mhurhangee/ep-ind-claims huggingface dataset:
A conveying apparatus, comprising: a conveying portion configured to convey conveyed items at a predetermined speed; a speed adjustment portion arranged midway in the conveying portion, the speed adjustment portion being configured to adjust the conveying speed of the conveyed items; a thickness detector arranged further upstream in conveying direction than the speed adjustment portion, the thickness detector being configured to detect a thickness of the conveyed items; a gap detector arranged further upstream in conveying direction than the speed adjustment portion, the gap detector being configured to detect a preceding gap (Lab) between a conveyed item and the conveyed item that is conveyed immediately in front of that conveyed item and a following gap (Lac) between that conveyed item and the conveyed item that is conveyed immediately behind that conveyed item; and a control device configured to control the adjustment speed of the conveyed items by the speed adjustment portion; characterised in that the control device is configured to decide a correction distance (α) based on the thickness of the conveyed item detected by the thickness detector, to determine a corrected preceding gap by adding this correction distance (α) to the preceding gap (Lab) detected by the gap detector, to determine a corrected following gap by subtracting this correction distance (α) from the following gap (Lac) detected by the gap detector, and to decide the adjustment speed based on the corrected preceding gap and the corrected following gap. a conveying portion configured to convey conveyed items at a predetermined speed; a speed adjustment portion arranged midway in the conveying portion, the speed adjustment portion being configured to adjust the conveying speed of the conveyed items; a thickness detector arranged further upstream in conveying direction than the speed adjustment portion, the thickness detector being configured to detect a thickness of the conveyed items; a gap detector arranged further upstream in conveying direction than the speed adjustment portion, the gap detector being configured to detect a preceding gap (Lab) between a conveyed item and the conveyed item that is conveyed immediately in front of that conveyed item and a following gap (Lac) between that conveyed item and the conveyed item that is conveyed immediately behind that conveyed item; and a control device configured to control the adjustment speed of the conveyed items by the speed adjustment portion; characterised in that the control device is configured to decide a correction distance (α) based on the thickness of the conveyed item detected by the thickness detector, to determine a corrected preceding gap by adding this correction distance (α) to the preceding gap (Lab) detected by the gap detector, to determine a corrected following gap by subtracting this correction distance (α) from the following gap (Lac) detected by the gap detector, and to decide the adjustment speed based on the corrected preceding gap and the corrected following gap.
A vehicular curtain air bag device comprising a curtain air bag, the curtain air bag including: a rear seat chamber configured to inflate and deploy between a head of a rear seat occupant and a vehicle interior side section from an upper end section of the vehicle interior side section; characterized in that the curtain air bag further includes: a headrest chamber configured to extend to a rearward side from a lower section of a rear end section of the rear seat chamber, the headrest chamber being configured to inflate and deploy between a headrest of a rear seat and the vehicle interior side section in a vehicle width direction. a rear seat chamber configured to inflate and deploy between a head of a rear seat occupant and a vehicle interior side section from an upper end section of the vehicle interior side section; characterized in that the curtain air bag further includes: a headrest chamber configured to extend to a rearward side from a lower section of a rear end section of the rear seat chamber, the headrest chamber being configured to inflate and deploy between a headrest of a rear seat and the vehicle interior side section in a vehicle width direction. a headrest chamber configured to extend to a rearward side from a lower section of a rear end section of the rear seat chamber, the headrest chamber being configured to inflate and deploy between a headrest of a rear seat and the vehicle interior side section in a vehicle width direction.
A cooker with a gasket, comprising a top plate on which burners are placed, and a manifold panel provided in front of the top plate and including thereon knobs for controlling output power of the burners, the cooker further comprising a gasket extending along a front end of the top plate, and being compressed between the top plate and the manifold panel to hermetically seal between the top plate and the manifold panel, whereby the gasket comprises: a support plate having a plate shape and formed of a metal material; and a close-contact member formed along a top end and left and right side ends of the support plate, and formed of an elastic material, and characterized by that the close-contact member comprises: a close-contact portion provided on the support plate and formed to be thicker than the support plate; and an adhesive portion extending from an end portion of the close-contact portion and adhered to one surface of the support plate. a support plate having a plate shape and formed of a metal material; and a close-contact member formed along a top end and left and right side ends of the support plate, and formed of an elastic material, and characterized by that the close-contact member comprises: a close-contact portion provided on the support plate and formed to be thicker than the support plate; and an adhesive portion extending from an end portion of the close-contact portion and adhered to one surface of the support plate. a close-contact portion provided on the support plate and formed to be thicker than the support plate; and an adhesive portion extending from an end portion of the close-contact portion and adhered to one surface of the support plate.
A static spray mixer for the mixing and spraying of at least two flowable components having a tubular mixer housing which extends in the direction of a longitudinal axis up to a distal end which has an outlet opening for the components, having at least one mixing element arranged in the mixer housing for the mixing of the components as well as having an atomization sleeve which has an inner surface which surrounds the mixer housing in its end region, wherein the atomization sleeve has an inlet channel for a pressurized atomization medium, wherein a plurality of grooves are provided in the outer surface of the mixer housing or in the inner surface of the atomization sleeve which respectively extend toward the distal end and which form separate flow channels between the atomization sleeve and the mixer housing through which the atomization medium can flow from the inlet channel of the atomization sleeve to the distal end of the mixer housing, characterized in that each flow channel has a respective changing inclination toward the longitudinal axis in the direction of flow.
A variant of a parent cutinase, wherein the variant has cutinase activity and comprises at least one alteration selected from the group consisting of R181P, G182*, V1151, A161L, Q1*, L2*, A43C, 155C, N79A and 15V, wherein position numbers correspond to positions of SEQ ID NO: 2, and wherein the variant has at least 85%, but less than 100% sequence identity to the mature polypeptide of SEQ ID NO: 2, wherein the variant comprises alterations selected from the group consisting of: a. V115I+R181P+G182* b. A161L+R181P+G182* c. Q1*+L2*+I5V+A43C+I55C+N79A+V115I+R181P+G182* d. Q1*+L2*+A43C+155C+N79A+V1151+R181 P+G182* e. I5V+A43C+I55C+N79A+V115I f. A43C+I55C+N79A g. I5V+A43C+I55C+N79A+V115I+R181P+G182* h. I5V i. A43C+155C j. N79A k. V1151 l. A161L m. R181P+G182*.
A power injector for magnetic resonance imaging, comprising: a syringe plunger driver; a piezo motor comprising a tuned frequency range, wherein a lowest frequency of said tuned frequency range for said piezo motor is no more than 4 KHz from a lowest frequency of an operational frequency range of said power injector, wherein a highest frequency of said tuned frequency range for said piezo motor is no more than 4 KHz from a highest frequency of said operational frequency range of said power injector, and wherein said piezo motor is operatively interconnected to said syringe plunger driver for moving said syringe plunger driver in at least a first direction, wherein said operational frequency range of said power injector is a subset of said tuned frequency range of said piezo motor; and a control board operatively interconnected to said piezo motor for applying at least one signal of a selected frequency within said operational frequency range to said piezo motor. a syringe plunger driver; a piezo motor comprising a tuned frequency range, wherein a lowest frequency of said tuned frequency range for said piezo motor is no more than 4 KHz from a lowest frequency of an operational frequency range of said power injector, wherein a highest frequency of said tuned frequency range for said piezo motor is no more than 4 KHz from a highest frequency of said operational frequency range of said power injector, and wherein said piezo motor is operatively interconnected to said syringe plunger driver for moving said syringe plunger driver in at least a first direction, wherein said operational frequency range of said power injector is a subset of said tuned frequency range of said piezo motor; and a control board operatively interconnected to said piezo motor for applying at least one signal of a selected frequency within said operational frequency range to said piezo motor.
A method for heating a liquid glass channel of a glass fiber tank furnace, comprising: passing oxygen and fuel, via a burner, into a channel space for combustion to heat the channel space and liquid glass; wherein a flow rate of the fuel is V F, a flow rate of the oxygen is Vox, a relative velocity difference is D=((V F -V OX)/V F)×100%, a temperature of the channel is greater than 0°C and less than or equal to 1500°C, and the relative velocity difference expressed as D is greater than 25%; wherein, a range of the flow rate of the fuel expressed as V F is greater than 0m/s and less than or equal to 100m/s, and a range of the flow rate of the oxygen expressed as Vox is greater than 0m/s and less than or equal to 10m/s; wherein grading control for the relative velocity difference expressed as D and the flow rate of the fuel expressed as V F according to the different channel temperatures is adopted; wherein, when the channel temperature is controlled to be greater than 0°C and less than or equal to 500°C, a range of the relative velocity difference expressed as D is controlled to be greater than 25% and less than or equal to 50%; wherein, when the channel temperature is controlled to be greater than 500°C and less than or equal to 1000°C, a range of the relative velocity difference expressed as D is controlled to be greater than 50% and less than or equal to 90%; wherein, when the channel temperature is controlled to be greater than 1000°C and less than or equal to 1500°C, a range of the relative velocity difference expressed as D is controlled to be greater than 90%. wherein a flow rate of the fuel is V F, a flow rate of the oxygen is Vox, a relative velocity difference is D=((V F -V OX)/V F)×100%, a temperature of the channel is greater than 0°C and less than or equal to 1500°C, and the relative velocity difference expressed as D is greater than 25%; wherein, a range of the flow rate of the fuel expressed as V F is greater than 0m/s and less than or equal to 100m/s, and a range of the flow rate of the oxygen expressed as Vox is greater than 0m/s and less than or equal to 10m/s; wherein grading control for the relative velocity difference expressed as D and the flow rate of the fuel expressed as V F according to the different channel temperatures is adopted; wherein, when the channel temperature is controlled to be greater than 0°C and less than or equal to 500°C, a range of the relative velocity difference expressed as D is controlled to be greater than 25% and less than or equal to 50%; wherein, when the channel temperature is controlled to be greater than 500°C and less than or equal to 1000°C, a range of the relative velocity difference expressed as D is controlled to be greater than 50% and less than or equal to 90%; wherein, when the channel temperature is controlled to be greater than 1000°C and less than or equal to 1500°C, a range of the relative velocity difference expressed as D is controlled to be greater than 90%.
Decorative composite having a decorative layer and a light-guiding layer, wherein the decorative layer is provided with a perforation, whereby openings are formed in the decorative layer and at least a residual wall thickness of the openings is ensured by the perforation, wherein the openings do not entirely penetrate the decorative layer and can have been introduced only up to a specific depth, with the result that the decorative layer is entirely or partially transmissive to light so that backlighting can take place, at least one light source is provided for coupling light into the light-guiding layer, the light-guiding layer is provided with defects that act as individually perceivable light-emitting points, light-emitting lines or light-emitting areas when light is coupled into the light-guiding layer, one or more of the light-emitting points, light-emitting lines or light-emitting areas formed by the defects are covered by the decorative layer at one viewing angle onto the decorative layer while they are visible at one or more different viewing angles, characterized in that the density of the defects is less than the density of the openings of the perforation and the distance between adjacent defects is at least 0.1 mm.
Grinding machine comprising at least a wheel head arranged at a headstock and a measuring unit for in process measurement during machining operation, comprising a measuring head, which is movable between a rest position and a measuring position, and means for moving the measuring head between the rest position and the measuring position and a control unit, characterized in that the measuring unit comprises a base element, which is attached to the headstock of the grinding machine as to be pivotable about a pivot axis and an arm to connect the measuring head to the base element, wherein the rest position and the measuring position of the measuring head are infinitely adjustable by a user by controlling pivoting of the base element about the pivot axis by a motorized drive unit as the means for moving the measuring head and by the control unit, and that the measuring head is movable into a reference position before and/or after measuring in the measuring position to determine reference data of a reference surface processable by the control unit and measurement data determined in the measuring position of the measuring head is related to the reference data determined in the reference position such that each measurement of workpiece dimensions presents differential measurement. characterized in that the measuring unit comprises a base element, which is attached to the headstock of the grinding machine as to be pivotable about a pivot axis and an arm to connect the measuring head to the base element, wherein the rest position and the measuring position of the measuring head are infinitely adjustable by a user by controlling pivoting of the base element about the pivot axis by a motorized drive unit as the means for moving the measuring head and by the control unit, and that the measuring head is movable into a reference position before and/or after measuring in the measuring position to determine reference data of a reference surface processable by the control unit and measurement data determined in the measuring position of the measuring head is related to the reference data determined in the reference position such that each measurement of workpiece dimensions presents differential measurement.
A cleaning device, intended to spray at least one fluid toward a surface that is to be cleaned belonging to a motor vehicle, such as an optical sensor of an optical detection system, the cleaning device comprising at least: - a hollow body closed at one end by an inlet flange, - a mobile piston able to slide along a longitudinal axis in the hollow body and which at a first end bears a cleaning fluid distribution element (8, 9), the piston being able to move between a retracted extreme position and a deployed extreme position, - a rod secured to the inlet flange which runs parallel to the longitudinal axis and along which the mobile piston slides, - means for conveying cleaning fluid through the hollow body, from a fluid intake end-piece as far as the distribution element (8, 9), comprising at least one intake chamber, the volume of which varies according to the movement of the mobile piston and a distribution duct formed in the mobile piston, - the piston and/or the rod being configured to provide between them passageways for cleaning fluid, characterized in that at least two passageways have different axial dimensions along the longitudinal axis, each passageway having an axial dimension that is distinct from that of the adjacent passageways in the arrangement whereby the passageways are arranged in a circular series. - a hollow body closed at one end by an inlet flange, - a mobile piston able to slide along a longitudinal axis in the hollow body and which at a first end bears a cleaning fluid distribution element (8, 9), the piston being able to move between a retracted extreme position and a deployed extreme position, - a rod secured to the inlet flange which runs parallel to the longitudinal axis and along which the mobile piston slides, - means for conveying cleaning fluid through the hollow body, from a fluid intake end-piece as far as the distribution element (8, 9), comprising at least one intake chamber, the volume of which varies according to the movement of the mobile piston and a distribution duct formed in the mobile piston, - the piston and/or the rod being configured to provide between them passageways for cleaning fluid,
A crystalline Form A of the compound represented by Formula 7, having diffraction peaks at about 6.54, 8.27 and 11.68 degrees 2θ in an X-ray powder diffraction pattern using Cu-Ka radiation.
A damping or return device for sliding door leaves of furniture, comprising a steel pin which is arranged within a magnet in order to slideably and axially interact within said magnet, said damping or return device being characterised in that said magnet is constituted by a diametrically differently-polarized collar, said magnet being diametrically polarized differently, it being, from the magnetic point of view, divided into a first half-collar and a second half-collar, which are coupled together and are mutually identical and have opposing polarities.
A method for a first User Equipment, in the following also referred to as UE, to request dedicated sidelink configuration, comprising: transmitting a first Radio Resource Control, in the following also referred to as RRC, message to a network node, wherein the first RRC message includes a sidelink Quality of Service, in the following also referred to as QoS, information; and receiving a second RRC message from the network node, wherein the second RRC message includes a dedicated sidelink configuration and an identity of a sidelink QoS flow associated with the dedicated sidelink configuration, characterized in that a presence of the identity of the sidelink QoS flow in the sidelink QoS information is mandatory and a presence of a QoS profile of the sidelink QoS flow in the sidelink QoS information is optional, wherein the sidelink QoS information includes the identity of the sidelink QoS flow if there is no data available for transmission from the sidelink QoS flow. transmitting a first Radio Resource Control, in the following also referred to as RRC, message to a network node, wherein the first RRC message includes a sidelink Quality of Service, in the following also referred to as QoS, information; and receiving a second RRC message from the network node, wherein the second RRC message includes a dedicated sidelink configuration and an identity of a sidelink QoS flow associated with the dedicated sidelink configuration, characterized in that a presence of the identity of the sidelink QoS flow in the sidelink QoS information is mandatory and a presence of a QoS profile of the sidelink QoS flow in the sidelink QoS information is optional, wherein the sidelink QoS information includes the identity of the sidelink QoS flow if there is no data available for transmission from the sidelink QoS flow.
A computing device comprising means to store and execute bytecodes, the computing device storing bytecodes which comprises a bytecode for calling a method, and wherein the bytecode calling a sensitive method is followed by an attack detection bytecode present after the bytecode for calling the method, and in that when executing the bytecode for calling the method, the computing device, upon return from the method, operates to continue bytecode execution after the attack detection bytecode, and wherein execution of the attack detection bytecode upon return from the method is indicative of an error in execution of the method thereby protecting against fault attacks during the execution of the bytecode for calling the method.
A method performed by a User Equipment, UE, for enabling mitigation of interference between an External Wireless System, EWS, and a mobile communication system, wherein the EWS is a system that is external with respect to the mobile communication system, wherein the EWS operates at another operating frequency, F EWS, that is adjacent to an operating frequency, F R, of the mobile communication system, said method comprising the steps of: - detecting an EWS event involving EWS operation interfering with the operation of the mobile communication system, provided interference conditions are fulfilled, wherein said interference conditions include a first condition based on a frequency relation between the operating frequency, F EWS, of the EWS and the operating frequency, F R, of the mobile communication system and a second condition based on information regarding a location of the EWS event, and wherein the frequency relation represents whether the operating frequency, F EWS, of the EWS and the operating frequency, F R, of the mobile communication system are within a pre-defined range; and - reporting (S2-1A) event information including at least one of time, the location, and the operating frequency of said EWS event to a radio network node to enable said mitigation of interference. - detecting an EWS event involving EWS operation interfering with the operation of the mobile communication system, provided interference conditions are fulfilled, wherein said interference conditions include a first condition based on a frequency relation between the operating frequency, F EWS, of the EWS and the operating frequency, F R, of the mobile communication system and a second condition based on information regarding a location of the EWS event, and wherein the frequency relation represents whether the operating frequency, F EWS, of the EWS and the operating frequency, F R, of the mobile communication system are within a pre-defined range; and - reporting (S2-1A) event information including at least one of time, the location, and the operating frequency of said EWS event to a radio network node to enable said mitigation of interference.