mhurhangee/ep-ind-claims huggingface dataset:
A method executed by a user equipment, UE, served by a serving base station and experiencing interference from reference signals from an interfering base station, the method comprising: measuring interference levels; receiving instruction, from the serving base station, based on the measured interference levels at the UE, to perform rate matching of downlink communications, wherein the instruction indicates to not use resource elements corresponding to the reference signals transmitted by the interfering base station in an almost-blank subframe, ABS; receiving downlink communications from the serving base station; and performing rate matching on the downlink communications according to the received instruction. measuring interference levels; receiving instruction, from the serving base station, based on the measured interference levels at the UE, to perform rate matching of downlink communications, wherein the instruction indicates to not use resource elements corresponding to the reference signals transmitted by the interfering base station in an almost-blank subframe, ABS; receiving downlink communications from the serving base station; and performing rate matching on the downlink communications according to the received instruction.
An aerosol delivery device comprising: a housing (102, 104); a microelectromechanical systems-based (MEMS-based) sensor (200, 204, 304, 404) within the housing (102, 104) and configured to detect a pressure on the MEMS-based sensor (200, 204, 304, 404) caused by airflow through at least a portion of the housing (102, 104), the MEMS-based sensor (200, 204, 304, 404) being configured to convert the pressure to an electrical signal, and output the electrical signal; and a microprocessor configured to receive the electrical signal from the MEMS-based sensor (200, 204, 304, 404), and control operation of at least one functional element of the aerosol delivery device based thereon; characterized in that the MEMS-based sensor (200, 204, 304, 404) includes a first die with a micromachined sensor having a diaphragm (306a, 406), and a second die wire bonded to the first die and including a bias generator circuit configured to bias the micromachined sensor with an input voltage, and wherein in an instance in which the input voltage is applied to the micromachined sensor, the pressure causes movement of the diaphragm (306a, 406) and thereby a change in an electrical property of the micromachined sensor, the change in electrical property causing a change in an output voltage across the micromachined sensor, the output voltage or a digital representation thereof being output by the MEMS-based sensor (200, 204, 304, 404) as the electrical signal. a housing (102, 104); a microelectromechanical systems-based (MEMS-based) sensor (200, 204, 304, 404) within the housing (102, 104) and configured to detect a pressure on the MEMS-based sensor (200, 204, 304, 404) caused by airflow through at least a portion of the housing (102, 104), the MEMS-based sensor (200, 204, 304, 404) being configured to convert the pressure to an electrical signal, and output the electrical signal; and a microprocessor configured to receive the electrical signal from the MEMS-based sensor (200, 204, 304, 404), and control operation of at least one functional element of the aerosol delivery device based thereon;
A computer-implemented method for mapping a vehicle environment, the method comprising: a) defining a first grid in the earth frame of reference having a first coordinate system; b) initialising a position of the vehicle in the first grid and a first set of cell occupancy values of the first grid; c) receiving sensor data of the surroundings of the vehicle from one or more sensors on the vehicle; d) updating the first grid with a second set of occupancy values calculated at least in part from the sensor data; and e) calculating one or more absolute velocities of one or more objects (602, 604) in the earth frame of reference from a change in cell occupancy values of the first grid. a) defining a first grid in the earth frame of reference having a first coordinate system; b) initialising a position of the vehicle in the first grid and a first set of cell occupancy values of the first grid; c) receiving sensor data of the surroundings of the vehicle from one or more sensors on the vehicle; d) updating the first grid with a second set of occupancy values calculated at least in part from the sensor data; and e) calculating one or more absolute velocities of one or more objects (602, 604) in the earth frame of reference from a change in cell occupancy values of the first grid.
Use of a compound of formula: wherein R 1, is independently selected from an optionally substituted linear or branched alkyl group, alkenyl group, alkoxy group, aryl group and an alkylene aryl group having from 5 to 22 carbon atoms and R 2 is a linear alkyl group having from 5 to 22 carbon atoms X 1 and X 2 are independently selected from -OC -, -CO 2 - and O; Y 1, and Y 2 are hydrogen; y is 1; and the groups R 1 X 1 - and -X 2 R 2 are in the ortho position in a colour-change composition. wherein R 1, is independently selected from an optionally substituted linear or branched alkyl group, alkenyl group, alkoxy group, aryl group and an alkylene aryl group having from 5 to 22 carbon atoms and R 2 is a linear alkyl group having from 5 to 22 carbon atoms X 1 and X 2 are independently selected from -OC -, -CO 2 - and O; Y 1, and Y 2 are hydrogen; y is 1; and the groups R 1 X 1 - and -X 2 R 2 are in the ortho position in a colour-change composition.
A heat dissipation system for use with a liquid crystal television, characterized in that the heat dissipation system comprises a shaped heat-dissipating member having an L-shaped end, a light-emitting diode light bar adhesively mounted to a horizontal bottom wall of the shaped heat-dissipating member, a back board arranged between the LED light bar and an inner vertical surface of the shaped heat-dissipating member, wherein the shaped heat-dissipating member is fixed to the back board, a heat spreader adhesively mounted to an outer vertical surface of the shaped heat-dissipating member, heat-dissipating fins mounted to one side of the heat spreader that is distant from the shaped heat-dissipating member, and a plurality of fans mounted to one side of the heat-dissipating fins that is distant from the heat spreader.
Food preparation appliance comprising: - a support unit, - at least a first removable working accessory and a second removable working accessory each comprising a working tool, - an electric motor arranged in the support unit, with a drive shaft designed to drive one of the working tools, - an electrical circuit designed to switch on the electric motor, wherein the electrical circuit is designed to have a continuous operation function of the electric motor, characterised in that the first working accessory is designed to disable the continuous operation function, when its working tool is driven by the electric motor. - a support unit, - at least a first removable working accessory and a second removable working accessory each comprising a working tool, - an electric motor arranged in the support unit, with a drive shaft designed to drive one of the working tools, - an electrical circuit designed to switch on the electric motor, wherein the electrical circuit is designed to have a continuous operation function of the electric motor, characterised in that the first working accessory is designed to disable the continuous operation function, when its working tool is driven by the electric motor.
A shipping system (11, 151, 201, 271, 301) for use in transporting and/or storing temperature-sensitive materials, the shipping system (11, 151, 201, 271, 301) comprising: (a) an insulation unit (51, 209, 309), the insulation unit (51, 209, 309) shaped to include a cavity bounded by a bottom wall, four side walls, and an open top; (b) a liner (81, 211, 351), the liner (81, 211, 351) being removably mounted on the insulation unit (51, 209, 309), the liner (81, 211, 351) being shaped to include a cavity (83, 231, 353), wherein the cavity (83, 231, 353) of the liner (81, 211, 351) extends into the cavity of the insulation unit (51, 209, 309); (c) a product box (99, 213, 313), the product box (99, 213, 313) being removably disposed within the cavity (83, 231, 353) of the liner (81, 211, 351); and (d) at least one temperature-control member, the at least one temperature-control member being removably disposed within the cavity (83, 231, 353) of the liner (81, 211, 351); characterized in that the at least one temperature-control member comprises a plurality of temperature-control members (101-1 through 101-3, 153-1 through 153-4, 251-1 through 251-5, 273-1 through 273-6, 391-1 through 391-12), each of the plurality of temperature-control members (101-1 through 101-3, 153-1 through 153-4, 251-1 through 251-5, 273-1 through 273-6, 391-1 through 391-12) being removably disposed within the cavity (83, 231, 353) of the liner (81, 211, 351), wherein each of the temperature-control members (101-1 through 101-3, 153-1 through 153-4, 251-1 through 251-5, 273-1 through 273-6, 391-1 through 391-12) comprises a flexible mat having a plurality of discrete sealed pouches (102, 155, 252, 277, 393), each of the plurality of discrete sealed pouches (102, 155, 252, 277, 393) containing a quantity of phase-change material, with each surface of the product box (99, 213, 313) facing at least one of the temperature-control members (101-1 through 101-3, 153-1 through 153-4, 251-1 through 251-5, 273-1 through 273-6, 391-1 through 391-12). (a) an insulation unit (51, 209, 309), the insulation unit (51, 209, 309) shaped to include a cavity bounded by a bottom wall, four side walls, and an open top; (b) a liner (81, 211, 351), the liner (81, 211, 351) being removably mounted on the insulation unit (51, 209, 309), the liner (81, 211, 351) being shaped to include a cavity (83, 231, 353), wherein the cavity (83, 231, 353) of the liner (81, 211, 351) extends into the cavity of the insulation unit (51, 209, 309); (c) a product box (99, 213, 313), the product box (99, 213, 313) being removably disposed within the cavity (83, 231, 353) of the liner (81, 211, 351); and (d) at least one temperature-control member, the at least one temperature-control member being removably disposed within the cavity (83, 231, 353) of the liner (81, 211, 351);
An aqueous ophthalmic solution comprising: a. 0.1% (w/v) to 4% (w/v) of phentolamine or a pharmaceutically acceptable salt thereof; b. 1% (w/v) to 6% (w/v) of at least one polyol compound having a molecular weight less than 250 g/mol; c. 0.1 mM to 10 mM of at least one buffer; and d. water; wherein the solution has a pH in the range of 4.0 to 7.5 and does not contain an additional component that is a chelating agent. a. 0.1% (w/v) to 4% (w/v) of phentolamine or a pharmaceutically acceptable salt thereof; b. 1% (w/v) to 6% (w/v) of at least one polyol compound having a molecular weight less than 250 g/mol; c. 0.1 mM to 10 mM of at least one buffer; and d. water;
A method to monitor a thrust load on a rolling bearing, comprising: a first step of obtaining a first parameter on the basis of at least a bearing cage rotation speed and of a first race rotation speed of a bearing, and subsequently a second step of obtaining a calculated thrust load on the basis of the first parameter and of the first race rotation speed; characterised in that after the second step, a fourth step is performed, where it is verified if the first parameter falls within a first range and, if the first parameter falls out the first range a sixth step is performed, while if the first parameter falls inside the first range, the first step step is performed again with new values of the bearing cage rotation speed and of the first race rotation speed; wherein the sixth step comprises a phase of verifying if a variation of the first race rotation speed (ΔSS) corresponds to a predicted variation (L1, L2) at the calculated thrust load of the bearing cage rotation speed, and in this case an eighth step comprising the phase of calculating a load correction is performed, while if it does not correspond, a seventh step comprising the generation of an alarm for anomalous bearing condition is performed. a first step of obtaining a first parameter on the basis of at least a bearing cage rotation speed and of a first race rotation speed of a bearing, and subsequently a second step of obtaining a calculated thrust load on the basis of the first parameter and of the first race rotation speed; characterised in that after the second step, a fourth step is performed, where it is verified if the first parameter falls within a first range and, if the first parameter falls out the first range a sixth step is performed, while if the first parameter falls inside the first range, the first step step is performed again with new values of the bearing cage rotation speed and of the first race rotation speed; wherein the sixth step comprises a phase of verifying if a variation of the first race rotation speed (ΔSS) corresponds to a predicted variation (L1, L2) at the calculated thrust load of the bearing cage rotation speed, and in this case an eighth step comprising the phase of calculating a load correction is performed, while if it does not correspond, a seventh step comprising the generation of an alarm for anomalous bearing condition is performed.
An initial discard container for use with a blood culture bottle and for enhancing compliance with the discard volume method for drawing blood from a patient, the blood culture bottle having an exterior surface, the initial discard container comprising: a body with an opening and an inner volume sized to contain an initial amount of blood drawn from the patient, the inner volume being smaller than an inner volume of the blood culture bottle, and a cap configured to cover the opening and seal the inner volume; and a connector configured to couple the initial discard container to the blood culture bottle; characterized in that the connector (28, 36, 40) is an integral connector extending from the body, the connector (28, 36, 40) including a flexible attachment mechanism configured to clip around the exterior surface of the blood culture bottle by a compression fit. a body with an opening and an inner volume sized to contain an initial amount of blood drawn from the patient, the inner volume being smaller than an inner volume of the blood culture bottle, and a cap configured to cover the opening and seal the inner volume; and a connector configured to couple the initial discard container to the blood culture bottle; characterized in that the connector (28, 36, 40) is an integral connector extending from the body, the connector (28, 36, 40) including a flexible attachment mechanism configured to clip around the exterior surface of the blood culture bottle by a compression fit.
An anti-CGRP antibody comprising a variable light chain polypeptide having the amino acid sequence set forth in SEQ ID NO: 51 and a variable heavy chain polypeptide having the amino acid sequence set forth in SEQ ID NO: 53.
A method comprising: receiving, by one or more servers, a selection of criteria for creating a group, the criteria for identifying one or more users from a plurality of users; establishing, by the one or more servers, the group comprising the criteria, the group configured to identify members of the group based on one or more users matching the criteria; receiving, by the one or more servers, an indication to use the group; determining, by the one or more servers responsive to the indication, which one or more users of the plurality of users match the criteria of the group; executing, by the one or more servers, a simulated phishing campaign using the group; and removing, by the one or more servers, a user from the group responsive to the user interacting with a simulated phishing email that was sent as part of the simulated phishing campaign. receiving, by one or more servers, a selection of criteria for creating a group, the criteria for identifying one or more users from a plurality of users; establishing, by the one or more servers, the group comprising the criteria, the group configured to identify members of the group based on one or more users matching the criteria; receiving, by the one or more servers, an indication to use the group; determining, by the one or more servers responsive to the indication, which one or more users of the plurality of users match the criteria of the group; executing, by the one or more servers, a simulated phishing campaign using the group; and removing, by the one or more servers, a user from the group responsive to the user interacting with a simulated phishing email that was sent as part of the simulated phishing campaign.
A handle-equipped container, comprising: a container body including an opening neck section, a cylindrical trunk section, and a shoulder section connecting the neck section and the trunk section; and a handle member fixed to an outer peripheral surface of the container body, wherein the container body has a recess section inwardly recessed in a part of the trunk section in a circumferential direction thereof and provided in a boundary section between the shoulder section and the trunk section; the handle member is fixed to a wall surface portion defining the recess section; and the handle member is composed of a mounting portion including a mounting plate provided along the wall surface portion, and a handle portion protruding arcuately along a circumferential direction of the container body and located on one surface side of the mounting plate, characterized in that the wall surface portion is of a curved surface structure which has a greater curvature than that of the trunk section and whose central part of the wall surface portion is convex towards the diametrical exterior of the container body. a container body including an opening neck section, a cylindrical trunk section, and a shoulder section connecting the neck section and the trunk section; and a handle member fixed to an outer peripheral surface of the container body, wherein the container body has a recess section inwardly recessed in a part of the trunk section in a circumferential direction thereof and provided in a boundary section between the shoulder section and the trunk section; the handle member is fixed to a wall surface portion defining the recess section; and the handle member is composed of a mounting portion including a mounting plate provided along the wall surface portion, and a handle portion protruding arcuately along a circumferential direction of the container body and located on one surface side of the mounting plate, characterized in that the wall surface portion is of a curved surface structure which has a greater curvature than that of the trunk section and whose central part of the wall surface portion is convex towards the diametrical exterior of the container body.
A pump comprising: an inlet chamber for providing a space into which water is supplied; an outlet chamber connected with the inlet chamber; an impeller inside the outlet chamber arranged to guide water inside the inlet chamber to outside the inlet chamber; a first housing fixed on the outlet chamber; a rotor rotatably provided inside the first housing; a vertical rotation axle passing through the outlet chamber and connecting the rotor to the impeller, the impeller fixed to the bottom end of the vertical rotation axle; a magnetic formation unit surrounding the first housing and arranged to form a rotation magnetic field for rotating the rotor; a friction bearing passing through the outlet chamber and rotatably supporting the rotation axle, the friction bearing having a through hole arranged to permit the supplied water which is pressed inside the outlet chamber to pass from an interior of the outlet chamber to an interior of the first housing; and an outlet path for connecting the inside of the first housing to the outlet chamber, the outlet path being arranged to permit the supplied water to pass from the interior of the first housing to the interior of the outlet chamber. an inlet chamber for providing a space into which water is supplied; an outlet chamber connected with the inlet chamber; an impeller inside the outlet chamber arranged to guide water inside the inlet chamber to outside the inlet chamber; a first housing fixed on the outlet chamber; a rotor rotatably provided inside the first housing; a vertical rotation axle passing through the outlet chamber and connecting the rotor to the impeller, the impeller fixed to the bottom end of the vertical rotation axle; a magnetic formation unit surrounding the first housing and arranged to form a rotation magnetic field for rotating the rotor; a friction bearing passing through the outlet chamber and rotatably supporting the rotation axle, the friction bearing having a through hole arranged to permit the supplied water which is pressed inside the outlet chamber to pass from an interior of the outlet chamber to an interior of the first housing; and an outlet path for connecting the inside of the first housing to the outlet chamber, the outlet path being arranged to permit the supplied water to pass from the interior of the first housing to the interior of the outlet chamber.
Pneumatic tyre with at least one damping element, wherein the at least one damping element is attached in an interior of the pneumatic tyre, on an inner tyre surface opposite from a tread of the pneumatic tyre, and wherein the at least one damping element is formed from a porous material and is suitable for reducing noises, wherein a maximum height of the at least one damping element is greater than a maximum length of the at least one damping element, wherein the maximum length corresponds to a maximum extent of the at least one damping element extending along a circumferential direction of the pneumatic tyre, wherein the maximum height in relation to the maximum length is in a first length ratio of a value greater than 1:1 to 5:1 and preferably of 4:3 or 5:3, wherein a maximum width of the at least one damping element corresponds to an extent of the at least one damping element extending at right angles to the circumferential direction along the inner tyre surface, characterized in that the maximum width is the value of a maximum width of the inner tyre surface.