mhurhangee/patent-ind-claim-en huggingface dataset:
A implantable cardioverter defibrillator (ICD) for delivering a defibrillation shock to a heart of a patient, the ICD comprising: a charge storage device for storing a charge that can be delivered to shock the heart; a controller configured to: monitor cardiac activity of the heart of the patient; detect an occurrence of a cardiac arrhythmia based on the cardiac activity; determine a type of the detected cardiac arrhythmia from two or more different types of cardiac arrhythmias; if the determined type of cardiac arrhythmia is one of a first set of cardiac arrhythmia types, send an instruction for reception by a Leadless Cardiac Pacemaker (LCP) to initiate the application of Anti-Tachycardia Pacing (ATP) therapy by the LCP ; and if the determined type of cardiac arrhythmia is not one of the first set of cardiac arrhythmia types, not send the instruction. a charge storage device for storing a charge that can be delivered to shock the heart; a controller configured to: monitor cardiac activity of the heart of the patient; detect an occurrence of a cardiac arrhythmia based on the cardiac activity; determine a type of the detected cardiac arrhythmia from two or more different types of cardiac arrhythmias; if the determined type of cardiac arrhythmia is one of a first set of cardiac arrhythmia types, send an instruction for reception by a Leadless Cardiac Pacemaker (LCP) to initiate the application of Anti-Tachycardia Pacing (ATP) therapy by the LCP ; and if the determined type of cardiac arrhythmia is not one of the first set of cardiac arrhythmia types, not send the instruction. monitor cardiac activity of the heart of the patient; detect an occurrence of a cardiac arrhythmia based on the cardiac activity; determine a type of the detected cardiac arrhythmia from two or more different types of cardiac arrhythmias; if the determined type of cardiac arrhythmia is one of a first set of cardiac arrhythmia types, send an instruction for reception by a Leadless Cardiac Pacemaker (LCP) to initiate the application of Anti-Tachycardia Pacing (ATP) therapy by the LCP ; and if the determined type of cardiac arrhythmia is not one of the first set of cardiac arrhythmia types, not send the instruction.
An image forming apparatus , comprising: a plurality of devices , , , configured to carry out different jobs simultaneously; a camera configured to image a user around the image forming apparatus ; a database configured to store a face image, a user identification information and a user feature information in association with each other; a job management section configured to store the user identification information of a user of a job carried out by more than one of the plurality of devices , , , in association with a job category; an authentication section configured to perform face authentication based on an image from the camera and the user face image in the database, identify a user in the vicinity of the image forming apparatus, and output the user identification information of the user in the vicinity of the image forming apparatus; a determination section configured to determine second user identification information different from first user identification information indicating the user of the job carried out by the plurality of devices , , , and the job category that can processed in parallel with the job carried out by the plurality of devices , , , ; and a display section configured to display the second user identification information and the job category of the job that can be processed in parallel with the job carried out by the plurality of devices , , , ; and, a controller ,configured to carry out the instructed job when the user instructs to carry out the job that can be processed in parallel with the job carried out by the plurality of devices , , , . a plurality of devices , , , configured to carry out different jobs simultaneously; a camera configured to image a user around the image forming apparatus ; a database configured to store a face image, a user identification information and a user feature information in association with each other; a job management section configured to store the user identification information of a user of a job carried out by more than one of the plurality of devices , , , in association with a job category; an authentication section configured to perform face authentication based on an image from the camera and the user face image in the database, identify a user in the vicinity of the image forming apparatus, and output the user identification information of the user in the vicinity of the image forming apparatus; a determination section configured to determine second user identification information different from first user identification information indicating the user of the job carried out by the plurality of devices , , , and the job category that can processed in parallel with the job carried out by the plurality of devices , , , ; and a display section configured to display the second user identification information and the job category of the job that can be processed in parallel with the job carried out by the plurality of devices , , , ; and, a controller ,configured to carry out the instructed job when the user instructs to carry out the job that can be processed in parallel with the job carried out by the plurality of devices , , , .
An antenna system (100, 101, 201, 202, 203, 204, and 205) comprising: a glass plate having a thickness, t, of 1.1 mm or more and having a dielectric loss tangent of 0.005 or more at 28 GHz; an antenna located away from the glass plate; and a matching layer located between the glass plate and the antenna, the matching layer being different from air, wherein a ratio of electric power radiated from the antenna to electric power input into the antenna is defined as a radiation efficiency, and wherein where an effective wavelength of an electromagnetic wave at a predetermined frequency that is 10 GHz or more is denoted as λg, and where the radiation efficiency is denoted as η 0 [dB] when the glass plate and the antenna are in contact with each other, and is denoted as η λg/2 [dB] when a distance between one of the surfaces of the glass plate and the antenna is λg/2, the glass plate and the antenna are arranged so as to obtain the radiation efficiency of η A [dB] that satisfies η A [dB] ≥ η 0 [dB] + (η λg/2 [dB] - η 0 [dB]) × 0.1, wherein the antenna includes: a radiation unit configured to radiate the electromagnetic wave at the predetermined frequency; and a conductor plate serving as a ground, wherein the matching layer has a dielectric loss tangent of 0.03 or less at 28 GHz, and wherein in a plan view of the glass plate, an outer edge of the matching layer is outside of an outer edge of the antenna. a glass plate having a thickness, t, of 1.1 mm or more and having a dielectric loss tangent of 0.005 or more at 28 GHz; an antenna located away from the glass plate; and a matching layer located between the glass plate and the antenna, the matching layer being different from air, wherein a ratio of electric power radiated from the antenna to electric power input into the antenna is defined as a radiation efficiency, and wherein where an effective wavelength of an electromagnetic wave at a predetermined frequency that is 10 GHz or more is denoted as λg, and where the radiation efficiency is denoted as η 0 [dB] when the glass plate and the antenna are in contact with each other, and is denoted as η λg/2 [dB] when a distance between one of the surfaces of the glass plate and the antenna is λg/2, the glass plate and the antenna are arranged so as to obtain the radiation efficiency of η A [dB] that satisfies η A [dB] ≥ η 0 [dB] + (η λg/2 [dB] - η 0 [dB]) × 0.1, wherein the antenna includes: a radiation unit configured to radiate the electromagnetic wave at the predetermined frequency; and a conductor plate serving as a ground, wherein the matching layer has a dielectric loss tangent of 0.03 or less at 28 GHz, and
Water pipe system comprising a cold water pipe for drinking and service water and comprising a solid component having a high thermal capacity, the cold water pipe being surrounded by insulation for thermal decoupling, a circumferential wall of the cold water pipe being in thermal contact, at least in portions, with the solid component having a high thermal capacity, a thermally conductive element being provided between the circumferential wall of the cold water pipe and the solid component, and the insulation forming an outer shell which has a cutout through which the thermally conductive element is in thermal contact with the solid component, characterized in that the thermally conductive element is formed by an inner shell which surrounds the cold water pipe and is provided between the insulation and the circumferential wall of the cold water pipe , and the inner shell forming a unitary element with the insulation.
A process for treating keratin fibers such as the hair, using: a) at least one silicone comprising at least one carboxylic acid anhydride group, b) at least one amino silicone; and c) at least one coloring agent chosen from pigments, direct dyes and mixtures thereof, the compounds a), b) and c) being applied to the keratin fibers, together or separately, in one or more compositions. a) at least one silicone comprising at least one carboxylic acid anhydride group, b) at least one amino silicone; and c) at least one coloring agent chosen from pigments, direct dyes and mixtures thereof,
A centering device for centering a semifinished tire product and an interlayer of the semifinished tire product on a centering system , the centering device comprising: - a support intended to be secured to the centering system , - a first centering element that is fixed to the support in a rotatable manner and is configured to center the semifinished tire product , characterised in that the centering device comprises a second centering element that is fixed to the first centering element in a rotatable manner and is configured to center the interlayer of the semifinished tire product . - a support intended to be secured to the centering system , - a first centering element that is fixed to the support in a rotatable manner and is configured to center the semifinished tire product ,
A stationary calibration unit for calibrating a compass of a flight controller in an unmanned aerial vehicle associated with said calibration unit to local Earth magnetic field without moving said compass through a sequence of movements of a calibration routine, said stationary calibration unit comprising: a calibration controller ; a calibration compass , said calibration compass being a duplicate of said compass of said flight controller of said unmanned aerial vehicle ; and an actuator operably coupled to said calibration compass ; said calibration controller being configured to command said actuator to move said calibration compass through a sequence of movements of a calibration routine to calibrate said calibration compass relative to the local Earth magnetic field and thereby generate calibration parameters, said calibration controller being configured to record calibration parameters resulting from performing said calibration routine, and said calibration controller being configured to transmit said calibration parameters to said flight controller of said unmanned aerial vehicle , preferably via a data link. a calibration controller ; a calibration compass , said calibration compass being a duplicate of said compass of said flight controller of said unmanned aerial vehicle ; and an actuator operably coupled to said calibration compass ; said calibration controller being configured to command said actuator to move said calibration compass through a sequence of movements of a calibration routine to calibrate said calibration compass relative to the local Earth magnetic field and thereby generate calibration parameters, said calibration controller being configured to record calibration parameters resulting from performing said calibration routine, and said calibration controller being configured to transmit said calibration parameters to said flight controller of said unmanned aerial vehicle , preferably via a data link.
Device for machining elongate workpieces , in the form of window or door frames or sashes/leaves or blind frames composed of profile bars, having a machining head , wherein the workpiece to be machined can be arranged on a workpiece support , and the workpiece and the machining head to the side of the workpiece support are movable relative to one another during the workpiece machining operation in a movement direction along the workpiece support , wherein a machining unit having at least one machining tool held thereon for machining the workpiece is arranged on the machining head and is movable in a positioning plane running transversely or perpendicularly to the movement direction , and at least one device for fixing the workpiece in one or two spatial directions (X, Y, Z) in the form of a concomitantly travelling clamping roller device for supporting the workpiece during the workpiece machining operation is provided on the machining head , characterized in that the machining unit is rotatable and/or pivotable, with respect to the machining head , about at least one axis of rotation running transversely or perpendicularly to the movement direction by means of a drive, and in that the machining unit is designed to be translationally movable in the positioning plane along the at least one axis of rotation .
A suction device comprising: a flow-passage forming section having a suction port from which fluid is sucked, a discharge port from which the fluid is discharged, and a flow passage which is sealed from an outside except at the suction port and the discharge port and through which the fluid flows; and a driving part that generates a flow of the fluid in the flow passage, wherein the driving part , including a moving part that transmits driving force to the fluid, is entirely disposed inside the flow passage , wherein the driving part is driven to make a fluid pressure in the flow passage on a side of the suction port a negative pressure relative to a fluid pressure outside the flow passage and to make a fluid pressure in the flow passage on a side of the discharge port a positive pressure relative to the fluid pressure outside the flow passage , characterized in that the flow-passage forming section further includes a bag-shaped inner canister including a bag mouth portion communicating with the suction port and an expandable and contractible expanding and contracting portion having an internal space sealed except at the bag mouth portion . a flow-passage forming section having a suction port from which fluid is sucked, a discharge port from which the fluid is discharged, and a flow passage which is sealed from an outside except at the suction port and the discharge port and through which the fluid flows; and a driving part that generates a flow of the fluid in the flow passage, wherein the driving part , including a moving part that transmits driving force to the fluid, is entirely disposed inside the flow passage ,
. A method for grouping data associated with substrates undergoing a process step of a manufacturing process, the method comprising: obtaining first data associated with substrates before being subject to the process step; obtaining a plurality of sets of second data associated with substrates after being subject to the process step, each set of second data being associated with a different value of a characteristic of the first data; determining a distance metric describing a measure of distance between the sets of second data; and grouping the second data based on a property of the distance metric. obtaining first data associated with substrates before being subject to the process step; obtaining a plurality of sets of second data associated with substrates after being subject to the process step, each set of second data being associated with a different value of a characteristic of the first data; determining a distance metric describing a measure of distance between the sets of second data; and grouping the second data based on a property of the distance metric.
Belt tensioner , the tensioner being provided with a longitudinal axis and comprising: a first end comprising a plate intended to be secured to a fixed support, a second end , opposite said first end along the longitudinal axis for the tensioner , the second end comprising another plate intended to be secured either to a roller or to an articulated arm (BA) equipped with a roller , said roller being intended to be put into contact with the belt, a first chamber intended to receive a fluid, the first chamber being provided with a bottom , a second chamber arranged around the first chamber , the second chamber also being intended to receive a fluid, at least one communication opening , for the fluid, between the two chamber , the first chamber further comprising a piston having a first end secured to the plate and a second end , opposite the first end along the longitudinal axis of the tensioner , which is intended to be in contact with the fluid, said piston being able to move along the longitudinal axis of the tensioner between two extreme positions so as to not obstruct said at least one opening , characterised in that the first chamber comprises, at its bottom , α membrane elastically deformable of which at least one portion is arranged opposite the whole of said at least one opening . a first end comprising a plate intended to be secured to a fixed support, a second end , opposite said first end along the longitudinal axis for the tensioner , the second end comprising another plate intended to be secured either to a roller or to an articulated arm (BA) equipped with a roller , said roller being intended to be put into contact with the belt, a first chamber intended to receive a fluid, the first chamber being provided with a bottom , a second chamber arranged around the first chamber , the second chamber also being intended to receive a fluid, at least one communication opening , for the fluid, between the two chamber , the first chamber further comprising a piston having a first end secured to the plate and a second end , opposite the first end along the longitudinal axis of the tensioner , which is intended to be in contact with the fluid, said piston being able to move along the longitudinal axis of the tensioner between two extreme positions so as to not obstruct said at least one opening , characterised in that the first chamber comprises, at its bottom , α membrane elastically deformable of which at least one portion is arranged opposite the whole of said at least one opening .
A system for providing a secure domain name service for establishing a secure communication link for a first computer communicating with a second computer over a non-secure communication link in a computer network , the system comprising: a secure domain name service configured: to be connected to a communication network , to store a plurality of secure domain names and corresponding network addresses, wherein the plurality of secure domain names comprises secure top-level domain names, to receive a query, from a software module of the first computer, for a network address for a secure top-level domain name for the second computer, to access a VPN gatekeeper for establishing the secure communication link between the software module of the first computer and a secure server (3320; 3322) corresponding to the second computer ; and to return, to the software module of the first computer , based on the secure top-level domain name, the network address for the secure server corresponding to the second computer . a secure domain name service configured: to be connected to a communication network , to store a plurality of secure domain names and corresponding network addresses, wherein the plurality of secure domain names comprises secure top-level domain names, to receive a query, from a software module of the first computer, for a network address for a secure top-level domain name for the second computer, to be connected to a communication network , to store a plurality of secure domain names and corresponding network addresses, wherein the plurality of secure domain names comprises secure top-level domain names, to receive a query, from a software module of the first computer, for a network address for a secure top-level domain name for the second computer, to access a VPN gatekeeper for establishing the secure communication link between the software module of the first computer and a secure server (3320; 3322) corresponding to the second computer ; and to return, to the software module of the first computer , based on the secure top-level domain name, the network address for the secure server corresponding to the second computer .
A method for making a heterophasic polymer, the method comprising: a. contacting a single-site catalyst precursor, an activator, and a support to produce a catalyst system, wherein the support comprises silica and is characterized by an average surface area of from 400 m 2 /g to 800 m 2 /g, as determined by the Brunauer-Emmett-Teller (BET) method using adsorption-desorption of nitrogen; b. contacting a monomer and optionally a comonomer in at least one gas or slurry phase reactor with the catalyst system under polymerization conditions comprising a first molar ratio of monomer to comonomer of from 90:10 to 100:0, to produce a porous matrix phase comprising a random statistical distribution of comonomer units; c. adjusting, in the presence of the matrix phase, the polymerization conditions to a second molar ratio of monomer to comonomer of from 90:10 to 10:90 to produce a fill phase at least partially filling pores in the matrix phase; and d. recovering a reactor effluent comprising a granular heterophasic polymer, wherein the matrix phase is characterized by a porosity, as determined by mercury intrusion porosimetry, of at least 20%. a. contacting a single-site catalyst precursor, an activator, and a support to produce a catalyst system, wherein the support comprises silica and is characterized by an average surface area of from 400 m 2 /g to 800 m 2 /g, as determined by the Brunauer-Emmett-Teller (BET) method using adsorption-desorption of nitrogen; b. contacting a monomer and optionally a comonomer in at least one gas or slurry phase reactor with the catalyst system under polymerization conditions comprising a first molar ratio of monomer to comonomer of from 90:10 to 100:0, to produce a porous matrix phase comprising a random statistical distribution of comonomer units; c. adjusting, in the presence of the matrix phase, the polymerization conditions to a second molar ratio of monomer to comonomer of from 90:10 to 10:90 to produce a fill phase at least partially filling pores in the matrix phase; and d. recovering a reactor effluent comprising a granular heterophasic polymer,