mhurhangee/ep-ind-claims huggingface dataset:
A touch window with a touch sensor, the touch window comprising: a touch member of which a front surface is configured to be pressed by a user; a plurality of conductive printed portions printed on a rear surface of the touch member, the conductive printed portions being configured to respectively contact a plurality of conductive electrodes of the touch sensor; and a non-conductive film attached to the rear surface of the touch member and in which one or more through-holes are formed, wherein the conductive electrodes are compression springs and located on a rear surface of the conductive printed portions, wherein a front surface of the conductive printed portions is a surface printed on the rear surface of the touch member, wherein a capacitance is measured between the conductive electrodes and a finger, wherein inner surfaces of the one or more through-holes are configured to respectively surround the conductive printed portions, and wherein the conductive printed portions and the non-conductive film have different thicknesses from each other such that surface condensation on the conductive printed portions and surface condensation on the non-conductive film are spaced apart from each other, wherein the inner surfaces of the one or more through-holes protrude further from the rear surface of the touch member than the conductive printed portions. a touch member of which a front surface is configured to be pressed by a user; a plurality of conductive printed portions printed on a rear surface of the touch member, the conductive printed portions being configured to respectively contact a plurality of conductive electrodes of the touch sensor; and a non-conductive film attached to the rear surface of the touch member and in which one or more through-holes are formed, wherein the conductive electrodes are compression springs and located on a rear surface of the conductive printed portions, wherein a front surface of the conductive printed portions is a surface printed on the rear surface of the touch member, wherein a capacitance is measured between the conductive electrodes and a finger, wherein inner surfaces of the one or more through-holes are configured to respectively surround the conductive printed portions, and wherein the conductive printed portions and the non-conductive film have different thicknesses from each other such that surface condensation on the conductive printed portions and surface condensation on the non-conductive film are spaced apart from each other, wherein the inner surfaces of the one or more through-holes protrude further from the rear surface of the touch member than the conductive printed portions.
A bispecific antibody construct comprising a first human binding domain which binds to human CDH19 on the surface of a target cell and a second binding domain which binds to human CD3 on the surface of a T cell, wherein the antibody construct is in the format (scFv) 2, wherein the first binding domain comprises a VH region and a VL region selected from the group consisting of: pairs of a VH region and a VL region as depicted in SEQ ID NO: 8+10, SEQ ID NO: 21+23, SEQ ID NO: 34+36, SEQ ID NO: 73+75, SEQ ID NO: 86+88, SEQ ID NO: 99+101, SEQ ID NO: 112+114, SEQ ID NO: 125+127, SEQ ID NO: 138+140, SEQ ID NO: 164+166, SEQ ID NO: 177+179, SEQ ID NO: 190+192, SEQ ID NO: 229+231, SEQ ID NO: 281+283, SEQ ID NO: 294+296, SEQ ID NO: 307+309, SEQ ID NO: 320+322, SEQ ID NO: 333+335, SEQ ID NO: 346+348, SEQ ID NO: 385+387, SEQ ID NO: 398+400, SEQ ID NO: 424+426, SEQ ID NO: 437+439, SEQ ID NO: 476+478, SEQ ID NO: 502+504 SEQ ID NO: 515+517, SEQ ID NO: 528+530, SEQ ID NO: 541+543, SEQ ID NO: 554+556, SEQ ID NO: 580+582 and SEQ ID NO: 606+608, and wherein the second binding domain comprises a VH region comprising the sequence and a VH region comprising the sequence wherein the first binding domain comprises a VH region and a VL region selected from the group consisting of: pairs of a VH region and a VL region as depicted in SEQ ID NO: 8+10, SEQ ID NO: 21+23, SEQ ID NO: 34+36, SEQ ID NO: 73+75, SEQ ID NO: 86+88, SEQ ID NO: 99+101, SEQ ID NO: 112+114, SEQ ID NO: 125+127, SEQ ID NO: 138+140, SEQ ID NO: 164+166, SEQ ID NO: 177+179, SEQ ID NO: 190+192, SEQ ID NO: 229+231, SEQ ID NO: 281+283, SEQ ID NO: 294+296, SEQ ID NO: 307+309, SEQ ID NO: 320+322, SEQ ID NO: 333+335, SEQ ID NO: 346+348, SEQ ID NO: 385+387, SEQ ID NO: 398+400, SEQ ID NO: 424+426, SEQ ID NO: 437+439, SEQ ID NO: 476+478, SEQ ID NO: 502+504 SEQ ID NO: 515+517, SEQ ID NO: 528+530, SEQ ID NO: 541+543, SEQ ID NO: 554+556, SEQ ID NO: 580+582 and SEQ ID NO: 606+608, and wherein the second binding domain comprises a VH region comprising the sequence and a VH region comprising the sequence
System comprising at least one controlled pantograph actuated by an air-cushion supplied by a circuit comprising a pressure regulator that ensures a pressure as a function of a setpoint pressure value, the pantograph system comprising an electronic circuit that receives: - a pressure signal provided by a sensor positioned between the outlet of the regulator and the inlet of the air-cushion, and - at least one signal that is representative of the speed of the train set, characterized in that said pressure regulator comprises: • a first mechanical adjustment means for calibrating the value of the setpoint pressure, and • a second pneumatic calibrating adjustment means, distinct from the first means, for dynamically changing the value of the calibration setpoint pressure, said circuit sending a signal for controlling said second adjustment means. - a pressure signal provided by a sensor positioned between the outlet of the regulator and the inlet of the air-cushion, and - at least one signal that is representative of the speed of the train set, • a first mechanical adjustment means for calibrating the value of the setpoint pressure, and • a second pneumatic calibrating adjustment means, distinct from the first means, for dynamically changing the value of the calibration setpoint pressure,
A method for determining a thickness of an object, the method comprising: emitting ultrasonic signals toward the object; receiving an echo sequence of the ultrasonic signals that are reflected by first and second surfaces of the object; digitizing and storing the received echo sequence of the ultrasonic signals; characterised by detecting at least one pair of maximum amplitude peaks (101,111) in the digitized received echo sequence of the ultrasonic signals using an Amplitude Time Locus Curves (ALOK) detection algorithm not requiring use of gated time intervals for processing echo sequences; measuring a time duration between at least one pair of maximum amplitude peaks comprising interpolating at least one of the maximum amplitude peaks (101,111) in the digitized received echo sequence; and determining the thickness of the object based on the time duration, wherein the step of digitizing further comprises amplifying the received echo sequence using a plurality of amplifiers connected in parallel, each amplifier connected to one of plurality of overlapping analog-to-digital converters, and each amplifier set to a different magnitude of amplification. emitting ultrasonic signals toward the object; receiving an echo sequence of the ultrasonic signals that are reflected by first and second surfaces of the object; digitizing and storing the received echo sequence of the ultrasonic signals; characterised by detecting at least one pair of maximum amplitude peaks (101,111) in the digitized received echo sequence of the ultrasonic signals using an Amplitude Time Locus Curves (ALOK) detection algorithm not requiring use of gated time intervals for processing echo sequences; measuring a time duration between at least one pair of maximum amplitude peaks comprising interpolating at least one of the maximum amplitude peaks (101,111) in the digitized received echo sequence; and determining the thickness of the object based on the time duration, wherein the step of digitizing further comprises amplifying the received echo sequence using a plurality of amplifiers connected in parallel, each amplifier connected to one of plurality of overlapping analog-to-digital converters, and each amplifier set to a different magnitude of amplification.
Microswitch with - a cylindrical sleeve made of metal, - a piston mounted axially movable within the sleeve, - a contact pin mounted axially movable within the piston, - two mating contacts (51, 52) mounted in a bottom of the sleeve at a distance from one another, - a return spring between the bottom of the sleeve and the piston, which moves the piston to an original position when the microswitch is not actuated, - a damping spring which is arranged between contact pin and an actuator cap of the piston and carries a soft seating of the contact pin on the mating contacts (51, 52), characterized in that - the damping spring has a higher spring force than the return spring; and in that - the contact pin has a contact tip, whereas the contact tip and the mating contacts (51, 52) being conically shaped. - a cylindrical sleeve made of metal, - a piston mounted axially movable within the sleeve, - a contact pin mounted axially movable within the piston, - two mating contacts (51, 52) mounted in a bottom of the sleeve at a distance from one another, - a return spring between the bottom of the sleeve and the piston, which moves the piston to an original position when the microswitch is not actuated, - a damping spring which is arranged between contact pin and an actuator cap of the piston and carries a soft seating of the contact pin on the mating contacts (51, 52), characterized in that - the damping spring has a higher spring force than the return spring; and in that - the contact pin has a contact tip, whereas the contact tip and the mating contacts (51, 52) being conically shaped.
An ophthalmic lens comprising a transparent substrate with a front main face and with a rear main face, at least one of the main faces being coated with a multilayered antireflective coating comprising a stack composed of at least: (i) a wetting layer; (ii) a metal layer, wherein the metal is selected from silver, gold or copper or mixtures thereof; (iii) a protective layer which is able to avoid oxidation of said metal layer, wherein the wetting layer (i) is in direct contact with the metal layer (ii), with the proviso that said multilayered antireflective coating does not comprise silicon nitride and wherein (ii) the metal layer has a physical thickness equal to or higher than 6 nm, characterized in that the multilayered antireflective coating has a total thickness ranging from 50 to 150 nm. (i) a wetting layer; (ii) a metal layer, wherein the metal is selected from silver, gold or copper or mixtures thereof; (iii) a protective layer which is able to avoid oxidation of said metal layer, wherein the wetting layer (i) is in direct contact with the metal layer (ii), with the proviso that said multilayered antireflective coating does not comprise silicon nitride and wherein (ii) the metal layer has a physical thickness equal to or higher than 6 nm, characterized in that the multilayered antireflective coating has a total thickness ranging from 50 to 150 nm.
A conveying system comprising: a frame (14, 18); a roller; a driver for the roller, the driver comprising a first portion fixed to the frame (14, 18) and a second portion fixed to the roller, wherein the second portion is detachable from the first portion and wherein the driver comprises an axial flux motor; wherein the axial flux motor comprises a stator housed in a stator housing fixed to the frame (14, 18) and a rotor housed in a rotor housing coupled to the stator housing, the rotor fixed to an end of the roller; characterized in that the stator comprises a magnetic return plate and a plurality of copper windings over laminated steel cores; and in that the stator housing includes a ledge, and the rotor housing includes a bottom edge configured to mate with the ledge when the axial flux motor is assembled. a frame (14, 18); a roller; a driver for the roller, the driver comprising a first portion fixed to the frame (14, 18) and a second portion fixed to the roller, wherein the second portion is detachable from the first portion and wherein the driver comprises an axial flux motor; wherein the axial flux motor comprises a stator housed in a stator housing fixed to the frame (14, 18) and a rotor housed in a rotor housing coupled to the stator housing, the rotor fixed to an end of the roller; characterized in that the stator comprises a magnetic return plate and a plurality of copper windings over laminated steel cores; and in that the stator housing includes a ledge, and the rotor housing includes a bottom edge configured to mate with the ledge when the axial flux motor is assembled.
A hydrogenated polymer, comprising: at least one hydrogenated vinyl aromatic block having a carbon ring linking with a backbone of the hydrogenated polymer, wherein: the average weight percent of the hydrogenated vinyl aromatic block(s) having only one and two double bonds on the carbon ring is between 1-30wt % based on the total weight of the hydrogenated polymer, wherein the average hydrogenation level for the hydrogenated vinyl aromatic block is between 20 percent and 80 percent. at least one hydrogenated vinyl aromatic block having a carbon ring linking with a backbone of the hydrogenated polymer, wherein: the average weight percent of the hydrogenated vinyl aromatic block(s) having only one and two double bonds on the carbon ring is between 1-30wt % based on the total weight of the hydrogenated polymer, wherein the average hydrogenation level for the hydrogenated vinyl aromatic block is between 20 percent and 80 percent. the average weight percent of the hydrogenated vinyl aromatic block(s) having only one and two double bonds on the carbon ring is between 1-30wt % based on the total weight of the hydrogenated polymer, wherein the average hydrogenation level for the hydrogenated vinyl aromatic block is between 20 percent and 80 percent.
Sowing unit for a single-grain seed drill comprising: - a first storage container for storing seed, - soil cultivation tools for opening and closing a sowing furrow, - at least one separating device designed for the individual dispensing of seed from the storage container into the sowing furrow by means of a pressure difference generated by a fan, - at least one second storage container for storing granular material, - at least one metering device for the metered dispensing of granular material from the second storage container into a delivery line, characterized in that the delivery line is connected to the metering device via an injector device, and an air flow can be supplied to the injector device via an air inlet, wherein the granular material is accelerated in the delivery line by the air flow directed through the injector device, wherein an exhaust air flow, in particular mixed with dust particles and/or dressing agents, exits the separating device due to the application of the pressure difference, in that the sowing unit comprises an exhaust air system, which is designed to capture the exiting exhaust air flow and to supply it to the injector device by means of an exhaust air line, so that the air flow is at least partially provided by the captured exhaust air flow. - a first storage container for storing seed, - soil cultivation tools for opening and closing a sowing furrow, - at least one separating device designed for the individual dispensing of seed from the storage container into the sowing furrow by means of a pressure difference generated by a fan, - at least one second storage container for storing granular material, - at least one metering device for the metered dispensing of granular material from the second storage container into a delivery line,
A dryer for drying an inner side of a primarily bowl-shaped object, comprising: a hollow cylindrical rotation shaft configured to rotate; a center shaft supported inside of the rotation shaft via a bearing, the center shaft configured not to rotate, the center shaft having an inner blow passage therein extending along the center shaft; a rotation plate fixed to a first end of the rotation shaft; an inner fixed nozzle extending along the first end side of the rotation shaft from the center shaft to blow off dry air; a jig disposed on the rotation plate for fixing the object; a drive motor configured to rotate the rotation shaft; and a blower connected to the inner blow passage; characterized in that the inner fixed nozzle includes a cylindrical pipe-shaped body extending along the rotation shaft and having a closed end at one end and the inner fixed nozzle has a slit extending along the rotation shaft. a hollow cylindrical rotation shaft configured to rotate; a center shaft supported inside of the rotation shaft via a bearing, the center shaft configured not to rotate, the center shaft having an inner blow passage therein extending along the center shaft; a rotation plate fixed to a first end of the rotation shaft; an inner fixed nozzle extending along the first end side of the rotation shaft from the center shaft to blow off dry air; a jig disposed on the rotation plate for fixing the object; a drive motor configured to rotate the rotation shaft; and a blower connected to the inner blow passage; characterized in that the inner fixed nozzle includes a cylindrical pipe-shaped body extending along the rotation shaft and having a closed end at one end and the inner fixed nozzle has a slit extending along the rotation shaft.
Valve having at least one temperature element with wax which expands as a function of temperature and which has a section which extends upon expansion and opens a rotation-activated valve element of the valve, wherein, even when the section is extended, the temperature element is displaceable in such a way that the valve remains closed or is closed, wherein the temperature element is displaceable against a spring of the valve, characterised in that this forced closure is achieved by the fact that a valve drive motor of the valve closes the valve and in the process for example a lever which cooperates with the extendable section of the temperature element is rotated with it in such a way that the temperature element is displaced.
A gas circuit breaker, comprising: a sealed container in which an arc-extinguishing gas is enclosed; a first fixed contactor portion fixed to the sealed container; a second fixed contactor portion fixed to the sealed container; and a movable contactor portion configured to be movable between the first fixed contactor portion and the second fixed contactor portion, and to conduct and to break current between the first fixed contactor portion and the second fixed contactor portion, the gas circuit breaker being configured so that an arc generated between a fixed arc contactor provided to the first fixed contactor portion and a movable arc contactor provided to the movable contactor portion at a time of current breaking action is extinguished by spraying the arc-extinguishing gas, wherein the gas circuit breaker is characterized by further comprising a gas chamber (51a, 51b) configured to accumulate unnecessary gas generated from the arc-extinguishing gas sprayed to the arc, wherein: the sealed container is formed by joining ends of two hollow truncated cone portions (82, 83) both having a large opening diameter via a cylindrical portion between the ends, and the gas chamber (51a, 51b) is formed inside the cylindrical portion forming the sealed container. a sealed container in which an arc-extinguishing gas is enclosed; a first fixed contactor portion fixed to the sealed container; a second fixed contactor portion fixed to the sealed container; and a movable contactor portion configured to be movable between the first fixed contactor portion and the second fixed contactor portion, and to conduct and to break current between the first fixed contactor portion and the second fixed contactor portion, the gas circuit breaker being configured so that an arc generated between a fixed arc contactor provided to the first fixed contactor portion and a movable arc contactor provided to the movable contactor portion at a time of current breaking action is extinguished by spraying the arc-extinguishing gas, wherein the gas circuit breaker is characterized by further comprising a gas chamber (51a, 51b) configured to accumulate unnecessary gas generated from the arc-extinguishing gas sprayed to the arc, wherein: the sealed container is formed by joining ends of two hollow truncated cone portions (82, 83) both having a large opening diameter via a cylindrical portion between the ends, and the gas chamber (51a, 51b) is formed inside the cylindrical portion forming the sealed container. the sealed container is formed by joining ends of two hollow truncated cone portions (82, 83) both having a large opening diameter via a cylindrical portion between the ends, and the gas chamber (51a, 51b) is formed inside the cylindrical portion forming the sealed container.
A device, comprising: a frame comprising a first arm and a second arm, wherein the second arm includes at least two securing blocks; a secure bar (200, 300) comprising at least two securing blocks; and a flexure (216, 312), wherein the at least two securing blocks of the second arm and the at least two securing blocks of the secure bar are on opposing sides of a cavity, wherein (i) one end of the secure bar is adjustable relative to the other end of the secure bar, or (ii) one end of the second arm is adjustable relative to the other end of the second arm, wherein at least one of the securing blocks is at the adjustable end of the secure bar or at the adjustable end of the second arm, wherein the adjustable end of the secure bar or the adjustable end of the second arm is adjustable along essentially a z-axis, wherein the flexure is configured to permit adjustment of the adjustable end of the secure bar or the adjustable end of the second arm, wherein the flexure is also configured to adjust at least one of the position, angle, or location of at least one of the at least two securing blocks of the secure bar or at least one of the at least two securing blocks of the second arm, and wherein the flexure is configured to adjust at least one of the position, angle, or location of one of the at least two securing blocks of the secure bar independently of the other one of the at least two securing blocks of the secure bar. a frame comprising a first arm and a second arm, wherein the second arm includes at least two securing blocks; a secure bar (200, 300) comprising at least two securing blocks; and a flexure (216, 312), wherein the at least two securing blocks of the second arm and the at least two securing blocks of the secure bar are on opposing sides of a cavity, wherein (i) one end of the secure bar is adjustable relative to the other end of the secure bar, or (ii) one end of the second arm is adjustable relative to the other end of the second arm, wherein at least one of the securing blocks is at the adjustable end of the secure bar or at the adjustable end of the second arm, wherein the adjustable end of the secure bar or the adjustable end of the second arm is adjustable along essentially a z-axis, wherein the flexure is configured to permit adjustment of the adjustable end of the secure bar or the adjustable end of the second arm, wherein the flexure is also configured to adjust at least one of the position, angle, or location of at least one of the at least two securing blocks of the secure bar or at least one of the at least two securing blocks of the second arm, and wherein the flexure is configured to adjust at least one of the position, angle, or location of one of the at least two securing blocks of the secure bar independently of the other one of the at least two securing blocks of the secure bar.