mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear comprising: an upper having a plurality of discrete sections secured to one another, each of the discrete sections including a cover layer (20A-20K) and a corresponding base layer (32A-32K), the cover layer (20A-20K) secured to and covering an outer side (36A-36K) of the corresponding base layer (32A-32K) and selectively removable independently of each other cover layer (20A-20K) to expose the outer side (36A-36K) of the corresponding base layer (32A-32K) without exposing the outer side (36A-36K) of any other corresponding base layer (32A-32K) of any other discrete section, wherein each base layer (32A-32K) has a peripheral edge and the cover layer (20A-20K) secured to the corresponding base layer (32A-32K) has a portion wrapped around and covering the peripheral edge. an upper having a plurality of discrete sections secured to one another, each of the discrete sections including a cover layer (20A-20K) and a corresponding base layer (32A-32K), the cover layer (20A-20K) secured to and covering an outer side (36A-36K) of the corresponding base layer (32A-32K) and selectively removable independently of each other cover layer (20A-20K) to expose the outer side (36A-36K) of the corresponding base layer (32A-32K) without exposing the outer side (36A-36K) of any other corresponding base layer (32A-32K) of any other discrete section, wherein each base layer (32A-32K) has a peripheral edge and the cover layer (20A-20K) secured to the corresponding base layer (32A-32K) has a portion wrapped around and covering the peripheral edge.
Method for measuring the quantity of gas introduced into a gas tank via a filling station provided with a filling pipe comprising an upstream end connected to at least one source of pressurized gas and a downstream end connected to a tank that is to be filled, the filling pipe comprising a flow meter and a downstream isolation valve positioned between the flow meter and the downstream end of the filling pipe, the method comprising a step of transferring gas from the source to the tank , during which step the downstream isolation valve is open, a step of interrupting the transfer of gas with closure of the downstream valve , the method comprising a step of measuring, using the flow meter , the quantity of gas transferred during the transfer step, the method comprising a step of generating a signal indicating the corrected quantity of gas transferred, the corrected quantity of gas transferred being obtained by adding a positive or negative determined corrective quantity to the measured quantity of gas transferred, as measured by the flow meter during the transfer step, the determined corrective quantity being the difference between, on the one hand, the measured or calculated quantity of gas situated downstream of the flow meter in the filling pipe prior to the transfer step and, on the other hand, the measured or calculated quantity of gas situated in the filling pipe downstream of the flow meter during and/or at the end of the transfer step, and characterized in that the step of generating a signal indicating the corrected quantity of gas transferred is performed several times during the course of the transfer step, which means to say that the difference between, on the one hand, the measured or calculated quantity of gas situated downstream of the flow meter in the filling pipe before the transfer step and, on the other hand, the measured or calculated quantity of gas situated in the filling pipe downstream of the flow meter during filling, is calculated several times during the course of the filling at successive moments in time, and in that the last-generated signal indicating the corrected quantity of gas transferred replaces the previous signal indicating the corrected quantity of gas transferred generated during the course of the same filling operation.
Treatment device with a magnetic field applicator which is suitable for generating a ramped signal pattern of the coil currents used ; the signal pattern consisting of low-frequency base pulses of the coil current rising like a ramp in amplitude which act during a defined treatment time , which are a component of pulse packets composed of the base pulses , the envelope of which described by the amplitudes of the base pulses is likewise formed like a ramp, wherein the envelope of the amplitudes of the base pulses forms a curve branch rising starting from close to zero which rises until the midpoint of a treatment time , characterised in that the envelope of the amplitudes of the base pulses from the midpoint to the end of the treatment time forms a constant curve branch corresponding to the maximum current strength, and in that the treatment device has arrangements for light therapy and/or oxygen therapy and/or for strength measurement of the patient, wherein the measured values of strength are stored and displayed on the display of the treatment device .
A computer-readable storage medium storing a trust activation module , the trust activation module containing instructions that, when executed by a processor , perform a method comprising: Creating an isolation execution environment that executes an application, said isolation execution environment separate from the trust activation module , determining whether the application is associated with a select privilege level for accessing a component having a select trust level and executing in an execution environment separate from the isolation execution environment, the component used to access a resource controlled by an operating system; configuring a broker process to execute the component when the component is associated with a partial trust level, said broker process operating in the execution environment separate from the isolation environment, wherein a partial trust level permits access to the component by a low privilege application through the broker process, a full trust level permits access to the component by high privilege applications only and a base trust level permits access to the component by any application. Creating an isolation execution environment that executes an application, said isolation execution environment separate from the trust activation module , determining whether the application is associated with a select privilege level for accessing a component having a select trust level and executing in an execution environment separate from the isolation execution environment, the component used to access a resource controlled by an operating system; configuring a broker process to execute the component when the component is associated with a partial trust level, said broker process operating in the execution environment separate from the isolation environment, wherein a partial trust level permits access to the component by a low privilege application through the broker process, a full trust level permits access to the component by high privilege applications only and a base trust level permits access to the component by any application.
An adaptive multifunctional chuck, wherein comprises a base , a housing , a bracket ; the upper surface of the base is provided in fixed connection to the housing , a bracket and a protective housing , and the protective housing is provided with a switch ; the top of the housing is provided with an outlet opened to the atmosphere, and the top plate insides the housing is provided with a display screen , a single-chip microcomputer (100 and a data storage device ; the base is further provided with a first seating groove , a second seating groove , and a third seating groove on the upper surface, wherein the first seating groove is provided with a powertrain , the second seating groove is provided with a battery , and the third seating groove is provided with a valve ; the base is provided with three via holes through the body, wherein a pressure sensor , check valve and valve are respectively provided in the three via holes through the sealing structure; the lower surface of the base is opened with an inner annular groove which is provided with a sealing ring ; the single-chip microcomputer is electrically connected to the display screen , the data storage device , the powertrain , the battery , and the pressure sensor , respectively. the base is further provided with a first seating groove , a second seating groove , and a third seating groove on the upper surface, wherein the first seating groove is provided with a powertrain , the second seating groove is provided with a battery , and the third seating groove is provided with a valve ; the base is provided with three via holes through the body, wherein a pressure sensor , check valve and valve are respectively provided in the three via holes through the sealing structure; the lower surface of the base is opened with an inner annular groove which is provided with a sealing ring ; the single-chip microcomputer is electrically connected to the display screen , the data storage device , the powertrain , the battery , and the pressure sensor , respectively.
Method for fast detection scan of NB-IoT signals in a single run of Narrowband Primary Synchronization Signal NPSS search performed by a UE by applying a higher sampling rate than 240 kHz and observing a received signal at a receive bandwidth relative to a NB-IoT signal bandwidth BW within a frequency interval − BW 2 − M Δ ≤ f ≤ M Δ + BW 2 , Δ = 100 kHz to support a simultaneous scan of E-UTRA absolute radio frequency channel number EARFCN -M ≤ m ≤ -1 and 1 ≤ m ≤ M in addition to the EARFCN for m = 0 relative to a carrier frequency by the UE, wherein m is a EARFCN offset, wherein a set of 2M+1 NB-IoT signals each having a different EARFCN are observed simultaneously and M is a natural number and 2M+1 indicates a number of observed channels, and by using a wider bandwidth as well as a fast Fourier transformation to transform time domain samples into frequency domain samples and using special auto-correlations in the frequency domain to detect carrier frequency candidates which carry the NB-IoT signals simultaneously.
A method of decoding a downlink control channel that occupies a transmission time interval, TTI, bundle of subframes, the TTI bundle of subframes comprising consecutive subframes in which at least one downlink control channel decoding candidate is repeated, the method comprising: determining the at least one downlink control channel decoding candidate, characterized in that the at least one downlink control channel decoding candidate has an aggregation level that is supported in a first subframe of the TTI bundle of subframes, wherein the first subframe has a downlink time division duplex, TDD, subframe configuration, and that is not supported in a second subframe of the TTI bundle of subframes, wherein the second subframe has a special TDD subframe configuration, and in that the method further comprises: monitoring and decoding the at least one downlink control channel decoding candidate in the first subframe based on the aggregation level being supported in the first subframe; and ignoring the second subframe for monitoring the at least one downlink control channel decoding candidate if there is no decoding candidate in the second subframe corresponding to the decoding candidate in the first subframe. determining the at least one downlink control channel decoding candidate, characterized in that the at least one downlink control channel decoding candidate has an aggregation level that is supported in a first subframe of the TTI bundle of subframes, wherein the first subframe has a downlink time division duplex, TDD, subframe configuration, and that is not supported in a second subframe of the TTI bundle of subframes, wherein the second subframe has a special TDD subframe configuration, and in that the method further comprises: monitoring and decoding the at least one downlink control channel decoding candidate in the first subframe based on the aggregation level being supported in the first subframe; and ignoring the second subframe for monitoring the at least one downlink control channel decoding candidate if there is no decoding candidate in the second subframe corresponding to the decoding candidate in the first subframe. monitoring and decoding the at least one downlink control channel decoding candidate in the first subframe based on the aggregation level being supported in the first subframe; and ignoring the second subframe for monitoring the at least one downlink control channel decoding candidate if there is no decoding candidate in the second subframe corresponding to the decoding candidate in the first subframe.
Method for attaching at least one insulating board to a substrate , comprising the following steps: - providing an adhesive foam , - applying the adhesive foam to a surface to be bonded of the insulating board and/or to the substrate to be bonded to the insulating board , - bringing the surface to be bonded of the insulating board into contact with the substrate , - fixing the insulating board to be bonded in each case on the substrate by at least one fixing means, the fixing means having two angled, dimensionally stable legs which can be pivoted in relation to one another, and, for fixing the insulating board , the first leg being fastened to the substrate , and the second leg being fastened to the insulating board , - hardening the adhesive foam located between the insulating board and the substrate . - providing an adhesive foam , - applying the adhesive foam to a surface to be bonded of the insulating board and/or to the substrate to be bonded to the insulating board , - bringing the surface to be bonded of the insulating board into contact with the substrate , - fixing the insulating board to be bonded in each case on the substrate by at least one fixing means, the fixing means having two angled, dimensionally stable legs which can be pivoted in relation to one another, and, for fixing the insulating board , the first leg being fastened to the substrate , and the second leg being fastened to the insulating board , - hardening the adhesive foam located between the insulating board and the substrate .
A vibration detection mechanism comprising: a first sensor section (S1) that detects vibration of a vibrating member of a musical instrument in a first direction (F1) being a main vibration direction; a second sensor section (S2) that detects vibration of the vibrating member in a second direction being perpendicular to the first direction (F1); and a third sensor section (S3) that detects vibration of the vibrating member in a third direction (F3) being perpendicular to both the first direction (F1) and the second direction (F2), wherein the vibrating member is a soundboard to which a fixed member is fixed, the fixed member having a surface that is perpendicular to the second direction (F2), and the second sensor section (S2) is installed on the surface of the fixed member , characterized in that sensitivity of the second sensor section (S2) is greater than sensitivity of the first sensor section (S1), and sensitivity of the third sensor section (S3) is greater than the sensitivity of the first sensor section (S1), and the second direction (F2) is parallel to a wood grain direction of the soundboard at an installation position of the fixed member on the soundboard . a first sensor section (S1) that detects vibration of a vibrating member of a musical instrument in a first direction (F1) being a main vibration direction; a second sensor section (S2) that detects vibration of the vibrating member in a second direction being perpendicular to the first direction (F1); and a third sensor section (S3) that detects vibration of the vibrating member in a third direction (F3) being perpendicular to both the first direction (F1) and the second direction (F2), wherein the vibrating member is a soundboard to which a fixed member is fixed, the fixed member having a surface that is perpendicular to the second direction (F2), and the second sensor section (S2) is installed on the surface of the fixed member , characterized in that sensitivity of the second sensor section (S2) is greater than sensitivity of the first sensor section (S1), and sensitivity of the third sensor section (S3) is greater than the sensitivity of the first sensor section (S1), and the second direction (F2) is parallel to a wood grain direction of the soundboard at an installation position of the fixed member on the soundboard .
An organic electroluminescent device having at least an anode, a hole transport layer, a luminous layer, an electron transport layer, and a cathode in this order, wherein the hole transport layer contains an arylamine compound represented by one of the following formulas (1-5), (1-6), (1-21), (1-22), (1-32), (1-34), (1-37), (1-38), (1-39), (1-41), (1-42), (1-45), (1-47), (1-49), (1-88), (1-91), (1-101), (1-103) and (1-104) and the luminous layer contains an indenoindole derivative represented by one of the following formulas (2-1), (2-2), (2-3), (2-4), (2-5), (2-6), (2-7), (2-8), (2-9), (2-10), (2-11) and (2-12) or a carbazole derivative represented by one of the following formulas (3-1), (3-2), (3-3), (3-4), (3-5), (3-6), (3-7), (3-8), (3-9), (3-10), (3-11), (3-12), (3-13), (3-14), (3-15) and (3-16):
A method for rolling super austenitic stainless steel with the specifications of a thickness of below 10 mm and a width of above 2500 mm, comprising the following steps: selecting a minimum thickness billet loadable into a heating furnace, wherein the minimum thickness is 115 mm; conducting steel heating on the billet at 1250° C to 1270° C, and controlling a temperature difference between upper and lower surfaces to be 25° C to 35° C; not conducting descaling operation on the billet, and maintaining the temperature difference between the upper and lower surfaces, so that a temperature of the upper surface is higher than that of the lower surface; controlling a final rolling temperature to be above 850° C; adopting 12 passes of rolling, wherein a reduction in the last two passes of rolling is less than 0.8 mm; and ensuring that a roll gap parameter for a rolling mill is set to be not less than 3.5 mm; during rolling, according to deformation resistance at different temperatures, optimizing a thermal expansion coefficient under different thicknesses, and adjusting the thermal expansion coefficient of this stainless steel under different passes separately, wherein, when a temperature is below 873° C, the thermal expansion coefficient of the stainless steel is set to be1.0133×10 -2 , and when the temperature is higher than 873° C and below 880° C, the thermal expansion coefficient of the stainless steel is set to be 1.0285×10 -2 ; and in a multi-pass straightening mode by a pre-straightening machine to ensure straightness of a final plate shape a roll gap is pressed down manually by 1 to 1.5 mm according to plate shape conditions. selecting a minimum thickness billet loadable into a heating furnace, wherein the minimum thickness is 115 mm; conducting steel heating on the billet at 1250° C to 1270° C, and controlling a temperature difference between upper and lower surfaces to be 25° C to 35° C; not conducting descaling operation on the billet, and maintaining the temperature difference between the upper and lower surfaces, so that a temperature of the upper surface is higher than that of the lower surface; controlling a final rolling temperature to be above 850° C; adopting 12 passes of rolling, wherein a reduction in the last two passes of rolling is less than 0.8 mm; and ensuring that a roll gap parameter for a rolling mill is set to be not less than 3.5 mm; during rolling, according to deformation resistance at different temperatures, optimizing a thermal expansion coefficient under different thicknesses, and adjusting the thermal expansion coefficient of this stainless steel under different passes separately, wherein, when a temperature is below 873° C, the thermal expansion coefficient of the stainless steel is set to be1.0133×10 -2 , and when the temperature is higher than 873° C and below 880° C, the thermal expansion coefficient of the stainless steel is set to be 1.0285×10 -2 ; and in a multi-pass straightening mode by a pre-straightening machine to ensure straightness of a final plate shape a roll gap is pressed down manually by 1 to 1.5 mm according to plate shape conditions.
A method of receiving a Physical sidelink control channel, PSCCH and a Physical sidelink shared channel, PSSCH, which are received by a user equipment, UE, in a wireless communication system, comprising the steps of: receiving, by the UE , a PSCCH including a first information indicating a time interval between an initial transmission and a retransmission of a PSSCH and a second information indicating whether the PSSCH corresponds to the initial transmission or the retransmission; and identifying, by the UE , a resource located at a subframe appearing after a subframe in which the PSCCH is received if the PSSCH corresponds to the initial transmission and a resource located at a subframe prior to the subframe in which the PSCCH is received based on the first information and the second information, wherein the first information is used as a positive value for identifying a retransmission resource from a resource of the PSCCH based on that the second information indicates the initial transmission, and wherein the first information is used as a negative value for identifying an initial transmission resource from a resource of the PSCCH based on that the second information indicates the retransmission. receiving, by the UE , a PSCCH including a first information indicating a time interval between an initial transmission and a retransmission of a PSSCH and a second information indicating whether the PSSCH corresponds to the initial transmission or the retransmission; and identifying, by the UE , a resource located at a subframe appearing after a subframe in which the PSCCH is received if the PSSCH corresponds to the initial transmission and a resource located at a subframe prior to the subframe in which the PSCCH is received based on the first information and the second information, wherein the first information is used as a positive value for identifying a retransmission resource from a resource of the PSCCH based on that the second information indicates the initial transmission, and wherein the first information is used as a negative value for identifying an initial transmission resource from a resource of the PSCCH based on that the second information indicates the retransmission.