mhurhangee/ep-ind-claims huggingface dataset:
An air cleaner, comprising: a case including a case body and an inlet, wherein the case body includes a case opening and a case peripheral wall surrounding the case opening, and the inlet is connected to the case peripheral wall; a cap including an outlet and a cap opening that faces the case opening; and a filter element including a filter and an annular sealing portion arranged on a circumferential edge of the filter, wherein the filter element is arranged between the case opening and the cap opening, wherein the case includes an annular sealing surface disposed on a circumferential edge of the case opening on an outer surface of the case body, wherein the sealing portion of the filter element contacts the sealing surface, the inlet includes a connection portion connected to the case body, and the sealing surface includes a part of an outer surface of the connection portion, characterized in that an inner rib is arranged on an inner surface positioned on a reverse side of the outer surface of the connection portion, the inner rib being a lattice rib having a lattice-like shape, and the lattice rib including a plurality of first ribs extending in a protruding direction of the connection portion from the case body and a plurality of second ribs extending in a direction crossing the protruding direction. a case including a case body and an inlet, wherein the case body includes a case opening and a case peripheral wall surrounding the case opening, and the inlet is connected to the case peripheral wall; a cap including an outlet and a cap opening that faces the case opening; and a filter element including a filter and an annular sealing portion arranged on a circumferential edge of the filter, wherein the filter element is arranged between the case opening and the cap opening, wherein the case includes an annular sealing surface disposed on a circumferential edge of the case opening on an outer surface of the case body, wherein the sealing portion of the filter element contacts the sealing surface, the inlet includes a connection portion connected to the case body, and the sealing surface includes a part of an outer surface of the connection portion, characterized in that an inner rib is arranged on an inner surface positioned on a reverse side of the outer surface of the connection portion, the inner rib being a lattice rib having a lattice-like shape, and the lattice rib including a plurality of first ribs extending in a protruding direction of the connection portion from the case body and a plurality of second ribs extending in a direction crossing the protruding direction.
A method for transmitting data between a first communication device and at least a second communication device connected to said first communication device, the method comprising: - determining by the first communication device, among a plurality of transmission interfaces embedded in the first communication device, a transmission interface to be used for transmitting said data to the second communication device based on parameters representative of reception capabilities of said second communication device, and at least one parameter representative of a service associated to said data to be transmitted, - transmitting said data to the second communication device on the determined transmission interface. - determining by the first communication device, among a plurality of transmission interfaces embedded in the first communication device, a transmission interface to be used for transmitting said data to the second communication device based on parameters representative of reception capabilities of said second communication device, and at least one parameter representative of a service associated to said data to be transmitted, - transmitting said data to the second communication device on the determined transmission interface.
A power generation unit (1A,1B) for an aircraft engine, which unit is of an integrated gearbox type integrated with an accessory gearbox of the aircraft, characterised in that it comprises a rotor extending through the accessory gearbox, the rotor having an intermediate portion positioned longitudinally intermediate of the rotor, between opposite side portions of the rotor; a drive gear mounted on the intermediate portion of the rotor to drive the rotor; permanent magnet elements respectively mounted on outer peripheries of the opposite side portions of the rotor; and stator coils disposed separately from each other so as to respectively confront outer peripheries of the permanent magnet elements, the stator coils being electrically connected with each other.
A method of reporting, by a user equipment, UE, channel state information, CSI, in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, signaling that comprises a plurality of reporting settings, wherein each reporting setting includes a corresponding list of first values representing slot offsets for transmitting a CSI report on a physical uplink shared channel, PUSCH, and wherein a slot is composed of continuous OFDM symbols; receiving, from the base station, downlink control information, DCI, triggering the CSI report for the plurality of reporting settings, wherein the DCI includes an index value related to a time at which to transmit the CSI report on the PUSCH; determining a plurality of list entries by determining, for each list of first values corresponding to each reporting setting, a corresponding list entry that is indexed in each list based on the index value; determining a second value that is largest among the plurality of list entries; and transmitting, to the base station, the CSI report on the PUSCH in a slot, wherein the slot where the UE transmits the CSI report on the PUSCH is determined based on (i) a slot where the DCI is received and (ii) the second value. receiving, from a base station, a radio resource control, RRC, signaling that comprises a plurality of reporting settings, wherein each reporting setting includes a corresponding list of first values representing slot offsets for transmitting a CSI report on a physical uplink shared channel, PUSCH, and wherein a slot is composed of continuous OFDM symbols; receiving, from the base station, downlink control information, DCI, triggering the CSI report for the plurality of reporting settings, wherein the DCI includes an index value related to a time at which to transmit the CSI report on the PUSCH; determining a plurality of list entries by determining, for each list of first values corresponding to each reporting setting, a corresponding list entry that is indexed in each list based on the index value; determining a second value that is largest among the plurality of list entries; and transmitting, to the base station, the CSI report on the PUSCH in a slot, wherein the slot where the UE transmits the CSI report on the PUSCH is determined based on (i) a slot where the DCI is received and (ii) the second value.
A method of detecting the presence of cry1F cotton event 281-24-236 in a sample comprising cotton DNA, wherein said method comprises contacting said sample with at least one polynucleotide that is diagnostic for the cry1F cotton event 281-24-236, wherein the cotton event 281-24-236 is a Cry1F insert polynucleotide sequence consisting of nucleotides 2,075-12,748 of SEQ ID NO: 1 and at least 20 contiguous flanking nucleotides on both sides of said insert sequence, wherein the 5'-flanking nucleotides are from nucleotide residues 1-2,074 of SEQ ID NO: 1 and the 3'-flanking nucleotides are from nucleotide residues 12,749-15,490 of SEQ ID NO: 1.
Use of a clamp as a mounting base for a window or door element in a wall opening, wherein • the clamp comprises a first leg, a second leg, and a connecting element therebetween and is integrally formed; • the length W of the connecting element is designed to substantially correspond to the thickness D of a wall in the region of the reveal, parapet or lintel; • the angle α between the first leg and the connecting element and the angle β between the second leg and the connecting element are substantially 90° and the first and second legs (10, 20) thus extend substantially parallel to one another; • the wall regions adjacent to the wall opening form on the one hand a first or front side and on the other hand a second or rear side, and the wall sections of parapet, reveal and lintel facing the wall opening are designated as the inner side; and • the first leg is attached to the front side and the second leg is attached to the rear side and the connecting element rests against the inner side, characterized in that the first leg has a length L1 and the second leg has a length L2, and L1 is not equal to L2, whereby the load transfer from the ends of the legs into the wall takes place at two different wall sections. • the clamp comprises a first leg, a second leg, and a connecting element therebetween and is integrally formed; • the length W of the connecting element is designed to substantially correspond to the thickness D of a wall in the region of the reveal, parapet or lintel; • the angle α between the first leg and the connecting element and the angle β between the second leg and the connecting element are substantially 90° and the first and second legs (10, 20) thus extend substantially parallel to one another; • the wall regions adjacent to the wall opening form on the one hand a first or front side and on the other hand a second or rear side, and the wall sections of parapet, reveal and lintel facing the wall opening are designated as the inner side; and • the first leg is attached to the front side and the second leg is attached to the rear side and the connecting element rests against the inner side,
A radiator for heating a room or parts thereof, comprising a modular structure, wherein a planar heating element, a cover arranged on the front side of the heating element, a connecting unit for supplying the heating element with a heating medium as well as a frame construction receiving the heating element, the cover and the connecting unit are provided as modular components, wherein the heating element comprises a pipe register (11, 12, 13) which comprises a collector pipe for the heating medium flow line, a collector pipe for the heating medium return flow as well as heating pipes which fluidically connect the collector pipes (15, 16) to each other, characterized in that the heating element comprises a plurality of pipe registers /11, 12, 13) which are arranged in layers and which are fluidically connected to each other to form a register unit, wherein the pipe registers (11, 12, 13) are provided, on the outside thereof, with convection areas that are formed like lamellas.
An apparatus comprising: a power electronics switching circuit having a semiconductor switch and a diode, where the diode is connected across two terminals of the semiconductor switch; and a device in communication with the power electronics switching circuit, the device comprising a processor configured to: estimate a switch-specific current through the semiconductor switch based on a first voltage across the semiconductor switch, a control signal controlling the semiconductor switch and a first voltage-current characteristic of the semiconductor switch; characterised in that the processor is further configured to determine a second voltage across the diode of the power electronics switching circuit based on the estimated semiconductor switch-specific current, the control signal and a second voltage-current characteristic of the diode. a power electronics switching circuit having a semiconductor switch and a diode, where the diode is connected across two terminals of the semiconductor switch; and a device in communication with the power electronics switching circuit, the device comprising a processor configured to: estimate a switch-specific current through the semiconductor switch based on a first voltage across the semiconductor switch, a control signal controlling the semiconductor switch and a first voltage-current characteristic of the semiconductor switch; characterised in that the processor is further configured to determine a second voltage across the diode of the power electronics switching circuit based on the estimated semiconductor switch-specific current, the control signal and a second voltage-current characteristic of the diode. estimate a switch-specific current through the semiconductor switch based on a first voltage across the semiconductor switch, a control signal controlling the semiconductor switch and a first voltage-current characteristic of the semiconductor switch; characterised in that the processor is further configured to determine a second voltage across the diode of the power electronics switching circuit based on the estimated semiconductor switch-specific current, the control signal and a second voltage-current characteristic of the diode.
A method for fabricating a semiconductor device, comprising: providing a substrate including a device area and a seal ring area surrounding the device area; forming a buried deep-well layer in the substrate of the seal ring area to surround the device area, wherein the buried deep-well layer has a first doping type different from a second doping type of the substrate; forming a first well region and a second well region in the substrate above the buried deep-well layer in the seal ring area with the first well region surrounding the device area and the second well region surrounding the first well region, wherein each of the first well region and the second well region connects with the buried deep-well layer and extends to a surface of the substrate, and each of the first well region and the second well region has the first doping type; forming a heavily doped region in a portion of the substrate above the buried deep-well layer and between the first well region and the second well region, wherein the heavily doped region has the second doping type; and forming a seal ring structure on the substrate of the seal ring area with the seal ring structure connected to the heavily doped region. providing a substrate including a device area and a seal ring area surrounding the device area; forming a buried deep-well layer in the substrate of the seal ring area to surround the device area, wherein the buried deep-well layer has a first doping type different from a second doping type of the substrate; forming a first well region and a second well region in the substrate above the buried deep-well layer in the seal ring area with the first well region surrounding the device area and the second well region surrounding the first well region, wherein each of the first well region and the second well region connects with the buried deep-well layer and extends to a surface of the substrate, and each of the first well region and the second well region has the first doping type; forming a heavily doped region in a portion of the substrate above the buried deep-well layer and between the first well region and the second well region, wherein the heavily doped region has the second doping type; and forming a seal ring structure on the substrate of the seal ring area with the seal ring structure connected to the heavily doped region.
A communication device comprising: a receiver, which, in operation, receives downlink control information transmitted from a base station; circuitry, which, in operation, generates a demodulation reference signal (DMRS) for a physical uplink shared channel (PUSCH) using one combination out of a plurality of combinations of cyclic shifts and orthogonal sequences; and a transmitter, which, in operation, transmits, to the base station, the PUSCH and the generated DMRS based on the DCI, characterized in that, when the communication device is configured in a coverage enhancement mode, in which the PUSCH is allowed to be transmitted with repetitions spanning a plurality of subframes: said one combination used for generating the DMRS is a predefined combination out of the plurality of combinations, and, said circuitry, in operation, multiplies the PUSCH transmitted with repetitions spanning the plurality of subframes by one multiple-subframe spreading code sequence out of a plurality of multiple-subframe spreading code sequences, said one code sequence being specified for the communication device and determined using a field for indicating the combination used for the DMRS in the DCI for terminals that are not in coverage enhancement mode. a receiver, which, in operation, receives downlink control information transmitted from a base station; circuitry, which, in operation, generates a demodulation reference signal (DMRS) for a physical uplink shared channel (PUSCH) using one combination out of a plurality of combinations of cyclic shifts and orthogonal sequences; and a transmitter, which, in operation, transmits, to the base station, the PUSCH and the generated DMRS based on the DCI, characterized in that, when the communication device is configured in a coverage enhancement mode, in which the PUSCH is allowed to be transmitted with repetitions spanning a plurality of subframes: said one combination used for generating the DMRS is a predefined combination out of the plurality of combinations, and, said circuitry, in operation, multiplies the PUSCH transmitted with repetitions spanning the plurality of subframes by one multiple-subframe spreading code sequence out of a plurality of multiple-subframe spreading code sequences, said one code sequence being specified for the communication device and determined using a field for indicating the combination used for the DMRS in the DCI for terminals that are not in coverage enhancement mode. said one combination used for generating the DMRS is a predefined combination out of the plurality of combinations, and, said circuitry, in operation, multiplies the PUSCH transmitted with repetitions spanning the plurality of subframes by one multiple-subframe spreading code sequence out of a plurality of multiple-subframe spreading code sequences, said one code sequence being specified for the communication device and determined using a field for indicating the combination used for the DMRS in the DCI for terminals that are not in coverage enhancement mode.
A method comprising: receiving a fluid sample flowing through a conduit; monitoring optical energy scattering off of particulate matter in the fluid sample, with at least one optical sensor, a magnitude of the optical energy varying depending on particulate matter present in the fluid sample; detecting a change in the magnitude of the optical energy monitored with the at least one optical sensor, the change in the magnitude being indicative of a change in the particulate matter in the fluid sample; characterized by in response to detecting the change in magnitude, initiating calibration of the at least one optical sensor used to detect the scattered optical energy. receiving a fluid sample flowing through a conduit; monitoring optical energy scattering off of particulate matter in the fluid sample, with at least one optical sensor, a magnitude of the optical energy varying depending on particulate matter present in the fluid sample; detecting a change in the magnitude of the optical energy monitored with the at least one optical sensor, the change in the magnitude being indicative of a change in the particulate matter in the fluid sample; characterized by in response to detecting the change in magnitude, initiating calibration of the at least one optical sensor used to detect the scattered optical energy.
A device for displaying a marking in the form of a distance to be kept between a game equipment, in particular a football, and a participant on a playing field of a sports facility, comprising - a display device for projecting light beams representing the marking onto the playing field, wherein the projected light beams display the distance to be kept and can be projected at least in sections in the shape of a circle, in particular at a distance of 9.15 m, around the game equipment on the playing field, - a transport device, wherein the display device is jointly movable with the transport device that is movable above the sports facility, and - a detection device for detecting the position (P 15) of a game equipment on the playing field, characterized by - a display control device which comprises a display mode (M A) in which the display device can be controlled for projecting the marking onto the playing field and which comprises a movement mode (M B) in which the movement of the transport device above the playing field can be controlled, wherein in the display mode (M A) the light beams can be projected onto the playing field via the display device in dependence of the position (P 15) of the game equipment detected by the detection device and wherein in the movement mode (M B) the display device is movable via the transport device in dependence of the detected position (P 15) of the game equipment. - a display device for projecting light beams representing the marking onto the playing field, wherein the projected light beams display the distance to be kept and can be projected at least in sections in the shape of a circle, in particular at a distance of 9.15 m, around the game equipment on the playing field, - a transport device, wherein the display device is jointly movable with the transport device that is movable above the sports facility, and - a detection device for detecting the position (P 15) of a game equipment on the playing field, - a display control device which comprises a display mode (M A) in which the display device can be controlled for projecting the marking onto the playing field and which comprises a movement mode (M B) in which the movement of the transport device above the playing field can be controlled, wherein in the display mode (M A) the light beams can be projected onto the playing field via the display device in dependence of the position (P 15) of the game equipment detected by the detection device and wherein in the movement mode (M B) the display device is movable via the transport device in dependence of the detected position (P 15) of the game equipment.
A bone drill bit (10;10') with a metal drill shaft body being provided with a drilling section and a clamping section, wherein the drill shaft body is provided with a passive temperature-sensitive optical indicator (20;20') being in a thermo-conducting connection to the drill shaft body, and wherein the temperature-sensitive optical indicator is defined by an indicator ring being provided around the drill shaft body and/or the temperature-sensitive optical indicator is located at the proximal end surface of the drill shaft body, characterised in that the temperature-sensitive optical indicator (20; 20') is defined by a color-changing substance configured to reversibly change its visible-spectrum color depending on the temperature of the drill shaft body. wherein the drill shaft body is provided with a passive temperature-sensitive optical indicator (20;20') being in a thermo-conducting connection to the drill shaft body, and wherein the temperature-sensitive optical indicator is defined by an indicator ring being provided around the drill shaft body and/or the temperature-sensitive optical indicator is located at the proximal end surface of the drill shaft body, characterised in that the temperature-sensitive optical indicator (20; 20') is defined by a color-changing substance configured to reversibly change its visible-spectrum color depending on the temperature of the drill shaft body.