mhurhangee/ep-ind-claims huggingface dataset:
An eyeglass lens processing method of processing a periphery of an eyeglass lens, the method comprising the steps of: at an optician shop, inputting, into a first computer, ordering data which includes layout data including apupil-to-pupil distanceof awearer, rimless frame identifying data for identifying a rimless frame, and modification data for an original target lens shape of the eyeglass lens to be mounted on the rimless frame, the modification data including modification amount in at least one of up, down, right and left modification directions, and does not includes data of an original target lens shape; and transmitting, by the first computer, the ordering data through a network communication to a second computer of a lens processing factory; at the lens processing factory, receiving, from the first computer of the optician shop, the ordering data transmitted through the network communication; identifying, by the secondcomputer, rimless frame based on the received rimless frame identifying data, and calling data of an original target lens shape data of the eyeglass lens to be mounted on the identified rimless frame from a database connected to the second computer; calculating, by the second computer, a modified target lens shape based on the called original target lens shape and the received modification data; and processing, by a processing apparatus connected to the second computer, the periphery of the eyeglass lens based on data of the calculated modified target lens shape and the received layout data. at an optician shop, inputting, into a first computer, ordering data which includes layout data including apupil-to-pupil distanceof awearer, rimless frame identifying data for identifying a rimless frame, and modification data for an original target lens shape of the eyeglass lens to be mounted on the rimless frame, the modification data including modification amount in at least one of up, down, right and left modification directions, and does not includes data of an original target lens shape; and transmitting, by the first computer, the ordering data through a network communication to a second computer of a lens processing factory; at the lens processing factory, receiving, from the first computer of the optician shop, the ordering data transmitted through the network communication; identifying, by the secondcomputer, rimless frame based on the received rimless frame identifying data, and calling data of an original target lens shape data of the eyeglass lens to be mounted on the identified rimless frame from a database connected to the second computer; calculating, by the second computer, a modified target lens shape based on the called original target lens shape and the received modification data; and processing, by a processing apparatus connected to the second computer, the periphery of the eyeglass lens based on data of the calculated modified target lens shape and the received layout data.
A method for querying an actuation for a function in a motor vehicle including a sensor arrangement, wherein the sensor arrangement has at least two spaced sensor devices for detecting respective operations by the approaches of a body part of a user, comprising the steps of monitoring the signals of a first sensor device of the sensor devices until a characteristic first signal answer s1 from the first signal device is detected, which indicates an operation caused by approaching the first sensor device, querying an ID transmitter that can be carried by a user so as to verify an authorization for access to the requested function, querying the signals of a second sensor device of the sensor devices and evaluating the associated signal answer s2 for determining an operation caused by approaching the second sensor device, if the signal answer s2 indicates an operation caused by approaching the second sensor device, monitoring the signals of the first and the second sensor devices for a predetermined time period t1, wherein the time period t1 is less than five seconds, preferably less than three seconds, if the signals during the time period t1 indicate a continued operation of both sensor devices, signaling the expiration of the time period t1 to the user, monitoring the signals of the first signal device for a predetermined time period t2, wherein the time period t2 is shorter than t1, if the signal of the first sensor device indicates a cancellation of the operation within the time period t2, triggering the function of the motor vehicle.
A water absorbent resin material, comprising: a water absorbent resin particle having a carboxyl group; a covalent surface crosslinking agent in which the number of carbons is not more than 10; 0.001 mass% to 0.2 mass% of a water-soluble or water-dispersible polymer whose LogP defined by Expression 1 is in a range from 1.0 to 5.0; and 0.001 mass% to 1 mass% of a water-soluble polyvalent cation, the water absorbent resin material having not less than 20 g/g of a fixed height absorption at a height of 20 cm measured according to the method specified in the description and having a surface hydrophobic index defined by Expression 2 in a range from 0 to 10, [Mathematical Expression 1] LogP = ∑ i = 1 n VMLogP i × MR i where VMLogP(i) is a calculation value of an "n-octanol/water partition coefficient", at 25°C, of a virtual monomer unit (Virtual Monomer) in which both ends of a polymer repeating unit (i) are methylated, and MR(i) is a "molar ratio (Mol Ratio)" of the polymer repeating unit (i); [Mathematical Expression 2] Surface Hydrophobic Index = ∑ i = 1 n MSLogP i × added amount of the polymer C × 100 where MSLogP(i) is a multiplication value obtained by multiplying a LogP of each monomer included in the water-soluble or water-dispersible polymer by a molar fraction of the each monomer (MSLogP(i) = LogP(i) × MR(i)). a water absorbent resin particle having a carboxyl group; a covalent surface crosslinking agent in which the number of carbons is not more than 10; 0.001 mass% to 0.2 mass% of a water-soluble or water-dispersible polymer whose LogP defined by Expression 1 is in a range from 1.0 to 5.0; and 0.001 mass% to 1 mass% of a water-soluble polyvalent cation,
A semiconductor inspection device for inspecting a semiconductor device, the semiconductor inspection device comprising: a first light source configured to emit light for irradiating the semiconductor device with; a light guide element optically connected to the first light source; a pair of Galvano mirrors (44a, 44b) provided at positions at which the Galvano mirrors (44a, 44b) are optically connectable to the first light source via the light guide element; a casing holding the light guide element and the pair of Galvano mirrors (44a, 44b) therein and including a first attachment portion for attaching an optical element, the first attachment portion being provided at a position at which the optical element is optically connectable to the pair of Galvano mirrors (44a, 44b); and a control unit configured to control a deflection angle of the pair of Galvano mirrors (44a, 44b), wherein the control unit is configured to control the deflection angle so that an optical path optically connected to the semiconductor device is switched between a first optical path passing through the pair of Galvano mirrors (44a, 44b) and the light guide element and a second optical path passing through the pair of Galvano mirrors (44a, 44b) and the first attachment portion, and to control the deflection angle so that the deflection angle when switching to the first optical path has been performed and the deflection angle when switching to the second optical path has been performed do not overlap. a first light source configured to emit light for irradiating the semiconductor device with; a light guide element optically connected to the first light source; a pair of Galvano mirrors (44a, 44b) provided at positions at which the Galvano mirrors (44a, 44b) are optically connectable to the first light source via the light guide element; a casing holding the light guide element and the pair of Galvano mirrors (44a, 44b) therein and including a first attachment portion for attaching an optical element, the first attachment portion being provided at a position at which the optical element is optically connectable to the pair of Galvano mirrors (44a, 44b); and a control unit configured to control a deflection angle of the pair of Galvano mirrors (44a, 44b), wherein the control unit is configured to control the deflection angle so that an optical path optically connected to the semiconductor device is switched between a first optical path passing through the pair of Galvano mirrors (44a, 44b) and the light guide element and a second optical path passing through the pair of Galvano mirrors (44a, 44b) and the first attachment portion, and to control the deflection angle so that the deflection angle when switching to the first optical path has been performed and the deflection angle when switching to the second optical path has been performed do not overlap.
Method for producing marking strips using at least two seeders (1, 2, 3) moving simultaneously in a field in which one seeder is the head seeder and at least one other seeder (2, 3) follows the head seeder, being laterally offset, each seeder (1, 2, 3) has a control unit and several rows that can be respectively activated for the seeding or deactivated to produce tracks without seeds which will be used as a circulation lane for a treating apparatus in post-treatment operations, each control unit comprises a software programme defining, on the basis of fixed working parameters which are input individually into each control unit, an automatic operating programme for activating or deactivating at least one of the rows of one of the seeders (1; 2; 3), each seeder (1; 2; 3) being equipped with a half turn detection means, each seeder (1; 2; 3) being independent for determining a tramlining pace.
A compound of formula which is 2-[(4 S)-6-(4-Chlorophenyl)-1-methyl-8-(methyloxy)-4 H -[1,2,4]triazolo[4,3- a][1,4]benzodiazepin-4-yl]- N -ethylacetamide or a pharmaceutically acceptable salt thereof for use in the treatment of a fibrotic condition, a viral infection or a disease or condition which involve an inflammatory response to infections.
A suturing instrument, comprising: an elongate body extending from a handle; a suturing head extending from a distal end of the elongate body, the suturing head being movable relative to the elongate body; a first needle carrier and a second needle carrier, both being movable into and out of the suturing head; a first actuator for controlling movement of the first needle carrier, the first actuator extending from a proximal end of the handle; and a second actuator for controlling movement of the second needle carrier, the second actuator extending from the proximal end of the handle, a compressed spring disposed in the elongate body and configured to return the needle carriers to their retracted positions; characterized in that the suturing instrument comprises a push rod, and in that the suturing head is movable within an articulation angle range of about 0 degrees to about 30 degrees as measured from a longitudinal axis extending along the length of the elongate body, such that the compressed spring is adapted to bias the push rod forward against the suturing head causing the suturing head to articulate to or against a stopping surface to maintain an articulated position of about 30 degrees, and is also adapted to be further compressed by the push rod being biased backwards when the suturing head is straightened. an elongate body extending from a handle; a suturing head extending from a distal end of the elongate body, the suturing head being movable relative to the elongate body; a first needle carrier and a second needle carrier, both being movable into and out of the suturing head; a first actuator for controlling movement of the first needle carrier, the first actuator extending from a proximal end of the handle; and a second actuator for controlling movement of the second needle carrier, the second actuator extending from the proximal end of the handle, a compressed spring disposed in the elongate body and configured to return the needle carriers to their retracted positions;
A speech recognition apparatus, comprising: a first recognizer (110, 310) configured to generate a first recognition result of an audio signal, in a first linguistic recognition unit, by using an acoustic model; a second recognizer (120, 320) configured to generate a second recognition result of the audio signal, in a second linguistic recognition unit, by using a language model; and a combiner (130, 330) configured to combine the first recognition result of the audio signal and the second recognition result of the audio signal to generate a final recognition result of the audio signal in the second linguistic recognition unit and to reflect the final recognition result of the audio signal in the language model; wherein the second recognizer (120, 320) is configured to receive the final recognition result of the audio signal as input to the language model and to generate a second recognition result of a subsequent audio signal in the second linguistic recognition unit by using the language model reflecting the final recognition result of the audio signal; wherein the combiner (130, 330) is further configured to combine a first recognition result of the subsequent audio signal, generated by using the acoustic model, and the second recognition result of the subsequent audio signal as a final recognition result of the subsequent audio signal; and wherein the first linguistic recognition unit is a same linguistic unit type as the second linguistic recognition unit. a first recognizer (110, 310) configured to generate a first recognition result of an audio signal, in a first linguistic recognition unit, by using an acoustic model; a second recognizer (120, 320) configured to generate a second recognition result of the audio signal, in a second linguistic recognition unit, by using a language model; and a combiner (130, 330) configured to combine the first recognition result of the audio signal and the second recognition result of the audio signal to generate a final recognition result of the audio signal in the second linguistic recognition unit and to reflect the final recognition result of the audio signal in the language model; wherein the second recognizer (120, 320) is configured to receive the final recognition result of the audio signal as input to the language model and to generate a second recognition result of a subsequent audio signal in the second linguistic recognition unit by using the language model reflecting the final recognition result of the audio signal; wherein the combiner (130, 330) is further configured to combine a first recognition result of the subsequent audio signal, generated by using the acoustic model, and the second recognition result of the subsequent audio signal as a final recognition result of the subsequent audio signal; and wherein the first linguistic recognition unit is a same linguistic unit type as the second linguistic recognition unit.
A heating device comprising: a rotating member having an endless form; a heater disposed inside a loop of the rotating member; a pressing member disposed opposite the rotating member; a nip formation member contacting an inner circumferential surface of the rotating member to form a nip between the pressing member and the rotating member; a first temperature sensor configured to detect a temperature of the nip formation member; and a second temperature sensor configured to detect a temperature of the rotating member, wherein the heater radiates light; the rotating member has a light receiving surface which is irradiated with the light from the heater; the nip formation member has a light receiving surface which is irradiated with the light from the heater, wherein the first temperature sensor is disposed downstream from the nip in a rotation direction of the rotating member, wherein the second temperature sensor is disposed downstream from the first temperature sensor in the rotation direction of the rotating member, and wherein the heater is controlled based on a difference in values detected by the first temperature sensor and the second temperature sensor. a rotating member having an endless form; a heater disposed inside a loop of the rotating member; a pressing member disposed opposite the rotating member; a nip formation member contacting an inner circumferential surface of the rotating member to form a nip between the pressing member and the rotating member; a first temperature sensor configured to detect a temperature of the nip formation member; and a second temperature sensor configured to detect a temperature of the rotating member, wherein the heater radiates light; the rotating member has a light receiving surface which is irradiated with the light from the heater; the nip formation member has a light receiving surface which is irradiated with the light from the heater, wherein the first temperature sensor is disposed downstream from the nip in a rotation direction of the rotating member, wherein the second temperature sensor is disposed downstream from the first temperature sensor in the rotation direction of the rotating member, and wherein the heater is controlled based on a difference in values detected by the first temperature sensor and the second temperature sensor.
Wind turbine connected to a utility grid, said wind turbine comprising at least one electric system, such as low or high voltage power systems and cables, at least one control system, such as a SCADA system and control cables (18, 19), and at least one safety system, comprising a lightning protection system, wherein a connection to an electrically earth potential is established from one defined place within the wind turbine for said systems, where said one defined place is positioned within the foundation section just above the ground floor, said one defined place includes a rail in an electrically conductive material with connection means for said systems, wherein said connection means comprises connection holes and loops for establishing connection between the rail and cable screens of said systems.
A method for detecting ammonia leakage downstream of at least one catalyst for selective reduction of nitrogen oxides in an exhaust line of a system for aftertreatment of exhaust gases from an internal combustion engine, said system comprising a device for injecting a reducing agent directly upstream of the catalyst for selective reduction of nitrogen oxides, a first nitrogen oxide sensor arranged upstream of said catalyst and a second nitrogen oxide sensor arranged downstream of said catalyst, characterized in that: - the concentration of nitrogen oxides is measured by the first sensor, - the concentration of nitrogen oxides is measured by the second sensor, - the difference between the nitrogen oxide concentration measured by the first sensor and the nitrogen oxide concentration measured by the second sensor is calculated, - said difference is filtered to obtain a filtered signal of said difference, - a digital envelope of the filtered signal is detected, - said digital envelope of the filtered signal is saturated between zero and infinity to determine a saturated digital envelope, - ammonia leakage is determined as a function of the saturated digital envelope and a predetermined threshold value, and - the catalyst control settings are adapted if the saturated digital envelope exceeds the threshold value. - the concentration of nitrogen oxides is measured by the first sensor, - the concentration of nitrogen oxides is measured by the second sensor, - the difference between the nitrogen oxide concentration measured by the first sensor and the nitrogen oxide concentration measured by the second sensor is calculated, - said difference is filtered to obtain a filtered signal of said difference, - a digital envelope of the filtered signal is detected, - said digital envelope of the filtered signal is saturated between zero and infinity to determine a saturated digital envelope, - ammonia leakage is determined as a function of the saturated digital envelope and a predetermined threshold value, and - the catalyst control settings are adapted if the saturated digital envelope exceeds the threshold value.
Drain fitting for a cistern, comprising a valve body having a sealing element, which cooperates with a valve seat, and a float, wherein the valve body is movable with the sealing element off the valve seat along a centre axis from a rest position into a flushing position, and from the flushing position into the rest position, and a float chamber having an opening through which the valve body extends, wherein the float is movable within the float chamber along the centre axis and hydraulically cooperates with the float chamber, wherein the float chamber comprises at least one control passage, through which, as soon as a flush water level surrounding the drain fitting has fallen to the height of the control passage, air from regions outside the float chamber can pass into the float chamber, such that the pressure ratios between the float chamber and the regions outside the float chamber can be equalized, wherein the float, upon equalization of the pressure ratios, is movable with the valve body from the flushing position into the rest position wherein the float chamber has a base portion, extending fully around the centre axis, and a snorkel portion, adjoining the base portion, wherein the cross section of the snorkel portion, viewed transversely to the centre axis, is smaller than the cross section of the base portion, wherein the float has a lower portion, away from which extends a pillar portion, wherein the float extends with the pillar portion into the snorkel portion, and wherein the valve body furthermore comprises an overflow pipe, wherein the float with the pillar portion and the lower portion circumvents the overflow pipe externally, in particular such that the overflow pipe extends centrically through the float so that the pillar portion and the lower portion have the cross section of a cylindrical ring; and wherein the float is preferably integrally formed with the overflow pipe.