mhurhangee/patent-ind-claim-en huggingface dataset:
A method of activating and deactivating a secondary cell, comprising: receiving (S110), by a terminal device, first indication information sent by a network device at a first starting time, the first indication information being used for indicating the terminal device to activate or deactivate a secondary cell of the terminal device; receiving (S 120), by the terminal device, second indication information sent by the network device at a second starting time, the second indication information being used for indicating the terminal device to activate or deactivate the secondary cell, wherein the second starting time is later than the first starting time, and the terminal device does not accomplish the activation or the deactivation of the secondary cell according to the first indication information at the second starting time; wherein an indication by the first indication information is different from an indication by the second indication information; after the second starting time, selecting (S 130), by the terminal device according to a preset rule, the first indication information or the second indication information to activate or deactivate the secondary cell; wherein the first indication information is a medium access control, MAC, control element, CE, and the second indication information is downlink control information, DCI; or the first indication information is the DCI, and the second indication information is the MAC CE. receiving (S110), by a terminal device, first indication information sent by a network device at a first starting time, the first indication information being used for indicating the terminal device to activate or deactivate a secondary cell of the terminal device; receiving (S 120), by the terminal device, second indication information sent by the network device at a second starting time, the second indication information being used for indicating the terminal device to activate or deactivate the secondary cell, wherein the second starting time is later than the first starting time, and the terminal device does not accomplish the activation or the deactivation of the secondary cell according to the first indication information at the second starting time; wherein an indication by the first indication information is different from an indication by the second indication information; after the second starting time, selecting (S 130), by the terminal device according to a preset rule, the first indication information or the second indication information to activate or deactivate the secondary cell; wherein the first indication information is a medium access control, MAC, control element, CE, and the second indication information is downlink control information, DCI; or the first indication information is the DCI, and the second indication information is the MAC CE.
Method for automatically checking the brakes of a track-bound vehicle , wherein - sensor data relating to the actuation of the brakes is captured by means of a trackside sensor device during and/or after an actuation of the brakes of the track-bound vehicle , and - the successful actuation of the respective brake or the respective group of brakes is checked on the basis of an evaluation of the sensor data specific to the respective brake or a respective group of brakes of the track-bound vehicle , characterised in that the sensor data is captured by means of a trackside sensor device in the form of a distributed acoustic sensor system which has at least one waveguide installed trackside in the region of the track-bound vehicle. - sensor data relating to the actuation of the brakes is captured by means of a trackside sensor device during and/or after an actuation of the brakes of the track-bound vehicle , and - the successful actuation of the respective brake or the respective group of brakes is checked on the basis of an evaluation of the sensor data specific to the respective brake or a respective group of brakes of the track-bound vehicle ,
Blank for dental purposes which has at least 2 layers, bonded to one another, of lithium silicate glass, lithium silicate glass with nuclei or lithium metasilicate glass ceramic, wherein the layers differ in colour and the layers are monolithic and wherein the lithium silicate glass, the lithium silicate glass with nuclei and the lithium metasilicate glass ceramic comprise 2.00 to 5.00 wt.-% K 2 O.
A vector for use in the treatment or prevention of a disease or condition, wherein: (i) said vector encodes a polynucleic acid polymer, wherein said polynucleic acid polymer hybridizes to a target sequence within a retained entire intron of a partially processed mRNA transcript, wherein the target sequence of the partially processed mRNA transcript does not comprise a splice site, and wherein the partially processed mRNA transcript comprising the target sequence encodes a full-length functional form of a protein encoded by the fully processed mRNA transcript; and (ii) said polynucleic acid polymer induces splicing out of the retained entire intron from the partially processed mRNA transcript to produce the fully processed mRNA transcript that encodes the full-length functional form of the protein; thereby (iii) intron retention in the mRNA transcript is corrected, thereby increasing expression of the full-length functional form of the protein encoded by the mRNA transcript. (i) said vector encodes a polynucleic acid polymer, wherein said polynucleic acid polymer hybridizes to a target sequence within a retained entire intron of a partially processed mRNA transcript, wherein the target sequence of the partially processed mRNA transcript does not comprise a splice site, and wherein the partially processed mRNA transcript comprising the target sequence encodes a full-length functional form of a protein encoded by the fully processed mRNA transcript; and (ii) said polynucleic acid polymer induces splicing out of the retained entire intron from the partially processed mRNA transcript to produce the fully processed mRNA transcript that encodes the full-length functional form of the protein; thereby (iii) intron retention in the mRNA transcript is corrected, thereby increasing expression of the full-length functional form of the protein encoded by the mRNA transcript.
A process for processing waste incineration ash (A), wherein a process for classifying the ash (A) and a process for the recovery of phosphates (P) from the ash (A) are combined with each other, wherein the ash (A) is subjected to a wet classification and mixed thereby with a liquid (L), wherein, for the resolution of the phosphates (P), the ash (A) is treated with an acidic aqueous solution (L) and then the phosphates (P) contained in the solution (L) are isolated, and wherein the liquid with which the ash (A) is mixed in the framework of the wet classification is the acidic aqueous solution (L) with which the ash (A) is treated for the resolution of the phosphates (P).
A method, comprising: storing a list of closed subscriber groups , the stored list indicating a membership in the stored closed subscriber groups; receiving a user command to search available network elements ; indicating to the user the results of searching available network elements based on the stored list of closed subscriber groups ; and selecting a network element corresponding to the closed subscriber group indicated by a further user command . storing a list of closed subscriber groups , the stored list indicating a membership in the stored closed subscriber groups; receiving a user command to search available network elements ; indicating to the user the results of searching available network elements based on the stored list of closed subscriber groups ; and selecting a network element corresponding to the closed subscriber group indicated by a further user command .
A urinary catheter, comprising: a hydrophilic coating disposed on an outer surface of the urinary catheter, wherein the hydrophilic coating includes tocopherol in an amount greater than 3.5 weight percent of the hydrophilic coating, wherein the hydrophilic coating having a first visual appearance when in a non-hydrated state and transitioning to a second visual appearance when in a hydrated state. a hydrophilic coating disposed on an outer surface of the urinary catheter, wherein the hydrophilic coating includes tocopherol in an amount greater than 3.5 weight percent of the hydrophilic coating, wherein the hydrophilic coating having a first visual appearance when in a non-hydrated state and transitioning to a second visual appearance when in a hydrated state.
A downhole system for unloading a liquid of a well in an annulus between an intermediate casing and a production tubular metal structure , comprising: - the intermediate casing, - a pump at a top of the well, configured to pressurise the annulus to displace the liquid in the annulus, - the production tubular metal structure having a first inner diameter (ID1), arranged partly in the intermediate casing, thereby defining the annulus, - a production packer arranged between the intermediate casing and the production tubular metal structure, and - a first liquid unloading assembly and a second liquid unloading assembly , each comprising: - a tubular part having a wall having a second inner diameter (ID2), an outer face and an aperture , the tubular part being configured to be mounted as part of the production tubular metal structure, and - a check valve connected with the outer face, the check valve having an inlet in fluid communication with the annulus and an outlet in fluid communication with the aperture, characterised in that the downhole system further comprises a sliding sleeve for each of the first and second liquid unloading assemblies arranged opposite each of the first and second liquid unloading assemblies to slide along an inner face of the tubular part between an open position and a closed position to open or close the aperture for opening or closing fluid communication to the first and second liquid unloading assemblies. - the intermediate casing, - a pump at a top of the well, configured to pressurise the annulus to displace the liquid in the annulus, - the production tubular metal structure having a first inner diameter (ID1), arranged partly in the intermediate casing, thereby defining the annulus, - a production packer arranged between the intermediate casing and the production tubular metal structure, and - a first liquid unloading assembly and a second liquid unloading assembly , each comprising: - a tubular part having a wall having a second inner diameter (ID2), an outer face and an aperture , the tubular part being configured to be mounted as part of the production tubular metal structure, and - a check valve connected with the outer face, the check valve having an inlet in fluid communication with the annulus and an outlet in fluid communication with the aperture, - a tubular part having a wall having a second inner diameter (ID2), an outer face and an aperture , the tubular part being configured to be mounted as part of the production tubular metal structure, and - a check valve connected with the outer face, the check valve having an inlet in fluid communication with the annulus and an outlet in fluid communication with the aperture,
A heat transfer press comprises: a base ; a handle pivotally coupled to the base ; a controller integrally formed with the handle ; a lower platen connected to the base ; and an upper platen , wherein a surface (S 22 ) of the upper platen is in contact with a surface (S 20 ) of the lower platen in a first position, and the surface (S 22 ) of the upper platen is separated from the surface (S 20 ) of the lower platen in a second position, characterized in, that the heat press further comprises: a heater arm pivotally coupled to the base ; a pressure link pivotally coupled to the handle and the heater arm , wherein the upper platen is connected to the heater arm . a base ; a handle pivotally coupled to the base ; a controller integrally formed with the handle ; a lower platen connected to the base ; and an upper platen , wherein a surface (S 22 ) of the upper platen is in contact with a surface (S 20 ) of the lower platen in a first position, and the surface (S 22 ) of the upper platen is separated from the surface (S 20 ) of the lower platen in a second position, characterized in, that the heat press further comprises: a heater arm pivotally coupled to the base ; a pressure link pivotally coupled to the handle and the heater arm , wherein the upper platen is connected to the heater arm . a heater arm pivotally coupled to the base ; a pressure link pivotally coupled to the handle and the heater arm , wherein the upper platen is connected to the heater arm .
A load control device for controlling the amount of power delivered to an electrical load , the load control device comprising: an isolated forward converter operable to receive a bus voltage and to conduct a load current through the electrical load, the forward converter comprising a transformer that comprises a primary winding coupled in series with a first semiconductor switch (Q210) and a secondary winding adapted to be operatively coupled to the electrical load, the forward converter further comprising a sense resistor (R222) coupled in series with the primary winding for producing a sense voltage representative of a primary current conducted through the primary winding; a controller coupled to the forward converter for controlling the first semiconductor switch to control the load current conducted through the electrical load, wherein the controller is operable to control the magnitude of the load current to control the amount of power delivered to the electrical load to a target amount of power; and a current sense circuit operable to receive the sense voltage and to average the sense voltage for an on time during which the first semiconductor switch of the forward converter is conductive plus an additional amount of time when the target amount of power to be delivered to the electrical load is less than a threshold amount, so as to generate a load current control signal that is representative of a real component of the primary current. an isolated forward converter operable to receive a bus voltage and to conduct a load current through the electrical load, the forward converter comprising a transformer that comprises a primary winding coupled in series with a first semiconductor switch (Q210) and a secondary winding adapted to be operatively coupled to the electrical load, the forward converter further comprising a sense resistor (R222) coupled in series with the primary winding for producing a sense voltage representative of a primary current conducted through the primary winding; a controller coupled to the forward converter for controlling the first semiconductor switch to control the load current conducted through the electrical load, wherein the controller is operable to control the magnitude of the load current to control the amount of power delivered to the electrical load to a target amount of power; and a current sense circuit operable to receive the sense voltage and to average the sense voltage for an on time during which the first semiconductor switch of the forward converter is conductive plus an additional amount of time when the target amount of power to be delivered to the electrical load is less than a threshold amount, so as to generate a load current control signal that is representative of a real component of the primary current.
An insulin analog peptide comprising an A-chain of SEQ ID NO: 3 indicated in the following General Formula 1 and a B-chain of SEQ ID NO: 4 indicated in the following General Formula 2: wherein: (i) in the A-chain of SEQ ID NO: 3, Xaa1 is glycine, Xaa2 is glutamine, Xaa3 is serine, Xaa4 is glutamic acid, Xaa5 is leucine, Xaa6 is tyrosine, and Xaa7 is asparagine, and in the B-chain of SEQ ID NO: 4, Xaa8 is tyrosine, Xaa9 is absent, Xaa10 is threonine, and Xaa11 is proline, optionally wherein the peptide comprises an amino acid sequence represented by SEQ ID NO: 20; or (ii) in the A-chain of SEQ ID NO: 3, Xaa1 is glycine, Xaa2 is glutamine, Xaa3 is serine, Xaa4 is aspartic acid, Xaa5 is leucine, Xaa6 is tyrosine, and Xaa7 is asparagine, and in the B-chain of SEQ ID NO: 4, Xaa8 is tyrosine, Xaa9 is phenylalanine, Xaa10 is threonine, and Xaa11 is proline. (i) in the A-chain of SEQ ID NO: 3, Xaa1 is glycine, Xaa2 is glutamine, Xaa3 is serine, Xaa4 is glutamic acid, Xaa5 is leucine, Xaa6 is tyrosine, and Xaa7 is asparagine, and in the B-chain of SEQ ID NO: 4, Xaa8 is tyrosine, Xaa9 is absent, Xaa10 is threonine, and Xaa11 is proline, optionally wherein the peptide comprises an amino acid sequence represented by SEQ ID NO: 20; or (ii) in the A-chain of SEQ ID NO: 3, Xaa1 is glycine, Xaa2 is glutamine, Xaa3 is serine, Xaa4 is aspartic acid, Xaa5 is leucine, Xaa6 is tyrosine, and Xaa7 is asparagine, and in the B-chain of SEQ ID NO: 4, Xaa8 is tyrosine, Xaa9 is phenylalanine, Xaa10 is threonine, and Xaa11 is proline.
Time-of-flight mass spectrometer, consisting of an ion source of the electrospray type, an orthogonal ion accelerator pulser, including an area of accumulation and an area of acceleration of ions, a field-free flight space, a transaxial electrostatic mirror and a detector , characterized in that: . - the area of ion acceleration includes a four-electrode immersion objective, consisting of a grid electrode with a pulling potential ( U pull ) and three or more gridless electrodes in the form of a pair of parallel plates separated by straight gaps, creating an inhomogeneous electrostatic field of two-dimensional symmetry; and - the electrostatic mirror consists of three or more gridless electrodes in the form of a pair of parallel plates separated by annular gaps, which create an inhomogeneous electrostatic field of transaxial symmetry. - the area of ion acceleration includes a four-electrode immersion objective, consisting of a grid electrode with a pulling potential ( U pull ) and three or more gridless electrodes in the form of a pair of parallel plates separated by straight gaps, creating an inhomogeneous electrostatic field of two-dimensional symmetry; and - the electrostatic mirror consists of three or more gridless electrodes in the form of a pair of parallel plates separated by annular gaps, which create an inhomogeneous electrostatic field of transaxial symmetry.
Method for piloting a lateral-control system for the lateral control of a motor vehicle comprising a wheel-steering system configured to direct the steered wheels of the vehicle, wherein: - a vehicle lateral-positioning error (D YE ) is calculated notably as a function of a vehicle desired lateral acceleration (A L ) and of a vehicle speed (V); - the vehicle dynamics are modelled as a function of the vehicle speed (V) and of a steering wheel angle value (ω) ; said method being characterized in that : - a maximum steering wheel angle value (ω(max)) is calculated as a function of the calculated lateral-positioning error (D YE ) , - the steering system is modelled as a function of a steering wheel angle relationship (w(V)) between a maximum steering wheel angle (ω) and the vehicle speed (V), the maximum value of the maximum steering wheel angle (ω(max)) is compared against the steering wheel angle relationship (w(V)) provided by the manufacturer, and the smaller of the two steering wheel angle values (w) is transmitted for modelling the vehicle dynamics. - a vehicle lateral-positioning error (D YE ) is calculated notably as a function of a vehicle desired lateral acceleration (A L ) and of a vehicle speed (V); - the vehicle dynamics are modelled as a function of the vehicle speed (V) and of a steering wheel angle value (ω) ; - a maximum steering wheel angle value (ω(max)) is calculated as a function of the calculated lateral-positioning error (D YE ) , - the steering system is modelled as a function of a steering wheel angle relationship (w(V)) between a maximum steering wheel angle (ω) and the vehicle speed (V), the maximum value of the maximum steering wheel angle (ω(max)) is compared against the steering wheel angle relationship (w(V)) provided by the manufacturer, and the smaller of the two steering wheel angle values (w) is transmitted for modelling the vehicle dynamics.
A composition comprising one or more peptides selected from the group consisting of SEQ ID NOs: 18 and 20 and variants thereof having at least 80% identity to SEQ ID NO: 20; and/or comprising one or more polynucleotide sequences selected from the group consisting of SEQ ID NOs: 95 and 152, and variants thereof having at least 80% identity to SEQ ID NO: 95.
An industrial truck without an inclination sensor, having at least one vehicle battery in which an inclination sensor is arranged, wherein the industrial truck has a battery-powered traction drive and a vehicle controller , wherein each of the at least one battery is provided with a battery controller , measurement values of the voltage and/or current of the battery being applied thereto, wherein the battery controller is connected to the vehicle controller for exchanging signals and the inclination sensor is configured to apply a value of a detected inclination to the battery controller which is configured to transmit the value of the detected inclination to the vehicle controller .
Method of manufacturing plastic containers by means of a blow molding machine, wherein the blow molding machine is operated such that at least two different plastic containers are output from the blow molding machine within one production cycle, wherein the at least two different plastic containers are manufactured from preforms , characterized in that a heating device (101; 601; 701; 801; 901; 1001; 1101) of the blow molding machine is controlled such that the preforms are heated to different temperatures before a blow molding process.
Luminaire having a carrier profile and a light unit which carries lighting means of the luminaire, wherein the light unit has at least one side wall which is formed in two parts, wherein one part of the side wall is connected to the light unit and the second part of the side wall is connected to the carrier profile , wherein the two parts of the side wall are pivotable relative to one another in order to pivot the light unit relative to the carrier profile , characterized in that an electrical line is laid in the side wall in each of the pivoting positions without kinks, wherein at least one guide dome is provided on one of the parts of the side wall, which guide dome holds the line in position in each of the pivoting movements. wherein the light unit has at least one side wall which is formed in two parts, wherein one part of the side wall is connected to the light unit and the second part of the side wall is connected to the carrier profile , wherein the two parts of the side wall are pivotable relative to one another in order to pivot the light unit relative to the carrier profile , characterized in that an electrical line is laid in the side wall in each of the pivoting positions without kinks, wherein at least one guide dome is provided on one of the parts of the side wall, which guide dome holds the line in position in each of the pivoting movements.