a piston rod with a measurement section. A magnetic rod in the piston rod extends over the measurement section. The magnetic rod has a helically varied magnetic field direction. The hydraulic component includes a sensor device having a scanning region measuring the field direction. The sensor device is arranged such that, over the entire stroke path of the piston, at least a part of the magnetic rod is located in the scanning region. The sensor device has a sensor unit configured to transmit measurement results for the field direction to a processing unit, configured to process and output the measurement results. Furthermore, the present invention relates to a hydraulic adjustment system having at least one hydraulic component and a vehicle having at least one hydraulic adjustment system.

Abstract: A hydraulic pressure supply unit has a storage chamber which stores hydraulic fluid, a hydraulic pump which is arranged within the storage chamber and dips at least partially into the stored hydraulic fluid, and an electric motor which drives the hydraulic pump. The electric motor is arranged below the hydraulic pump in a separate motor chamber which is situated below the storage chamber, is dry, and is not connected fluidically to the storage chamber. The electric motor is coupled in a thermally transmitting manner to a separating floor, the upper side of which delimits the storage chamber and is wetted continuously with stored hydraulic fluid.

Abstract: An electrohydraulic linear actuator comprises a housing consisting of a tubular profile, which forms a housing shell and in which there is a plurality of cavities, and which is closed at the ends by two housing covers fitted to the ends of the housing shell. A first cavity of the tubular profile forms a cylinder which forms the hydraulic cylinder of a double-acting synchronous cylinder and a second cavity which extends parallel to the first cavity accommodates a hydraulic unit in addition to the hydraulic cylinder, and a hydraulic oil reservoir is formed in said second cavity. Two working chambers of the hydraulic cylinder are separated from each other by a piston unit. The housing has at least one through-hole for a coupling element which forms a mechanical interface with the piston unit. The electric motor of the hydraulic unit is configured as a brushless outrunner motor.

Abstract: A land vehicle is provided having a chassis and having a plurality of corner support units. Each of the corner support units has a support leg which is mounted in a swiveling manner in a bearing shoe, which is rigidly attached to the land vehicle, about a substantially horizontal axis. The length of the support leg is telescopically variable. The support leg comprises at least two pipe sections, which can be displaced relative to each other in the longitudinal direction. A hydraulic cylinder is arranged in the interior of the support leg by means of which the position of the at least two pipe sections relative to each other, and consequently the length of the support leg, can be modified. A separate hydraulic assembly, arranged on the bearing shoe of each affected corner support unit and loading the hydraulic cylinder, is allocated to each corner support unit.

Abstract: An electrohydraulic linear actuator comprises a housing consisting of a tubular profile, which forms a housing shell and in which there is a plurality of cavities, and which is closed at the ends by two housing covers fitted to the ends of the housing shell. A first cavity of the tubular profile forms a cylinder which forms the hydraulic cylinder of a double-acting synchronous cylinder and a second cavity which extends parallel to the first cavity accommodates a hydraulic unit in addition to the hydraulic cylinder, and a hydraulic oil reservoir is formed in said second cavity. Two working chambers of the hydraulic cylinder are separated from each other by a piston unit. The housing has at least one through-hole for a coupling element which forms a mechanical interface with the piston unit. The electric motor of the hydraulic unit is configured as a brushless outrunner motor.

Abstract: A land vehicle is provided having a chassis and having a plurality of corner support units. Each of the corner support units has a support leg which is mounted in a swiveling manner in a bearing shoe, which is rigidly attached to the land vehicle, about a substantially horizontal axis. The length of the support leg is telescopically variable. The support leg comprises at least two pipe sections, which can be displaced relative to each other in the longitudinal direction. A hydraulic cylinder is arranged in the interior of the support leg by means of which the position of the at least two pipe sections relative to each other, and consequently the length of the support leg, can be modified. A separate hydraulic assembly, arranged on the bearing shoe of each affected corner support unit and loading the hydraulic cylinder, is allocated to each corner support unit.

Abstract: An optical linear measurement system and method are provided that determine movement of a movable device based on the signal strength of an optical signal propagating in a first optical fiber that is attached to the movable device. As the linear position of the movable device changes, the radius of a coil of the first optical fiber changes. As the radius of the coil changes, the strength of the optical signal changes. A second static optical fiber is used for performing temperature compensation. Changes in signal strength of an optical signal carried on the second optical fiber due to temperature are used to adjust the measured strength of the signal carried on the first optical fiber. The movement of the movable device is then made based on the adjusted signal strength measurement.

Abstract: An optical port is provided that is adapted to mate with optical plugs of at least first and second types. For example, the first type of optical plug may be a VLF-type optical plug and the second type of optical plug may be a non-VLF-type optical plug. The optical port has at least one first latching feature for engaging at least one first latching feature of a VLF-type optical plug with which the optical port may be mated. The optical port has at least one second latching feature for engaging at least one second latching feature of a non-VLF-type optical plug with which the optical port may be mated.

Abstract: An optical linear measurement system and method are provided that determine movement of a movable device based on the signal strength of an optical signal propagating in a first optical fiber that is attached to the movable device. As the linear position of the movable device changes, the radius of a coil of the first optical fiber changes. As the radius of the coil changes, the strength of the optical signal changes. A second static optical fiber is used for performing temperature compensation. Changes in signal strength of an optical signal carried on the second optical fiber due to temperature are used to adjust the measured strength of the signal carried on the first optical fiber. The movement of the movable device is then made based on the adjusted signal strength measurement.

Abstract: An SMD optical port is provided that has a leadframe that performs the typical functions of a leadframe and that also performs the mechanical stabilizing functions normally performed by a separate metal backing plate. Therefore, the need for a separate metal backing plate is eliminated, which enables the costs of the SMD optical port to be reduced. The leadframe is configured into two or more leadframe portions that are interconnected. One of the leadframe portions is used as a mounting surface for mounting an optoelectronic package on the leadframe and for making electrical connections. Another of the leadframe portions is configured, or adapted, to attach to a bottom surface of the port housing and to act as a backing plate that mechanically couples the SMD optical port to a mounting surface and mechanically stabilizes the SMD optical port.

Abstract: An optical port is provided that is adapted to mate with optical plugs of at least first and second types. For example, the first type of optical plug may be a VLF-type optical plug and the second type of optical plug may be a non-VLF-type optical plug. The optical port has at least one first latching feature for engaging at least one first latching feature of a VLF-type optical plug with which the optical port may be mated. The optical port has at least one second latching feature for engaging at least one second latching feature of a non-VLF-type optical plug with which the optical port may be mated.

Abstract: The invention relates to a packaging system having a tool for inserting electronic components into a carrier tape, which has passage openings. The tool has a pick-up device to pick up the components from a carrier film and position them in the passage openings by means of a lifting movement. The packaging system has a guide plate for the linear sliding conveyance of the carrier tape populated with electronic components, and in each case devices for applying upper and lower cover films to the carrier tape. The invention additionally relates to a method of populating the carrier tape with electronic components.

Abstract: The invention relates to a packaging system having a tool for inserting electronic components into a carrier tape, which has passage openings. The tool has a pick-up device to pick up the components from a carrier film and position them in the passage openings by means of a lifting movement. The packaging system has a guide plate for the linear sliding conveyance of the carrier tape populated with electronic components, and in each case devices for applying upper and lower cover films to the carrier tape. The invention additionally relates to a method of populating the carrier tape with electronic components.

Abstract: A packaging system and a method of populating a transport belt with a tool for enclosing electronic components in a carrying belt, is described. For this purpose, the device has a heated punch with a structured punch face that has a plurality of mutually spaced punch face strips, which do not cover openings in the carrying belt. One of the punch face strips provided on an upper side of the carrying belt is not covered by the covering film.