mhurhangee/ep-ind-claims huggingface dataset:
Shower with a shower head and a spray disk, which comprises at least two separately controllable groups of outlet openings, as well as with a switch-over device for switching over between the two groups of outlet openings, wherein the switch-over device comprises an operating device, at least one actuating element (3, 4) movable by means of the operating device, a gear wheel which can be rotatably driven in precisely one direction of rotation by the actuating element (3, 4) and an adjusting element connected in a rotationally fixed manner to the gear wheel, wherein the adjusting element produces or blocks a flow connection between an inlet and at least one of the groups of outlet openings depending on its rotational position, characterised in that a first actuating element and a second actuating element are configured and arranged in such a way that the first actuating element drives the gear wheel in the direction of rotation during an advancing movement brought about through operating the operating device and the second actuating element drives the gear wheel in the direction of rotation a return movement brought about by pre-tensioning.
Insert for the treatment of dry eye, wherein the insert can be inserted into the lacrimal sac or can be placed onto the cornea and in which proteins and/or peptides are embedded in a manner which allows their release into the eye, wherein the protein and/or peptide are growth factors and preferably epidermal growth factor and/or cytokines, characterized by the insert being made from one or a plurality of layers having different protein and/or peptide contents and/or matrix materials, wherein, in particular, protein and/or peptide-charged and protein and/or peptide-free layers are provided.
Hand-operated power tool (10; 110; 210), in particular grinder, cutting device or screwdriver, with a tool motor (12; 112; 212) for the motorised driving of a tool holder (13; 213) provided for holding a tool (14, 214), and with a fan wheel (30; 130; 230) of a fan arrangement (50; 150; 250), mounted together with the tool motor (12; 112; 212) in a casing (11, 111, 211) of the hand-operated power tool (10; 110; 210), for generating a cooling airflow for cooling the hand-operated power tool (10; 110; 210), in particular the tool motor (12; 112; 212), wherein it has a fan motor (31; 131; 231) separate from the tool motor (12; 112; 212) for the motorised drive of the fan wheel (30; 130; 230), characterised in that the fan wheel (30; 130; 230) driveable by the fan motor (31; 131; 231) and/or the fan motor (31; 131; 231) are mounted rotatably on the motor shaft of the tool motor (12; 112; 212) by means of a bearing assembly.
A system for monitoring flow, comprising: a meter having a tubing with an internal flow passage, a restriction located in the internal flow passage, a first port upstream of the restriction, and a second port downstream of the restriction, wherein the restriction extends into the internal flow passage from an inner wall of the tubing; a flow straightening section coupled along the tubing at a location upstream of the restriction, wherein the flow straightening section comprises a plurality of vanes oriented to straighten fluid flow; and a gas bypass positioned to receive gas separated from a fluid flowing through the flow straightening section, the gas bypass comprising a conduit extending from an upper portion of the flow straightening section and into communication with the internal flow passage downstream of the restriction. a meter having a tubing with an internal flow passage, a restriction located in the internal flow passage, a first port upstream of the restriction, and a second port downstream of the restriction, wherein the restriction extends into the internal flow passage from an inner wall of the tubing; a flow straightening section coupled along the tubing at a location upstream of the restriction, wherein the flow straightening section comprises a plurality of vanes oriented to straighten fluid flow; and a gas bypass positioned to receive gas separated from a fluid flowing through the flow straightening section, the gas bypass comprising a conduit extending from an upper portion of the flow straightening section and into communication with the internal flow passage downstream of the restriction.
A method for detecting induction of cleavage in genomic DNA by a nuclease, the method comprising: contacting a live cell comprising genomic DNA comprising a cleavage site for the nuclease with the nuclease under conditions sufficient for induction of cleavage at the cleavage site; fixing the cell and contacting the fixed cell with a plurality of oligonucleotides complementary to a single stranded (ss) 3'-overhang created at the cleavage site, wherein the genomic DNA is not denatured; and detecting hybridization of the plurality of oligonucleotides to the ss 3'-overhang, wherein hybridization of the oligonucleotides indicates induction of the cleavage by the nuclease. contacting a live cell comprising genomic DNA comprising a cleavage site for the nuclease with the nuclease under conditions sufficient for induction of cleavage at the cleavage site; fixing the cell and contacting the fixed cell with a plurality of oligonucleotides complementary to a single stranded (ss) 3'-overhang created at the cleavage site, wherein the genomic DNA is not denatured; and detecting hybridization of the plurality of oligonucleotides to the ss 3'-overhang, wherein hybridization of the oligonucleotides indicates induction of the cleavage by the nuclease.
A lighting device for providing decorative lighting comprising: a first light emitting element being optically coupled to a light guide having an out-coupling surface for decorative illumination via the light guide; characterized by a second light emitting element dedicated for providing a further direct functional illumination from the lighting device, and an envelope encapsulating said first light emitting element, said light guide, and said second light emitting element. a first light emitting element being optically coupled to a light guide having an out-coupling surface for decorative illumination via the light guide; characterized by a second light emitting element dedicated for providing a further direct functional illumination from the lighting device, and an envelope encapsulating said first light emitting element, said light guide, and said second light emitting element.
A system for removing impurities from a fluid, comprising: at least one semipermeable nanotube array (200, 602) formed from a plurality of nanotubes (100, 502) with porous walls having a plurality of pores dimensioned to allow passage of specific impurities into the interior of said nanotubes (100, 502); an enclosure (302, 504, 604) surrounding the at least one semipermeable nanotube array (200, 602), the enclosure (302, 504, 604) providing a fluid path through which the fluid may flow in a region exterior to said at least one semipermeable nanotube array (200, 602); and electrodes coupled to said enclosure (302, 504, 604), wherein the electrodes (501, 601) are configured to generate an electric field to drive at least some of the impurities of the fluid in the fluid path through the plurality of pores in the nanotube walls and into the interior of the nanotubes (100, 502), and an outlet for collecting said impurities that pass into the interior of said nanotubes (100, 502) into a separate stream, to thereby remove said impurities from said fluid. at least one semipermeable nanotube array (200, 602) formed from a plurality of nanotubes (100, 502) with porous walls having a plurality of pores dimensioned to allow passage of specific impurities into the interior of said nanotubes (100, 502); an enclosure (302, 504, 604) surrounding the at least one semipermeable nanotube array (200, 602), the enclosure (302, 504, 604) providing a fluid path through which the fluid may flow in a region exterior to said at least one semipermeable nanotube array (200, 602); and electrodes coupled to said enclosure (302, 504, 604), wherein the electrodes (501, 601) are configured to generate an electric field to drive at least some of the impurities of the fluid in the fluid path through the plurality of pores in the nanotube walls and into the interior of the nanotubes (100, 502), and an outlet for collecting said impurities that pass into the interior of said nanotubes (100, 502) into a separate stream, to thereby remove said impurities from said fluid.
A powder press, with a press frame which comprises an upper and a lower frame section, an upper linear drive attached on the upper frame section and a lower linear drive attached on the lower frame section, wherein the drives are connected to an upper and a lower punch plate (24, 25) and to a die table respectively, with a die clamping system on the die table with a die and at least one force measurement device for measurement of the pressing force on at least one punch, characterised in that the punch plates (24, 25) have a clamping system (26, 30) for an upper and a lower punch (28, 32), respectively, and the at least one force measurement device (46, 48) is arranged between a punch plate (24, 25) and the associated clamping system (26, 30), and the force measurement device is constructed such that besides to vertical forces, it measures also the shear forces occurring during the pressing process.
A trigger pump dispenser comprising: a body; an outlet nozzle; a pump chamber comprising a rear wall and an outer wall; a piston for defining a variable volume in the pump chamber and movable between a retracted position of larger chamber volume and an inserted position of lesser chamber volume; a trigger coupled with the piston and movable from a starting position at which the piston is in the retracted position and a depressed position at which the piston is in the inserted position; biasing means (65a, 65b) for biasing the trigger towards its starting position, the pump chamber comprises an inlet port and an outlet port, the pump comprises a valve adapted to close the inlet port when liquid to be dispensed is in the pump chamber and the piston is moved from the retracted position to the inserted position as the pump chamber decreases in volume, the valve is adapted to open the inlet port when liquid to be dispensed is drawn into the pump chamber through the inlet port as the pump chamber volume increases when the piston is moved from the inserted position to the retracted position, the valve is adapted to open the outlet port when the pump chamber decreases in volume as liquid therein is dispensed through the outlet port and adapted to close the outlet port when the pump chamber increases in volume, the valve comprises a precompression valve operable to allow liquid through the outlet port only after a predetermined elevated pressure is established in the pump chamber, characterised in that the inlet port is formed in the pump chamber outer wall.
A mobile terminal comprising: a case (101, 102); a display within the case for displaying visual information; a sensing unit comprising a proximity sensor (141, 10, 20, 30) for detecting an object in proximity of the display, the proximity sensor including a light receiving device (11, 21, 31) and four to eight light emitting devices (12-15, 22-25) arranged in a circle around the light receiving device; a controller for controlling the light emitting devices to emit light in a sequentially clockwise or counterclockwise direction wherein the controller is configured to control the sensing unit to detect the object's movement when lights emitted by at least one of the light emitting devices are sequentially reflected by the object and enter the light receiving device, and wherein the controller is configured to generate a signal corresponding to an input based on location and movement of the object detected by the sensing unit. a case (101, 102); a display within the case for displaying visual information; a sensing unit comprising a proximity sensor (141, 10, 20, 30) for detecting an object in proximity of the display, the proximity sensor including a light receiving device (11, 21, 31) and four to eight light emitting devices (12-15, 22-25) arranged in a circle around the light receiving device; a controller for controlling the light emitting devices to emit light in a sequentially clockwise or counterclockwise direction wherein the controller is configured to control the sensing unit to detect the object's movement when lights emitted by at least one of the light emitting devices are sequentially reflected by the object and enter the light receiving device, and wherein the controller is configured to generate a signal corresponding to an input based on location and movement of the object detected by the sensing unit.
An absorption heat pump unit comprising: an evaporator for absorbing heat from an external source and evaporating a refrigerant to create refrigerant vapor; an absorber for absorbing the refrigerant vapor created by the evaporator into an absorbent solution; a regenerator for heating the absorbent solution created in the absorber to separate the refrigerant vapor from the absorbent solution; a condenser for condensing the refrigerant vapor separated in the regenerator and releasing the heat to an exterior; a water supply tube designed to cause water to flow to the absorber and the condenser in order to cool the absorbent solution in the absorber and to recover the heat released to the exterior by the condenser; and a boiler placed in a path of the water supply tube to reheat hot water, wherein the absorption heat pump unit is covered by a case, characterized in that an interior of the case is divided by a vertical dividing wall into a first chamber and a second chamber, the regenerator, the condenser and the boiler being high-temperature devices are disposed in the first chamber, and the evaporator and the absorber being lower-temperature devices are disposed in the second chamber, wherein the dividing wall is adapted to impede heat transfer from the first chamber to the second chamber. an evaporator for absorbing heat from an external source and evaporating a refrigerant to create refrigerant vapor; an absorber for absorbing the refrigerant vapor created by the evaporator into an absorbent solution; a regenerator for heating the absorbent solution created in the absorber to separate the refrigerant vapor from the absorbent solution; a condenser for condensing the refrigerant vapor separated in the regenerator and releasing the heat to an exterior; a water supply tube designed to cause water to flow to the absorber and the condenser in order to cool the absorbent solution in the absorber and to recover the heat released to the exterior by the condenser; and a boiler placed in a path of the water supply tube to reheat hot water, wherein the absorption heat pump unit is covered by a case, characterized in that an interior of the case is divided by a vertical dividing wall into a first chamber and a second chamber, the regenerator, the condenser and the boiler being high-temperature devices are disposed in the first chamber, and the evaporator and the absorber being lower-temperature devices are disposed in the second chamber, wherein the dividing wall is adapted to impede heat transfer from the first chamber to the second chamber.
A motion transmission unit for a drive train of a hair cutting appliance, the unit comprising: - an input shaft defining a longitudinal axis and comprising an eccentric portion that is arranged to revolve about the longitudinal axis when the input shaft is rotated, - a motion converter comprising a motion converter input interface and a motion converter output interface, and - a tilting lever that is pivotably mounted and comprises a tilting lever input interface and a tilting lever output interface that engages a driving portion of a blade set of the appliance, wherein the motion converter is arranged between the input shaft and the tilting lever, wherein the eccentric portion of the input shaft engages the motion converter input interface, wherein the motion converter output interface engages the tilting lever input interface, and wherein the motion converter input interface and the motion converter output interface are arranged at the same longitudinal level with respect to the input shaft; wherein the motion converter output interface comprises a cylindrical portion defining a cylinder axis that is basically parallel to a swivel axis of the tilting lever; wherein the tilting lever output interface is arranged as a cylindrical portion defining a cylinder axis that is basically parallel to a swivel axis of the tilting lever; wherein the cylinder axis of the head portion of the tilting lever and the cylinder axis of the cylindrical portion of the motion converter are basically parallel to the swivel axis; characterized in that the eccentric portion is an eccentric pin; and wherein the motion converter input interface is a guide slot that is engaged by the eccentric pin. - an input shaft defining a longitudinal axis and comprising an eccentric portion that is arranged to revolve about the longitudinal axis when the input shaft is rotated, - a motion converter comprising a motion converter input interface and a motion converter output interface, and - a tilting lever that is pivotably mounted and comprises a tilting lever input interface and a tilting lever output interface that engages a driving portion of a blade set of the appliance,
A gas turbine engine comprising: a low speed spool and a high speed spool, with each of said spools (30, 32) including a turbine to drive a respective one of said spools (30, 32), wherein said high speed spool rotates at a higher speed than said low speed spool; and a high speed power takeoff driven to be rotated by said high speed spool, and a low speed power takeoff driven to be rotated by said low speed spool, wherein said low speed power takeoff drives a variable frequency generator, characterised in that: said high speed power takeoff drives a starter generator and a permanent magnet alternator. a low speed spool and a high speed spool, with each of said spools (30, 32) including a turbine to drive a respective one of said spools (30, 32), wherein said high speed spool rotates at a higher speed than said low speed spool; and a high speed power takeoff driven to be rotated by said high speed spool, and a low speed power takeoff driven to be rotated by said low speed spool, wherein said low speed power takeoff drives a variable frequency generator, characterised in that: said high speed power takeoff drives a starter generator and a permanent magnet alternator.
A laundry machine having a drying function, the laundry machine comprising: a heater and a fan to generate hot air; a tub (100, 120) to hold water therein during a washing cycle, the tub (100, 120) having a hot air inlet to allow in the hot air and a hot air outlet to discharge the hot air; a drum (300, 320, 340) rotatably placed in the tub (100, 120); and a duct to provide a passage for the hot air to flow to the tub (100, 120), wherein the hot air inlet and the hot air outlet are connected with each other by the duct; characterized by a filter to filter the hot air, the filter being placed at the hot air outlet of the tub (100, 120), wherein the hot air inlet is placed at a front portion above the tub (100, 120) and the hot air outlet is placed at a rear portion above the tub (100, 120); and wherein an angle between a flow line of the hot air of the hot air inlet and a flow line of the hot air of the hot air outlet is within 10 degrees wherein the tub (100, 120) has a rim portion projected towards a front and the hot air inlet is formed at an upper portion of the rim portion and is projected upwardly, wherein a front gasket is inserted into a front portion of the rim portion and provided with a duct connection portion inserted into the hot air inlet for sealing a space between the hot air inlet and a connection duct of the drying duct. a heater and a fan to generate hot air; a tub (100, 120) to hold water therein during a washing cycle, the tub (100, 120) having a hot air inlet to allow in the hot air and a hot air outlet to discharge the hot air; a drum (300, 320, 340) rotatably placed in the tub (100, 120); and a duct to provide a passage for the hot air to flow to the tub (100, 120), wherein the hot air inlet and the hot air outlet are connected with each other by the duct; characterized by a filter to filter the hot air, the filter being placed at the hot air outlet of the tub (100, 120), wherein the hot air inlet is placed at a front portion above the tub (100, 120) and the hot air outlet is placed at a rear portion above the tub (100, 120); and wherein an angle between a flow line of the hot air of the hot air inlet and a flow line of the hot air of the hot air outlet is within 10 degrees wherein the tub (100, 120) has a rim portion projected towards a front and the hot air inlet is formed at an upper portion of the rim portion and is projected upwardly, wherein a front gasket is inserted into a front portion of the rim portion and provided with a duct connection portion inserted into the hot air inlet for sealing a space between the hot air inlet and a connection duct of the drying duct.
A method for calibrating a time-to-digital converter system with at least one time-to-digital converter comprising an oscillator (RO, RO1, RO2), in particular a ring oscillator, a counter being driven by the oscillator, an evaluation block connected to the counter and configured for determining a time difference associated with a start signal and a stop signal, and a histogram block (HIST, HIST1, HIST2) with a number of bins for recording entries associated with the time difference, the method comprising: - operating or preparing to operate the time-to-digital converter system with a measurement clock signal (MCLK) defining a measurement interval; - providing a calibration clock signal (CCLK) having a frequency higher than the measurement clock signal (MCLK) by a predefined ratio; - using a selected clock edge of the calibration clock signal (CCLK) as the start signal (STRT) and a subsequent clock edge (ph1, ph2) of the calibration clock signal (CCLK) as the stop signal (STP1, STP2); - determining, with the evaluation block, a calibration time difference based on the respective clock edges (ph0, ph1, ph2) of the calibration clock signal used as the start signal (STRT) and the stop signal (STP1, STP2); and - determining a time measure associated with a counter step of the counter based on the predefined ratio and the calibration time difference. - operating or preparing to operate the time-to-digital converter system with a measurement clock signal (MCLK) defining a measurement interval; - providing a calibration clock signal (CCLK) having a frequency higher than the measurement clock signal (MCLK) by a predefined ratio; - using a selected clock edge of the calibration clock signal (CCLK) as the start signal (STRT) and a subsequent clock edge (ph1, ph2) of the calibration clock signal (CCLK) as the stop signal (STP1, STP2); - determining, with the evaluation block, a calibration time difference based on the respective clock edges (ph0, ph1, ph2) of the calibration clock signal used as the start signal (STRT) and the stop signal (STP1, STP2); and - determining a time measure associated with a counter step of the counter based on the predefined ratio and the calibration time difference.