mhurhangee/ep-ind-claims huggingface dataset:
A module (49, 149, 249) for use in a vehicle fuel system, said module comprising: - a housing having: - a first port; - a second port; and - a passage between the first port and the second port; - a closure body that is moveably arranged in said housing; wherein said closure body is configured for closing the passage between the first port and the second port in a first position of the closure body and for allowing access to the passage in a second position of the closure body; and - a pump that is integrated in said housing, wherein said pump communicates with the first port and is configured for pumping fluid into or out of the first port while the closure body is in the first position, the module (49, 149) further comprises a motor and a closure body actuator configured for positioning the closure body (11, 111) in at least the first position and the second position, wherein said closure body actuator is driven by said motor, and said motor is configured for driving the pump while the closure body is in the first position - wherein the motor is a rotary motor, - wherein the first position of the closure body is a fuel system isolation position of the closure body and the second position of the closure body is a fuel system venting position of the closure body, - wherein the closure body is guided in the housing for being translated (A, B) between the fuel system venting position and the fuel system isolation position, - the closure body actuator being configured to convert a rotational motion (C, D) generated by the rotary motor in a linear motion (A, B) for translating the closure body, wherein the closure body actuator comprises a screw mechanism (19, 21) for converting the rotational motion (C, D) generated by the rotary motor in the linear motion (A,B). - a housing having: - a first port; - a second port; and - a passage between the first port and the second port; - a first port; - a second port; and - a passage between the first port and the second port; - a closure body that is moveably arranged in said housing; wherein said closure body is configured for closing the passage between the first port and the second port in a first position of the closure body and for allowing access to the passage in a second position of the closure body; and - a pump that is integrated in said housing, wherein said pump communicates with the first port and is configured for pumping fluid into or out of the first port while the closure body is in the first position, - wherein the motor is a rotary motor, - wherein the first position of the closure body is a fuel system isolation position of the closure body and the second position of the closure body is a fuel system venting position of the closure body, - wherein the closure body is guided in the housing for being translated (A, B) between the fuel system venting position and the fuel system isolation position, - the closure body actuator being configured to convert a rotational motion (C, D) generated by the rotary motor in a linear motion (A, B) for translating the closure body,
An implantable medical device with a surface having a coating comprising: a first coating layer comprising an immobilized heparin moiety and a second particulate coating layer comprising elutable paclitaxel and at least one organic additive, wherein at least a portion of the second particulate coating layer is in contact with at least a portion of the first coating layer. a first coating layer comprising an immobilized heparin moiety and a second particulate coating layer comprising elutable paclitaxel and at least one organic additive, wherein at least a portion of the second particulate coating layer is in contact with at least a portion of the first coating layer.
A method of improving the protection of a tire sidewall against obstacles contacting the sidewall, the tire having an equator, the tire also having at least one tread block and tread groove located along a shoulder of the tire, the method comprising the steps of: identifying a first area in which an obstacle would move along the sidewall if the obstacle slipped off the tread block as the tire rotates past the obstacle; identifying a second area in which the obstacle would move along the sidewall if the obstacle slipped off a tread groove as the tire rotates past the obstacle; identifying LPN, the radial position at which the obstacle would first contact the sidewall if the obstacle slipped off an edge of the tread block as the tire rotates; identifying LPG, the radial position at which the obstacle would first contact the sidewall if the obstacle slipped off an edge of the groove as the tire rotates; and determining one or more contact regions (200, 210) using the first and second areas, LPG, LPN and the equator,wherein the contact regions comprise a groove-based contact region defined by LPG, LPN, and the trace the obstacle would follow on the sidewall if the trace slipped off an edge of the tread groove; and a block-based contact region defined by LPN, the equator, and the trace the obstacle would follow on the sidewall if the trace slipped off an edge of the tread block; positioning a groove-based tread feature upon the sidewall at said groove-based contact region, the groove-based tread feature projecting from the sidewall; and positioning a block-based tread feature upon the sidewall at said block-based contact region, the block-based tread feature projecting from the sidewall. identifying a first area in which an obstacle would move along the sidewall if the obstacle slipped off the tread block as the tire rotates past the obstacle; identifying a second area in which the obstacle would move along the sidewall if the obstacle slipped off a tread groove as the tire rotates past the obstacle; identifying LPN, the radial position at which the obstacle would first contact the sidewall if the obstacle slipped off an edge of the tread block as the tire rotates; identifying LPG, the radial position at which the obstacle would first contact the sidewall if the obstacle slipped off an edge of the groove as the tire rotates; and determining one or more contact regions (200, 210) using the first and second areas, LPG, LPN and the equator,wherein the contact regions comprise a groove-based contact region defined by LPG, LPN, and the trace the obstacle would follow on the sidewall if the trace slipped off an edge of the tread groove; and a block-based contact region defined by LPN, the equator, and the trace the obstacle would follow on the sidewall if the trace slipped off an edge of the tread block;
Tat for use in a method for the treatment of HIV, wherein said method comprises administering said Tat to a human treated with highly active anti-retroviral therapy (HAART)in order to partially or completely restore immunocompetence in an immunocompromised human having a persistent HIV infection.
Electric vehicle, in particular electric bicycle or electric scooter or small transport vehicle, comprising: - a wheel hub drive having a wheel hub and a motor/transmission unit, - the motor/transmission unit comprising - an electric motor, having a first and second drive direction (A, B), - a transmission which is arranged directly on the electric motor and has an input shaft and an output shaft, and - a controller which is set up to drive the electric motor in the first and second drive direction, - the transmission having a first transmission stage and a second transmission stage which have different transmission ratios, - the first transmission stage having a first freewheel, and the second transmission stage having a second freewheel, and - a freewheel direction and a locking direction of the first freewheel and of the second freewheel being different, - the transmission comprising, furthermore, a driven element which is arranged on the output shaft, and - the driven element of the transmission driving the wheel hub directly. - a wheel hub drive having a wheel hub and a motor/transmission unit, - the motor/transmission unit comprising - an electric motor, having a first and second drive direction (A, B), - a transmission which is arranged directly on the electric motor and has an input shaft and an output shaft, and - a controller which is set up to drive the electric motor in the first and second drive direction, - the transmission having a first transmission stage and a second transmission stage which have different transmission ratios, - the first transmission stage having a first freewheel, and the second transmission stage having a second freewheel, and - a freewheel direction and a locking direction of the first freewheel and of the second freewheel being different, - the transmission comprising, furthermore, a driven element which is arranged on the output shaft, and - the driven element of the transmission driving the wheel hub directly.
A heat exchanger for treating a fat-containing confectionary mass with respect to temperature, the heat exchanger being designed as a tempering machine, comprising: a drive, a drive shaft being drivable by the drive and mixing tools being connected to the drive shaft for mixing the confectionary mass during its passage through the heat exchanger, the drive being designed such that its sense of rotation is reversible, an Inlet through which the confectionary mass is introducible into the heat exchanger, an outlet through which the confectionary mass which has been treated with respect to temperature can exit the heat exchanger, a container into which cleaning mass can be filled, a first conduit connecting the container to the inlet such that the cleaning mass is conveyable through the heat exchanger according to a first conveying direction from the Inlet towards the outlet, a second conduit connecting the container to the outlet such that the cleaning mass is conveyable through the heat exchanger according to a second conveying direction from the outlet towards the Inlet, and a pump for conveying the cleaning mass through the heat exchanger. a drive, a drive shaft being drivable by the drive and mixing tools being connected to the drive shaft for mixing the confectionary mass during its passage through the heat exchanger, the drive being designed such that its sense of rotation is reversible, an Inlet through which the confectionary mass is introducible into the heat exchanger, an outlet through which the confectionary mass which has been treated with respect to temperature can exit the heat exchanger, a container into which cleaning mass can be filled, a first conduit connecting the container to the inlet such that the cleaning mass is conveyable through the heat exchanger according to a first conveying direction from the Inlet towards the outlet, a second conduit connecting the container to the outlet such that the cleaning mass is conveyable through the heat exchanger according to a second conveying direction from the outlet towards the Inlet, and a pump for conveying the cleaning mass through the heat exchanger.
Laser apparatus, comprising a base frame extruded in one single piece of light alloy metal and which determines a chamber intended to receive a gas laser tube, which is incorporated within said chamber, wherein a plane of a lower base of the gas laser tube coincides with a base plane of the extruded base frame, and lateral faces of the gas laser tube are directed towards opposed lateral faces of partition walls (12, 13) of the extruded base frame, with a controlled clearance between the gas laser tube and the partition walls (12, 13) adapted for compensating an expansion of the gas laser tube, and avoiding mechanical stresses being produced on the same and causing deformation to the gas laser tube.
An object detector comprising a projection device including a light-emitting element configured to emit light, to project the light to the object; an optical detector; and a distance calculating device wherein the optical detector comprises: a light receiving element configured to receive the light projected from the projection device to the object and reflected from the object; and a circuit device, the circuit device comprising: a waveform processing circuit to generate undershoot in a voltage signal according to an output voltage from the light-receiving element; and a binarizing circuit to binarize the voltage signal based on a threshold value; wherein the distance calculating device is configured to calculate a distance to the object based on a timing of emitting the light from the light-emitting element and a timing of receiving the light at the light-receiving element, characterised in that the distance calculating device is configured to calculate the timing of receiving the light based on a first timing when a rising value of the voltage signal coincides with the threshold value and a second timing when a falling value of the voltage signal coincides with the threshold value. a light receiving element configured to receive the light projected from the projection device to the object and reflected from the object; and a circuit device, the circuit device comprising: a waveform processing circuit to generate undershoot in a voltage signal according to an output voltage from the light-receiving element; and a binarizing circuit to binarize the voltage signal based on a threshold value; a waveform processing circuit to generate undershoot in a voltage signal according to an output voltage from the light-receiving element; and a binarizing circuit to binarize the voltage signal based on a threshold value; wherein the distance calculating device is configured to calculate a distance to the object based on a timing of emitting the light from the light-emitting element and a timing of receiving the light at the light-receiving element, characterised in that the distance calculating device is configured to calculate the timing of receiving the light based on a first timing when a rising value of the voltage signal coincides with the threshold value and a second timing when a falling value of the voltage signal coincides with the threshold value.
An apparatus for ion manipulations, comprising: at least one surface; a radiofrequency voltage source; a first plurality of continuous electrodes (110, 120) coupled to the at least one surface and in electrical communication with the radiofrequency voltage source, wherein the RF voltage source is configured to apply an RF voltage to adjacent electrodes of the first plurality of electrodes (110, 120), wherein the RF voltage is phase shifted on the adjacent electrodes of the first plurality of electrodes by approximately 180°; an alternating current voltage source; and a second plurality of segmented electrodes coupled to the at least one surface and including at least one longitudinal set of three or more segmented electrodes arranged between or adjacent to the first plurality of electrodes (110, 120), the second plurality of segmented electrodes being further in electrical communication with the alternating current voltage source, wherein the AC voltage source is configured to apply an AC voltage waveform to adjacent segmented electrodes within a longitudinal set of the second plurality of segmented electrodes, and wherein the AC voltage waveform is phase shifted on the adjacent segmented electrodes of the second plurality of segmented electrodes by 1°-359°. at least one surface; a radiofrequency voltage source; a first plurality of continuous electrodes (110, 120) coupled to the at least one surface and in electrical communication with the radiofrequency voltage source, wherein the RF voltage source is configured to apply an RF voltage to adjacent electrodes of the first plurality of electrodes (110, 120), wherein the RF voltage is phase shifted on the adjacent electrodes of the first plurality of electrodes by approximately 180°; an alternating current voltage source; and a second plurality of segmented electrodes coupled to the at least one surface and including at least one longitudinal set of three or more segmented electrodes arranged between or adjacent to the first plurality of electrodes (110, 120), the second plurality of segmented electrodes being further in electrical communication with the alternating current voltage source, wherein the AC voltage source is configured to apply an AC voltage waveform to adjacent segmented electrodes within a longitudinal set of the second plurality of segmented electrodes, and wherein the AC voltage waveform is phase shifted on the adjacent segmented electrodes of the second plurality of segmented electrodes by 1°-359°.
An initiator injection nozzle for mixing an initiator with a process fluid, comprising a body comprising: - a process fluid inlet port to receive the process fluid and an outlet port; - a process fluid flow passage through which the process fluid traverses along a process fluid central flow axis between the process fluid inlet port and the outlet port, wherein the process fluid flow passage is at least partially defined by a constricting portion, a throat, and an expanding portion; - an initiator inlet to receive the initiator and an initiator outlet; and - an initiator fluid flow passage through which the initiator traverses along an initiator central flow axis between the initiator inlet and the initiator outlet; wherein a plurality of elongated vanes are provided within the constricting portion and extend along the process fluid central flow axis, and wherein each of the vanes has a leading end, a trailing end and a curved vane surface, wherein the plurality of vanes are configured such that an unobstructed process fluid flow cross-section perpendicular to and including the process fluid central flow axis is located within the constricting portion, characterized in that an area of the unobstructed process fluid flow cross-section becomes larger with increasing distance from the process fluid inlet port. - a process fluid inlet port to receive the process fluid and an outlet port; - a process fluid flow passage through which the process fluid traverses along a process fluid central flow axis between the process fluid inlet port and the outlet port, wherein the process fluid flow passage is at least partially defined by a constricting portion, a throat, and an expanding portion; - an initiator inlet to receive the initiator and an initiator outlet; and - an initiator fluid flow passage through which the initiator traverses along an initiator central flow axis between the initiator inlet and the initiator outlet; wherein a plurality of elongated vanes are provided within the constricting portion and extend along the process fluid central flow axis, and wherein each of the vanes has a leading end, a trailing end and a curved vane surface, wherein the plurality of vanes are configured such that an unobstructed process fluid flow cross-section perpendicular to and including the process fluid central flow axis is located within the constricting portion, characterized in that an area of the unobstructed process fluid flow cross-section becomes larger with increasing distance from the process fluid inlet port.
A round sling system (20, 220), comprising: a bearing structure (20, 30, 160, 220, 230) arranged to define a plurality of loop portions (40, 240) arranged in a plurality of bearing positions (42, 242), wherein the bearing structure (20, 30, 160, 220, 230) is also arranged to define at least one bearing structure end portion (50, 52, 250, 252); a cover (60, 260) defining a cover chamber (78, 278); at least one organizer (80, 82, 84, 180, 182, 184, 280, 282), characterised in that the at least one organizer (80, 82, 84, 180, 182, 184, 280, 282) is secured to the cover (60, 260) to define a plurality of organizer openings, wherein each organizer opening corresponds to the respective bearing position (42, 242) such that each loop portion (40, 240) is partly arranged within the respective organizer opening, the organizer (80, 82, 84, 180, 182, 184, 280, 282) thereby being configured to engage the bearing structure (20, 30, 160, 220, 230) such that the at least one organizer (80, 82, 84, 180, 182, 184, 280, 282) maintains a position of the bearing structure (20,30, 160, 220, 230) relative to the cover (60, 260), and the at least one organizer (80, 82, 84, 180, 182, 184, 280, 282) maintains a spatial relationship of the loop portions (40, 240) at least within the at least one bearing structure end portion (50, 52, 250, 252). a bearing structure (20, 30, 160, 220, 230) arranged to define a plurality of loop portions (40, 240) arranged in a plurality of bearing positions (42, 242), wherein the bearing structure (20, 30, 160, 220, 230) is also arranged to define at least one bearing structure end portion (50, 52, 250, 252); a cover (60, 260) defining a cover chamber (78, 278); at least one organizer (80, 82, 84, 180, 182, 184, 280, 282), characterised in that the at least one organizer (80, 82, 84, 180, 182, 184, 280, 282) is secured to the cover (60, 260) to define a plurality of organizer openings, wherein each organizer opening corresponds to the respective bearing position (42, 242) such that each loop portion (40, 240) is partly arranged within the respective organizer opening, the organizer (80, 82, 84, 180, 182, 184, 280, 282) thereby being configured to engage the bearing structure (20, 30, 160, 220, 230) such that the at least one organizer (80, 82, 84, 180, 182, 184, 280, 282) maintains a position of the bearing structure (20,30, 160, 220, 230) relative to the cover (60, 260), and the at least one organizer (80, 82, 84, 180, 182, 184, 280, 282) maintains a spatial relationship of the loop portions (40, 240) at least within the at least one bearing structure end portion (50, 52, 250, 252).
A method for providing a digital content by an apparatus for providing digital content, the method comprising: receiving a control signal corresponding to a user's action from an input apparatus, wherein the control signal comprises identifier information of the input apparatus indicating a type of the input apparatus among a plurality of types of input apparatus and apparatus control information for controlling content reproduction at the apparatus, wherein the apparatus control information is acquired based on a user action information and the user action information is acquired based on a sensor value varied and measured at the input apparatus; searching a content operable in association with the type of the input apparatus based on the received control signal; executing a content control module corresponding to the input apparatus; and providing and controlling the searched content based on the apparatus control information using the content control module, wherein the user's action is varied according to the type of the input apparatus. receiving a control signal corresponding to a user's action from an input apparatus, wherein the control signal comprises identifier information of the input apparatus indicating a type of the input apparatus among a plurality of types of input apparatus and apparatus control information for controlling content reproduction at the apparatus, wherein the apparatus control information is acquired based on a user action information and the user action information is acquired based on a sensor value varied and measured at the input apparatus; searching a content operable in association with the type of the input apparatus based on the received control signal; executing a content control module corresponding to the input apparatus; and providing and controlling the searched content based on the apparatus control information using the content control module, wherein the user's action is varied according to the type of the input apparatus.
Mobile construction machine having at least one hydraulic system with at least two piston-in-cylinder units (20, 22), at least one equalization line for the pressure equalization between the piston-in-cylinder units (20, 22) and control pistons (30, 32), wherein one respective control piston (30, 32) is assigned to a connection (24, 25) of a piston-in-cylinder unit (20, 22), characterized in that at least one 2-way flow regulation valve (70, 72) having a check valve function is in communication with the at least one equalization line.