mhurhangee/ep-ind-claims huggingface dataset:
Device for sealing a building opening, whereby a flat closing element and/or a frame firmly attached to the edge of the building opening features a frame profile (1, 29, 39, 43, 72, 77, 90, 94, 108, 109) which borders a hollow profile section (2, 74, 78) - through two lateral surfaces - that opens out to folding surfaces, whereby from each of the two lateral surfaces a profile wall (5, 79) juts out towards the other lateral surface and whereby a lock plate (17, 36, 68, 85, 87, 106) and a clamping element (11, 35, 84, 103) are attached to these jutting profile walls (5, 79), which span the distance between the profile walls (5, 79) and are pulled together through one or more screws (16, 24) under the intermediate layer of the profile walls (5, 79), whereby the clamping element (11, 35, 84, 103) on both of the profile walls jutting out (5, 79) is attached on either side of a groove which is formed on the profile wall jutting out (5, 79) and whose opening area lies parallel to the connecting surface between the two profile walls jutting out (5, 79), characterised in that an area of the clamping element (11, 103) attached in the groove features an interlocking next to the contact surface with the groove.
An antibody construct comprising a first binding domain which binds to human FLT3 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 first binding domain binds to an epitope of FLT3 which is comprised within the region as depicted in SEQ ID NO: 819, wherein said antibody construct is at least bispecific.
A method for measuring a tread radius of a tire using at least three laser displacement meters arranged in the tire axial direction at intervals so that their optical axes (Li) of irradiating light are arranged in a line in a radial plane extending from the tire axis (j), wherein a width of the laser beam of each laser displacement meter is more than 5 mm, wherein a tread radius measuring process comprises a measuring step in which radial distances from the respective laser displacement meters to the tread surface (Ts) of the tire rotating around the tire axis (j) are measured to obtain radial distance data sets y1, y2, y3 of the respective laser displacement meters wherein the data number of each set is m per the entire circumference of the tire, an averaging step in which a smoothing processing is performed on the number m of the radial distance data of each set y1, y2, y3, to remove noise data caused by lateral grooves, then an average value y1N, y2N y3N, is obtained by averaging the remaining radial distance data of each set y1, y2, y3, a calculating step in which the tread radius is calculated from each average value y1N, y2N, y3N, and a distance x1, x2, x3 in the tire axial direction from a reference position in the tire axial direction to each laser displacement meter, wherein the smoothing processing is such that, for each set of the number m of the obtained radial distance data y1, y2, y3, the i-th data y i in the time series of the obtaining is compared with a moving average yN which is the average of a number k of the last data previously obtained, and if the difference |y i -yN| is greater than a threshold, the data y i is removed as noise data. a measuring step in which radial distances from the respective laser displacement meters to the tread surface (Ts) of the tire rotating around the tire axis (j) are measured to obtain radial distance data sets y1, y2, y3 of the respective laser displacement meters wherein the data number of each set is m per the entire circumference of the tire, an averaging step in which a smoothing processing is performed on the number m of the radial distance data of each set y1, y2, y3, to remove noise data caused by lateral grooves, then an average value y1N, y2N y3N, is obtained by averaging the remaining radial distance data of each set y1, y2, y3, a calculating step in which the tread radius is calculated from each average value y1N, y2N, y3N, and a distance x1, x2, x3 in the tire axial direction from a reference position in the tire axial direction to each laser displacement meter, wherein the smoothing processing is such that, for each set of the number m of the obtained radial distance data y1, y2, y3, the i-th data y i in the time series of the obtaining is compared with a moving average yN which is the average of a number k of the last data previously obtained, and if the difference |y i -yN| is greater than a threshold, the data y i is removed as noise data.
A microcircuit card comprising a body defining an edge of the card, the body incorporating a light-emitting means able to illuminate from the inside the edge of the card at least partially, the light emitted by the light-emitting means being transmitted into the thickness of the card up to said edge through a so-called transmission region made from a first material and at least partially surrounded by a second material different from the first material, the materials being chosen to form an optical waveguide at least in one direction, characterized in that the body is formed by a stack of layers extending through the body, the transmission region forming one of the layers of the stack.
A composition comprising Type V collagen or a Type V collagen-specific antigenic component thereof for use in a method of treatment of Idiopathic Pulmonary Fibrosis.
A method of preparing silica nanoparticles having a diameter of 50 nm to 1000 nm and a particle density of 1.96 g/cm 3 or less, said method comprising: (a) reacting an orthosilicate and an alcohol or a mixture of alcohols in an aqueous medium in the presence of a salt of a metal of Group Ia or Group IIa or in the presence of a metalloid compound, optionally in combination with ammonium hydroxide, (b) isolating the resulting nanoparticles, and (c) treating the nanoparticles from (b) with an acid, characterized in that the metalloid compound is a compound of boron, and in that in step (a) 2 to 25 mol/L of water, 8 to 16 mol/L of ethanol, 0 to 2 mol/L of methanol, 0.1 to 2 mol/L of ammonia, 0.1 to 0.4 mol/L of a tetraalkylorthosilicate, and 0.001 to 0.01 mol/L of a salt of a metal or metalloid compound are mixed; and in step (c) the nanoparticles from step (b) are treated with an acid for a period of about 0.5 hr to about 3 hr, said acid being IN to 2N mineral acid or 10 to 50 weight% organic acid in water. (a) reacting an orthosilicate and an alcohol or a mixture of alcohols in an aqueous medium in the presence of a salt of a metal of Group Ia or Group IIa or in the presence of a metalloid compound, optionally in combination with ammonium hydroxide, (b) isolating the resulting nanoparticles, and (c) treating the nanoparticles from (b) with an acid,
An electrically operated aerosol-generating system (100, 300) for receiving a liquid aerosol-forming substrate (230, 430), the aerosol-generating system (100, 300) comprising: a liquid storage portion (210, 410) for holding a liquid aerosol-forming substrate (230, 430); aerosol-generating means (220, 420) arranged to receive liquid aerosol-forming substrate (230, 430) from the liquid storage portion (210, 410); one or more capillary wicks (250, 450) arranged to transfer liquid aerosol-forming substrate (230, 430) from the liquid storage portion (210, 410) to the aerosol-generating means (220, 420); a temperature sensor (270, 470) arranged to sense the temperature of liquid aerosol-forming substrate (230, 430) held in the liquid storage portion (210, 410); and electric circuitry (120, 320) configured to monitor the temperature of the liquid aerosol-forming substrate (230, 430) held in the liquid storage portion (210, 410) as sensed by the temperature sensor (270, 470) and determine depletion of liquid aerosol-forming substrate (230, 430) based on the temperature of the liquid aerosol-forming substrate (230, 430). a liquid storage portion (210, 410) for holding a liquid aerosol-forming substrate (230, 430); aerosol-generating means (220, 420) arranged to receive liquid aerosol-forming substrate (230, 430) from the liquid storage portion (210, 410); one or more capillary wicks (250, 450) arranged to transfer liquid aerosol-forming substrate (230, 430) from the liquid storage portion (210, 410) to the aerosol-generating means (220, 420); a temperature sensor (270, 470) arranged to sense the temperature of liquid aerosol-forming substrate (230, 430) held in the liquid storage portion (210, 410); and electric circuitry (120, 320) configured to monitor the temperature of the liquid aerosol-forming substrate (230, 430) held in the liquid storage portion (210, 410) as sensed by the temperature sensor (270, 470) and determine depletion of liquid aerosol-forming substrate (230, 430) based on the temperature of the liquid aerosol-forming substrate (230, 430).
A corrugated paperboard box made of corrugated paperboard comprising an outer linerboard, an inner linerboard, and a corrugated medium provided between the outer linerboard and the inner linerboard, the corrugated paperboard box comprising: a peripheral wall formed by bending the corrugated paperboard into a tubular shape such that the inner linerboard constitutes an inner surface of the corrugated paperboard box; and flaps (11, 12, 13 and 14) integrally connected to one of two ends of the peripheral wall, characterized in that the corrugated paperboard box is formed, at a boundary area between the peripheral wall and the flaps (11, 12, 13 and 14), with a groove-shaped reverse scoreline recessed on a side of the outer linerboard, and a pair of groove-shaped recesses (19a and 19b) recessed on a side of the inner linerboard, and extending in parallel to each other so as to sandwich an area in which the reverse scoreline extends, wherein the corrugated paperboard box is formed, in one of the groove-shaped recesses (19a and 19b), with a perforated line along which the flaps (11, 12, 13 and 14) can be separated from the peripheral wall, and which comprises a plurality of cuts extending to penetrate through the inner linerboard, the corrugated medium, and the outer linerboard, and wherein the corrugated paperboard is configured such that the flaps (11, 12, 13 and 14) can be bent along the perforated line toward an inner surface of the peripheral wall. a peripheral wall formed by bending the corrugated paperboard into a tubular shape such that the inner linerboard constitutes an inner surface of the corrugated paperboard box; and flaps (11, 12, 13 and 14) integrally connected to one of two ends of the peripheral wall,
A biological information measuring apparatus configured to obtain a blood pressure value of a subject who is using an intra-aortic balloon pumping, the biological information measuring apparatus comprising: a pulsation information detecting unit configured to detect heartbeat information relating to a heartbeat of the subject; a pulse wave detecting unit configured to detect a pulse wave of the subject during a time period in which a cuff is inflated to pressurize a portion of the subject and during a time period in which the cuff is deflated to depressurize the portion of the subject; an amplitude calculating unit configured to detect a cardiac cycle of a heart from the heartbeat information and a maximal value of the pulse wave in each cardiac cycle, the maximal value being a point where an amplitude value transitions from ascent to descent, and to calculate, based on the maximal value detected from the pulse wave and on an assist ratio of the intra-aortic balloon pumping, at least one of an amplitude value derived from the heartbeat of the subject, an amplitude value assisted by the intra-aortic balloon pumping, and an amplitude value derived from a blood flow volume of the subject; and a blood pressure calculating unit configured to calculate the blood pressure value from a relationship between the amplitude values calculated by the amplitude calculating unit and a pressurizing force of the cuff; wherein the assist ratio of the intra-aortic balloon pumping indicates a number of cardiac cycles during which a balloon assist is performed in one of the cardiac cycles. a pulsation information detecting unit configured to detect heartbeat information relating to a heartbeat of the subject; a pulse wave detecting unit configured to detect a pulse wave of the subject during a time period in which a cuff is inflated to pressurize a portion of the subject and during a time period in which the cuff is deflated to depressurize the portion of the subject; an amplitude calculating unit configured to detect a cardiac cycle of a heart from the heartbeat information and a maximal value of the pulse wave in each cardiac cycle, the maximal value being a point where an amplitude value transitions from ascent to descent, and to calculate, based on the maximal value detected from the pulse wave and on an assist ratio of the intra-aortic balloon pumping, at least one of an amplitude value derived from the heartbeat of the subject, an amplitude value assisted by the intra-aortic balloon pumping, and an amplitude value derived from a blood flow volume of the subject; and a blood pressure calculating unit configured to calculate the blood pressure value from a relationship between the amplitude values calculated by the amplitude calculating unit and a pressurizing force of the cuff; wherein the assist ratio of the intra-aortic balloon pumping indicates a number of cardiac cycles during which a balloon assist is performed in one of the cardiac cycles.
A computer-implemented method comprising: generating, via a digital analog converter, DAC,, a frequency signal; filtering the frequency signal, via a low pass filter, to produce a first filtered signal; filtering the frequency signal, via a high pass filter, to produce a second filtered signal; transmitting the second filtered signal to a device under test, DUT,, the DUT processing the second filtered signal to generate an output signal; filtering the second filtered signal, via a bandpass filter, to obtain a sub-signal having a centre frequency component and a frequency band component (f2 band) which includes the centre frequency component, the output signal also including the sub-signal; mixing the first filtered signal with the sub-signal, via a first mixer, to produce a first mixed signal (f1+f2+f2 band) by adding the first filtered signal, the centre frequency component and the band frequency component together; mixing the first mixed signal with the output signal via a second mixer to produce a second mixed signal (f1+f2 band), the second mixer removing the centre frequency component from the output signal to determine if a phase shift has occurred in the output signal; and converting the second mixed signal for analysis. generating, via a digital analog converter, DAC,, a frequency signal; filtering the frequency signal, via a low pass filter, to produce a first filtered signal; filtering the frequency signal, via a high pass filter, to produce a second filtered signal; transmitting the second filtered signal to a device under test, DUT,, the DUT processing the second filtered signal to generate an output signal; filtering the second filtered signal, via a bandpass filter, to obtain a sub-signal having a centre frequency component and a frequency band component (f2 band) which includes the centre frequency component, the output signal also including the sub-signal; mixing the first filtered signal with the sub-signal, via a first mixer, to produce a first mixed signal (f1+f2+f2 band) by adding the first filtered signal, the centre frequency component and the band frequency component together; mixing the first mixed signal with the output signal via a second mixer to produce a second mixed signal (f1+f2 band), the second mixer removing the centre frequency component from the output signal to determine if a phase shift has occurred in the output signal; and converting the second mixed signal for analysis.
An image forming apparatus comprising: a body having a printing path; a paper supply tray separably mounted in the body, in which a printing medium is stored; a first sensor including a light emitting element and a light receiving element arranged to face each other, the first sensor generating a sensed signal as the light receiving element receives light emitted from the light emitting element; and a first actuator including a first actuating arm, a second actuating arm to sense a width of the printing medium by selectively coming into contact with and being moved by the printing medium fed to the printing path according to the width of the printing medium, and a first sensing arm to intercept the light that would otherwise be transmitted to the light receiving element by being moved in linkage with the first actuating arm and the second actuating arm, wherein the first actuating arm is operable to sense the presence of the printing medium stored in the paper supply tray by coming into contact with and being moved by the printing medium stored in the paper supply tray. a body having a printing path; a paper supply tray separably mounted in the body, in which a printing medium is stored; a first sensor including a light emitting element and a light receiving element arranged to face each other, the first sensor generating a sensed signal as the light receiving element receives light emitted from the light emitting element; and a first actuator including a first actuating arm, a second actuating arm to sense a width of the printing medium by selectively coming into contact with and being moved by the printing medium fed to the printing path according to the width of the printing medium, and a first sensing arm to intercept the light that would otherwise be transmitted to the light receiving element by being moved in linkage with the first actuating arm and the second actuating arm, wherein the first actuating arm is operable to sense the presence of the printing medium stored in the paper supply tray by coming into contact with and being moved by the printing medium stored in the paper supply tray.
A focus adjustment apparatus comprising: moving means configured to move a focusing lens; focus adjusting means configured to perform focus adjustment by controlling the moving means to move the focusing lens; image sharpness measuring means (107, 112, 114) configured to measure an in-focus position by obtaining information corresponding to the sharpness of an image obtained from image pickup means; and an other in-focus position measuring means configured to obtain information corresponding to an object distance by measuring an in-focus position in a different manner from the image sharpness measuring means wherein the focus adjusting means is arranged to move the focusing lens by using a result of the measurement performed by the other in-focus position measuring means when the direction of movement of the focusing lens in which image sharpness is measured to increase by the image sharpness measuring means is matched with the direction from the current position of the focusing lens to the in-focus position measured by the other in-focus position measuring means, and to move the focusing lens without using a result of the measurement performed by the in-focus position measured by the other in-focus position measuring means when both directions are not matched with each other. moving means configured to move a focusing lens; focus adjusting means configured to perform focus adjustment by controlling the moving means to move the focusing lens; image sharpness measuring means (107, 112, 114) configured to measure an in-focus position by obtaining information corresponding to the sharpness of an image obtained from image pickup means; and an other in-focus position measuring means configured to obtain information corresponding to an object distance by measuring an in-focus position in a different manner from the image sharpness measuring means wherein the focus adjusting means is arranged to move the focusing lens by using a result of the measurement performed by the other in-focus position measuring means when the direction of movement of the focusing lens in which image sharpness is measured to increase by the image sharpness measuring means is matched with the direction from the current position of the focusing lens to the in-focus position measured by the other in-focus position measuring means, and to move the focusing lens without using a result of the measurement performed by the in-focus position measured by the other in-focus position measuring means when both directions are not matched with each other.
A data service handover method, wherein the method comprises: determining, by a terminal device, occurrence of failure of a secondary cell group, SCG; sending, by the terminal device, an SCG failure message to a network device, wherein the SCG failure message is used to notify the network device that an SCG failure has occurred, wherein the network device is an entity on the access network side controlling a base station to provide data services for terminals; receiving, by the terminal device, an acknowledgement message from the network device, wherein the acknowledgement message is used to indicate that the network device has received the SCG failure message; the method characterised in: starting, by the terminal device, a timer upon the determination of the occurrence of the SCG failure; and if the network device has not handed over to a master base station within the timer expiration a data service provided by the SCG, notifying, by the terminal device when the timer expires, the network device to hand over the data service to the master base station. determining, by a terminal device, occurrence of failure of a secondary cell group, SCG; sending, by the terminal device, an SCG failure message to a network device, wherein the SCG failure message is used to notify the network device that an SCG failure has occurred, wherein the network device is an entity on the access network side controlling a base station to provide data services for terminals; receiving, by the terminal device, an acknowledgement message from the network device, wherein the acknowledgement message is used to indicate that the network device has received the SCG failure message; the method characterised in: starting, by the terminal device, a timer upon the determination of the occurrence of the SCG failure; and if the network device has not handed over to a master base station within the timer expiration a data service provided by the SCG, notifying, by the terminal device when the timer expires, the network device to hand over the data service to the master base station.
A microelectronic sensor device for optical examinations in an investigation region at the contact surface of a carrier, comprising a) a light source for emitting an input light beam (L1, L1') towards the contact surface, wherein the light source comprises a beam regulator for at least temporarily emitting an input light beam (L1') into a test region of the carrier near the investigation region; b) a light detector for determining a characteristic parameter of an output light beam (L2, L2') reflected from the contact surface; c) an evaluation unit for detecting the wetting grade of the investigation region by a fluid based on the determined characteristic parameter of an output light beam (L2') reflected at least partially from the test region, the wetting grade indicating how much of the contact surface in the investigation region is actually contacted by the fluid. a) a light source for emitting an input light beam (L1, L1') towards the contact surface, wherein the light source comprises a beam regulator for at least temporarily emitting an input light beam (L1') into a test region of the carrier near the investigation region; b) a light detector for determining a characteristic parameter of an output light beam (L2, L2') reflected from the contact surface; c) an evaluation unit for detecting the wetting grade of the investigation region by a fluid based on the determined characteristic parameter of an output light beam (L2') reflected at least partially from the test region, the wetting grade indicating how much of the contact surface in the investigation region is actually contacted by the fluid.