mhurhangee/ep-ind-claims huggingface dataset:
An end cover for a charge air cooler of a turbocharged internal combustion engine, which end cover comprises - a cover plate, - outer walls (3, 4, 5, 6) that are arranged around the cover plate, - inner walls (8, 10, 12) that are arranged within the area delimited by the outer walls (3, 4, 5, 6) and define together with the outer walls (3, 4, 5, 6) a first chamber, a second chamber, a third chamber and a fourth chamber, and - a connecting surface that is arranged at a second end of the end cover for covering part of the first, second, third and fourth chambers (9, 11, 13, 14) on the opposite side of the walls (4, 5, 6, 8, 10, 12) of the end cover in relation to the cover plate, which connecting surface is provided with openings (16, 17, 18, 19) to at least three of the first, second, third and fourth chambers (9, 11, 13, 14) for accommodating connecting pipes (39, 40, 41), characterized in that the second end of the end cover is provided with maintenance holes (20, 21, 22, 23) on the cover plate side of the end cover for accessing those of the first, second, third and fourth chambers (9, 11, 13, 14) that are provided with the openings (16, 17, 18, 19) on the connecting surface. - a cover plate, - outer walls (3, 4, 5, 6) that are arranged around the cover plate, - inner walls (8, 10, 12) that are arranged within the area delimited by the outer walls (3, 4, 5, 6) and define together with the outer walls (3, 4, 5, 6) a first chamber, a second chamber, a third chamber and a fourth chamber, and - a connecting surface that is arranged at a second end of the end cover for covering part of the first, second, third and fourth chambers (9, 11, 13, 14) on the opposite side of the walls (4, 5, 6, 8, 10, 12) of the end cover in relation to the cover plate, which connecting surface is provided with openings (16, 17, 18, 19) to at least three of the first, second, third and fourth chambers (9, 11, 13, 14) for accommodating connecting pipes (39, 40, 41),
A replaceable sensor cartridge (100, 400, 500, 600, 800, 1000, 1400, 1500) comprising: a frame (430, 1130) having a desiccant material capable of reducing humidity within the frame and configured to house a plurality of biosensors (412, 502, 602, 702, 802, 902, 1002); and a strip picker (425, 525, 625, 825, 1125, 1525) configured and arranged to slide along a top portion of the frame in a forward stroke to deploy a top biosensor from the plurality of biosensors and a reverse stroke to its home position, the strip picker including a flexible pawl for providing a ratchet action along the top portion of the frame; characterized in that: the flexible pawl is formed of a laterally flexible ratchet material; and the sensor cartridge includes at least one anti-jamming feature including a deflecting portion attached at a hinge on the replaceable sensor cartridge and configured to rotate about the hinge to open and provide access to an interior of the replaceable sensor cartridge, the deflecting portion configured to create a temporary allowance of more than one biosensor to clear a jam in the replaceable sensor cartridge. a frame (430, 1130) having a desiccant material capable of reducing humidity within the frame and configured to house a plurality of biosensors (412, 502, 602, 702, 802, 902, 1002); and a strip picker (425, 525, 625, 825, 1125, 1525) configured and arranged to slide along a top portion of the frame in a forward stroke to deploy a top biosensor from the plurality of biosensors and a reverse stroke to its home position, the strip picker including a flexible pawl for providing a ratchet action along the top portion of the frame; characterized in that: the flexible pawl is formed of a laterally flexible ratchet material; and the sensor cartridge includes at least one anti-jamming feature including a deflecting portion attached at a hinge on the replaceable sensor cartridge and configured to rotate about the hinge to open and provide access to an interior of the replaceable sensor cartridge, the deflecting portion configured to create a temporary allowance of more than one biosensor to clear a jam in the replaceable sensor cartridge. the flexible pawl is formed of a laterally flexible ratchet material; and the sensor cartridge includes at least one anti-jamming feature including a deflecting portion attached at a hinge on the replaceable sensor cartridge and configured to rotate about the hinge to open and provide access to an interior of the replaceable sensor cartridge, the deflecting portion configured to create a temporary allowance of more than one biosensor to clear a jam in the replaceable sensor cartridge.
Device for a sauna stove for a sauna room which is configured to distribute air heated by the sauna stove above a housing of the sauna stove, which contains a heating device of the sauna stove, in a targeted manner in the sauna room and includes at least one fan, wherein the device includes an air duct with at least one inlet opening below the housing and at least one outlet opening above a discharge opening of the housing, wherein the air heated by the heating device exits the housing through the discharge opening and in which preferably a bed of stones is arranged, wherein the air duct and the fan are configured such that the fan draws air into the at least one inlet opening, then transports the air upwards in the air duct along the sauna stove to the at least one outlet opening, characterized in that the air blows out of the at least one outlet opening above the discharge opening of the housing of the sauna stove, and wherein a flow alignment component is arranged at the outlet opening and is configured such that a direction of flow of the air is adjustable.
Method of compensating for play in an actuation system including an actuated system comprising an elastic element, and an actuator with a motor having at least one electrical phase, the motor being a stepper motor or a permanent magnet synchronous brushless direct current (BLDC) motor, the method comprising: - supplying by means of a current controller said at least one electrical phase with a first limited phase current configured to drive the rotor of the stepper motor, or configured to drive in open loop stepper mode the rotor of the BLDC motor, in a first direction (X+), said limited phase current having an amplitude inferior to an operational phase current needed to drive the rotor in normal load operation for actuation of the actuated system in said first direction, - driving with a second limited phase current the rotor of the stepper motor, or driving in open loop stepper mode with a second limited phase current the rotor of the BLDC motor, in a second direction (X-) opposite to the first direction, said second limited phase current having an amplitude inferior to an operational phase current needed to drive the rotor in normal load operation sufficient to overcome the spring force of said elastic element of the actuated system for actuation of the actuated system in the second direction, - compensating for mechanical play in the actuation system based on first and second ends of mechanical play positions, the method characterized by: - detecting a loss of steps of the stepper or BLDC motor in said first direction and determining therefrom the first end of mechanical play position, - detecting a loss of steps of the stepper or BLDC motor in said second direction and determining therefrom the second end of mechanical play position. - supplying by means of a current controller said at least one electrical phase with a first limited phase current configured to drive the rotor of the stepper motor, or configured to drive in open loop stepper mode the rotor of the BLDC motor, in a first direction (X+), said limited phase current having an amplitude inferior to an operational phase current needed to drive the rotor in normal load operation for actuation of the actuated system in said first direction, - driving with a second limited phase current the rotor of the stepper motor, or driving in open loop stepper mode with a second limited phase current the rotor of the BLDC motor, in a second direction (X-) opposite to the first direction, said second limited phase current having an amplitude inferior to an operational phase current needed to drive the rotor in normal load operation sufficient to overcome the spring force of said elastic element of the actuated system for actuation of the actuated system in the second direction, - compensating for mechanical play in the actuation system based on first and second ends of mechanical play positions, - detecting a loss of steps of the stepper or BLDC motor in said first direction and determining therefrom the first end of mechanical play position, - detecting a loss of steps of the stepper or BLDC motor in said second direction and determining therefrom the second end of mechanical play position.
A carbon dioxide adsorbent, comprising a barium (Ba)- or strontium (Sr)-containing ZSM-5 zeolite, the ZSM-5 zeolite containing a M-O-M species with M being Ba or Sr, and O being oxygen, wherein the ion exchange rate of the ZSM-5 zeolite with Ba or Sr is 80% or more and 155% or less with Sr, or 150% or less with Ba, and wherein the ion exchange rate is calculated by the following equation: (Molar ratio of Ba or Sr atoms) / [(Molar ratio of Al atoms) x 2].
A method comprising: at a wireless network device, by means of a frame comprising a header field that is configured to indicate to recipient devices associated with a multi-user transmission interval during which time, frequency and spatial channel resources are allocated to allow for the transmission of a data frame or simultaneous transmission of corresponding ones of a plurality of data frames to respective recipient devices: allocating a portion of a plurality of group identifiers for multi-user groups for sending multi-user transmissions during the multi-user transmission interval and a portion of the plurality of group identifiers for multicast groups for sending multicast transmissions during the multi-user transmission interval; generating group identification information that indicates a group identifier selected from the plurality of group identifiers; wirelessly transmitting the group identification information that indicates a group of recipient devices which are to receive a transmission during the multi-user transmission interval; and wirelessly transmitting data from the wireless network device for a multicast transmission during the multi-user transmission interval that follows the header field, the multicast transmission intended for a group of recipient devices that are members of a multicast group corresponding to the group identification information contained in the header field. at a wireless network device, by means of a frame comprising a header field that is configured to indicate to recipient devices associated with a multi-user transmission interval during which time, frequency and spatial channel resources are allocated to allow for the transmission of a data frame or simultaneous transmission of corresponding ones of a plurality of data frames to respective recipient devices: allocating a portion of a plurality of group identifiers for multi-user groups for sending multi-user transmissions during the multi-user transmission interval and a portion of the plurality of group identifiers for multicast groups for sending multicast transmissions during the multi-user transmission interval; generating group identification information that indicates a group identifier selected from the plurality of group identifiers; wirelessly transmitting the group identification information that indicates a group of recipient devices which are to receive a transmission during the multi-user transmission interval; and wirelessly transmitting data from the wireless network device for a multicast transmission during the multi-user transmission interval that follows the header field, the multicast transmission intended for a group of recipient devices that are members of a multicast group corresponding to the group identification information contained in the header field.
An air conditioner, comprising: a plurality of indoor units (3a, 3b, 3c, 3d) configured to constitute a refrigerant circuit through which a refrigerant circulates and to perform air conditioning of a space to be air-conditioned and the space being provided with at least one ventilator (6a, 6b) configured to perform ventilation of said space; and an air conditioning controller configured to control operations of the plurality of indoor units by allocating the plurality of indoor units individually to one of predetermined areas of the space to be air-conditioned, the air conditioning controller being configured to perform an area registration process of allocating the indoor units individually to one of area identification frames each corresponding to the areas, and allocating ventilators (6a, 6b) individually to one of the area identification frames where the indoor units are allocated, characterized in that: the air conditioning controller is configured not to allow the operations of the plurality of the indoor units when there is an area identification frame to which none of the ventilators is allocated, in the plurality of area identification frames where the indoor units are allocated. a plurality of indoor units (3a, 3b, 3c, 3d) configured to constitute a refrigerant circuit through which a refrigerant circulates and to perform air conditioning of a space to be air-conditioned and the space being provided with at least one ventilator (6a, 6b) configured to perform ventilation of said space; and an air conditioning controller configured to control operations of the plurality of indoor units by allocating the plurality of indoor units individually to one of predetermined areas of the space to be air-conditioned, the air conditioning controller being configured to perform an area registration process of allocating the indoor units individually to one of area identification frames each corresponding to the areas, and allocating ventilators (6a, 6b) individually to one of the area identification frames where the indoor units are allocated,
Patient support apparatus with a couch, a travel unit which is designed to move the patient support apparatus, a control unit and a sensor unit, wherein the sensor unit records at least one environmental parameter of the patient support apparatus and the control unit ascertains a control parameter for controlling the travel unit depending on the at least one environmental parameter, wherein the sensor unit has at least one environmental sensor, which comprises a B 0 field sensor, and wherein the patient support apparatus has a front area with a docking unit for docking with a magnetic resonance apparatus, wherein the sensor unit is arranged in the front area.
A method, performed by a control device, for determining hydraulic failure of a hybrid steering system during automated operation of a vehicle, said hybrid steering system comprising: a steering column connected to a wheel axle with steerable wheels; an electric power steering system connected to the steering column; and a hydraulic power steering system connected to the electric power steering system, the method being characterised by: determining a target steering angle change (Δδ target) to be provided by means of the electric power steering system, based on a requested steering angle and a current steering angle; controlling the electric power steering system to temporarily provide a steering torque corresponding to a first target steering angle change larger than the determined target steering angle change (Δδ target), when the determined target steering angle change (Δδ target) is lower than a predetermined threshold value; determining a steering angle velocity and/or steering angle acceleration resulting from the provided steering torque; and determining whether a hydraulic failure has occurred based on the determined steering angle velocity and/or steering angle acceleration. a steering column connected to a wheel axle with steerable wheels; an electric power steering system connected to the steering column; and a hydraulic power steering system connected to the electric power steering system, determining a target steering angle change (Δδ target) to be provided by means of the electric power steering system, based on a requested steering angle and a current steering angle; controlling the electric power steering system to temporarily provide a steering torque corresponding to a first target steering angle change larger than the determined target steering angle change (Δδ target), when the determined target steering angle change (Δδ target) is lower than a predetermined threshold value; determining a steering angle velocity and/or steering angle acceleration resulting from the provided steering torque; and determining whether a hydraulic failure has occurred based on the determined steering angle velocity and/or steering angle acceleration.
An ammonia generator for an emission control device of an internal combustion engine, namely for generating ammonia serving as reduction agent for an SCR catalytic converter of the emission control device from a urea solution, having a nozzle (23; 42), via which the urea solution can be introduced into a gas flow, and having a hydrolysis catalytic converter (24; 44) connected downstream of the nozzle, via which the urea solution introduced into the gas flow can be decomposed into steam and carbon dioxide and ammonia, and a swirl generating means (33, 36; 46) for swirling the gas flow is provided, into which the urea solution can be introduced, wherein the ammonia generator comprises a double-walled housing, which defines a radially inner flow duct, in which the hydrolysis catalytic converter is positioned, and a radially outer flow duct, to which the gas flow for swirling the same can be tangentially fed, wherein the radially outer flow duct adjacent to the nozzle merges into the radially inner flow duct, characterized in that the hydrolysis catalytic converter comprises a first, seen in flow direction of the radially inner flow duct, upstream and relatively coarse-cell catalytic converter stage and a second, seen in flow direction of the radially inner flow ducts, downstream and relatively fine-cell catalytic converter stage, wherein the flow direction of the radially outer flow duct runs opposite to the flow direction of the radially inner flow duct, and wherein the gas flow of the outer flow duct flows around the radially inner flow duct at least in the region of the first catalytic converter stage at least in sections, and in that the gas feed line tangentially opening into the outer flow duct opens into a section of the outer flow duct which overlaps the hydrolysis catalytic converter positioned in the radial inner flow duct in sections.
Foundation for an offshore wind turbine, of the type comprising: - a platform carrying a support for a wind turbine tower in its central region, and a plurality of leg guides in its peripheral region, - a plurality of legs each of which may be moved between a raised position for transport and lowered positions for resting on the seabed, characterised in that each leg is freely sliding in its guide. - a platform carrying a support for a wind turbine tower in its central region, and a plurality of leg guides in its peripheral region, - a plurality of legs each of which may be moved between a raised position for transport and lowered positions for resting on the seabed, characterised in that each leg is freely sliding in its guide.
A track member for a track of a vehicle of the tracked type, comprising: - a pin; - a bushing associated to said pin and rotatable relative to it; - a first inner track link assembly and a second inner track link assembly (6") associated to said pin and rotatable relative to the latter, respectively arranged on two opposite sides of said bushing; - a first outer track link assembly and a second outer track link assembly (7") associated to said pin and rotatingly integral to the latter, in which said first inner track link assembly is arranged between said first outer track link assembly and said bushing, and in which said second inner track link assembly (6") is arranged between said second outer track link assembly (7") and said bushing, wherein said first inner track link assembly comprises a first ring rotatable relative to said pin, and a first inner track link rotatably integral to said first ring, and wherein said second inner track link assembly (6") comprises a second ring (10") rotatable relative to said pin and a second inner track link (11") rotatably integral to said second ring (10"); said track member further comprises a first and a second (13") inner gasket seats, wherein said first inner gasket seat is defined by said first ring, said pin, and said bushing, and wherein said second inner gasket seat (13") is defined by said second ring (10"), said pin, and said bushing, said first inner gasket seat housing a first inner gasket therein, and said second inner gasket seat (13") housing a second inner gasket (14") therein; characterized in that said first inner gasket seat and said second inner gasket seat (13") are respectively partially defined in a first and in a second (15") recessed portions of said bushing. - a pin; - a bushing associated to said pin and rotatable relative to it; - a first inner track link assembly and a second inner track link assembly (6") associated to said pin and rotatable relative to the latter, respectively arranged on two opposite sides of said bushing; - a first outer track link assembly and a second outer track link assembly (7") associated to said pin and rotatingly integral to the latter,
A method for making a cosmetic applicator (10, 100, 101) comprising the steps of: providing a flexible material which is paper; screen printing a wetting agent onto a surface of the flexible material to form a pre-wetted material surface, wherein the wetting agent comprises a low molecular weight polyol having from 2 to 8 carbon atoms or mixtures of two or more of such polyols having from 2 to 8 carbon atoms; and providing a first cosmetic composition in a first pattern on the pre-wetted material surface by screen printing. providing a flexible material which is paper; screen printing a wetting agent onto a surface of the flexible material to form a pre-wetted material surface, wherein the wetting agent comprises a low molecular weight polyol having from 2 to 8 carbon atoms or mixtures of two or more of such polyols having from 2 to 8 carbon atoms; and providing a first cosmetic composition in a first pattern on the pre-wetted material surface by screen printing.
A secretory immunoglobulin A (sIgA)-binding nucleic acid molecule, wherein the sIgA-binding nucleic acid molecule comprises the following polynucleotide (a): (a) a polynucleotide consisting of SEQ ID NO. 15: in the polynucleotide shown in the following Table 1, the underlined thymines in the polynucleotide consisting of the base sequence of SEQ ID No. 15 are nucleotide residues represented by the following chemical formula. SEQ ID No. Modified base Base sequence 15 NG7 5'-GCAATCTCCCT AATC T GC T GA T G TTT G T A TTT CAAA TT AGC-3' (a) a polynucleotide consisting of SEQ ID NO. 15: in the polynucleotide shown in the following Table 1, the underlined thymines in the polynucleotide consisting of the base sequence of SEQ ID No. 15 are nucleotide residues represented by the following chemical formula. SEQ ID No. Modified base Base sequence 15 NG7 5'-GCAATCTCCCT AATC T GC T GA T G TTT G T A TTT CAAA TT AGC-3'