mhurhangee/ep-ind-claims huggingface dataset:
An LED lamp heat sink partially or wholly made of a thermally conductive resin composition and configured to cool an LED module, wherein: the thermally conductive resin composition contains at least 10 to 50 wt.% of a thermoplastic polyester resin having a number average molecular weight of 12,000 to 70,000, 10 to 50 wt.% of a polyester-polyether copolymer, and 40 to 70 wt.% of flake graphite having a fixed carbon content of 98 wt.% or more and an aspect ratio of 21 or more; specific gravity of the thermally conductive resin composition is 1.7 to 2.0; and heat conductivity of the thermally conductive resin composition in a surface direction is 18 W/(m·K) or more, wherein the number average molecular weight is a value measured in such a manner that: polystyrene is used as standard; a solution containing a target resin at a concentration of 2.5 wt.% is prepared by dissolving the resin in a mixed solvent in which a volume ratio between p-chlorophenol and toluene is 3: 8; a high-temperature GPC (Viscotek:350 HT-GPC System) is used; a column temperature is 80°C; and a refractive index detector is used as a detector, and the aspect ratio is calculated using an average value of longest diameters of 100 graphite particles and an average value of shortest diameters of the 100 graphite particles by a scanning electron microscope (JSM-6060LA produced by JEOL Ltd.). the thermally conductive resin composition contains at least 10 to 50 wt.% of a thermoplastic polyester resin having a number average molecular weight of 12,000 to 70,000, 10 to 50 wt.% of a polyester-polyether copolymer, and 40 to 70 wt.% of flake graphite having a fixed carbon content of 98 wt.% or more and an aspect ratio of 21 or more; 10 to 50 wt.% of a thermoplastic polyester resin having a number average molecular weight of 12,000 to 70,000, 10 to 50 wt.% of a polyester-polyether copolymer, and 40 to 70 wt.% of flake graphite having a fixed carbon content of 98 wt.% or more and an aspect ratio of 21 or more; specific gravity of the thermally conductive resin composition is 1.7 to 2.0; and heat conductivity of the thermally conductive resin composition in a surface direction is 18 W/(m·K) or more, wherein the number average molecular weight is a value measured in such a manner that: polystyrene is used as standard; a solution containing a target resin at a concentration of 2.5 wt.% is prepared by dissolving the resin in a mixed solvent in which a volume ratio between p-chlorophenol and toluene is 3: 8; a high-temperature GPC (Viscotek:350 HT-GPC System) is used; a column temperature is 80°C; and a refractive index detector is used as a detector, and the aspect ratio is calculated using an average value of longest diameters of 100 graphite particles and an average value of shortest diameters of the 100 graphite particles by a scanning electron microscope (JSM-6060LA produced by JEOL Ltd.).
A vibration energy detection apparatus comprising: a vibration power generator that is configured to be installed in an inspection object and is configured to convert vibration energy generated in the inspection object into power; an electric storage unit configured to store generated power of the vibration power generator; a voltage monitor configured to monitor a storage voltage of the electric storage unit; a discharge controller configured to discharge electric storage energy of the electric storage unit when the storage voltage of the electric storage unit exceeds a predetermined storage voltage; and a vibration energy calculator configured to calculate the vibration energy generated in the inspection object based on the number of times of the discharge by the discharge controller. a vibration power generator that is configured to be installed in an inspection object and is configured to convert vibration energy generated in the inspection object into power; an electric storage unit configured to store generated power of the vibration power generator; a voltage monitor configured to monitor a storage voltage of the electric storage unit; a discharge controller configured to discharge electric storage energy of the electric storage unit when the storage voltage of the electric storage unit exceeds a predetermined storage voltage; and a vibration energy calculator configured to calculate the vibration energy generated in the inspection object based on the number of times of the discharge by the discharge controller.
A fastening bracket for fastening studs of an insulating facade mountable in front of an external wall of a building, having an abutting leg placeable against the external wall of the building and a fastening leg placeable against the stud and being provided with a trapezoidal portion characterized in that above the shorter one of the parallel sides of the trapezoidal portion on the side of the trapezoidal portion opposite the abutment leg a rectangular portion is provided, the trapezoidal portion being formed by an isosceles trapezoid.
Method of determining at least one refractive characteristic of an ophthalmic lens, the method comprising the steps of: a) placing the lens on a support having at least two prop elements (12, 13, 14) each in contact with one of the main faces of the lens in a contact zone of area that is small relative to the area of the main faces of said lens, the contact zones of the prop elements (12, 13, 14) with the ophthalmic lens being entirely separated from each other, and a transparent stand plate from which the prop elements (12, 13, 14) stands, the latter having at least one portion that is opaque; b) lighting the lens placed on its support with the help of lighting means; c) capturing, using image capture means, in an image capture plane that is substantially perpendicular to an optical axis of the lens, an image of at least one of the prop elements (12, 13, 14) of the support lighted by the light rays (R1, R2) that come from said lighting means and that have passed through the lens; d) in said image, identifying the image of said prop element (12, 13, 14) of the support and determining at least one characteristic representative of the geometry of the image of said prop element; and e) from said characteristic representative of the geometry of the image of said prop element (12, 13, 14), deducing said looked-for refractive characteristic. a) placing the lens on a support having at least two prop elements (12, 13, 14) each in contact with one of the main faces of the lens in a contact zone of area that is small relative to the area of the main faces of said lens, the contact zones of the prop elements (12, 13, 14) with the ophthalmic lens being entirely separated from each other, and a transparent stand plate from which the prop elements (12, 13, 14) stands, the latter having at least one portion that is opaque; b) lighting the lens placed on its support with the help of lighting means; c) capturing, using image capture means, in an image capture plane that is substantially perpendicular to an optical axis of the lens, an image of at least one of the prop elements (12, 13, 14) of the support lighted by the light rays (R1, R2) that come from said lighting means and that have passed through the lens; d) in said image, identifying the image of said prop element (12, 13, 14) of the support and determining at least one characteristic representative of the geometry of the image of said prop element; and e) from said characteristic representative of the geometry of the image of said prop element (12, 13, 14), deducing said looked-for refractive characteristic.
Method for processing electrical signals from a phoswich scintillator comprising an upstream scintillator and a downstream scintillator, characterised in that it comprises, for each electrical signal: - digitisation of the electrical signal, - determination of an amplitude A and an integral surface area S of the digitised electrical signal, - calculation of a first data item S 1 and a second data item S 2 using the following respective equations: S 1 = τ 1 / τ 2 − τ 1 A τ 2 / τ 0 − S, and S 2 = τ 2 / τ 2 − τ 1 S − A τ 1 / τ 0, where: → τ 1 is a signal decay constant characteristic of particle detection in the upstream scintillator; → τ 2 is a signal decay constant characteristic of particle detection in the downstream scintillator; → τ 0 is an integration constant chosen for the measurement of the integral surface area S, - display of the first and second data item S 1, S 2 in an orthonormal reference frame (S1, S2), the first data item S 1 being positioned along the axis S1 and the second data item S 2 being positioned along the axis S2 such that the first and second data items associated with the same electrical signal correspond to the same event, - definition of a zone of interest of events by selecting, from the events distributed in the reference frame (S1, S2), events which are contained in a calibration zone defined following the detection of β particles during a preliminary calibration step. - digitisation of the electrical signal, - determination of an amplitude A and an integral surface area S of the digitised electrical signal, - calculation of a first data item S 1 and a second data item S 2 using the following respective equations: S 1 = τ 1 / τ 2 − τ 1 A τ 2 / τ 0 − S, and S 2 = τ 2 / τ 2 − τ 1 S − A τ 1 / τ 0, where: → τ 1 is a signal decay constant characteristic of particle detection in the upstream scintillator; → τ 2 is a signal decay constant characteristic of particle detection in the downstream scintillator; → τ 0 is an integration constant chosen for the measurement of the integral surface area S, → τ 1 is a signal decay constant characteristic of particle detection in the upstream scintillator; → τ 2 is a signal decay constant characteristic of particle detection in the downstream scintillator; → τ 0 is an integration constant chosen for the measurement of the integral surface area S, - display of the first and second data item S 1, S 2 in an orthonormal reference frame (S1, S2), the first data item S 1 being positioned along the axis S1 and the second data item S 2 being positioned along the axis S2 such that the first and second data items associated with the same electrical signal correspond to the same event, - definition of a zone of interest of events by selecting, from the events distributed in the reference frame (S1, S2), events which are contained in a calibration zone defined following the detection of β particles during a preliminary calibration step.
A system for acclimating a patient to a stimulation therapy, the system comprising: pulse generation circuitry for generating electrical pulses; sensing circuitry for sensing cardiac electrical activity; and a controller for detecting cardiac events that define pacing timing intervals and for controlling the delivery of electrical pulses in accordance with a programmed mode, wherein the controller is programmed to: initiate delivery of the stimulation therapy to a heart of a patient, the stimulation therapy including delivering electrical pulses to a heart of the patient based on a therapy parameter to provide cardiac pacing and/or cardiac resynchronization therapy; and adjust the therapy parameter according to an acclimation profile to acclimate the patient to the delivery of the stimulation therapy, wherein the controller is programmed to adjust the therapy parameter based on a daytime acclimation profile segment and a nighttime acclimation profile segment, the daytime acclimation profile segment having a therapy parameter corresponding to a faster cardiac rhythm than the nighttime acclimation profile segment. pulse generation circuitry for generating electrical pulses; sensing circuitry for sensing cardiac electrical activity; and a controller for detecting cardiac events that define pacing timing intervals and for controlling the delivery of electrical pulses in accordance with a programmed mode, wherein the controller is programmed to: initiate delivery of the stimulation therapy to a heart of a patient, the stimulation therapy including delivering electrical pulses to a heart of the patient based on a therapy parameter to provide cardiac pacing and/or cardiac resynchronization therapy; and adjust the therapy parameter according to an acclimation profile to acclimate the patient to the delivery of the stimulation therapy, initiate delivery of the stimulation therapy to a heart of a patient, the stimulation therapy including delivering electrical pulses to a heart of the patient based on a therapy parameter to provide cardiac pacing and/or cardiac resynchronization therapy; and adjust the therapy parameter according to an acclimation profile to acclimate the patient to the delivery of the stimulation therapy, wherein the controller is programmed to adjust the therapy parameter based on a daytime acclimation profile segment and a nighttime acclimation profile segment, the daytime acclimation profile segment having a therapy parameter corresponding to a faster cardiac rhythm than the nighttime acclimation profile segment.
A mechatronic circuit-breaker device adapted to break an electrical current flowing through electrical power transmission means, the device comprising: • a main branch comprising at least one electromechanical switch-disconnector connected in series with at least one breaker cell itself electrically in parallel with a snubber and a first voltage surge limiter; • an auxiliary branch electrically in parallel with the main branch and comprising at least one power electronic switch, connected in series with at least one capacitor, itself electrically in parallel with its discharge resistance and a second voltage surge limiter, Characterized in that The first voltage surge limiter has a sharper voltage-current characteristic and offering a steeper slope at low currents than the second surge limiter. • a main branch comprising at least one electromechanical switch-disconnector connected in series with at least one breaker cell itself electrically in parallel with a snubber and a first voltage surge limiter; • an auxiliary branch electrically in parallel with the main branch and comprising at least one power electronic switch, connected in series with at least one capacitor, itself electrically in parallel with its discharge resistance and a second voltage surge limiter,
A golf putter head comprising: a face member including a face having a striking surface configured for striking a ball and a rear side including a rear surface opposite the striking surface of the face, wherein the face member is connected to a hosel which is configured for connection of a shaft thereto; a weight member joined to the rear side of the face member and located in its entirety behind the rear surface of the face member, wherein the weight member has a front surface that faces and confronts the rear surface of the face member; a first connection member connecting the rear side of the face member and the weight member at a connection point, the first connection member forming a joint at the connection point, wherein the first connection member is located approximately equidistant from heel and toe edges of the face member; and a resilient member positioned between the weight member and the face member, the resilient member engaging the rear side of the face member and the weight member to space the weight member from the face member, wherein the weight member has at least a first surface that is engaged by the resilient member and at least a second surface that is exposed and not engaged by the resilient member, wherein the resilient member is compressible to permit the weight member to transfer momentum to the face member through the resilient member upon an impact of the ball on the striking surface, and wherein the joint is configured to permit the weight member to transfer momentum to the face member through the resilient member. a face member including a face having a striking surface configured for striking a ball and a rear side including a rear surface opposite the striking surface of the face, wherein the face member is connected to a hosel which is configured for connection of a shaft thereto; a weight member joined to the rear side of the face member and located in its entirety behind the rear surface of the face member, wherein the weight member has a front surface that faces and confronts the rear surface of the face member; a first connection member connecting the rear side of the face member and the weight member at a connection point, the first connection member forming a joint at the connection point, wherein the first connection member is located approximately equidistant from heel and toe edges of the face member; and a resilient member positioned between the weight member and the face member, the resilient member engaging the rear side of the face member and the weight member to space the weight member from the face member, wherein the weight member has at least a first surface that is engaged by the resilient member and at least a second surface that is exposed and not engaged by the resilient member, wherein the resilient member is compressible to permit the weight member to transfer momentum to the face member through the resilient member upon an impact of the ball on the striking surface, and wherein the joint is configured to permit the weight member to transfer momentum to the face member through the resilient member.
A method of detecting the presence of thermoduric microorganisms in a product, comprising the steps of: (a) placing an aliquot of the product into a vessel equipped with an optical probe sensitive to a thermoduric microorganism metabolite, wherein the thermoduric microorganism metabolite is oxygen, and wherein the optical probe is an oxygen sensitive photoluminescent dye, (b) pasteurizing the aliquot within the vessel, (c) incubating the pasteurized aliquot within the vessel for an incubation period, and (d) periodically interrogating the probe during the incubation period, wherein the interrogations measure changes in the probe reflective of changes in concentration of a thermoduric microorganism metabolite within the aliquot, with such changes in concentration indicative of the presence of viable thermoduric microorganisms in the aliquot. (a) placing an aliquot of the product into a vessel equipped with an optical probe sensitive to a thermoduric microorganism metabolite, wherein the thermoduric microorganism metabolite is oxygen, and wherein the optical probe is an oxygen sensitive photoluminescent dye, (b) pasteurizing the aliquot within the vessel, (c) incubating the pasteurized aliquot within the vessel for an incubation period, and (d) periodically interrogating the probe during the incubation period, wherein the interrogations measure changes in the probe reflective of changes in concentration of a thermoduric microorganism metabolite within the aliquot, with such changes in concentration indicative of the presence of viable thermoduric microorganisms in the aliquot.
A personal care composition comprising: a. a structured aqueous gel component formed from 0.1 to 1% optionally 0.1 to 0.5% of a clay; 1 to 7.5% of a crosslinked polycarboxylate thickener; and 0.1 to 2% of quaternary polymer, each wt% being based on the weight of the composition; and b. 0.1 to 25%, based on the weight of the composition, of an emollient component, the emollient component being dispersed in the gel component, wherein the clay comprises a synthetic layered silicate, optionally the personal care composition is a body wash, a shower gel or a liquid hand soap. a. a structured aqueous gel component formed from 0.1 to 1% optionally 0.1 to 0.5% of a clay; 1 to 7.5% of a crosslinked polycarboxylate thickener; and 0.1 to 2% of quaternary polymer, each wt% being based on the weight of the composition; and b. 0.1 to 25%, based on the weight of the composition, of an emollient component, the emollient component being dispersed in the gel component,
An electrocardiogram apparatus comprising: an input for receiving a biometric cardiogram signal of a patient; a compensation signal combiner for selectively producing a compensated biometric cardiogram signal of the biometric cardiogram signal of the patient; an analog to digital converter for providing a digitized version of the compensated biometric cardiogram signal to a digital processor; the digital processor configured to produce an ECG reflective of the compensated biometric cardiogram signal and to output a digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to a digital to analog converter; and the digital to analog converter configured to provide an analog version of the digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to the compensation signal combiner to compensate for low response of the biometric cardiogram signal of the patient to high frequency spikes whereby an ECG is produced by the digital processor having pacing signal contribution within the biometric cardiogram signal cancelled. an input for receiving a biometric cardiogram signal of a patient; a compensation signal combiner for selectively producing a compensated biometric cardiogram signal of the biometric cardiogram signal of the patient; an analog to digital converter for providing a digitized version of the compensated biometric cardiogram signal to a digital processor; the digital processor configured to produce an ECG reflective of the compensated biometric cardiogram signal and to output a digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to a digital to analog converter; and the digital to analog converter configured to provide an analog version of the digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to the compensation signal combiner to compensate for low response of the biometric cardiogram signal of the patient to high frequency spikes whereby an ECG is produced by the digital processor having pacing signal contribution within the biometric cardiogram signal cancelled.
A device, comprising, circuitry, which, in operation, allocates resource blocks, each of which being formed of consecutive subcarriers in a frequency domain, to a terminal according to one of a plurality of resource allocations including: a resource allocation allocating Distributed Virtual Resource Blocks (DVRBs), where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks (PRBs) with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group size defined as a number of one or more consecutive PRBs forming one RBG, and the variable gap is dependent on both a system bandwidth and the RBG size; and a resource allocation allocating one or more RBGs; and a transmitter, which, in operation, transmits data to the terminal using the allocated resource blocks. a resource allocation allocating Distributed Virtual Resource Blocks (DVRBs), where a pair of DVRBs assigned with a single resource block number are mapped to Physical Resource Blocks (PRBs) with a variable gap in the frequency domain, the variable gap is an integer multiple of a Resource Block Group size defined as a number of one or more consecutive PRBs forming one RBG, and the variable gap is dependent on both a system bandwidth and the RBG size; and a resource allocation allocating one or more RBGs; and a transmitter, which, in operation, transmits data to the terminal using the allocated resource blocks.