mhurhangee/ep-ind-claims huggingface dataset:
Planetary anti-friction bearing, comprising an outer ring with a tooth profile which is configured on the inner circumference by way of grooves, an inner ring with a tooth profile which is configured on the outer circumference by way of grooves, and a plurality of planetary rolling bodies with a tooth profile which is configured by way of grooves, the tooth profiles of the planetary rolling bodies engaging into the tooth profiles (8, 11) of the rings (2, 3), characterized in that the height of at least one first (as viewed axially) tooth (15a, 9a, 12a) of the planetary rolling bodies or the outer or inner ring (2, 3) is smaller than that of the following second tooth (15b, 9b, 12b), and in that the height of the last (as viewed axially) tooth is smaller than that of the following penultimate tooth.
A lighting unit, comprising: an elongated flexible printed circuit board, PCB, having a top surface and a bottom surface; at least one light emitting element on said top surface of said PCB; and a plurality of first and second conductors (54, 56) electrically connected to said PCB and adapted to provide an electrical signal to said at least one light emitting element, wherein said PCB comprising a plurality of sections, wherein each of said plurality of sections are adapted to be separated from said PCB while maintaining the electrical connection of said first and second conductors (54, 56) between a separated section and said PCB, and wherein each of said plurality of first and second conductors (54, 56) are loops of conductors connected to adjacent end portions of adjacent sections of the plurality of sections and are configured to be stored in a bended loop-like configuration proximate said bottom surface of said PCB. an elongated flexible printed circuit board, PCB, having a top surface and a bottom surface; at least one light emitting element on said top surface of said PCB; and a plurality of first and second conductors (54, 56) electrically connected to said PCB and adapted to provide an electrical signal to said at least one light emitting element, wherein said PCB comprising a plurality of sections, wherein each of said plurality of sections are adapted to be separated from said PCB while maintaining the electrical connection of said first and second conductors (54, 56) between a separated section and said PCB, and wherein each of said plurality of first and second conductors (54, 56) are loops of conductors connected to adjacent end portions of adjacent sections of the plurality of sections and are configured to be stored in a bended loop-like configuration proximate said bottom surface of said PCB.
A method of diagnosing cancer, the method comprising: bringing a sample isolated from an individual into contact with an antibody, a polypeptide or a combination thereof, which specifically binds to a BAG2 polypeptide or a fragment thereof; measuring the presence or level of BAG2 in the sample from a complex formed by coming into contact with the antibody, the polypeptide, or the combination thereof, which specifically binds to the BAG2 polypeptide or the fragment thereof; wherein BAG2 comprises i) the amino acid sequence of SEQ ID NO:1 or 2, or ii) a variant having 80% or more sequence identity to SEQ ID NO:1 or 2, and comparing the presence or level of BAG2 measured from the sample with a BAG2 level measured from a control group, wherein the sample is serum, plasma, or a combination thereof, and wherein the BAG2 is soluble in serum, plasma, or a combination thereof. bringing a sample isolated from an individual into contact with an antibody, a polypeptide or a combination thereof, which specifically binds to a BAG2 polypeptide or a fragment thereof; measuring the presence or level of BAG2 in the sample from a complex formed by coming into contact with the antibody, the polypeptide, or the combination thereof, which specifically binds to the BAG2 polypeptide or the fragment thereof; wherein BAG2 comprises i) the amino acid sequence of SEQ ID NO:1 or 2, or ii) a variant having 80% or more sequence identity to SEQ ID NO:1 or 2, and comparing the presence or level of BAG2 measured from the sample with a BAG2 level measured from a control group, wherein the sample is serum, plasma, or a combination thereof, and wherein the BAG2 is soluble in serum, plasma, or a combination thereof.
An insulated multiple glazing unit comprising at least two coated glass panes separated by at least one gap, wherein the at least two coated glass panes each comprise a low-emissivity and/or solar control coating on a first major surface of the pane and an anti-reflection coating on a second major surface of the pane, wherein two of the coated glass panes are outer panes arranged such that their low-emissivity and/or solar control coatings face each other and their anti-reflection coatings face away from each other, wherein each of said low-emissivity and/or solar control coatings is such that, if said coating coats a major surface of an otherwise uncoated clear glass pane, said pane exhibits a visible light reflectance, both when viewed normal to said coated major surface and normal to an opposing uncoated major surface, of less than 6%, and wherein the unit exhibits a visible light reflectance, when viewed normal to each of said anti-reflection coatings of the two outer panes, of less than 6%.
A charged particle beam exposure apparatus configured to expose a substrate using a plurality of charged particle beams, comprising: a first measurement member configured such that the plurality of charged particle beams are incident on it and configured to measure a total current value of the charged particle beams; characterized by a second measurement member different from the first measurement member configured such that the plurality of charged particle beams are incident on it, configured to multiply the charge of each beam of the incident charged particle beams, and configured to measure a relative current value of each beam of the plurality of charged particle beams; and a member configured to calculate a current value of each beam of the plurality of charged particle beams based on the total current value measured by said first measurement member and the relative current value measured by said second measurement member. a first measurement member configured such that the plurality of charged particle beams are incident on it and configured to measure a total current value of the charged particle beams; characterized by a second measurement member different from the first measurement member configured such that the plurality of charged particle beams are incident on it, configured to multiply the charge of each beam of the incident charged particle beams, and configured to measure a relative current value of each beam of the plurality of charged particle beams; and a member configured to calculate a current value of each beam of the plurality of charged particle beams based on the total current value measured by said first measurement member and the relative current value measured by said second measurement member.
A spacecraft comprising: a spacecraft bus; a set of thrusters for changing a pose of the spacecraft, wherein at least two thrusters are mounted on a gimbaled boom assembly connecting the two thrusters with the spacecraft bus, such that the two thrusters are coupled thrusters sharing the same gimbal angle; a set of momentum exchange devices for absorbing disturbance torques acting on the spacecraft; and a model predictive controller to produce a solution for controlling thrusters of the spacecraft by optimizing a cost function over a receding horizon using a model of dynamics of the spacecraft effecting a pose of the spacecraft and a model of dynamics of the momentum exchange devices of the spacecraft effecting an orientation of the spacecraft; a modulator to modulate magnitudes of the thrust of the coupled thrusters determined by the MPC as pulse signals specifying ON and OFF states of each of the coupled thruster, such that the ON states of the coupled thrusters sharing the same gimbal angle do not intersect in time; and a thruster controller to operate the thrusters according to their corresponding pulse signals. a spacecraft bus; a set of thrusters for changing a pose of the spacecraft, wherein at least two thrusters are mounted on a gimbaled boom assembly connecting the two thrusters with the spacecraft bus, such that the two thrusters are coupled thrusters sharing the same gimbal angle; a set of momentum exchange devices for absorbing disturbance torques acting on the spacecraft; and a model predictive controller to produce a solution for controlling thrusters of the spacecraft by optimizing a cost function over a receding horizon using a model of dynamics of the spacecraft effecting a pose of the spacecraft and a model of dynamics of the momentum exchange devices of the spacecraft effecting an orientation of the spacecraft; a modulator to modulate magnitudes of the thrust of the coupled thrusters determined by the MPC as pulse signals specifying ON and OFF states of each of the coupled thruster, such that the ON states of the coupled thrusters sharing the same gimbal angle do not intersect in time; and a thruster controller to operate the thrusters according to their corresponding pulse signals.
An intra-aortic catheter, comprising: a first elongate member (2100, 2200) comprising a proximal portion, a collapsible distal portion, and a lumen extending through the proximal portion and the collapsible distal portion; a second elongate member comprising a proximal end, a distal end, and a chamber between the proximal end and the distal end, at least a portion of the collapsible distal portion of the first elongate member (2100, 2200) positioned within the chamber of the second elongate member, the distal end of the second elongate member is bonded to the collapsible distal portion of the first elongate member (2100, 2200); and a dilator positioned within the lumen of the first elongate member, the dilator configured to expand the collapsible distal portion of the first elongate member from a first, collapsed cross-sectional configuration, to a second, expanded cross-sectional configuration; the chamber of the second elongate member, when pressurized, is arranged to assist in collapsing the collapsible distal portion of the first elongate member from the second, expanded cross-sectional configuration, to a third, collapsed cross-sectional configuration; characterized in that the distal end of the second elongate member is folded over a distal end of the first elongate member and coupled to an inner surface of the first elongate member or the distal end of the second elongate member is folded over a distal end of the first elongate member and coupled between an inner surface and outer surface of the first elongate member. a first elongate member (2100, 2200) comprising a proximal portion, a collapsible distal portion, and a lumen extending through the proximal portion and the collapsible distal portion; a second elongate member comprising a proximal end, a distal end, and a chamber between the proximal end and the distal end, at least a portion of the collapsible distal portion of the first elongate member (2100, 2200) positioned within the chamber of the second elongate member, the distal end of the second elongate member is bonded to the collapsible distal portion of the first elongate member (2100, 2200); and a dilator positioned within the lumen of the first elongate member, the dilator configured to expand the collapsible distal portion of the first elongate member from a first, collapsed cross-sectional configuration, to a second, expanded cross-sectional configuration; the chamber of the second elongate member, when pressurized, is arranged to assist in collapsing the collapsible distal portion of the first elongate member from the second, expanded cross-sectional configuration, to a third, collapsed cross-sectional configuration; characterized in that the distal end of the second elongate member is folded over a distal end of the first elongate member and coupled to an inner surface of the first elongate member or the distal end of the second elongate member is folded over a distal end of the first elongate member and coupled between an inner surface and outer surface of the first elongate member.
A heater assembly for an aerosol-generating system, comprising: - a heater element (14, 56, 58); - a reservoir comprising aerosol-generating liquid; - a condenser, for condensing excess vapours generated during use of the heater assembly, wherein the condenser is formed in such a way that the condensate is at least partially conveyed back into the reservoir. - a heater element (14, 56, 58); - a reservoir comprising aerosol-generating liquid; - a condenser, for condensing excess vapours generated during use of the heater assembly, wherein the condenser is formed in such a way that the condensate is at least partially conveyed back into the reservoir.
A method of load cell gain compensation comprising: determining, by an electric brake actuator controller, a nominal load cell current during a first operating condition; measuring, by the electric brake actuator controller, a load cell current of a load cell by an electric brake actuator; comparing, by the electric brake actuator controller, the load cell current and the nominal load cell current; and adjusting, by the electric brake actuator controller, a load cell gain in response to the load cell current being less than the nominal load cell current, characterized in that the nominal load cell current and load cell current being measured are drawn by the load cell from the EBAC along power wiring. determining, by an electric brake actuator controller, a nominal load cell current during a first operating condition; measuring, by the electric brake actuator controller, a load cell current of a load cell by an electric brake actuator; comparing, by the electric brake actuator controller, the load cell current and the nominal load cell current; and adjusting, by the electric brake actuator controller, a load cell gain in response to the load cell current being less than the nominal load cell current, characterized in that the nominal load cell current and load cell current being measured are drawn by the load cell from the EBAC along power wiring.
An energy advertising panel, the panel being composed of: - vertical paddles linked in rotation and which are pivoting with respect to the panel; characterized by: - two electric motors for the rotation of the paddles; - a vertical support fixed on the ground, and around which the panel rotates; - two bearings for guiding the panel in rotation; the panel being pivotable about a vertical axis located on its middle plane and the panel being divided into two parts each comprising vertical paddles, on which a part of the advertising image is fixed, and which are linked in rotation and pivotable with respect to the panel by means of the two electric motors; and the wind acting then on the part whose paddles are closed to make the panel rotate about its axis. - vertical paddles linked in rotation and which are pivoting with respect to the panel; - two electric motors for the rotation of the paddles; - a vertical support fixed on the ground, and around which the panel rotates; - two bearings for guiding the panel in rotation;
An apparatus for wirelessly measuring the strength of electric and magnetic fields around a conductor, characterized in that the apparatus comprises: one or more acoustic wave sensor or sensor-tag devices; and at least one voltage-controlled variable impedance device; and at least one differential electric field probe operable to interact with the electric field being measured and produce a voltage; wherein said differential electric field probe comprises one first cylindrical conductive section with a first interior radius; at least one second cylindrical conductive section with a second interior radius that is not equal to said first interior radius; wherein said cylindrical conductive sections are positioned around a common longitudinal axis; wherein said differential field probe is configured such that said common longitudinal axis of said cylindrical conductive sections is parallel to the length of the conductor; and wherein said differential field probe is configured such that said conductor can pass through the interior of the smaller of said first and said second cylindrical conductive sections; and wherein at least the outer of said first and said at least one second cylindrical conductive sections is electrically isolated from said conductor; wherein a differential voltage that provides a measure of the electrical field strength is produced between each pair of said cylindrical conductive sections; and at least one second field probe operable to interact with the magnetic field being measured and produce a voltage; and one or more antennas. one or more acoustic wave sensor or sensor-tag devices; and at least one voltage-controlled variable impedance device; and at least one differential electric field probe operable to interact with the electric field being measured and produce a voltage; wherein said differential electric field probe comprises one first cylindrical conductive section with a first interior radius; at least one second cylindrical conductive section with a second interior radius that is not equal to said first interior radius; wherein said cylindrical conductive sections are positioned around a common longitudinal axis; wherein said differential field probe is configured such that said common longitudinal axis of said cylindrical conductive sections is parallel to the length of the conductor; and wherein said differential field probe is configured such that said conductor can pass through the interior of the smaller of said first and said second cylindrical conductive sections; and wherein at least the outer of said first and said at least one second cylindrical conductive sections is electrically isolated from said conductor; wherein a differential voltage that provides a measure of the electrical field strength is produced between each pair of said cylindrical conductive sections; and at least one second field probe operable to interact with the magnetic field being measured and produce a voltage; and one or more antennas.
A method of operation of a wireless device, comprising: receiving control information from a base station, the control information comprising an indication of whether bundling of DL, Downlink, HARQ, Hybrid Automatic Repeat Request, feedback in Uplink Control Information, UCI, is to be performed and wherein the control information further comprises information that indicates a number of DL HARQ feedbacks that the wireless device is to bundle in the UCI; and transmitting Uplink Control Information, UCI, on a cell operating in an unlicensed frequency spectrum, the UCI comprising: bundled Hybrid Automatic Repeat Request, HARQ, feedback information for one or more Downlink, DL, HARQ processes; and identifiers that identify the one or more DL HARQ processes. receiving control information from a base station, the control information comprising an indication of whether bundling of DL, Downlink, HARQ, Hybrid Automatic Repeat Request, feedback in Uplink Control Information, UCI, is to be performed and wherein the control information further comprises information that indicates a number of DL HARQ feedbacks that the wireless device is to bundle in the UCI; and transmitting Uplink Control Information, UCI, on a cell operating in an unlicensed frequency spectrum, the UCI comprising: bundled Hybrid Automatic Repeat Request, HARQ, feedback information for one or more Downlink, DL, HARQ processes; and identifiers that identify the one or more DL HARQ processes. bundled Hybrid Automatic Repeat Request, HARQ, feedback information for one or more Downlink, DL, HARQ processes; and identifiers that identify the one or more DL HARQ processes.
A balcony, which has a rectangular frame comprising a rear plate (1; 1.1) to be set against a wall, two side plates (2; 2.1), and a front plate (3; 3.1), in which at least two of the plates have between top and bottom edges a chute-like inward protrusion (15; 15.1), and these plates are opposite to each other, which the balcony is installed to rest on wall-mounted load bearing girders, and the balcony has elements (5.1, 24, 25) for adjusting the balcony's height with respect to the load-bearing girders, and the rear plate has apertures, characterized in that the rear plate flanges are extending above the rear plate, the apertures having fitted therein load-bearing girders which have a tubular body, to the top surface of which is fixed an attachment flange capable of being fastened to the rear plate flange.
A refrigeration apparatus comprising a compressor, an outdoor heat exchanger, an expansion mechanism, a refrigerant and an indoor heat exchanger in which the refrigerant flows during cooling operation in the compressor, the outdoor heat exchanger, the expansion mechanism, and the indoor heat exchanger sequentially and in which the refrigerant flows during heating operation in the compressor, the indoor heat exchanger, the expansion mechanism, and the outdoor heat exchanger sequentially, wherein, when both of the indoor heat exchanger and the outdoor heat exchanger are cross-fin-type heat exchangers or stack-type heat exchangers, and the outdoor heat exchanger has a one-row configuration, the refrigeration apparatus is characterized in that the refrigerant is a HFO refrigerant or a refrigerant mixture that includes a HFO refrigerant, and a volume ratio S [%] of the outdoor heat exchanger to the indoor heat exchanger satisfies a relational expression of 100 ≤ S ≤ 1.0112 E − 03 × ρ ∧ 2 − 1.5836 E + 00 × ρ + 8.2472 E + 02 where ρ [kg/m^3]: an average density of a saturated liquid gas at a condensation temperature of 45°C. wherein, when both of the indoor heat exchanger and the outdoor heat exchanger are cross-fin-type heat exchangers or stack-type heat exchangers, and the outdoor heat exchanger has a one-row configuration, the refrigeration apparatus is characterized in that the refrigerant is a HFO refrigerant or a refrigerant mixture that includes a HFO refrigerant, and a volume ratio S [%] of the outdoor heat exchanger to the indoor heat exchanger satisfies a relational expression of 100 ≤ S ≤ 1.0112 E − 03 × ρ ∧ 2 − 1.5836 E + 00 × ρ + 8.2472 E + 02 where ρ [kg/m^3]: an average density of a saturated liquid gas at a condensation temperature of 45°C.
A heat-absorbing material comprising particles comprising a magnesium phosphate hydrate and a binder, characterized in that the particles contain 70 to 99 wt% of magnesium phosphate hydrate and 1 to 30 wt% of binder.