mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for redirecting a light beam for scanning a solid angle region, comprising: a provision device, which is configured to provide a light beam and steer it onto a redirection device of the apparatus; wherein the redirection device has an adjustable micromirror and is configured to periodically redirect the light beam in accordance with an actuation signal for periodically scanning a solid angle region by means of the micromirror; a control device, which is configured to receive a control signal indicating a currently preferred solid angle in the solid angle region to be scanned; and to generate the actuation signal on the basis of the received control signal; wherein the currently preferred solid angle is a solid angle at which, in the course of one period of the periodic scanning, the greatest proportion of the available light power is intended to be redirected; and wherein the control device is configured to generate the actuation signal in a manner such that a maximum of a residence time probability density of the periodically redirected light beam is arranged in the preferred solid angle; characterized in that the control device is configured to generate the actuation signal in a manner such that an angular speed function (84; 184) of the micromirror, indicating an angular speed of the micromirror as a function of time within one period of the periodic scanning, in at least one first section (71; 171) of its periodic definition region (75; 175) has, or consists of, a first term that is constant over time and a first term that is periodic over time. a provision device, which is configured to provide a light beam and steer it onto a redirection device of the apparatus; wherein the redirection device has an adjustable micromirror and is configured to periodically redirect the light beam in accordance with an actuation signal for periodically scanning a solid angle region by means of the micromirror; a control device, which is configured to receive a control signal indicating a currently preferred solid angle in the solid angle region to be scanned; and to generate the actuation signal on the basis of the received control signal; wherein the currently preferred solid angle is a solid angle at which, in the course of one period of the periodic scanning, the greatest proportion of the available light power is intended to be redirected; and wherein the control device is configured to generate the actuation signal in a manner such that a maximum of a residence time probability density of the periodically redirected light beam is arranged in the preferred solid angle; characterized in that the control device is configured to generate the actuation signal in a manner such that an angular speed function (84; 184) of the micromirror, indicating an angular speed of the micromirror as a function of time within one period of the periodic scanning, in at least one first section (71; 171) of its periodic definition region (75; 175) has, or consists of, a first term that is constant over time and a first term that is periodic over time.
Stitching machine for connecting an end section of an exiting metal strip with a start section of an entering metal strip for a continuously operating strip plant, comprising: - a first punching tool constructed for the purpose of connecting the metal strips together when the thicknesses thereof lie in a first thickness range and/or when the strengths thereof lie in a first strength range, and - a second punching tool constructed for the purpose of connecting the metal strips together when the thicknesses thereof lie in a second thickness range and/or the strengths thereof lie in a second strength range, wherein the two thickness regions and/or strength regions differ from one another and wherein the two punching tools (20, 30) are arranged in a punching tool cassette and the punching tool cassette is displaceable by means of a displacing device within the stitching machine so that the first punching tool can be arranged in a punching position and the second punching tool in a parking position outside the stitching machine or conversely, characterised in that stitching is used as a form of connection and wherein the first punching tool has a first clearance and the second punching tool a second clearance differing from the first clearance. - a first punching tool constructed for the purpose of connecting the metal strips together when the thicknesses thereof lie in a first thickness range and/or when the strengths thereof lie in a first strength range, and - a second punching tool constructed for the purpose of connecting the metal strips together when the thicknesses thereof lie in a second thickness range and/or the strengths thereof lie in a second strength range, wherein the two thickness regions and/or strength regions differ from one another and wherein the two punching tools (20, 30) are arranged in a punching tool cassette and the punching tool cassette is displaceable by means of a displacing device within the stitching machine so that the first punching tool can be arranged in a punching position and the second punching tool in a parking position outside the stitching machine or conversely, characterised in that stitching is used as a form of connection and wherein the first punching tool has a first clearance and the second punching tool a second clearance differing from the first clearance.
A heat-sensitive recording material comprising: a heat-sensitive recording layer formed on a support body, the heat-sensitive recording layer comprising a basic dye that is colorless to a light color at room temperature, a developer capable of reacting with the basic dye and colorizing as a result of heating, a sensitizer, and a sensitization aid, wherein the developer is 4,4'-dihydroxydiphenylsulfone, the sensitizer is at least one selected from 1,2-bis(phenoxy)ethane, 1,2-bis(3-methylphenoxy)ethane, benzyloxynaphthalene, and oxalic acid di-p-methylbenzyl ester, and the sensitization aid is benzoin. a heat-sensitive recording layer formed on a support body, the heat-sensitive recording layer comprising a basic dye that is colorless to a light color at room temperature, a developer capable of reacting with the basic dye and colorizing as a result of heating, a sensitizer, and a sensitization aid,
A device for reducing power consumption at a User Equipment, UE, and signaling overhead caused by frequent wireless communication of background messages, comprising: a means, residing at one of an evolved Node B, eNodeB, and the User Equipment, UE, for monitoring the UE to determine whether the UE is in one of a power saving mode and not in the power saving mode; a means for reviewing a set of packets for an indication that a packet in the set of packets comprises a background message when the UE is in the power saving mode; a means for performing a handling action comprising one of buffering that background message and dropping the background message to reduce one of sending and receiving background messages; and a means for directing a response module to perform one of buffering the message and dropping the message based on a parameter value in the indication, wherein the indication resides in an Internet Protocol, IP, header field of the background message, wherein: the means for directing the response module to perform one of buffering the message and dropping the message is configured to direct the response module: to buffer the background message where the power saving mode comprises a mid low power mode, and to drop the background message where the power saving mode comprises a deep low power mode. a means, residing at one of an evolved Node B, eNodeB, and the User Equipment, UE, for monitoring the UE to determine whether the UE is in one of a power saving mode and not in the power saving mode; a means for reviewing a set of packets for an indication that a packet in the set of packets comprises a background message when the UE is in the power saving mode; a means for performing a handling action comprising one of buffering that background message and dropping the background message to reduce one of sending and receiving background messages; and a means for directing a response module to perform one of buffering the message and dropping the message based on a parameter value in the indication, wherein the indication resides in an Internet Protocol, IP, header field of the background message, wherein: the means for directing the response module to perform one of buffering the message and dropping the message is configured to direct the response module: to buffer the background message where the power saving mode comprises a mid low power mode, and to drop the background message where the power saving mode comprises a deep low power mode. the means for directing the response module to perform one of buffering the message and dropping the message is configured to direct the response module: to buffer the background message where the power saving mode comprises a mid low power mode, and to drop the background message where the power saving mode comprises a deep low power mode. to buffer the background message where the power saving mode comprises a mid low power mode, and to drop the background message where the power saving mode comprises a deep low power mode.
Method for reducing voltage fluctuations in a supply network, which are caused by operating a load from the supply network, by - measuring a current between the load and the supply network, as a result of which a corresponding current measurement signal is obtained, - reducing the voltage fluctuations with the aid of a TCR, and - reducing the voltage fluctuations with the aid of a VSC, - dividing the current measurement signal or a corresponding variable into a first portion and a second portion on the basis of a predefined absolute limit value, - controlling the TCR on the basis of the first portion, and - controlling the VSC on the basis of the second portion, the predefined absolute limit value representing a cut-off frequency, all frequencies of the first portion being below the cut-off frequency and all frequencies of the second portion being above the cut-off frequency, characterized in that the cut-off frequency is between 0 and 8 Hz. - measuring a current between the load and the supply network, as a result of which a corresponding current measurement signal is obtained, - reducing the voltage fluctuations with the aid of a TCR, and - reducing the voltage fluctuations with the aid of a VSC, - dividing the current measurement signal or a corresponding variable into a first portion and a second portion on the basis of a predefined absolute limit value, - controlling the TCR on the basis of the first portion, and - controlling the VSC on the basis of the second portion, the predefined absolute limit value representing a cut-off frequency, all frequencies of the first portion being below the cut-off frequency and all frequencies of the second portion being above the cut-off frequency, characterized in that the cut-off frequency is between 0 and 8 Hz.
An atomizer comprising an upper cover assembly and a fixing member, wherein the upper cover assembly comprises an upper cover, a movable member and a locking member movably provided between the upper cover and the movable member, the movable member is at least partially received in the upper cover, the upper cover is provided with a through hole, the fixing member is sleeved at the outside of the upper cover, the fixing member is provided with a locking groove corresponding to the through hole; characterized in that the movable member is rotatable relative to the upper cover and is provided with a recess, such that when the movable member is rotated until the recess and the locking member are staggered from each other, the locking member partially passes through the through hole and is locked with the locking groove; when the movable member is rotated until the recess and the locking member are aligned with each other, the locking member is partially received in the recess and is separated from the locking groove. the movable member is rotatable relative to the upper cover and is provided with a recess, such that when the movable member is rotated until the recess and the locking member are staggered from each other, the locking member partially passes through the through hole and is locked with the locking groove; when the movable member is rotated until the recess and the locking member are aligned with each other, the locking member is partially received in the recess and is separated from the locking groove.
A method for taking an auto-fluorescence image of an eye, comprising: emitting an excitation light; filtering the excitation light through an excitation filter having an excitation cut-on wavelength of 535 nm, an excitation cut-off wavelength of 585 nm, and an excitation band-pass range of 535 nm to 585 nm, such that the excitation band-pass range: excites fluorescence from a fluorophore present in the eye, is not within the absorption range of fluorescein; and is not efficient at causing excitation of fluorescence from a crystalline lens; directing the filtered excitation light into the eye; collecting the fluorescence emitted from the fluorophore within a field of view of the fundus of the eye; filtering the collected fluorescence through a barrier filter having a barrier cut-on wavelength of 605 nm, a barrier cut-off wavelength of 715 nm, and a barrier band-pass range of 605 nm to 715 nm; and generating an image based at least in part on the filtered fluorescence. emitting an excitation light; filtering the excitation light through an excitation filter having an excitation cut-on wavelength of 535 nm, an excitation cut-off wavelength of 585 nm, and an excitation band-pass range of 535 nm to 585 nm, such that the excitation band-pass range: excites fluorescence from a fluorophore present in the eye, is not within the absorption range of fluorescein; and is not efficient at causing excitation of fluorescence from a crystalline lens; excites fluorescence from a fluorophore present in the eye, is not within the absorption range of fluorescein; and is not efficient at causing excitation of fluorescence from a crystalline lens; directing the filtered excitation light into the eye; collecting the fluorescence emitted from the fluorophore within a field of view of the fundus of the eye; filtering the collected fluorescence through a barrier filter having a barrier cut-on wavelength of 605 nm, a barrier cut-off wavelength of 715 nm, and a barrier band-pass range of 605 nm to 715 nm; and generating an image based at least in part on the filtered fluorescence.
An appliance, comprising: a handle; a cosmetic composition delivery system, supported within the handle; a nozzle assembly for receiving a cosmetic composition from the cosmetic composition delivery system, wherein the nozzle assembly includes a stationary nozzle base and an associated nozzle array movably supported within the stationary nozzle base, the nozzle array including a plurality of nozzles (58, 60, 62, 64) through which the received cosmetic composition is directed; a plurality of filaments which act as a stand-off between the nozzle array and the scalp, positioned adjacent to the nozzle array; and a motor for moving the nozzle array, reciprocating back and forth, delivering the cosmetic composition as the appliance is pulled through the hair by a user, characterised in that the plurality of filaments extend from the stationary nozzle base. a handle; a cosmetic composition delivery system, supported within the handle; a nozzle assembly for receiving a cosmetic composition from the cosmetic composition delivery system, wherein the nozzle assembly includes a stationary nozzle base and an associated nozzle array movably supported within the stationary nozzle base, the nozzle array including a plurality of nozzles (58, 60, 62, 64) through which the received cosmetic composition is directed; a plurality of filaments which act as a stand-off between the nozzle array and the scalp, positioned adjacent to the nozzle array; and a motor for moving the nozzle array, reciprocating back and forth, delivering the cosmetic composition as the appliance is pulled through the hair by a user, characterised in that the plurality of filaments extend from the stationary nozzle base.
A method of unlocking control performed by a mobile terminal, characterized by comprising: acquiring a scene parameter of a mobile terminal; acquiring an environment parameter of the mobile terminal; selecting a target multi-biometric identification mode corresponding to the scene parameter and the environment parameter from M multi-biometric identification modes stored in the mobile terminal, wherein the M is an integer greater than 1, and the scene parameter comprises at least one selected from the group consisting of: a type of the application, occupancy of network speed, data transmission, and a type of the data; and collecting S pieces of biometric information through a target biometric collection module corresponding to the target multi-biometric identification mode, and unlocking the mobile terminal in response to the S pieces of biometric information being determined as passing verification, wherein the S is an integer greater than 1, wherein the target multi-biometric identification mode is selected based on a performance parameter recorded in a verification record of a verification history, and the performance parameter comprises time consumed for each verification, a matching score of each verification, and power consumption of a biometric collection apparatus for each verification. acquiring a scene parameter of a mobile terminal; acquiring an environment parameter of the mobile terminal; selecting a target multi-biometric identification mode corresponding to the scene parameter and the environment parameter from M multi-biometric identification modes stored in the mobile terminal, wherein the M is an integer greater than 1, and the scene parameter comprises at least one selected from the group consisting of: a type of the application, occupancy of network speed, data transmission, and a type of the data; and collecting S pieces of biometric information through a target biometric collection module corresponding to the target multi-biometric identification mode, and unlocking the mobile terminal in response to the S pieces of biometric information being determined as passing verification, wherein the S is an integer greater than 1, wherein the target multi-biometric identification mode is selected based on a performance parameter recorded in a verification record of a verification history, and the performance parameter comprises time consumed for each verification, a matching score of each verification, and power consumption of a biometric collection apparatus for each verification.
A complex formed by a compound of formula: wherein R 1 represents hydrogen, alkyl group comprising from 2 to 6 carbon atoms or alkoxy group comprising from 2 to 6 carbon atoms; R 2 represents hydrogen, alkyl group comprising from 1 to 6 carbon atoms or alkoxy group comprising from 1 to 6 carbon atoms; R 3 represents carboxymethyl group; and wherein exactly one group selected from R 1 and R 2 is hydrogen; or a salt thereof; with a photoactive yellow protein functional derivative comprising SEQ ID NO: 3. R 1 represents hydrogen, alkyl group comprising from 2 to 6 carbon atoms or alkoxy group comprising from 2 to 6 carbon atoms; R 2 represents hydrogen, alkyl group comprising from 1 to 6 carbon atoms or alkoxy group comprising from 1 to 6 carbon atoms; R 3 represents carboxymethyl group; and
A supercapacitor with a double electrochemical layer, comprising at least two complexes (2, 3) and at least one separator between both complexes (2, 3), each complex comprising a current collector and at least one electrode, the complexes (2, 3) and the separator being wound together in turns along a winding axis in order to form a wound element, this supercapacitor further comprising at least one other complex and at least one other separator, the other complex and the other separator being wound together in turns around the wound element so as to form at least one consecutive wound element, characterized in that these successive wound elements (10, 20) are separated by an electronic insulating space of width d along a direction perpendicular to the winding axis.
A combination therapy comprising therapeutically effective amounts, independently, of: (a) methyl N-[ -1-({4-[3-(5-chloro-2-fluoro-3-methanesulfonamidophenyl)-1-(propan-2-yl)-1H-pyrazol-4-yl]pyrimidin-2-yl}amino)propan-2-yl]carbamate (COMPOUND A) or a pharmaceutically acceptable salt thereof, (b) 6-(4-bromo-2-fluorophenylamino)-7-fluoro-3-methyl-3H-benzoimidazole-5-carboxylic acid (2-hydroxyethoxy)-amide (COMPOUND B) or a pharmaceutically acceptable salt thereof, and (c) cetuximab (COMPOUND C). (a) methyl N-[ -1-({4-[3-(5-chloro-2-fluoro-3-methanesulfonamidophenyl)-1-(propan-2-yl)-1H-pyrazol-4-yl]pyrimidin-2-yl}amino)propan-2-yl]carbamate (COMPOUND A) or a pharmaceutically acceptable salt thereof, (b) 6-(4-bromo-2-fluorophenylamino)-7-fluoro-3-methyl-3H-benzoimidazole-5-carboxylic acid (2-hydroxyethoxy)-amide (COMPOUND B) or a pharmaceutically acceptable salt thereof, and (c) cetuximab (COMPOUND C).
A method for assessing strain in a structural component (10, 30, 32), comprising: creating a geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) on the structural component (10, 30, 32) having a first set of grooves (14, 14A-14F) each having a first groove width and a second set of grooves each having a second groove width; illuminating the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) with a first light at a band of first wavelength that corresponds to the first groove width to create diffraction when the first light hits the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) and a second light at a band of second wavelength that corresponds to the second groove width to create diffraction when the second light hits the geometric pattern of grooves, and corresponding changes in a wavelength of light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) indicating changes in the first groove width and in the second groove width due to strain caused when the structural component (10, 30, 32) is exposed to environmental conditions; detecting the wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) as the first light and the second light illuminate the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F); and correlating the detected wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) to the strain in the structural component (10, 30, 32). creating a geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) on the structural component (10, 30, 32) having a first set of grooves (14, 14A-14F) each having a first groove width and a second set of grooves each having a second groove width; illuminating the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) with a first light at a band of first wavelength that corresponds to the first groove width to create diffraction when the first light hits the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) and a second light at a band of second wavelength that corresponds to the second groove width to create diffraction when the second light hits the geometric pattern of grooves, and corresponding changes in a wavelength of light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) indicating changes in the first groove width and in the second groove width due to strain caused when the structural component (10, 30, 32) is exposed to environmental conditions; detecting the wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) as the first light and the second light illuminate the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F); and correlating the detected wavelength of the light reflected from the geometric pattern (12, 12A-12F) of grooves (14, 14A-14F) to the strain in the structural component (10, 30, 32).