mhurhangee/patent-ind-claim-en huggingface dataset:
A prefilled syringe containing a stable liquid pharmaceutical formulation, wherein the liquid pharmaceutical formulation comprises: (i) a human antibody that specifically binds to human interleukin-4 receptor alpha (hIL-4Rα) at a concentration up to 200 mg/ml, wherein said human antibody that specifically binds to hIL-4R consists of two heavy chains and two light chains, each heavy chain comprising a heavy chain variable region (HCVR) comprising the amino acid sequence of SEQ ID NO: 1 and a heavy chain constant region comprising domains CH1, CH2 and CH3, and each light chain comprising a light chain variable region (LCVR) comprising the amino acid sequence SEQ ID NO:5 and a light chain constant region; (ii) acetate at a concentration of 12.5 mM ± 2 mM; (iii) histidine at a concentration of 20 mM ± 3 mM; (iv) sucrose at a concentration of 5% w/v ± 0.75% w/v; (v) polysorbate 20 or polysorbate 80 at a concentration of 0.2% w/v ± 0.03% w/v; and (vi) arginine at a concentration of 25 mM ± 3.75 mM or at a concentration of 50 mM ± 7.5 mM; wherein the formulation has a pH of 5.6 to 6.2, and wherein at least 90% of the native form of the antibody is recovered after six months of storage at 5°C, as determined by size exclusion chromatography. (i) a human antibody that specifically binds to human interleukin-4 receptor alpha (hIL-4Rα) at a concentration up to 200 mg/ml, wherein said human antibody that specifically binds to hIL-4R consists of two heavy chains and two light chains, each heavy chain comprising a heavy chain variable region (HCVR) comprising the amino acid sequence of SEQ ID NO: 1 and a heavy chain constant region comprising domains CH1, CH2 and CH3, and each light chain comprising a light chain variable region (LCVR) comprising the amino acid sequence SEQ ID NO:5 and a light chain constant region; (ii) acetate at a concentration of 12.5 mM ± 2 mM; (iii) histidine at a concentration of 20 mM ± 3 mM; (iv) sucrose at a concentration of 5% w/v ± 0.75% w/v; (v) polysorbate 20 or polysorbate 80 at a concentration of 0.2% w/v ± 0.03% w/v; and (vi) arginine at a concentration of 25 mM ± 3.75 mM or at a concentration of 50 mM ± 7.5 mM;
A wireless power transmitter, comprising: an inverter configured to produce at its output a first signal having a first frequency or a second signal having a second frequency; a first transmit coil coupled to the output of the inverter and configured to wirelessly transmit power at the first frequency; a second transmit coil coupled to the output of the inverter and configured to wirelessly transmit power at the second frequency; and at least one matching network coupled to the first transmit coil, the second transmit coil, and the output of the inverter, the at least one matching network being configured to provide power to the first transmit coil in response to the first signal and inhibit providing power to the second transmit coil in response to the first signal, the at least one matching network having: a first impedance between the output of the inverter and the first transmit coil, and a second impedance between the output of the inverter and the second transmit coil, the wireless power transmitter being characterized in that : a resistor is configured to be switched into parallel with the second transmit coil, and the first impedance is at least twenty-five times lower than the second impedance at the first frequency. an inverter configured to produce at its output a first signal having a first frequency or a second signal having a second frequency; a first transmit coil coupled to the output of the inverter and configured to wirelessly transmit power at the first frequency; a second transmit coil coupled to the output of the inverter and configured to wirelessly transmit power at the second frequency; and at least one matching network coupled to the first transmit coil, the second transmit coil, and the output of the inverter, the at least one matching network being configured to provide power to the first transmit coil in response to the first signal and inhibit providing power to the second transmit coil in response to the first signal, the at least one matching network having: a first impedance between the output of the inverter and the first transmit coil, and a second impedance between the output of the inverter and the second transmit coil, the wireless power transmitter being characterized in that : a resistor is configured to be switched into parallel with the second transmit coil, and the first impedance is at least twenty-five times lower than the second impedance at the first frequency. a resistor is configured to be switched into parallel with the second transmit coil, and the first impedance is at least twenty-five times lower than the second impedance at the first frequency.
A system for the automatic manufacture of artificial hedge composed of, at least, one braiding machine , for the braids that will form the hedge , and a weaving machine , wherein said system comprises: - Transfer means of the braids obtained from the at least one braiding machine to the weaving machine , said transfer means being arranged between both machines, and wherein said transfer means consists of a conveyor belt with drawers placed beneath the braiding machine , wherein each braid is collected by a drawer and transferred to the entry point of the weaving machine ; and - Means for introducing each of the braids successively into the weaving machine by an air propulsion system; wherein the weaving machine comprises: - a fuller , - a sewing device for the braids that enter the fuller with lines distributed at different heights of the braids , wherein the sewing device has, for each line, two wire coils and a rotating head for the wires, wherein the rotation head has a rotational movement of 180 ° in o ne di r e c ti o n and in the oppo site di r e c ti o n alte r natively f or ea c h b r aid , - a cutting device for cutting the hedge at different heights, wherein said hedge has been obtained by sewing said wires transversely to the braids , - a folding device for the ends of the cut hedge sections, and - a roller for the cut sections. - Transfer means of the braids obtained from the at least one braiding machine to the weaving machine , said transfer means being arranged between both machines, and wherein said transfer means consists of a conveyor belt with drawers placed beneath the braiding machine , wherein each braid is collected by a drawer and transferred to the entry point of the weaving machine ; and - Means for introducing each of the braids successively into the weaving machine by an air propulsion system; wherein the weaving machine comprises: - a fuller , - a sewing device for the braids that enter the fuller with lines distributed at different heights of the braids , wherein the sewing device has, for each line, two wire coils and a rotating head for the wires, wherein the rotation head has a rotational movement of 180 ° in o ne di r e c ti o n and in the oppo site di r e c ti o n alte r natively f or ea c h b r aid , - a cutting device for cutting the hedge at different heights, wherein said hedge has been obtained by sewing said wires transversely to the braids , - a folding device for the ends of the cut hedge sections, and - a roller for the cut sections. - a fuller , - a sewing device for the braids that enter the fuller with lines distributed at different heights of the braids , wherein the sewing device has, for each line, two wire coils and a rotating head for the wires, wherein the rotation head has a rotational movement of 180 ° in o ne di r e c ti o n and in the oppo site di r e c ti o n alte r natively f or ea c h b r aid , - a cutting device for cutting the hedge at different heights, wherein said hedge has been obtained by sewing said wires transversely to the braids , - a folding device for the ends of the cut hedge sections, and - a roller for the cut sections.
An automatic analyzer comprising: an analysis unit adapted to analyze a sample; a display device adapted to display information related to maintenance in the analyzer including the analysis unit; and an overall control unit adapted to control operations of the automatic analyzer and to control the execution of maintenance in the background in parallel to the operations, wherein the overall control unit is further adapted to control a constant display area (701; 901) with a maintenance button to be always displayed on a display screen of the display device, wherein when the user is required to carry out a user action while the maintenance in the analyzer is being executed in the background and a screen other than a maintenance screen is displayed on the display device, the overall control unit is adapted to display notification information for the user action on the screen including the constant display area of the display device and to highlight the maintenance button in the constant display area upon the display of the notification information, and wherein the overall control unit is adapted to cause a maintenance operation screen to be displayed when the button is pressed. an analysis unit adapted to analyze a sample; a display device adapted to display information related to maintenance in the analyzer including the analysis unit; and an overall control unit adapted to control operations of the automatic analyzer and to control the execution of maintenance in the background in parallel to the operations, wherein the overall control unit is further adapted to control a constant display area (701; 901) with a maintenance button to be always displayed on a display screen of the display device, wherein when the user is required to carry out a user action while the maintenance in the analyzer is being executed in the background and a screen other than a maintenance screen is displayed on the display device, the overall control unit is adapted to display notification information for the user action on the screen including the constant display area of the display device and to highlight the maintenance button in the constant display area upon the display of the notification information, and wherein the overall control unit is adapted to cause a maintenance operation screen to be displayed when the button is pressed.
A method for management of Radio Resource Control, RRC, configurations between interworking nodes in dual connectivity in a wireless communication system, the method comprising: determining, by a secondary node, whether a signaling radio bearer, SRB, of a secondary node is pre-configured in a secondary cell group, SCG; deciding, by the secondary node, to perform secondary node modification to a user equipment, UE, in response to determining that the SRB of the secondary node is pre-configured; transmitting, by the secondary node, a RRC connection reconfiguration message to the UE without coordinating with a master node; and receiving, by the secondary node, a RRC connection reconfiguration complete message from the UE. determining, by a secondary node, whether a signaling radio bearer, SRB, of a secondary node is pre-configured in a secondary cell group, SCG; deciding, by the secondary node, to perform secondary node modification to a user equipment, UE, in response to determining that the SRB of the secondary node is pre-configured; transmitting, by the secondary node, a RRC connection reconfiguration message to the UE without coordinating with a master node; and receiving, by the secondary node, a RRC connection reconfiguration complete message from the UE.
Method of manufacturing printed sheets out of a web , wherein the web or a foil is coated with a fluid in a first step , wherein the web is subsequently treated by means of the foil in a second step , wherein the web is subsequently cut into sheets in a third step , wherein the sheets are subsequently printed on in a fourth step , and wherein cutting marks formed by a glued-on cold-foil transfer layer or by cold-foil glue without cold foil or by an embossed cast-and-cure surface structure or by a cast-and-cure fluid without embossment are applied to the web before the third step . wherein the web is subsequently treated by means of the foil in a second step , wherein the web is subsequently cut into sheets in a third step , wherein the sheets are subsequently printed on in a fourth step , and wherein cutting marks formed by a glued-on cold-foil transfer layer or by cold-foil glue without cold foil or by an embossed cast-and-cure surface structure or by a cast-and-cure fluid without embossment are applied to the web before the third step .
Hand-held machine tool which is able to be operated in at least one screwdriver mode and has a housing in which at least one drive motor for driving an assigned tool receptacle is disposed, wherein provided is a depth stop unit for delimiting an adjustable screw-in depth in the screwdriver mode, and wherein the depth stop unit has a depth adjustment sleeve as well as the tool receptacle and by way of an adjustment device (149; 549) is adjustable in a screwing-in position for a screwing-in procedure, and in an unscrewing position for an unscrewing procedure, characterized in that the adjustment device has at least two impingement webs which are mutually spaced apart in the axial direction of the depth stop unit , wherein the two impingement webs in the circumferential direction of the depth stop unit form in each case one receptacle (214, 216; 622, 624), and wherein a receptacle assigned to the screwing-in position is disposed closer to a free end of the depth stop unit than a receptacle assigned to the unscrewing position.
Transmission method in a first node device of a power line communication network , the first node device being configured so as to apply a reception mode for receiving data transmitted by a second node device in one or more separate frequency bands in parallel, comprising steps of: - converting data received in the form of an analogue signal in one or more of said separate frequency bands into a first series of data, - filtering said first series of data in parallel through the same number of filtering circuits as there are frequency bands for which the first node device is configured in reception mode, so as to obtain the same number of second series of data as there are frequency bands for which the first node device is configured in reception mode, - demodulating said second series of data through the same number of demodulation circuits as there are frequency bands for which the first node device is configured in reception mode, so as to obtain third series of data, and - recording the third series of data in a first buffer memory (MEM1 27), the method being characterized in that it furthermore comprises steps of: - de-interleaving (S3) data, for each of the separate frequency bands, in a de-interleaving mode (DE2) specific to the separate frequency band for which the de-interleaving is performed, detecting whether the de-interleaved data are coherent and, if the de-interleaved data are coherent (S4), supplying (S5) the de-interleaved data with a view to subsequent processing. - converting data received in the form of an analogue signal in one or more of said separate frequency bands into a first series of data, - filtering said first series of data in parallel through the same number of filtering circuits as there are frequency bands for which the first node device is configured in reception mode, so as to obtain the same number of second series of data as there are frequency bands for which the first node device is configured in reception mode, - demodulating said second series of data through the same number of demodulation circuits as there are frequency bands for which the first node device is configured in reception mode, so as to obtain third series of data, and - recording the third series of data in a first buffer memory (MEM1 27), - de-interleaving (S3) data, for each of the separate frequency bands, in a de-interleaving mode (DE2) specific to the separate frequency band for which the de-interleaving is performed, detecting whether the de-interleaved data are coherent and, if the de-interleaved data are coherent (S4), supplying (S5) the de-interleaved data with a view to subsequent processing.
Method for purging paint circuits coated with a non-cured paint, wherein a paint circuit is brought into contact with a waterborne purge cleaner solution comprising at least one glycolether, characterized in that it additionally comprises at least one water-soluble amine having 7 to 15 carbon atoms.
A method of identifying an operating parameter of a wind turbine that contributes to the generation of tonal noise, the method comprising: acquiring operating parameter data associated with a plurality of operating parameters of the wind turbine , wherein the operating parameter data comprises a set of values for each operating parameter of the wind turbine obtained during operation of the wind turbine; acquiring noise data that includes data indicative of tonal noise produced by the wind turbine and is synchronised with the operating parameter data ; the method being characterised by : binning into a plurality of bins the noise data with respect to a first operating parameter ; for one or more of the bins, analysing the noise data in the bin with respect to a set of values of a second operating parameter and determining a relationship between the second operating parameter and tonal noise produced by the wind turbine based on the analysis, the relationship identifying the second operating parameter as contributing to the generation of tonal noise produced by the wind turbine. acquiring operating parameter data associated with a plurality of operating parameters of the wind turbine , wherein the operating parameter data comprises a set of values for each operating parameter of the wind turbine obtained during operation of the wind turbine; acquiring noise data that includes data indicative of tonal noise produced by the wind turbine and is synchronised with the operating parameter data ; the method being characterised by : binning into a plurality of bins the noise data with respect to a first operating parameter ; for one or more of the bins, analysing the noise data in the bin with respect to a set of values of a second operating parameter and determining a relationship between the second operating parameter and tonal noise produced by the wind turbine based on the analysis, the relationship identifying the second operating parameter as contributing to the generation of tonal noise produced by the wind turbine. binning into a plurality of bins the noise data with respect to a first operating parameter ; for one or more of the bins, analysing the noise data in the bin with respect to a set of values of a second operating parameter and determining a relationship between the second operating parameter and tonal noise produced by the wind turbine based on the analysis, the relationship identifying the second operating parameter as contributing to the generation of tonal noise produced by the wind turbine.
An adaptor , used for connecting a front end device with a back end device , the adaptor comprising: a controller , configured to generate a power controlling signal according to a first data signal received from the front end device ; and a modulator circuit , configured to modulate a power signal according to the power controlling signal, and output a modulated signal to an output terminal of the modulator circuit , the power signal being received from the front end device and supplied to the controller , wherein the modulator circuit comprises a first switching element (Q3) and a second switching element (Q1), wherein the output terminal comprises two pins, a first pin and a second pin, wherein the first switching element (Q3) is connected between the first pin and a VDD pin of the controller , wherein the modulator circuit comprises a first diode (D3) and a second diode (D4), wherein the first diode (D3) is set between the first pin and the second pin, and the second diode (D4) is set between the first pin and the VDD pin of the controller . a controller , configured to generate a power controlling signal according to a first data signal received from the front end device ; and a modulator circuit , configured to modulate a power signal according to the power controlling signal, and output a modulated signal to an output terminal of the modulator circuit , modulate a power signal according to the power controlling signal, and output a modulated signal to an output terminal of the modulator circuit , the power signal being received from the front end device and supplied to the controller , wherein the modulator circuit comprises a first switching element (Q3) and a second switching element (Q1), wherein the output terminal comprises two pins, a first pin and a second pin, wherein the first switching element (Q3) is connected between the first pin and a VDD pin of the controller , wherein the modulator circuit comprises a first diode (D3) and a second diode (D4), wherein the first diode (D3) is set between the first pin and the second pin, and the second diode (D4) is set between the first pin and the VDD pin of the controller .
An oven , comprising: a housing including a ceiling , a floor , two opposite side walls , and an opening therethrough forming at least one internal heating zone for receiving an oven or cooking accessory therein; heating means for providing heat to the heating zone; a high emissivity thermal protective layer disposed on at least one substrate surface therein in which the substrate surface comprises a metal or ceramic surface; wherein, when the substrate surface is a metal surface, the high emissivity thermal protective layer, comprises from about 5% to about 30% of an inorganic adhesive, from about 45% to about 92% of at least one filler, and from about 1% to about 25% of one or more emissivity agents; and when the substrate surface is a ceramic surface, the high emissivity thermal protective layer comprises from about 5% to about 35% of colloidal silica, colloidal alumina, or combinations thereof, from about 23% to about 79% of at least one filler, and from about 1% to about 25% of one or more emissivity agents. a housing including a ceiling , a floor , two opposite side walls , and an opening therethrough forming at least one internal heating zone for receiving an oven or cooking accessory therein; heating means for providing heat to the heating zone; a high emissivity thermal protective layer disposed on at least one substrate surface therein in which the substrate surface comprises a metal or ceramic surface; wherein, when the substrate surface is a metal surface, the high emissivity thermal protective layer, comprises from about 5% to about 30% of an inorganic adhesive, from about 45% to about 92% of at least one filler, and from about 1% to about 25% of one or more emissivity agents; and when the substrate surface is a ceramic surface, the high emissivity thermal protective layer comprises from about 5% to about 35% of colloidal silica, colloidal alumina, or combinations thereof, from about 23% to about 79% of at least one filler, and from about 1% to about 25% of one or more emissivity agents.
Device for applying electrical current to plants , comprising at least two modules, a first module comprising at least one applying device for applying an electrical-contact-resistance-lowering medium onto plants , and a second module comprising at least one application device for applying electrical current to plants , characterized in that the applying device is designed in the form of a nozzle , and in that the applying device is movably arranged.