mhurhangee/patent-ind-claim-en huggingface dataset:
A method for identifying fertility status of a human male individual comprising: exposing a first portion of a sperm sample from the individual to non-capacitating conditions to obtain non-capacitated sperm; exposing a second portion of the sperm sample to capacitating conditions to obtain capacitated sperm; fixing the capacitated sperm and the non-capacitated sperm with a fixative; staining the capacitated sperm and the non-capacitated sperm to identify G M1 patterns; determining a frequency of selected G M1 patterns in the capacitated sperm and the non-capacitated sperm; and comparing the frequency of the selected G M1 patterns in the capacitated sperm to the frequency of the selected G M1 patterns in the non-capacitated sperm, wherein a change in the frequency of one or more of the selected G M1 patterns in the capacitated sperm from the non-capacitating sperm is indicative of the fertility status of the individual, wherein the selected G M1 patterns are one or more of intermediate (INTER), apical acrosome (AA), and post-acrosomal plasma membrane (APM) . exposing a first portion of a sperm sample from the individual to non-capacitating conditions to obtain non-capacitated sperm; exposing a second portion of the sperm sample to capacitating conditions to obtain capacitated sperm; fixing the capacitated sperm and the non-capacitated sperm with a fixative; staining the capacitated sperm and the non-capacitated sperm to identify G M1 patterns; determining a frequency of selected G M1 patterns in the capacitated sperm and the non-capacitated sperm; and comparing the frequency of the selected G M1 patterns in the capacitated sperm to the frequency of the selected G M1 patterns in the non-capacitated sperm, wherein a change in the frequency of one or more of the selected G M1 patterns in the capacitated sperm from the non-capacitating sperm is indicative of the fertility status of the individual, wherein the selected G M1 patterns are one or more of intermediate (INTER), apical acrosome (AA), and post-acrosomal plasma membrane (APM) .
A hinge for a door or a window comprising a first mounting element which can be fastened to the frame, a frame part which can be connected to the first mounting element and that has a receptacle for an axle bush , a second mounting element which can be mounted on the casement of the door or the window, a casement part which can be connected to the second mounting element and that has a receptacle for a rotational axle which, in the mounted state, is received with its free end in the axle bush , as well as adjusting means for adjusting the contact pressure between the closed casement and the frame, wherein the adjusting device is an adjusting screw by means of which the distance between the first mounting element and the frame part can be adjusted, wherein the head of the adjusting screw is supported in a depression in the frame part , characterised in that the head of the adjusting screw is secured in the depression by means of the axle bush , and wherein the axle bush and the frame part include a corresponding breakthrough in the region of the head of the adjusting screw for inserting an actuating tool.
A method for preparing a brivaracetam intermediate represented by B-R, comprising the following steps: a. adding the compound represented by B-P and 1S,2S-diphenylethylenediamine into a resolution solvent, heating until it is dissolved and clarified, then cooling to crystallize, and separating to obtain a crude solid product of the compound represented by B-Q; b. recrystallizing the crude solid product in a recrystallization solvent to obtain a refined product of the compound represented by B-Q; and c. converting the compound represented by B-Q to the brivaracetam intermediate represented by B-R in a reaction solvent comprising water in the presence of an acid a. adding the compound represented by B-P and 1S,2S-diphenylethylenediamine into a resolution solvent, heating until it is dissolved and clarified, then cooling to crystallize, and separating to obtain a crude solid product of the compound represented by B-Q; b. recrystallizing the crude solid product in a recrystallization solvent to obtain a refined product of the compound represented by B-Q; and c. converting the compound represented by B-Q to the brivaracetam intermediate represented by B-R in a reaction solvent comprising water in the presence of an acid
A modifier represented by Formula 1: wherein, in Formula 1, R 1 , R 2 , and R 3 are each independently -SiR 7 R 8 R 9 , R 4 is a divalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms, R 5 is a divalent hydrocarbon group having 2 to 20 carbon atoms, and R 6 is -COOR 10 , wherein R 7 to R 9 are each independently a monovalent hydrocarbon group having 1 to 20 carbon atoms or a monovalent hydrocarbon group having 1 to 20 carbon atoms which includes at least one heteroatom selected from the group consisting of nitrogen (N), sulfur (S), and oxygen (O), and R 10 is a monovalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms. R 1 , R 2 , and R 3 are each independently -SiR 7 R 8 R 9 , R 4 is a divalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms, R 5 is a divalent hydrocarbon group having 2 to 20 carbon atoms, and R 6 is -COOR 10 , wherein R 7 to R 9 are each independently a monovalent hydrocarbon group having 1 to 20 carbon atoms or a monovalent hydrocarbon group having 1 to 20 carbon atoms which includes at least one heteroatom selected from the group consisting of nitrogen (N), sulfur (S), and oxygen (O), and R 10 is a monovalent hydrocarbon group having 1 to 20 carbon atoms which is substituted or unsubstituted with at least one substituent selected from the group consisting of an alkyl group having 1 to 20 carbon atoms, a cycloalkyl group having 3 to 20 carbon atoms, and an aryl group having 6 to 30 carbon atoms.
Plastics material element for a vehicle, the plastics material element being formed as an extruded part or as an extruded part comprising a base , at least a portion of the outside of the extruded part being coated with a lacquer foil so as to form the plastics material element with a structured surface, the structured surface preferably having a structure as similar as possible to a lacquered surface, characterised in that the extruded part is produced from a mixture of a plastics material substance and particles , the particles being produced from a substance which does not fuse together with the plastics material substance or does so as little as possible so as to form a structured surface of the extruded part , the lacquer foil replicating the surface, structured by admixed particles , of the extruded part so as to form the structured surface of the plastics material element .
Industrial truck comprising - a mast , - a load-carrying apparatus , which can be moved upwards and downwards thereon and which has at least one load-receiving means for receiving a load that is to be transported and a support structure connecting the load-receiving means to the mast , the load-receiving means having a load-carrying arrangement connected to the support structure , and - a device for reducing vibrations, wherein the device for reducing vibrations has at least one load support , which covers the load-carrying arrangement at the top at least in regions, on which support a load received by the load-carrying apparatus can be supported and which support is provided so as to be movable to a limited extent on the load-carrying arrangement such that it can perform vibration-reducing movements relative to the load-carrying arrangement , wherein the load support is coupled to the load-carrying arrangement by a passive and/or active damping system which influences the movement of the load support relative to the load-carrying arrangement , characterized in that . the damping system comprises at least one active component, in particular at least one controllable hydraulic and/or pneumatic cylinder and/or at least one controllable electric motor, preferably a servomotor, the active component of the damping system acting between the load-carrying arrangement and the load support in order to apply pressure to the load support in a vibration-reducing manner. - a mast , - a load-carrying apparatus , which can be moved upwards and downwards thereon and which has at least one load-receiving means for receiving a load that is to be transported and a support structure connecting the load-receiving means to the mast , the load-receiving means having a load-carrying arrangement connected to the support structure , and - a device for reducing vibrations, wherein the device for reducing vibrations has at least one load support , which covers the load-carrying arrangement at the top at least in regions, on which support a load received by the load-carrying apparatus can be supported and which support is provided so as to be movable to a limited extent on the load-carrying arrangement such that it can perform vibration-reducing movements relative to the load-carrying arrangement , wherein the load support is coupled to the load-carrying arrangement by a passive and/or active damping system which influences the movement of the load support relative to the load-carrying arrangement , characterized in that . the damping system comprises at least one active component, in particular at least one controllable hydraulic and/or pneumatic cylinder and/or at least one controllable electric motor, preferably a servomotor, the active component of the damping system acting between the load-carrying arrangement and the load support in order to apply pressure to the load support in a vibration-reducing manner.
An arrangement for combusting purge gas originating from an ammonia fuel system fueling an ammonia fueled engine , the arrangement comprising: a boiler system comprising a burner , a fuel inlet configured to supply a fuel and thereby sustain a support flame in the burner , and a purge gas inlet being configured to intermittently receive purge gas from the ammonia fuel system and supply the purge gas to the burner , the purge gas comprising a mixture of ammonia and inert gas, wherein the burner is configured to combust the ammonia with the support flame, wherein the arrangement comprises the ammonia fuel system , and wherein the ammonia fuel system comprises an ammonia fuel source for storing ammonia, a fuel supply system , the ammonia fueled engine , and a purge source which contains the inert gas, and which is configured to purge ammonia from the ammonia fuel system to the purge gas inlet by flushing the inert gas through the ammonia fuel system . a boiler system comprising a burner , a fuel inlet configured to supply a fuel and thereby sustain a support flame in the burner , and a purge gas inlet being configured to intermittently receive purge gas from the ammonia fuel system and supply the purge gas to the burner , the purge gas comprising a mixture of ammonia and inert gas, a burner , a fuel inlet configured to supply a fuel and thereby sustain a support flame in the burner , and a purge gas inlet being configured to intermittently receive purge gas from the ammonia fuel system and supply the purge gas to the burner , the purge gas comprising a mixture of ammonia and inert gas, wherein the burner is configured to combust the ammonia with the support flame, wherein the arrangement comprises the ammonia fuel system , and wherein the ammonia fuel system comprises an ammonia fuel source for storing ammonia, a fuel supply system , the ammonia fueled engine , and a purge source which contains the inert gas, and which is configured to purge ammonia from the ammonia fuel system to the purge gas inlet by flushing the inert gas through the ammonia fuel system . an ammonia fuel source for storing ammonia, a fuel supply system , the ammonia fueled engine , and a purge source which contains the inert gas, and which is configured to purge ammonia from the ammonia fuel system to the purge gas inlet by flushing the inert gas through the ammonia fuel system .
A method performed by a network node for handling monitoring of applications and/or services in a communication network, wherein the network node is implemented in a cloud system, the method comprising: - obtaining an indication associated with a monitoring session to monitor a metric of a service and/or application; - obtaining a location of deployment of the service and/or application, wherein the location is a virtual machine or container; characterized by - identifying one or more ongoing monitoring sessions for monitoring one or more metrics based on the metric associated with the indication and the location of deployment of the application or service; - selecting a monitoring process based on the identification; and - triggering the selected monitoring process. - obtaining an indication associated with a monitoring session to monitor a metric of a service and/or application; - obtaining a location of deployment of the service and/or application, wherein the location is a virtual machine or container; characterized by - identifying one or more ongoing monitoring sessions for monitoring one or more metrics based on the metric associated with the indication and the location of deployment of the application or service; - selecting a monitoring process based on the identification; and - triggering the selected monitoring process.
A method for enabling a biometric template in an authentication token , the method comprising: capturing , by a biometric sensor comprised in the authentication token , at least one biometric sample; creating , by a processing unit comprised in the authentication token , a biometric template from the at least one biometric sample and storing said biometric template in the authentication token ; verifying , at a terminal device , said biometric template; verifying , by the terminal device , an identity of a user; enabling , by the terminal device , said biometric template if the biometric template and the identity of the user have been verified; wherein verifying the biometric template at the terminal device comprises: establishing a coupling between the authentication token and the terminal device ; capturing, by the biometric sensor, a further biometric sample; matching, by the processing unit, the further biometric sample against the biometric template stored in the authentication token ; concluding, by said processing unit, that the biometric template has been verified if the further biometric sample matches the biometric template; transmitting, by said processing unit through said coupling, if said biometric template has been verified, a signal indicative thereof to the terminal device . capturing , by a biometric sensor comprised in the authentication token , at least one biometric sample; creating , by a processing unit comprised in the authentication token , a biometric template from the at least one biometric sample and storing said biometric template in the authentication token ; verifying , at a terminal device , said biometric template; verifying , by the terminal device , an identity of a user; enabling , by the terminal device , said biometric template if the biometric template and the identity of the user have been verified; wherein verifying the biometric template at the terminal device comprises: establishing a coupling between the authentication token and the terminal device ; capturing, by the biometric sensor, a further biometric sample; matching, by the processing unit, the further biometric sample against the biometric template stored in the authentication token ; concluding, by said processing unit, that the biometric template has been verified if the further biometric sample matches the biometric template; transmitting, by said processing unit through said coupling, if said biometric template has been verified, a signal indicative thereof to the terminal device . establishing a coupling between the authentication token and the terminal device ; capturing, by the biometric sensor, a further biometric sample; matching, by the processing unit, the further biometric sample against the biometric template stored in the authentication token ; concluding, by said processing unit, that the biometric template has been verified if the further biometric sample matches the biometric template; transmitting, by said processing unit through said coupling, if said biometric template has been verified, a signal indicative thereof to the terminal device .
A signal multiplexing method, comprising: generating a core layer signal by using a core layer BICM unit; generating an enhanced layer signal by using an enhanced layer BICM unit; generating a power-reduced enhanced layer signal by reducing power of the enhanced layer signal; combining the core layer signal and the power-reduced enhanced layer signal to generate a multiplexed signal; reducing power of the multiplexed signal to power corresponding to the core layer signal; and performing time interleaving applied to both a core layer corresponding to the core layer signal and an enhanced layer corresponding to the enhanced layer signal, wherein the power-reduced enhanced layer signal is generated corresponding to a scaling factor, the power-reduced enhanced layer signal is generated from the enhanced layer signal and the power of the multiplexed signal is reduced corresponding to a normalizing factor, wherein the scaling factor is applied to the enhanced layer signal and the normalizing factor is applied to both the core layer signal and the power-reduced enhanced layer signal, wherein the scaling factor and the normalizing factor vary in opposite directions according to variation of power reduction corresponding to the power-reduced enhanced layer signal, wherein the normalizing factor corresponds to an injection level which is changed with one of predetermined step sizes, the step sizes including 0.5 dB. generating a core layer signal by using a core layer BICM unit; generating an enhanced layer signal by using an enhanced layer BICM unit; generating a power-reduced enhanced layer signal by reducing power of the enhanced layer signal; combining the core layer signal and the power-reduced enhanced layer signal to generate a multiplexed signal; reducing power of the multiplexed signal to power corresponding to the core layer signal; and performing time interleaving applied to both a core layer corresponding to the core layer signal and an enhanced layer corresponding to the enhanced layer signal, wherein the power-reduced enhanced layer signal is generated corresponding to a scaling factor, the power-reduced enhanced layer signal is generated from the enhanced layer signal and the power of the multiplexed signal is reduced corresponding to a normalizing factor, wherein the scaling factor is applied to the enhanced layer signal and the normalizing factor is applied to both the core layer signal and the power-reduced enhanced layer signal, wherein the scaling factor and the normalizing factor vary in opposite directions according to variation of power reduction corresponding to the power-reduced enhanced layer signal, wherein the normalizing factor corresponds to an injection level which is changed with one of predetermined step sizes, the step sizes including 0.5 dB.
A movable contact assembly , wherein the movable contact assembly comprises a movable contact , a movable contact pressure maintaining structure and a movable contact bracket ; the movable contact pressure maintaining structure holds the movable contact therein; the movable contact pressure maintaining structure is arranged in the movable contact bracket , the movable contact pressure maintaining structure is acting on the movable contact of a dual power transfer switch, wherein the movable contact pressure maintaining structure comprises at least one pair of springs and the movable contact is held between the two springs ; characterized in that the movable contact pressure maintaining structure comprises at least one pair of spring holders ; two corresponding spring holders in the at least one pair of spring holders are staggered and installed together relative to each other; the movable contact is held between the two spring holders , and the two spring holders are arranged such that two springs of the at least one pair of springs are respectively installed between the two spring holders in parallel. the movable contact assembly comprises a movable contact , a movable contact pressure maintaining structure and a movable contact bracket ; the movable contact pressure maintaining structure holds the movable contact therein; the movable contact pressure maintaining structure is arranged in the movable contact bracket , the movable contact pressure maintaining structure is acting on the movable contact of a dual power transfer switch, wherein the movable contact pressure maintaining structure comprises at least one pair of springs and the movable contact is held between the two springs ; characterized in that the movable contact pressure maintaining structure comprises at least one pair of spring holders ; two corresponding spring holders in the at least one pair of spring holders are staggered and installed together relative to each other; the movable contact is held between the two spring holders , and the two spring holders are arranged such that two springs of the at least one pair of springs are respectively installed between the two spring holders in parallel.
An ocean bottom seismic node , comprising: at least one seismic sensor with associated electronics, a primary oscillator for timing sensor signals, a memory, a power source for supplying electric power to the system, a switch, a processor for receiving sensor signals and storing them in the memory, a further oscillator wherein the seismic node is characterized by: the processor being configured to repeatedly control the frequency calibration of the primary oscillator using a frequency calibration value based on a frequency provided by the further oscillator, and to repeatedly calculate the frequency calibration value, the further oscillator being a reference oscillator of an atomic or another high quality type, the switch being configured for turning the reference oscillator on and off. at least one seismic sensor with associated electronics, a primary oscillator for timing sensor signals, a memory, a power source for supplying electric power to the system, a switch, a processor for receiving sensor signals and storing them in the memory, a further oscillator wherein the seismic node is characterized by: the processor being configured to repeatedly control the frequency calibration of the primary oscillator using a frequency calibration value based on a frequency provided by the further oscillator, and to repeatedly calculate the frequency calibration value, the further oscillator being a reference oscillator of an atomic or another high quality type, the switch being configured for turning the reference oscillator on and off. the processor being configured to repeatedly control the frequency calibration of the primary oscillator using a frequency calibration value based on a frequency provided by the further oscillator, and to repeatedly calculate the frequency calibration value, the further oscillator being a reference oscillator of an atomic or another high quality type, the switch being configured for turning the reference oscillator on and off.