mhurhangee/ep-ind-claims huggingface dataset:
A skin adhesive sheet, comprising a copolymer containing the following components A and C as polymerization components, and having a water content less than 10% by mass: component A: a polysiloxane macromonomer having a plurality of polymerizable functional groups per molecule, and having a number average molecular weight of 6,000 or more; and component C: a polymerizable monomer having an alkyl group and having no fluoroalkyl group, wherein component C is comprised of 7 to 10 parts by mass based on 100 parts by mass in total of polymerization components of the copolymer, wherein the copolymer further contains the following component B as a polymerization component: component B: a polymerizable monomer having a fluoroalkyl group, wherein the skin adhesive sheet is not coated with a hydrophilic substance. component A: a polysiloxane macromonomer having a plurality of polymerizable functional groups per molecule, and having a number average molecular weight of 6,000 or more; and component C: a polymerizable monomer having an alkyl group and having no fluoroalkyl group, wherein component C is comprised of 7 to 10 parts by mass based on 100 parts by mass in total of polymerization components of the copolymer, wherein the copolymer further contains the following component B as a polymerization component: component B: a polymerizable monomer having a fluoroalkyl group, wherein the skin adhesive sheet is not coated with a hydrophilic substance.
Water-based wood protection agent, comprising a biocide-containing aqueous emulsion which contains at least one biocidal active agent and at least one cationic emulsifier and the at least one biocidal active agent is emulsified by the at least one cationic emulsifier, forming active agent emulsion particles, characterized in that the active agent emulsion particles are each surrounded by an at least single-layered polyelectrolyte shell, so that the net charge of the coated active agent emulsion particle is zero or negative.
A method for manufacturing an electronic device comprising a radiofrequency resonator connected to a printed circuit board, the method comprising: - a step for manufacturing the resonator; and - a step for fastening the resonator to the printed circuit board in an assembled position, the step for manufacturing the resonator comprising a step for three-dimensional printing of at least one blank of the resonator, the manufacturing step by three-dimensional printing comprising manufacturing the blank of the resonator, and the method next comprises a step for depositing a conductive coating on the blank, the deposition step comprising an electrolysis deposition step, the blank of the resonator is made at least partially from a non-electrically conductive material and characterized in that the method comprises a step for applying an electrically conductive sub-layer on the blank before the deposition by electrolysis. - a step for manufacturing the resonator; and - a step for fastening the resonator to the printed circuit board in an assembled position,
An aptamer or oligonucleotide that binds to a CD200R1 target, wherein the aptamer or oligonucleotide is selected from the group consisting of M49 (SEQ ID NO:1), M52 (SEQ ID NO:2), TM49 (SEQ ID NO.: 4), TM52 (SEQ ID NO.: 5), TCCS13 (SEQ ID NO.: 6), TCCS8 (SEQ ID NO.: 15), CCS8 (SEQ ID NO.: 16), TrM49 (SEQ ID NO.: 12), and TrM52 (SEQ ID NO.: 13).
A method comprising: (a) receiving a radio frame transmitted from a wireless transmitting station via multiple antennas by a receiver in a wireless local area network, in the following also referred to as WLAN, wherein the radio frame comprise a preamble having a plurality of long training field, in the following also referred to as LTF, symbols; (b) resolving a plurality of direction finding sounding signals corresponding to the multiple antennas, wherein each DF sounding signal contains a number of LTF symbols transmitted from each antenna of the transmitting station; (c) estimating an angle of departure, in the following also referred to as AoD, based on the plurality of DF sounding signals; and (d) determining receiving station location information based on the estimated AoD, characterized in that the plurality of direction finding sounding signals are transmitted simultaneously from the wireless transmitting station via the multiple antennas to the receiver. (a) receiving a radio frame transmitted from a wireless transmitting station via multiple antennas by a receiver in a wireless local area network, in the following also referred to as WLAN, wherein the radio frame comprise a preamble having a plurality of long training field, in the following also referred to as LTF, symbols; (b) resolving a plurality of direction finding sounding signals corresponding to the multiple antennas, wherein each DF sounding signal contains a number of LTF symbols transmitted from each antenna of the transmitting station; (c) estimating an angle of departure, in the following also referred to as AoD, based on the plurality of DF sounding signals; and (d) determining receiving station location information based on the estimated AoD,
Method for operating a gas burner, wherein during burner-on phases a gas/air mixture having a defined mixing ratio of gas and air is provided to a burner chamber of the gas burner for combusting the gas/air mixture within the burner chamber, wherein the gas/air mixture is provided by mixing an air flow sucked in by a fan with a gas flow, wherein the defined mixing ratio of the gas/air mixture is controlled by comparing an actual value of a signal provided by an electrical or electronic sensor with a nominal value for the signal provided by the electrical or electronic sensor and by generating a control variable for a gas valve assigned to a gas duct on basis of the control deviation between the actual value and the nominal value, wherein the electrical or electronic sensor is coupled to the gas duct and to a reference point, wherein the actual value of the signal provided by the electrical or electronic sensor corresponds to a pressure ratio between the gas pressure in the gas duct and the air pressure at the reference point, wherein the signal provided by the electrical or electronic sensor is in addition used to determine if the combustion of the gas/air mixture within the burner chamber is stable or unstable, wherein for determining stable or unstable combustion the time-based signal provided by the electrical or electronic sensor is processed in such a way that: the time-based signal (24, 26, 28, 30) provided by the electrical or electronic sensor is sampled at a defined sampling rate, a Fourier Transformation is applied to the samples of the time-based signal obtained by the sampling of the time-based signal at the defined sampling rate thereby generating a frequency-based signal (25, 27, 29,31), it is determined if the amplitude of the frequency-based signal (25, 27, 29, 31) within a defined frequency range is larger than a defined threshold, wherein stable combustion is determined when the amplitude of the frequency-based signal within the defined frequency range is lower than the defined threshold, and wherein unstable combustion is determined when the amplitude of the frequency-based signal within the defined frequency range is larger than the defined threshold. the time-based signal (24, 26, 28, 30) provided by the electrical or electronic sensor is sampled at a defined sampling rate, a Fourier Transformation is applied to the samples of the time-based signal obtained by the sampling of the time-based signal at the defined sampling rate thereby generating a frequency-based signal (25, 27, 29,31), it is determined if the amplitude of the frequency-based signal (25, 27, 29, 31) within a defined frequency range is larger than a defined threshold, wherein stable combustion is determined when the amplitude of the frequency-based signal within the defined frequency range is lower than the defined threshold, and wherein unstable combustion is determined when the amplitude of the frequency-based signal within the defined frequency range is larger than the defined threshold.
Method for inputting a numerical code by means of a portable device, the portable device being represented by a plane, wherein the following steps are executed by the device: - measuring a first angle of inclination (α) of the portable device with respect to a first axis (x); - measuring a second angle of inclination (β) of the portable device with respect to a second axis (y); - determining an input numerical code on the basis of a first and a second intermediate code, the first intermediate code and the second intermediate code corresponding to the first measured angle of inclination and the second measured angle of inclination, respectively, and varying within a numerical range of two-digit values, the input numerical code being determined by concatenation of the first and second intermediate codes; wherein, if it is determined that the first measured angle or the second measured angle, respectively, lies within an angular range extending between -PA° and +PA°, PA being a predefined angle, the first intermediate code or the second intermediate code, respectively, is determined by calculating the integer part of the sum of the first measured angle or of the second measured angle, respectively, and of the angle PA, multiplied by a fraction 50/PA. - measuring a first angle of inclination (α) of the portable device with respect to a first axis (x); - measuring a second angle of inclination (β) of the portable device with respect to a second axis (y); - determining an input numerical code on the basis of a first and a second intermediate code, the first intermediate code and the second intermediate code corresponding to the first measured angle of inclination and the second measured angle of inclination, respectively, and varying within a numerical range of two-digit values, the input numerical code being determined by concatenation of the first and second intermediate codes; wherein, if it is determined that the first measured angle or the second measured angle, respectively, lies within an angular range extending between -PA° and +PA°, PA being a predefined angle, the first intermediate code or the second intermediate code, respectively, is determined by calculating the integer part of the sum of the first measured angle or of the second measured angle, respectively, and of the angle PA, multiplied by a fraction 50/PA.
A computer-implemented method comprising: identifying, based on first sensor data obtained from a first sensor, a geometric location of at least one object, the first sensor being a light detection and ranging (LiDAR) sensor or a camera; identifying, on a spectrum map derived from second sensor data obtained from a second sensor, an energy spectrum smear that corresponds to the object, the second sensor being an radar sensor; identifying a first portion of the energy spectrum smear that corresponds to the geometric location of the object (108; 110); labeling, in the first portion of the energy spectrum smear, each pixel with a value of one; labeling, in a second portion of the energy spectrum smear that includes all pixels of the energy spectrum smear not included in the first portion, each pixel with a value between zero and one, the value decreasing the further each respective pixel is from the first portion of the energy spectrum smear; and training, by machine learning and based on the labeling of each pixel in the first portion and each pixel in the second portion, a model to label spectrum maps used for detecting and tracking objects. identifying, based on first sensor data obtained from a first sensor, a geometric location of at least one object, the first sensor being a light detection and ranging (LiDAR) sensor or a camera; identifying, on a spectrum map derived from second sensor data obtained from a second sensor, an energy spectrum smear that corresponds to the object, the second sensor being an radar sensor; identifying a first portion of the energy spectrum smear that corresponds to the geometric location of the object (108; 110); labeling, in the first portion of the energy spectrum smear, each pixel with a value of one; labeling, in a second portion of the energy spectrum smear that includes all pixels of the energy spectrum smear not included in the first portion, each pixel with a value between zero and one, the value decreasing the further each respective pixel is from the first portion of the energy spectrum smear; and training, by machine learning and based on the labeling of each pixel in the first portion and each pixel in the second portion, a model to label spectrum maps used for detecting and tracking objects.
A package comprising: a flexible film forming a first panel and a second panel (520, 522) and having a first pair of edge portions forming a first seal, a second pair of edge portions forming a second seal, and a top seal formed between the first and second panel (520, 522) extending between the first and second seal (502, 504); an elongated closure layer disposed on an exterior surface of the package and extending from the first seal to the second seal and within a third pair of edge portions; a pressure sensitive adhesive between the flexible film and the elongated closure layer; and a score in the flexible film adjacent the elongated closure layer, the score defining at least in part, a cut-out portion with portions of the score being disposed above and below the top seal; wherein the elongated closure layer is disposed on the first panel and the score is disposed in the flexible film of the first panel underneath the elongated closure layer and the package is opened along the score and the cut-out portion is removed from the first panel and adheres to the second panel, upon package opening, due to a bond strength of the top seal and the package being resealable due to the pressure sensitive adhesive disposed between the elongated closure layer and the flexible film that can readhere to the cut-out portion upon package reclosure. a flexible film forming a first panel and a second panel (520, 522) and having a first pair of edge portions forming a first seal, a second pair of edge portions forming a second seal, and a top seal formed between the first and second panel (520, 522) extending between the first and second seal (502, 504); an elongated closure layer disposed on an exterior surface of the package and extending from the first seal to the second seal and within a third pair of edge portions; a pressure sensitive adhesive between the flexible film and the elongated closure layer; and a score in the flexible film adjacent the elongated closure layer, the score defining at least in part, a cut-out portion with portions of the score being disposed above and below the top seal;
A secondary battery charging method for a lithium ion secondary battery, in which method constant current charging is performed until a first predetermined voltage V 0 is attained, constant voltage charging is then performed at the first predetermined voltage V 0, the first constant voltage charging is completed when a charge current becomes (I n - ΔI n) from I n, and then n is incremented by one, wherein ΔI n is (I n - I n-1) and has a positive value regardless a value of n, and constant voltage charging is performed at a voltage V n = V n-1 + ΔV n, a step of completing the n-th constant voltage charging when the charge current becomes (I n - ΔI n) from I n is repeated by incrementing n by one, and the N-th constant voltage charging in which a value of the voltage V n reaches a second predetermined voltage V N (> V 0) is completed to terminate the constant voltage charging, wherein the following inequation is satisfied: 0.95 × V N ≤ V 0 ≤ 0.99 × V N.
A continuous pour process for the manufacture of a composite structural solid material comprising a thermoset resin and copper oxide particles substantially uniformly dispersed therein the process comprising the steps of: mixing a filler with copper oxide until well blended to form a filler-copper oxide blend; stepwise, subsequently mixing said filler-copper oxide blend with a thermoset resin and optionally a pigment to form a copper oxide containing blended composition; stepwise, subsequently mixing a catalyst with said copper oxide containing blended composition to form a polymerizable composite structural material; distributing said polymerizable composite structural material in a mold; and providing conditions for polymerization of said polymerizable composite structural material, thereby preparing a composite structural solid material wherein the copper oxide is present at a concentration ranging from 15% to 50% w/w and wherein a portion of said copper oxide particles are surface exposed. mixing a filler with copper oxide until well blended to form a filler-copper oxide blend; stepwise, subsequently mixing said filler-copper oxide blend with a thermoset resin and optionally a pigment to form a copper oxide containing blended composition; stepwise, subsequently mixing a catalyst with said copper oxide containing blended composition to form a polymerizable composite structural material; distributing said polymerizable composite structural material in a mold; and providing conditions for polymerization of said polymerizable composite structural material,
A switched mode power supply, SMPS, circuit comprising: a transformer configured to convert an input voltage (Vin) applied to a primary winding of the transformer into an output voltage at a secondary winding of the transformer; and a galvanic isolated integrated feedback circuit configured to control the output voltage at the secondary winding of the transformer; wherein the galvanic isolated integrated feedback circuit comprises: an on chip inductor element to which the output voltage of the secondary winding of the transformer is applied to generate a magnetic field measured by an on chip Hall sensor of that galvanic isolated feedback circuit to provide a control voltage used to control the output voltage of the transformer; and a switching regulator connected to the primary winding of the transformer; wherein the on chip inductor element comprises a coil having a rectangular or spiral form implemented as a metal layer of said integrated feedback circuit, wherein the on chip inductor element and the on chip Hall sensor element are implemented in different layers of the integrated feedback circuit to provide a predetermined distance between the on chip inductor element and the on chip Hall sensor element. a transformer configured to convert an input voltage (Vin) applied to a primary winding of the transformer into an output voltage at a secondary winding of the transformer; and a galvanic isolated integrated feedback circuit configured to control the output voltage at the secondary winding of the transformer; wherein the galvanic isolated integrated feedback circuit comprises: an on chip inductor element to which the output voltage of the secondary winding of the transformer is applied to generate a magnetic field measured by an on chip Hall sensor of that galvanic isolated feedback circuit to provide a control voltage used to control the output voltage of the transformer; and a switching regulator connected to the primary winding of the transformer; wherein the on chip inductor element comprises a coil having a rectangular or spiral form implemented as a metal layer of said integrated feedback circuit, wherein the on chip inductor element and the on chip Hall sensor element are implemented in different layers of the integrated feedback circuit to provide a predetermined distance between the on chip inductor element and the on chip Hall sensor element. an on chip inductor element to which the output voltage of the secondary winding of the transformer is applied to generate a magnetic field measured by an on chip Hall sensor of that galvanic isolated feedback circuit to provide a control voltage used to control the output voltage of the transformer; and a switching regulator connected to the primary winding of the transformer; wherein the on chip inductor element comprises a coil having a rectangular or spiral form implemented as a metal layer of said integrated feedback circuit, wherein the on chip inductor element and the on chip Hall sensor element are implemented in different layers of the integrated feedback circuit to provide a predetermined distance between the on chip inductor element and the on chip Hall sensor element.
A system comprising a RF-ablation catheter and a control system, the ablation catheter having a separate distal tip and a plurality of thermocouples (68, 68') distributed within and in thermal communication with the distal tip, including distal thermocouples and proximal thermocouples and a conductive multilayer shell is disposed over the plurality of thermocouples (68, 68'), wherein the distal tip is configured to contact tissue, and wherein the control system is configured to perform a control of the system comprising the following steps: conducting an ablation therapy on the tissue in contact with the ablation catheter tip; receiving temperature data from a plurality of thermocouples distributed about the distal tip (42, 42′, 42′′′) of the ablation catheter; based on at least the received temperature data immediately following the ablation therapy, determining a blood flow in proximity to the ablation catheter tip, wherein a temperature drop after the ablation therapy above a threshold rate is indicative of high blood flow and a temperature drop after the ablation therapy below a threshold rate is indicative of low blood flow; and adjusting the energy level transmitted to the tissue during the ablation therapy, based on the received temperature data, to create a lesion in the tissue. wherein the distal tip is configured to contact tissue, and wherein the control system is configured to perform a control of the system comprising the following steps: conducting an ablation therapy on the tissue in contact with the ablation catheter tip; receiving temperature data from a plurality of thermocouples distributed about the distal tip (42, 42′, 42′′′) of the ablation catheter; based on at least the received temperature data immediately following the ablation therapy, determining a blood flow in proximity to the ablation catheter tip, wherein a temperature drop after the ablation therapy above a threshold rate is indicative of high blood flow and a temperature drop after the ablation therapy below a threshold rate is indicative of low blood flow; and adjusting the energy level transmitted to the tissue during the ablation therapy, based on the received temperature data, to create a lesion in the tissue. conducting an ablation therapy on the tissue in contact with the ablation catheter tip; receiving temperature data from a plurality of thermocouples distributed about the distal tip (42, 42′, 42′′′) of the ablation catheter; based on at least the received temperature data immediately following the ablation therapy, determining a blood flow in proximity to the ablation catheter tip, wherein a temperature drop after the ablation therapy above a threshold rate is indicative of high blood flow and a temperature drop after the ablation therapy below a threshold rate is indicative of low blood flow; and adjusting the energy level transmitted to the tissue during the ablation therapy, based on the received temperature data, to create a lesion in the tissue.