mhurhangee/ep-ind-claims huggingface dataset:
A printer for selective duplex and simplex printing on a medium, comprising an input zone and an output zone, a transport mechanism having a selectable first transport path for transporting a medium from the input zone to the output zone past a first print station for printing on one surface of the medium by a first inkjet printhead, the transport mechanism having a second selectable transport path including a part of the first transport path for transporting a medium from the input zone to the output zone past a second print station for printing on one surface of the medium by a second inkjet printhead and then past the first print station for printing on the reverse surface of the medium by the first ink jet printhead, a first diverter drivable between a first position for passing sheet media from the input zone onto the first transport path and a second position for passing sheet media from the input zone onto the second transport path, and a second diverter drivable between a third position for directing sheet media transported on the first transport path towards the output zone and a fourth position for directing sheet media transported on the second transport path towards the output zone, wherein: the first and second transport paths include a first horizontal span at a first height, and the first inkjet printhead is positioned to jet ink down onto the medium as it is transported in a first direction along the first horizontal span; and the second transport path includes a second horizontal span at a second height, and the second inkjet printhead is positioned to jet ink down onto the medium as it is transported in a second direction opposite to the first direction along the second horizontal span; characterised by the first and second horizontal spans being vertically adjacent horizontal limbs of an S-form path. the first and second transport paths include a first horizontal span at a first height, and the first inkjet printhead is positioned to jet ink down onto the medium as it is transported in a first direction along the first horizontal span; and the second transport path includes a second horizontal span at a second height, and the second inkjet printhead is positioned to jet ink down onto the medium as it is transported in a second direction opposite to the first direction along the second horizontal span; characterised by the first and second horizontal spans being vertically adjacent horizontal limbs of an S-form path.
An implantation device for the dental field, with an implantation tool or with an intermediate piece which is fastenable to an implantation tool or cooperates therewith, and with an implant, characterised in that for the implantation, the implant is coupled or can be coupled onto the tool or onto the intermediate piece with the help of connecting structures (2a, 2b) which are arranged on the tool or on the intermediate piece and on the implant, and after the implantation is separated from the tool or intermediate piece, wherein at least one of the connecting structures (2a, 2b) is a shape memory element with a material having a shape memory, by way of which the at least one connecting structure (2a, 2b), given a transition from a surrounding temperature or body temperature to a physiologically acceptable temperature which is lower or higher than the surrounding temperature or the body temperature, can be brought from a connecting into a non-connecting configuration, wherein the physiologically acceptable temperature which is higher than the surrounding temperature or body temperature lies between 35 and 50° or wherein the physiologically acceptable temperature which is lower than the surrounding temperature or body temperature lies between 5 and -10°C.
A light-receiving element comprising a substrate having thereon an amplification layer containing silicon (Si), and an absorption layer of germanium (Ge) laminated in this order, wherein the amplification layer has an n-doped n-Si layer and a p-doped p-Si layer on the substrate in this order; the absorption layer contains a p-doped p-Ge layer; and where the thickness L of the absorption layer is 3 μm or more, wherein the absorption layer contains an i-Ge layer which is an intrinsic region, and the i-Ge layer and the p-Ge layer are laminated on the amplification layer in this order, characterized in that the absorption layer contains a second p-Ge layer between the i-Ge layer and the amplification layer.
A wind farm that includes a plurality of wind power generation units, the wind farm comprising: a sensing part (21; 51) configured to sense an external environment risk element; and a controlling part configured to receive a risk signal from the sensing part (21; 51) and to control the wind power generation units in the wind farm; characterized in that the external environment risk element is wind containing dust or sand; the sensing part (21; 51) includes an infrared sensor; and the infrared sensor is configured to output infrared rays of a predetermined output amount from a light emitting part and to measure a density of dust or sand in air based on an input amount of the infrared rays from a light receiving part corresponding to the light emitting part. a sensing part (21; 51) configured to sense an external environment risk element; and a controlling part configured to receive a risk signal from the sensing part (21; 51) and to control the wind power generation units in the wind farm; characterized in that the external environment risk element is wind containing dust or sand; the sensing part (21; 51) includes an infrared sensor; and the infrared sensor is configured to output infrared rays of a predetermined output amount from a light emitting part and to measure a density of dust or sand in air based on an input amount of the infrared rays from a light receiving part corresponding to the light emitting part.
Epilator comprising an epilating roller driven in rotation by a motor about an axis arranged behind a window of the housing, this roller comprising one or more rows of gripping blades (20, 40), methods of control for causing the blades to successively tighten against one another to pinch the hairs to be plucked and then to move apart, and an anti-pain device comprising elements mounted on the rotating roller, and with one or more protuberances projecting beyond a virtual cylinder coaxial to the roller into which are fitted the edges (21, 41) of the gripping blades, each protuberance being inclined and rounded along a plane transverse to the roller's axis of rotation passing through the fixed element. This is arranged so that the part of the protuberance which touches the skin is at an oblique angle to the skin and massages it by contact, penetrates into the skin and gradual releases, with the rounding of the protuberance being convex, symmetrical or asymmetrical in its transverse plane, the protuberances being rounded or significantly rounded, the anti-pain elements being rigid or semi-rigid, characterised in that the anti-pain elements being in the form of protuberances (82,84) on the circular periphery of the intermediate discs on the virtual cylinder or on the circular periphery of the side flanges of the roller.
A sprayer, comprising: a sprayer casing, comprising a cavity for containing a liquid; a power module, connected to the sprayer casing and configured to energize the liquid in the cavity to make the liquid carry a first charge; and a spray nozzle, connected to the sprayer casing and configured to atomize the liquid with the first charge and spray it onto an external object with a second charge, wherein the first charge and the second charge are opposite; the spray nozzle comprises a transmission part and a spray component; the spray component comprises a blade component and an outlet having an opening; the blade component comprises a fan blade and a connecting pipe; and the fan blade is rotatable with respect to the transmission part; characterized in that the fan blade is able to drive the outlet to rotate synchronously through the connecting pipe to form a vacuum inside the outlet; and the outlet is flared towards an end of the outlet away from the blade component. a sprayer casing, comprising a cavity for containing a liquid; a power module, connected to the sprayer casing and configured to energize the liquid in the cavity to make the liquid carry a first charge; and a spray nozzle, connected to the sprayer casing and configured to atomize the liquid with the first charge and spray it onto an external object with a second charge, wherein the first charge and the second charge are opposite; the spray nozzle comprises a transmission part and a spray component; the spray component comprises a blade component and an outlet having an opening; the blade component comprises a fan blade and a connecting pipe; and the fan blade is rotatable with respect to the transmission part; characterized in that the fan blade is able to drive the outlet to rotate synchronously through the connecting pipe to form a vacuum inside the outlet; and the outlet is flared towards an end of the outlet away from the blade component.
A method suitable for acquiring the downlink, DL, Channel State Information, CSI, through the reciprocity of wireless channel in a Frequency Division Duplex, FDD, wireless network, the method comprising: reserving a time slot in the DL radio resource frame structure in a first frequency band for one or more User Equipment, UEs, to transmit pilot or test signal(s) in the uplink, UL, direction. reserving a time slot in the DL radio resource frame structure in a first frequency band for one or more User Equipment, UEs, to transmit pilot or test signal(s) in the uplink, UL, direction.
Handling device for handling workpieces, comprising a rotor mounted for rotation about a rotor axis, a rotary drive for introducing a rotary motion into the rotor and at least one workholder assembly, the workholder assembly comprising at least two workholders (12, 15) which are mounted on the rotor and designed for an at least paired picking up of workpieces at a pickup position and for an at least paired delivery of workpieces at a delivery position during the rotary motion of the rotor, and further comprising adjusting means (49, 50, 63, 64) which are coupled to at least one workholder (12, 15) of the workholder assembly and which are designed for a cyclical adjustment of a spacing of workholders (12, 15) of the workholder assembly as a function of the rotary motion of the rotor, characterized in that the workholders (12, 15) of the workholder assembly are always oriented parallel to one another.
An anchoring device for use within a body cavity during a surgical procedure, the anchoring device comprising: an internal assembly (120, 220, 320) having a second magnetic component (121, 221, 321), the internal assembly (120, 220, 320) being sized for placement inside the body cavity and adapted to support a surgical instrument; an external assembly (110, 210, 310) having a first magnetic component (111, 211, 311) and providing a non-invasive system to support and retain the internal assembly in place; an electrical source supplying an electrical current, the electrical current being connected with one of the first or second magnetic component (121, 221, 321), the electrical current producing a magnetic field about the connected magnetic component, the magnetic field providing an attraction force to approximate the internal assembly (120, 220, 320) and the external assembly (110, 210, 310); a controller (240, 340) operably connected to the electrical source; and a distance module in operable communication with the controller (240, 340), the controller (240, 340) providing an electrical resistance to control the electrical current in response to the distance determined by the distance module, the distance determined by the distance module being a distance between the external assembly (110, 210, 310) and the internal assembly (120, 220, 320). an internal assembly (120, 220, 320) having a second magnetic component (121, 221, 321), the internal assembly (120, 220, 320) being sized for placement inside the body cavity and adapted to support a surgical instrument; an external assembly (110, 210, 310) having a first magnetic component (111, 211, 311) and providing a non-invasive system to support and retain the internal assembly in place; an electrical source supplying an electrical current, the electrical current being connected with one of the first or second magnetic component (121, 221, 321), the electrical current producing a magnetic field about the connected magnetic component, the magnetic field providing an attraction force to approximate the internal assembly (120, 220, 320) and the external assembly (110, 210, 310); a controller (240, 340) operably connected to the electrical source; and a distance module in operable communication with the controller (240, 340), the controller (240, 340) providing an electrical resistance to control the electrical current in response to the distance determined by the distance module, the distance determined by the distance module being a distance between the external assembly (110, 210, 310) and the internal assembly (120, 220, 320).
A thrombectomy catheter system comprising: a thrombectomy catheter (12; 612; 712) including a catheter body (24; 624;724) defining an exhaust lumen (30; 630; 730) and an infusion lumen (32; 632) and including a high pressure tube (28; 628; 728), the high pressure tube having a nozzle orifice (40a;640a, 740a) positioned to direct a fluid jet into a distal opening of the exhaust lumen (30a; 630; 730); a source of infusion fluid communicating with a proximal end of the infusion lumen (32; 632); and a fluid control device fluidly coupled between the thrombectomy catheter (12; 612; 712) and the source of infusion fluid, the fluid control device being adapted to regulate a flow rate of infusion fluid from the source of infusion fluid to the infusion lumen (32; 632) of the thrombectomy catheter (12; 612; 712) characterized in that the thrombectomy catheter (12; 612; 712) defines an outlet of the infusion lumen near a distal end of the thrombectomy catheter (12; 612; 712) such that fluid from the source of infusion fluid is supplied into a vessel through the infusion lumen (32; 632) and the thrombectomy catheter system further includes a recirculation channel (662; 772) positioned to recirculate fluid from within the exhaust lumen (30; 630; 730) back into a body lumen and including a filter (666; 766) positioned upstream of the recirculation channel (662; 772), the filter (666; 766) being sized to prevent passage of solid particles into the recirculation channel (662; 772). a thrombectomy catheter (12; 612; 712) including a catheter body (24; 624;724) defining an exhaust lumen (30; 630; 730) and an infusion lumen (32; 632) and including a high pressure tube (28; 628; 728), the high pressure tube having a nozzle orifice (40a;640a, 740a) positioned to direct a fluid jet into a distal opening of the exhaust lumen (30a; 630; 730); a source of infusion fluid communicating with a proximal end of the infusion lumen (32; 632); and a fluid control device fluidly coupled between the thrombectomy catheter (12; 612; 712) and the source of infusion fluid, the fluid control device being adapted to regulate a flow rate of infusion fluid from the source of infusion fluid to the infusion lumen (32; 632) of the thrombectomy catheter (12; 612; 712)
A coil assembly for use in a medical device, the coil assembly comprising: a first coil member formed of a round wire wound in a first direction and defining a plurality of coil windings having an open pitch, the first coil member defining a lumen; and a second coil member formed of a ribbon wound in a second direction different from the first direction and defining a plurality of coil windings having an open pitch, wherein a portion of the second coil member is disposed within the lumen of the first coil member such that coil windings of the first coil member intersect with coil windings of the second coil member to create a plurality of spaced coil intersection areas, and the first coil member is attached to the second coil member at a plurality of the intersection areas. a first coil member formed of a round wire wound in a first direction and defining a plurality of coil windings having an open pitch, the first coil member defining a lumen; and a second coil member formed of a ribbon wound in a second direction different from the first direction and defining a plurality of coil windings having an open pitch, wherein a portion of the second coil member is disposed within the lumen of the first coil member such that coil windings of the first coil member intersect with coil windings of the second coil member to create a plurality of spaced coil intersection areas, and the first coil member is attached to the second coil member at a plurality of the intersection areas.
A capture device (102, 302) for capturing an unmanned aerial vehicle (202, 402) aboard a marine vessel (100, 300) located in a body of water (104, 304), the capture device comprising: a mounting frame (106, 306) configured to be coupled to the marine vessel; and a capture frame (108, 308) rotatably coupled to the mounting frame, the capture frame rotating relative to the mounting frame about an upwardly-oriented axis of rotation (110, 310) from a neutral position to one or more rotated positions due to a capture force generated during capturing of an unmanned aerial vehicle, the capture frame including a braking member (130, 366) configured to be submerged in the body of water, the braking member configured to oppose rotation (200, 400) of the capture frame relative to the mounting frame based on a braking force (218, 420) to be applied to the braking member by the body of water. a mounting frame (106, 306) configured to be coupled to the marine vessel; and a capture frame (108, 308) rotatably coupled to the mounting frame, the capture frame rotating relative to the mounting frame about an upwardly-oriented axis of rotation (110, 310) from a neutral position to one or more rotated positions due to a capture force generated during capturing of an unmanned aerial vehicle, the capture frame including a braking member (130, 366) configured to be submerged in the body of water, the braking member configured to oppose rotation (200, 400) of the capture frame relative to the mounting frame based on a braking force (218, 420) to be applied to the braking member by the body of water.
Sensor device having a sensor housing, having a sensor element arranged in and/or on the sensor housing and having a measurement circuit, which is electrically connected to the sensor element and arranged on a printed circuit board, wherein the printed circuit board is arranged inside the sensor housing and has a plurality of printed circuit board segments (12, 14, 18) which are flexibly connected to one another, wherein adjacent printed circuit board segments (12, 14, 18) which are connected to one another are each arranged in the sensor housing in a manner angled away from one another in such a way that, when the printed circuit board segments (12, 14, 18) are in the angled state, a first printed circuit board segment which carries the measurement circuit is arranged between a second printed circuit board segment and a third printed circuit board segment, wherein the second printed circuit board segment and/or the third printed circuit board segment carry a potential interference source (16, 20, 22) for the measurement circuit, characterized in that the sensor element is a sensor element which detects mechanical stresses or strains and is arranged on a sensor carrier, wherein the measurement circuit is electrically connected to the sensor element by means of an electrical connecting line, which electrically contact-connects the sensor element to the printed circuit board.
A cochlear implant device, comprising: - an electrode carrier provided with a plurality of electrode contacts, - a fluid reservoir contained in said electrode carrier for holding a volume of therapeutic fluid, - at least one fluid delivery port for delivering the therapeutic fluid from the fluid reservoir to tissue surrounding the outside of the electrode carrier when implanted to a patient, - a delivery septum port (3907, 4103), - a fluid delivery channel (3903, 4101) for delivering therapeutic fluid from the delivery septum port (3907, 4103) to said fluid reservoir, characterized by - a return septum port, and - a fluid return channel for evacuating air or fluid from the reservoir through said return septum port. - an electrode carrier provided with a plurality of electrode contacts, - a fluid reservoir contained in said electrode carrier for holding a volume of therapeutic fluid, - at least one fluid delivery port for delivering the therapeutic fluid from the fluid reservoir to tissue surrounding the outside of the electrode carrier when implanted to a patient, - a delivery septum port (3907, 4103), - a fluid delivery channel (3903, 4101) for delivering therapeutic fluid from the delivery septum port (3907, 4103) to said fluid reservoir, characterized by - a return septum port, and - a fluid return channel for evacuating air or fluid from the reservoir through said return septum port.
A pneumatic valve control device, comprising: an air cylinder including a first piston, an air outlet, and a locking and releasing mechanism configured to lock and release the first piston when the first piston is pushed up; a hydraulic cylinder including a second piston, an air vent disposed on a first side of the second piston, and a liquid inlet and a liquid outlet disposed on a second side of the second piston; a partition disposed between the hydraulic cylinder and the air cylinder; a partition channel disposed on the partition; a piston rod connected to the second piston and configured to pass through the partition channel; and a tappet valve connected to the piston rod, the tappet valve configured to open and close the partition channel and configured to leave the partition channel in response to an upward movement of the piston rod so as to push up the first piston, wherein when the locking and releasing mechanism is released, the first piston falls down, the partition channel is in a closed state, and the air outlet is in an outward air exhaust state. an air cylinder including a first piston, an air outlet, and a locking and releasing mechanism configured to lock and release the first piston when the first piston is pushed up; a hydraulic cylinder including a second piston, an air vent disposed on a first side of the second piston, and a liquid inlet and a liquid outlet disposed on a second side of the second piston; a partition disposed between the hydraulic cylinder and the air cylinder; a partition channel disposed on the partition; a piston rod connected to the second piston and configured to pass through the partition channel; and a tappet valve connected to the piston rod, the tappet valve configured to open and close the partition channel and configured to leave the partition channel in response to an upward movement of the piston rod so as to push up the first piston, wherein when the locking and releasing mechanism is released, the first piston falls down, the partition channel is in a closed state, and the air outlet is in an outward air exhaust state.