mhurhangee/ep-ind-claims huggingface dataset:
A programmable gate controller system for controlling an inverter, the programmable gate controller system comprising: at least one programmable gate controller (92,94,96) connected to a central controller; at least one half bridge having a first power switch and a second power switch interconnected with and controllable by said programmable gate controller (92,94,96); said programmable gate controller (92,94,96) including an amplifier (122, 122b) for driving said first power switch and said second power switch and a programmable device (120, 120b) for operating said amplifier (122,122b); and said programmable gate controller (92,94,96) configured to generate commands, in response to a sensor that senses a local condition at the first and second power switches (24b,26b), to vary the switching rate and/or on/off ratio of the first and second power switches (24b,26b) and to anticipate one or more potential failure modes of the first and second power switches (24b,26b); in which inputs for the programmable gate controller (92,94,96) comprise a power supply voltage of a power supply for the programmable gate controller, leg current and leg voltage of an output of the half-bridge, switch currents, switch voltages, switch temperatures, gate voltages and gate currents of the first and second power switches (24b,26b). at least one programmable gate controller (92,94,96) connected to a central controller; at least one half bridge having a first power switch and a second power switch interconnected with and controllable by said programmable gate controller (92,94,96); said programmable gate controller (92,94,96) including an amplifier (122, 122b) for driving said first power switch and said second power switch and a programmable device (120, 120b) for operating said amplifier (122,122b); and said programmable gate controller (92,94,96) configured to generate commands, in response to a sensor that senses a local condition at the first and second power switches (24b,26b), to vary the switching rate and/or on/off ratio of the first and second power switches (24b,26b) and to anticipate one or more potential failure modes of the first and second power switches (24b,26b); in which inputs for the programmable gate controller (92,94,96) comprise a power supply voltage of a power supply for the programmable gate controller, leg current and leg voltage of an output of the half-bridge, switch currents, switch voltages, switch temperatures, gate voltages and gate currents of the first and second power switches (24b,26b).
A method for producing a multispecific antibody comprising a first polypeptide and a second polypeptide whose isoelectric points are different, wherein the method comprises the steps of: (a) modifying both or either one of a nucleic acid encoding the amino acid residues of the first polypeptide and a nucleic acid encoding the amino acid residues of the second polypeptide, such that the difference between the isoelectric point of the first polypeptide and that of the second polypeptide will be 0.5 or more, wherein the modified position(s) of said nucleic acid is/are selected from the group consisting of (i) and (ii) below: (i) at least one of the positions 1, 3, 5, 8, 10, 12, 13, 15, 16, 19, 23, 25, 26, 39, 42, 43, 44, 46, 68, 71, 72, 73, 75, 76, 81, 82b, 83, 85, 86, 97, 105, 108, 110, and 112, Kabat numbering, in the H chain variable region, and (ii) at least one of the positions 137, 196, 203, 214, 217, 233, 268, 274, 276, 297, 355, 392, 419, and 435, EU numbering, in the H chain constant region; (b) culturing host cells to express the nucleic acids; and (c) collecting the multispecific antibody from the host cell culture, using the difference in isoelectric point, wherein the first polypeptide and the second polypeptide comprise a heavy chain variable region. (a) modifying both or either one of a nucleic acid encoding the amino acid residues of the first polypeptide and a nucleic acid encoding the amino acid residues of the second polypeptide, such that the difference between the isoelectric point of the first polypeptide and that of the second polypeptide will be 0.5 or more, wherein the modified position(s) of said nucleic acid is/are selected from the group consisting of (i) and (ii) below: (i) at least one of the positions 1, 3, 5, 8, 10, 12, 13, 15, 16, 19, 23, 25, 26, 39, 42, 43, 44, 46, 68, 71, 72, 73, 75, 76, 81, 82b, 83, 85, 86, 97, 105, 108, 110, and 112, Kabat numbering, in the H chain variable region, and (ii) at least one of the positions 137, 196, 203, 214, 217, 233, 268, 274, 276, 297, 355, 392, 419, and 435, EU numbering, in the H chain constant region; (i) at least one of the positions 1, 3, 5, 8, 10, 12, 13, 15, 16, 19, 23, 25, 26, 39, 42, 43, 44, 46, 68, 71, 72, 73, 75, 76, 81, 82b, 83, 85, 86, 97, 105, 108, 110, and 112, Kabat numbering, in the H chain variable region, and (ii) at least one of the positions 137, 196, 203, 214, 217, 233, 268, 274, 276, 297, 355, 392, 419, and 435, EU numbering, in the H chain constant region; (b) culturing host cells to express the nucleic acids; and (c) collecting the multispecific antibody from the host cell culture, using the difference in isoelectric point,
A method for managing the electricity during a regeneration phase of a filter placed in the exhaust line of a heat engine equipping a vehicle provided with an electricity storage device, an on-board network including electrical consumers, a generator of a variable DC set voltage, and a DC/DC converter including an input connected to the electricity storage device and an outlet connected to the on-board network and to the generator, wherein control means enable the DC/DC converter and the generator to be controlled, in which the electrical consumers of the on-board network are actuated so as to increase the load of the heat engine, characterized in that the storage device is recharged during the fuel injection phase, and the storage device is discharged during the fuel injection cutoff phase.
A combustion system, comprising: a premix chamber configured to receive an oxidant and a fuel, wherein the premix chamber is configured to provide an oxidant-fuel mixture into a chamber volume; and a perforated reaction holder positioned within the chamber volume, wherein the perforated reaction holder is displaced from the premix chamber and aligned with the premix chamber to receive the oxidant-fuel mixture, wherein the perforated reaction holder carries a combustion reaction while at least part of the oxidant-fuel mixture combusts, wherein the perforated reaction holder includes perforations configured to collectively hold a majority portion of a combustion reaction supported by the oxidant-fuel mixture; and that a flame arrestor is positioned between the premix chamber and the perforated reaction holder, wherein the flame arrestor includes one or more layers of porous object, characterized in that the perforations have a lateral dimension equal to or greater than a flame quenching distance of said oxidant-fuel mixture, wherein the flame arrestor is separated from the perforated reaction holder by a distance sufficient to prevent radiation heating of the flame arrestor to a temperature that reduces the effectiveness of the flame arrestor in stopping flame propagation into the premix chamber. a premix chamber configured to receive an oxidant and a fuel, wherein the premix chamber is configured to provide an oxidant-fuel mixture into a chamber volume; and a perforated reaction holder positioned within the chamber volume, wherein the perforated reaction holder is displaced from the premix chamber and aligned with the premix chamber to receive the oxidant-fuel mixture, wherein the perforated reaction holder carries a combustion reaction while at least part of the oxidant-fuel mixture combusts, wherein the perforated reaction holder includes perforations configured to collectively hold a majority portion of a combustion reaction supported by the oxidant-fuel mixture; and that a flame arrestor is positioned between the premix chamber and the perforated reaction holder, wherein the flame arrestor includes one or more layers of porous object, characterized in that the perforations have a lateral dimension equal to or greater than a flame quenching distance of said oxidant-fuel mixture, wherein the flame arrestor is separated from the perforated reaction holder by a distance sufficient to prevent radiation heating of the flame arrestor to a temperature that reduces the effectiveness of the flame arrestor in stopping flame propagation into the premix chamber.
Device for determining distances between at least one vehicle body and at least one chassis of a vehicle, in particular of a rail vehicle, wherein the device has at least one system of rods and at least one incremental encoder and wherein a system of rods can be connected to the at least one vehicle body and the at least one chassis, wherein the at least one system of rods has a solid measure and wherein the at least one incremental encoder can be connected to the at least one vehicle body or to the at least one chassis, said incremental encoder being aligned towards the solid measure and being connected to at least one computer unit, which can be connected to the at least one vehicle body or to the at least one chassis, characterised in that at least one acceleration sensor is connected to the at least one system of rods and to the at least one computer unit.
An aerosol-generating device for generating an aerosol from an aerosol-forming substrate, the aerosol-generating device comprising: a cavity having an opening for receiving the aerosol-forming substrate, the cavity being defined by side walls extending away from the opening; a cavity base for supporting the aerosol-forming substrate, or an aerosol-generating article comprising the aerosol-forming substrate, when received in the cavity, wherein the cavity base is arranged to be longitudinally-movable within the side walls defining the cavity; a push rod for moving the cavity base, wherein the push rod protrudes from a body of the aerosol-generating device when an aerosol-forming substrate, or an aerosol-generating article comprising the aerosol-forming substrate, is positioned within the cavity; and at least one induction coil located external to the cavity and arranged to generate, in operation, a fluctuating magnetic field. a cavity having an opening for receiving the aerosol-forming substrate, the cavity being defined by side walls extending away from the opening; a cavity base for supporting the aerosol-forming substrate, or an aerosol-generating article comprising the aerosol-forming substrate, when received in the cavity, wherein the cavity base is arranged to be longitudinally-movable within the side walls defining the cavity; a push rod for moving the cavity base, wherein the push rod protrudes from a body of the aerosol-generating device when an aerosol-forming substrate, or an aerosol-generating article comprising the aerosol-forming substrate, is positioned within the cavity; and at least one induction coil located external to the cavity and arranged to generate, in operation, a fluctuating magnetic field.
A building structure comprising a space demarcation assembly on a base area of the building structure formed by a concrete ceiling or wall against a building interior, the space demarcation assembly comprising heat changes surfaces, which are spaced apart from the base area, and comprising connections, which are arranged between the heat exchange surfaces and the base area, wherein the heat exchange surfaces are provided with a plaster layer, wherein the heat exchange surfaces as well as the connections between the heat exchange surfaces and the base area are formed by heat transfer elements, which each comprise a cohering metallic flat material comprising through openings, wherein the flat material comprises contact surfaces to the base area, web surfaces leading away from the base area, as well as the heat exchange surfaces, and folding regions are embodied between these subsurfaces of the flat material, characterised in that the concrete ceiling or wall serves as passive or active heat store, and the contact surfaces of the heat transfer elements are fastened to the base area by means of a heat-conductive connecting layer by means of an adhesive or mortar.
A heat sink (12, 13, 14) for cooling a device mounted on a mount board, the heat sink having a plurality of grooves (12-3A - 12-3D; 13-3A, 13-3B; 14-5A, 14-5B) at different heights in a surface opposite a surface in contact with the device, characterized in that the grooves are configured to receive a retaining member (23, 24) for fixing the heat sink to the device, the grooves are provided at heights corresponding to the heights of devices having different heights to which the heat sink is to be mounted, the sum of the height of each device and the height of the corresponding groove is substantially identical, and wherein the grooves that receive the retaining member are provided such that they are in contact with the retaining member so that the pressure from the retaining member is uniformly applied to the contact surface between the device and the heat sink.
A fine spinning machine comprising a fiber bundle condensing device that condenses a fiber bundle drafted by a drafting device, the drafting device including a delivery roller pair comprising a first drive roller and a first driven roller, the fiber bundle condensing device including a nip roller pair that is disposed downstream of the delivery roller pair and comprises a second drive roller and a second driven roller, a suction pipe that is disposed upstream of the nip roller pair and downstream of the delivery roller pair, and an air-permeable apron that is mounted on the suction pipe in a surrounding manner, wherein a circumferential velocity ratio of the first drive roller to the second drive roller is modifiable, characterized in that the fiber bundle condensing device includes a pressing mechanism configured to press the first driven roller or the second driven roller such that the first driven roller or the second driven roller is pressed against the first drive roller or the second drive roller forming the delivery roller pair or the nip roller pair, respectively, and against the air-permeable apron that is mounted on the suction pipe in a surrounding manner.
A fire closure, comprising an opening arranged in a wall (1, 1'), a frame at least partially surrounding the opening and a movable door body for closing the opening, wherein the frame comprises a flat bar and a lock bar arranged laterally to the opening, as well as a head bar arranged above the opening and connecting the flat bar to the lock bar, and wherein the frame has a clear passage area having a clear passage width (b) and a clear passage height (h), wherein a supplementary profile (8, 8', 8") is arranged on the flat bar, the lock bar and/or the head bar, as a result of which the clear passage area of the frame is reduced, wherein the supplementary profile is constituted with an essentially rectangular cross-section, characterised in that there are connected to the flat bar, the lock bar and/or the head bar sheet metal screws and/or blind rivets, onto which the supplementary profile is fastened by means of a detent, and that the supplementary profile is arranged exclusively at the inside on the existing frame.
An enhanced LOng RAnge Navigation, eLORAN, control station configured to cooperate with a plurality of eLORAN stations each comprising an eLORAN antenna, and an eLORAN transmitter coupled to the eLORAN antenna configured to transmit data over a eLORAN data channel, LDC, and transmit a series of LORAN navigation RF pulses, the eLORAN control station comprising: a processor and a memory coupled thereto and configured to generate station specific eLORAN data and non-station specific eLORAN data and characterised in the processor being further configured to divide the non-station specific eLORAN data into a plurality of non-station specific eLORAN data subsets between the plurality of eLORAN stations and cause each eLORAN station to transmit the station specific eLORAN data and its non-station specific eLORAN data subset over the eLORAN data channel in a prioritized manner so that a saving in time for transmitting the entire non-station specific eLORAN data compared to transmitting the non-station specific eLORAN data via a single eLORAN station is achieved, wherein the non-station specific eLORAN data comprises almanac information. generate station specific eLORAN data and non-station specific eLORAN data and characterised in the processor being further configured to divide the non-station specific eLORAN data into a plurality of non-station specific eLORAN data subsets between the plurality of eLORAN stations and cause each eLORAN station to transmit the station specific eLORAN data and its non-station specific eLORAN data subset over the eLORAN data channel in a prioritized manner so that a saving in time for transmitting the entire non-station specific eLORAN data compared to transmitting the non-station specific eLORAN data via a single eLORAN station is achieved, wherein the non-station specific eLORAN data comprises almanac information.
Polyamide moulding compound consisting of at least one thermoplastic polyamide and at least one polyamide oligomer having a linear or branched chain structure having a number average molar mass of 800 to 5000 g/mol having basic end groups and carboxyl groups, wherein one of these end groups is in abundance and the concentration of the abundantly present end group amounts to a maximum of 300 mmol/kg, in the weight ratio thermoplastic polyamide: polyamide oligomer of 70: 30 to 99.5: 0.5, up to 50 wt%, in terms of the total polyamide moulding compound, of a conductivity additive, up to 95 wt%, in terms of the total polyamide moulding compound, filler and/or strengthening material, selected from the group consisting of chamfer-shaped and/or particle-shaped materials and where necessary, further additives, selected from impact-resistant agents, foreign polymers, bonding agents, flame retardants, stabilisers, minerals, processing aids, crystallisation catalysts or delayers, oxidisation preservatives, flow aids, lubricants, demoulding agents, softeners, fireproofing agents, pigments and/or colourants and tracing substances characterised in that the basic end groups are at least partially NH 2 end groups. polyamide oligomer of 70: 30 to 99.5: 0.5, up to 50 wt%, in terms of the total polyamide moulding compound, of a conductivity additive, up to 95 wt%, in terms of the total polyamide moulding compound, filler and/or strengthening material, selected from the group consisting of chamfer-shaped and/or particle-shaped materials and where necessary, further additives, selected from impact-resistant agents, foreign polymers, bonding agents, flame retardants, stabilisers, minerals, processing aids, crystallisation catalysts or delayers, oxidisation preservatives, flow aids, lubricants, demoulding agents, softeners, fireproofing agents, pigments and/or colourants and tracing substances characterised in that the basic end groups are at least partially NH 2 end groups.
An information processing device comprising: a display unit configured to be able to selectively display a multi-directional video; and a data processing unit configured to execute video display control on a video to be output to the display unit, wherein the data processing unit acquires video display control information regarding output video data, applies a video display scheme recorded in the video display control information, and executes a video display process, wherein the video display control information includes at least device-type-based designation information of one of a perspective scheme and a fish eye display scheme as a video display scheme in accordance with a type of device, wherein the data processing unit applies a video display scheme in accordance with the device-type-based designation information and executes the video display process, wherein the data processing unit selects a video display scheme corresponding to a device-type-based designation information matching a device type of the own device, wherein the video display control information is stored in an MP4 file, wherein the data processing unit acquires the video display control information regarding the output video data from the MP4 file and executes the video display process in accordance with the video display control information acquired from the MP4 file, wherein the video display control information is stored in a trak box of the MP4 file, and wherein the data processing unit acquires the video display control information regarding the output video data from the trak box of the MP4 file. a display unit configured to be able to selectively display a multi-directional video; and a data processing unit configured to execute video display control on a video to be output to the display unit, wherein the data processing unit acquires video display control information regarding output video data, applies a video display scheme recorded in the video display control information, and executes a video display process, wherein the video display control information includes at least device-type-based designation information of one of a perspective scheme and a fish eye display scheme as a video display scheme in accordance with a type of device, wherein the data processing unit applies a video display scheme in accordance with the device-type-based designation information and executes the video display process, wherein the data processing unit selects a video display scheme corresponding to a device-type-based designation information matching a device type of the own device, wherein the video display control information is stored in an MP4 file, wherein the data processing unit acquires the video display control information regarding the output video data from the MP4 file and executes the video display process in accordance with the video display control information acquired from the MP4 file, wherein the video display control information is stored in a trak box of the MP4 file, and wherein the data processing unit acquires the video display control information regarding the output video data from the trak box of the MP4 file.