mhurhangee/ep-ind-claims huggingface dataset:
A composite coil spring comprising: a coil body extending along a coiled axis, the coil body including, a polymer matrix and, disposed in the polymer matrix, a carbon fiber core and a plurality of fiber layers wrapped around the carbon fiber core in alternating oblique fiber angles to the coiled axis, the plurality of fiber layers including, from inside-out starting from the carbon fiber core, at least two consecutive carbon fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, immediately followed by at least two consecutive glass fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, and immediately followed by a carbon fiber outermost fiber layer. a coil body extending along a coiled axis, the coil body including, a polymer matrix and, disposed in the polymer matrix, a carbon fiber core and a plurality of fiber layers wrapped around the carbon fiber core in alternating oblique fiber angles to the coiled axis, the plurality of fiber layers including, from inside-out starting from the carbon fiber core, at least two consecutive carbon fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, immediately followed by at least two consecutive glass fiber intermediate fiber layers of alternating oblique fiber angles to the coiled axis, and immediately followed by a carbon fiber outermost fiber layer.
Vehicle having a vehicle frame and having a vehicle axle which is fastened thereto and having a load-dependent brake valve (5.1) which is designed to output a brake pressure which is dependent on an axle load of a vehicle, wherein said brake valve (5.1) has a sensor (11.1) for electronic detection of an axle load of the vehicle, wherein the sensor (11.1) is designed as an inductively operating sensor, wherein the sensor (11.1) is designed as an inductive rotational angle sensor (11.1) by means of which the compression travel (Δz A) of a vehicle axle in relation to a vehicle frame is able to be detected mechanically and is able to be converted into an electronic measurement signal, wherein the rotational angle sensor (11.1) consists of a coil, arranged in a housing of the brake valve (5.1), and a rotating armature, wherein the rotating armature consists of a soft magnetic material, wherein the rotating armature is arranged so as to be rotatable and coaxial over a longitudinal axis of the housing, and wherein a control shaft connected to the rotating armature of the rotational angle sensor (11.1) is connected to the vehicle axle via an articulated linkage, wherein the rotational angle sensor (11.1) is fastened to the vehicle frame of the vehicle so as to be axially parallel and horizontally spaced apart with respect to the vehicle axle.
Process for manufacturing dichloropropanol, in which a product that contains glycerol and at least one nitrogen-containing compound and of which the total content of nitrogen-containing compound expressed as elemental nitrogen is less than or equal to 0.05 g of nitrogen /kg of product and greater than or equal to 0.1 mg N/kg, is reacted with a chlorinating agent.
A surgical device, comprising: a) an elongate shaft defining a longitudinal axis, the shaft comprising a distal end and a proximal end; b) an arm (42A, 42B; 82A, 82B; 92A, 92B; 402A, 402B) comprising a mating feature, the arm being medially deflectable; c) an elongate pin (41, 81, 91, 401) positioned medially relative the arm, the elongate pin being axially slideable relative the arm between a locked position preventing medial deflection of the arm and an unlocked position allowing medial deflection of the arm; and d) an energy based surgical end effector (30, 30A, 30B, 30C 30D, 30E, 30F) selectively attachable and detachable to the mating feature of the arm, characterized by the end effector having a torque arm (61, 63) to engage the elongate shaft. a) an elongate shaft defining a longitudinal axis, the shaft comprising a distal end and a proximal end; b) an arm (42A, 42B; 82A, 82B; 92A, 92B; 402A, 402B) comprising a mating feature, the arm being medially deflectable; c) an elongate pin (41, 81, 91, 401) positioned medially relative the arm, the elongate pin being axially slideable relative the arm between a locked position preventing medial deflection of the arm and an unlocked position allowing medial deflection of the arm; and d) an energy based surgical end effector (30, 30A, 30B, 30C 30D, 30E, 30F) selectively attachable and detachable to the mating feature of the arm,
A system for monitoring cardiac arrhythmia, comprising: an arrhythmia detector circuit configured to: receive a physiologic signal and a first detection algorithm having a first sensitivity, the first detection algorithm including a detection criterion for detecting a cardiac arrhythmia; detect an arrhythmia episode from the physiologic signal using a second detection algorithm having a second sensitivity higher than the first sensitivity of the first detection algorithm for detecting the cardiac arrhythmia; and assign a detection indicator to the arrhythmia episode detected by the second detection algorithm, the detection indicator indicating a likelihood that the detected arrhythmia episode satisfies the detection criterion of the first detection algorithm; and an event prioritizer circuit configured to prioritize the detected arrhythmia episode according to the assigned detection indicator. an arrhythmia detector circuit configured to: receive a physiologic signal and a first detection algorithm having a first sensitivity, the first detection algorithm including a detection criterion for detecting a cardiac arrhythmia; detect an arrhythmia episode from the physiologic signal using a second detection algorithm having a second sensitivity higher than the first sensitivity of the first detection algorithm for detecting the cardiac arrhythmia; and assign a detection indicator to the arrhythmia episode detected by the second detection algorithm, the detection indicator indicating a likelihood that the detected arrhythmia episode satisfies the detection criterion of the first detection algorithm; and receive a physiologic signal and a first detection algorithm having a first sensitivity, the first detection algorithm including a detection criterion for detecting a cardiac arrhythmia; detect an arrhythmia episode from the physiologic signal using a second detection algorithm having a second sensitivity higher than the first sensitivity of the first detection algorithm for detecting the cardiac arrhythmia; and assign a detection indicator to the arrhythmia episode detected by the second detection algorithm, the detection indicator indicating a likelihood that the detected arrhythmia episode satisfies the detection criterion of the first detection algorithm; and an event prioritizer circuit configured to prioritize the detected arrhythmia episode according to the assigned detection indicator.
An oral care composition comprising: a) calcium silicate; b) a deposition aid selected from calcium sulfate hemihydrates, calcium dihydrogen phosphate or mixtures thereof; and c) a physiologically acceptable carrier; wherein the calcium silicate and the deposition aid is present in a weight ratio from 20:1 to 1:5. a) calcium silicate; b) a deposition aid selected from calcium sulfate hemihydrates, calcium dihydrogen phosphate or mixtures thereof; and c) a physiologically acceptable carrier;
Container for accommodating an ophthalmic lens during a lens treatment process, the container having a longitudinal axis and comprising a containment portion, a mounting portion, and a retaining element, wherein the containment portion comprises a tubular section and a bottom arranged at one longitudinal end of the tubular section of the containment portion, the bottom protruding convexly towards the outside at one end of the tubular section to form a bottom end of the container and being provided with a number of apertures (23, 24) enabling a free flow of a treatment liquid into and out of the containment portion, wherein the mounting portion comprises a plurality of flow openings allowing a treatment liquid to flow into and out of an inner space of the mounting portion, the mounting portion further comprising an access opening arranged at a longitudinal end of the mounting portion remote from the containment portion to form a top end of the container, and wherein the retaining element is arranged inside the mounting portion at that end of the tubular section of the containment portion remote from the bottom, the retaining element prohibiting the ophthalmic lens from being washed out of the containment portion and further permitting access of a gripper through the access opening into the containment portion for insertion and removal of an ophthalmic lens, and wherein the mounting portion extends along the longitudinal axis of the container from the access opening to that end of the tubular section of the containment portion remote from the bottom in a manner so as to enable introduction of the containment portion of another such container into the mounting portion through the access opening characterized in that the mounting portion comprises a leg portion having a plurality of legs extending along the longitudinal axis of the container from the access opening to that end of the tubular section of the containment portion remote from the bottom, with the flow openings being arranged between the legs of the leg portion.
Computer-implemented method of Condition Monitoring, CM, for rotating machines, comprising the steps: - continuously receiving samples of input data based on at least one physical quantity over time of a rotating machine; - updating in real-time M accumulator variables, where M >= 1, based on L samples including a current sample s n and at least one preceding sample S n-1 of the input data; - computing in real-time N spectral features, where N >= 1, based on the M accumulator variables and m supplemental variables, where m >= 1; and - determining a condition of the rotating machine based on the N spectral features, wherein the M accumulator variables are updated in real-time based on the L samples and Lenv samples including the current sample sn and senv,n, a first preceding sample sn-1 and Senv,n-1 and a second preceding sample sn-2 and senv,n-2 of the input data and of the envelope and the N spectral features are computed in real-time by means of the Goertzel Algorithm, GA, wherein the totality of the M accumulator variables is sufficient to determine the condition of the rotating machine, and wherein the m supplemental variables are temporarily needed for computing the N spectral features and the m supplemental variables are not based on the received samples of the input data. - continuously receiving samples of input data based on at least one physical quantity over time of a rotating machine; - updating in real-time M accumulator variables, where M >= 1, based on L samples including a current sample s n and at least one preceding sample S n-1 of the input data; - computing in real-time N spectral features, where N >= 1, based on the M accumulator variables and m supplemental variables, where m >= 1; and - determining a condition of the rotating machine based on the N spectral features, wherein the M accumulator variables are updated in real-time based on the L samples and Lenv samples including the current sample sn and senv,n, a first preceding sample sn-1 and Senv,n-1 and a second preceding sample sn-2 and senv,n-2 of the input data and of the envelope and the N spectral features are computed in real-time by means of the Goertzel Algorithm, GA, wherein the totality of the M accumulator variables is sufficient to determine the condition of the rotating machine, and wherein the m supplemental variables are temporarily needed for computing the N spectral features and the m supplemental variables are not based on the received samples of the input data. wherein the M accumulator variables are updated in real-time based on the L samples and Lenv samples including the current sample sn and senv,n, a first preceding sample sn-1 and Senv,n-1 and a second preceding sample sn-2 and senv,n-2 of the input data and of the envelope and the N spectral features are computed in real-time by means of the Goertzel Algorithm, GA, wherein the totality of the M accumulator variables is sufficient to determine the condition of the rotating machine, and wherein the m supplemental variables are temporarily needed for computing the N spectral features and the m supplemental variables are not based on the received samples of the input data.
A device (10, 900) for detecting a particle in a fluid sample, the device (10, 900) comprising: a segmented microfluidic conduit configured to carry a flow of a fluid sample, wherein the conduit comprises one or more nodes (50, 60, 940, 950) and two or more sections (70, 80, 90, 910, 920, 930), wherein a node is a point or a region along the conduit that has a diameter or width greater than a diameter of the two or more sections (70, 80, 90, 910, 920, 930) of the conduit, and wherein a node (50, 60, 940, 950) is positioned between adjacent sections (70, 80, 90, 910, 920, 930) of the conduit, wherein an alternating pattern of conduit sections and nodes is present from an upstream end of the conduit to a downstream end of the conduit; a first reservoir that is in fluid communication with an upstream end of the conduit; a second reservoir that is in fluid communication with a downstream end of the conduit; and a detector configured to detect a change in current through the conduit, wherein one or more of the sections (70, 80, 90, 910, 920, 930) comprise a functionalized surface, wherein the functionalized surface comprises a binding member selected from a group consisting of an antibody, a protein, a sugar molecule, and an aptamer. a segmented microfluidic conduit configured to carry a flow of a fluid sample, wherein the conduit comprises one or more nodes (50, 60, 940, 950) and two or more sections (70, 80, 90, 910, 920, 930), wherein a node is a point or a region along the conduit that has a diameter or width greater than a diameter of the two or more sections (70, 80, 90, 910, 920, 930) of the conduit, and wherein a node (50, 60, 940, 950) is positioned between adjacent sections (70, 80, 90, 910, 920, 930) of the conduit, wherein an alternating pattern of conduit sections and nodes is present from an upstream end of the conduit to a downstream end of the conduit; a first reservoir that is in fluid communication with an upstream end of the conduit; a second reservoir that is in fluid communication with a downstream end of the conduit; and a detector configured to detect a change in current through the conduit, wherein one or more of the sections (70, 80, 90, 910, 920, 930) comprise a functionalized surface, wherein the functionalized surface comprises a binding member selected from a group consisting of an antibody, a protein, a sugar molecule, and an aptamer.
A packet processing method, comprising: identifying an operation type of an operation to be performed for a packet, by obtaining related configuration information of an ingress interface of the packet from an interface table, after receiving the packet, extracting a key value from the packet according to the identified operation type and performing Hash calculation for the extracted key value; taking a calculation result of the Hash calculation as a Hash entrance, and finding at least one Hash index table entry from a local Hash index table; performing a match operation between the identified operation type and the at least one Hash index table entry; and processing the packet according to a matched Hash index table entry if the matched Hash index table entry is found. identifying an operation type of an operation to be performed for a packet, by obtaining related configuration information of an ingress interface of the packet from an interface table, after receiving the packet, extracting a key value from the packet according to the identified operation type and performing Hash calculation for the extracted key value; taking a calculation result of the Hash calculation as a Hash entrance, and finding at least one Hash index table entry from a local Hash index table; performing a match operation between the identified operation type and the at least one Hash index table entry; and processing the packet according to a matched Hash index table entry if the matched Hash index table entry is found.
A flame retarder to be contained in a resin composition to confer flame retardant properties on said resin composition, wherein the flame retarder includes an aromatic polymer containing monomer units having aromatic skeletons ranging between 1 mol% and 100 mol%, and wherein sulfonic acid groups and/or sulfonate groups are introduced in an amount ranging between 0.01 mol% and 8 mol% into the aromatic polymer.
A method for interworking with an external terminal, the method comprising: displaying, by a mobile terminal, a screen for selecting whether or not to reset the mobile terminal, caused by receiving a connection request from a second terminal, wherein the mobile terminal is in a state of being interworked with a first terminal; generating, by the mobile terminal, first backup data including information about one or more execution files corresponding to one or more functions linked to the first terminal, if resetting of the mobile terminal has been selected on the screen; transmitting, by the mobile terminal, the first backup data to the first terminal, performing, by the mobile terminal, resetting of the mobile terminal, and interworking with the second terminal after the performing of the resetting. displaying, by a mobile terminal, a screen for selecting whether or not to reset the mobile terminal, caused by receiving a connection request from a second terminal, wherein the mobile terminal is in a state of being interworked with a first terminal; generating, by the mobile terminal, first backup data including information about one or more execution files corresponding to one or more functions linked to the first terminal, if resetting of the mobile terminal has been selected on the screen; transmitting, by the mobile terminal, the first backup data to the first terminal, performing, by the mobile terminal, resetting of the mobile terminal, and interworking with the second terminal after the performing of the resetting.
A multiphase domain acrylic pressure sensitive adhesive exhibiting a high temperature peak damping functionality, the adhesive exhibiting (i) a loss factor as determined in accordance with ASTM E756 greater than 1.2 at a temperature of at least 37.8 °C (100 °F); and (ii) a shear modulus greater than 1.03 Mpa; the adhesive comprising at least two copolymers which are at least partially immiscible relative to one another, the adhesive exhibiting at least two distinct glass transition temperatures (Tg's) as determined by Dynamic Mechanical Analysis, each corresponding to a respective copolymer; and the adhesive having a total weight percent of acrylic acid of 0.1% to 10%.
Device for frequency conversion of a first laser beam generated at a first frequency (ω 1) by a laser beam source, said device having: a) an optically nonlinear first crystal for generating a second laser beam at a second frequency (ω 2) which is different from the first frequency (ω 1), said laser beam propagating parallel to the first laser beam after leaving the first optically nonlinear crystal, b) an optically nonlinear second crystal which generates at least one third laser beam from the first and second laser beam (6, 8) at a third frequency (ω 3) which is different from the first frequency (ω 1) and the second frequency (ω 2), c) an optical deflection device for influencing the relative beam position between the first and second laser beam (6, 8) in such a way that d) the first and second laser beam (6, 8) propagate at an angle (α) different from zero relative to each other before entry into the second crystal and e) they enter spaced apart from each other at an entry surface of the second crystal, characterised in that the first and second laser beam (6, 8) intersect within the second crystal during simultaneous collinear phase matching, wherein f) the entry surface of the second crystal is inclined at a wedge angle (γ) different from 0° with respect to two side surfaces of the second crystal which are parallel to each other and opposite each other. a) an optically nonlinear first crystal for generating a second laser beam at a second frequency (ω 2) which is different from the first frequency (ω 1), said laser beam propagating parallel to the first laser beam after leaving the first optically nonlinear crystal, b) an optically nonlinear second crystal which generates at least one third laser beam from the first and second laser beam (6, 8) at a third frequency (ω 3) which is different from the first frequency (ω 1) and the second frequency (ω 2), c) an optical deflection device for influencing the relative beam position between the first and second laser beam (6, 8) in such a way that d) the first and second laser beam (6, 8) propagate at an angle (α) different from zero relative to each other before entry into the second crystal and e) they enter spaced apart from each other at an entry surface of the second crystal, characterised in that the first and second laser beam (6, 8) intersect within the second crystal during simultaneous collinear phase matching, wherein f) the entry surface of the second crystal is inclined at a wedge angle (γ) different from 0° with respect to two side surfaces of the second crystal which are parallel to each other and opposite each other.