mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, UE, comprising: a higher layer processor configured to determine a physical uplink control channel, PUCCH, resource in a first subslot for HARQ-ACK feedback for physical downlink shared channel, PDSCH, transmissions that is associated with a highest priority, the first subslot being configured in a slot; and an UL transmitter configured to transmit, based on the determined PUCCH resource, the HARQ-ACK feedback for the PDSCH transmissions that is associated with the highest priority, wherein the UE is configured with a first PUCCH resource configuration for the HARQ-ACK feedback in the first subslot, the PUCCH resource is determined based on the first PUCCH resource configuration, characterized in that: a plurality of possible subslot structures for HARQ-ACK PUCCH resource allocation in the slot is defined, wherein all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and the UE is configured with a subslot configuration indicating one of the possible subslot structures for the first PUCCH resource configuration. a higher layer processor configured to determine a physical uplink control channel, PUCCH, resource in a first subslot for HARQ-ACK feedback for physical downlink shared channel, PDSCH, transmissions that is associated with a highest priority, the first subslot being configured in a slot; and an UL transmitter configured to transmit, based on the determined PUCCH resource, the HARQ-ACK feedback for the PDSCH transmissions that is associated with the highest priority, wherein the UE is configured with a first PUCCH resource configuration for the HARQ-ACK feedback in the first subslot, the PUCCH resource is determined based on the first PUCCH resource configuration, characterized in that: a plurality of possible subslot structures for HARQ-ACK PUCCH resource allocation in the slot is defined, wherein all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and the UE is configured with a subslot configuration indicating one of the possible subslot structures for the first PUCCH resource configuration. a plurality of possible subslot structures for HARQ-ACK PUCCH resource allocation in the slot is defined, wherein all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and all subslots in the slot have same duration in one or more of the possible subslot structures, and the first subslot and another subslot in the slot have different durations in the rest of the possible subslot structures, and the UE is configured with a subslot configuration indicating one of the possible subslot structures for the first PUCCH resource configuration.
A method for producing three-dimensional models by means of a layer construction technique, wherein particulate construction material is applied in a layer onto a construction field and then a liquid binding agent is selectively applied onto the construction material, proceeding layer by layer and repeating these steps, until the desired model is obtained, wherein a controlled air flow is passed through the applied construction material after application of the layers and the direction of the controlled air flow is changed during the procedure.
A sensor of a Coriolis measuring device for measuring the mass flow or the density of a medium flowing through a pipe, comprising: at least one measuring tube for conducting the medium, each having an inlet (11.1) and an outlet (11.2); at least one exciter for exciting measuring tube vibrations; at least two sensors for detecting measuring tube vibrations; a carrier body for holding the measuring tube; characterized in that the measuring sensor has an RFID temperature sensor which is adapted to determine a temperature of the measuring tube, wherein the sensor comprises an RF transceiver adapted to read the temperature sensor, wherein the at least one measuring tube and the temperature sensor are interchangeable, wherein the sensor comprises a coupling for coupling and decoupling at least one measuring tube, wherein the temperature sensor can be sterilized by gamma radiation without impairment of its functionality, wherein the temperature sensor and the measuring tube are designed to be sterilized together by gamma radiation. at least one measuring tube for conducting the medium, each having an inlet (11.1) and an outlet (11.2); at least one exciter for exciting measuring tube vibrations; at least two sensors for detecting measuring tube vibrations; a carrier body for holding the measuring tube; characterized in that the measuring sensor has an RFID temperature sensor which is adapted to determine a temperature of the measuring tube, wherein the sensor comprises an RF transceiver adapted to read the temperature sensor, wherein the at least one measuring tube and the temperature sensor are interchangeable, wherein the sensor comprises a coupling for coupling and decoupling at least one measuring tube, wherein the temperature sensor can be sterilized by gamma radiation without impairment of its functionality, wherein the temperature sensor and the measuring tube are designed to be sterilized together by gamma radiation.
An integrated optical device, comprising: a) a waveguide substrate layer comprising a plurality of channel waveguides (2312, 406, 408, 410, 506, 508, 510) and one or more biosensing regions with a plurality of nanometer-scale apertures (422, 424, 426, 522) comprising analyte regions, wherein the waveguides are configured to deliver optical energy from an optical energy source to the analyte regions, wherein each analyte region is disposed sufficiently proximal to a core (409, 509) of a waveguide of the plurality of waveguides to be illuminated by an evanescent field emanating from the core when optical energy is passed through the waveguide (2312, 406, 408, 410, 506, 508, 510); b) a sensor array layer; and c) a a microlens array layer adapted to collect optical energy signals from the biosensing region(s) and direct the optical energy signals so collected to the sensor array layer; wherein the sensor array layer is positioned under the microlens array layer, the microlens array layer is positioned under the waveguide substrate layer and each microlens of the microlens array layer is adapted to collect photons emitted from a single biosensing region. a) a waveguide substrate layer comprising a plurality of channel waveguides (2312, 406, 408, 410, 506, 508, 510) and one or more biosensing regions with a plurality of nanometer-scale apertures (422, 424, 426, 522) comprising analyte regions, wherein the waveguides are configured to deliver optical energy from an optical energy source to the analyte regions, wherein each analyte region is disposed sufficiently proximal to a core (409, 509) of a waveguide of the plurality of waveguides to be illuminated by an evanescent field emanating from the core when optical energy is passed through the waveguide (2312, 406, 408, 410, 506, 508, 510); b) a sensor array layer; and c) a a microlens array layer adapted to collect optical energy signals from the biosensing region(s) and direct the optical energy signals so collected to the sensor array layer;
A preform suitable for blow molding into an outer container usable for a pressurized aerosol dispenser, said preform having a longitudinal axis and comprising: a closed end bottom; an open neck longitudinally opposed thereto, said open neck having a periphery and threads for accepting a valve having complementary threads; and characterized by said preform comprising at least one pawl or ratchet operatively juxtaposed with said periphery of said preform, said at least one pawl or ratchet allowing onward rotation of a complementary valve in an onward direction, and preventing detachment of said valve therefrom in a reverse rotation direction. a closed end bottom; an open neck longitudinally opposed thereto, said open neck having a periphery and threads for accepting a valve having complementary threads; and characterized by said preform comprising at least one pawl or ratchet operatively juxtaposed with said periphery of said preform, said at least one pawl or ratchet allowing onward rotation of a complementary valve in an onward direction, and preventing detachment of said valve therefrom in a reverse rotation direction.
System for monitoring a smoke and/or heat extraction system, with at least one smoke and/or heat extraction opening that can be closed by a respective closure element, at least one drive respectively assigned to a closure element and a central control unit in connection with the driver or drives, wherein a respective drive in each case comprises a motor drive unit and a control device of its own, and a respective control device is designed to monitor the function of the motor drive unit of the drive concerned and/or to monitor the drive concerned, including the assigned closure element, at specific time intervals for whether the closure element concerned can be opened and/or closed by the motor drive unit, characterized in that the control device of a respective drive is designed to check whether the closure element concerned was opened within a respective predeterminable time interval and to check whether the closure element concerned was open during the entire predeterminable time interval, wherein the control device of a respective drive is designed to carry out a test in the case where the closure element concerned was not opened within the predeterminable time interval or was not open during the entire predeterminable time interval.
A molecular sieve having micromorphology in a football shape and consisting of molecular sieve framework and active elements, wherein the molecular sieve framework comprises silicon element and aluminum element, the active elements comprise copper element and rare earth elements, the rare earth elements are one or more selected from the group consisting of La, Ce, Pr, Nd, Pm, Sm, Eu, Sc and Y; wherein the mass ratio of the silicon element to the aluminum element is 3-9:1, the content of the copper element in the molecular sieve is 1.5-3.2 wt%, and the mass of the rare earth elements is 50 ppm-2 wt% of the molecular sieve framework; wherein the mass of the silicon element is calculated by silicon dioxide, the mass of aluminum element is calculated by aluminum oxide, the mass of copper element is calculated by copper oxide, and the mass of rare earth elements is calculated by rare earth oxides; wherein the molecular sieve is a CHA-type molecular sieve. wherein the mass ratio of the silicon element to the aluminum element is 3-9:1, the content of the copper element in the molecular sieve is 1.5-3.2 wt%, and the mass of the rare earth elements is 50 ppm-2 wt% of the molecular sieve framework; wherein the mass of the silicon element is calculated by silicon dioxide, the mass of aluminum element is calculated by aluminum oxide, the mass of copper element is calculated by copper oxide, and the mass of rare earth elements is calculated by rare earth oxides; wherein the molecular sieve is a CHA-type molecular sieve.
A drip catcher for preventing any undesired drips when pouring from a bottle, particularly a wine bottle, into a drinking vessel or the like, comprising a substantially cylindrical wall, an insertion part for inserting into a bottle neck, and a pouring part, characterized in that the wall comprises a notch-like, axially parallel recess that extends over the axial length of the wall.
A gasoline composition comprising: (a) a base gasoline without oxygen content in an amount in the range from about 60 to about 90 vol% based on the total gasoline composition; (b) a renewable gasoline component in an amount in the range from 1 to 15 vol% based on the total gasoline composition; and (c) iso-propanol in an amount in the range from 12 vol% to 14 vol% of the total composition based on the total gasoline composition; and wherein the gasoline composition as a whole has a RON of at least 95; and with the proviso that the components listed in (a), (b), and (c) taken together adds up to 100 vol%. (a) a base gasoline without oxygen content in an amount in the range from about 60 to about 90 vol% based on the total gasoline composition; (b) a renewable gasoline component in an amount in the range from 1 to 15 vol% based on the total gasoline composition; and (c) iso-propanol in an amount in the range from 12 vol% to 14 vol% of the total composition based on the total gasoline composition; and wherein the gasoline composition as a whole has a RON of at least 95; and with the proviso that the components listed in (a), (b), and (c) taken together adds up to 100 vol%.
Membrane characterized in that it contains polybenzimidazole and at least one aminophosphonic acid, the latter having the sequence of atoms N-C-P, where P stands for phosphonic acid, N for nitrogen and C for carbon.
A ventilation device, in particular an air recirculation device, configured as an underfloor unit, having a housing in which a cross-flow fan provided with a swirl diffuser and a heat exchanger are arranged, wherein the housing has a ceiling wall, a bottom wall as well as four side walls (9, 10, 11, 12), the ceiling wall is provided with an air grid, three of the side walls (10, 11, 12) extend vertically and are surpassed by the air grid by a small distance, the fourth side wall is comprised of an inclined side wall zone and a vertical side wall portion, the ceiling wall borders with a longitudinal edge the inclined side wall zone that shortens the constructional depth of the housing in the upwards direction, a lower longitudinal edge of the side wall zone borders the vertical side wall portion, and an upper longitudinal edge of the side wall zone is slightly surpassed by the air grid, wherein the heat exchanger is arranged in the housing in such an inclined position that it abuts with its cross-section contour against the inner sides (33, 34, 36) of the ceiling wall, the vertical side wall portion of the fourth side wall and the bottom wall of the housing, and almost reaches the swirl diffuser or reaches the swirl diffuser with its cross-section contour, wherein the side wall zone extends in parallel or approximately in parallel with an entry surface and/or with an exit surface of the heat exchanger, and wherein, seen in the vertical direction, the heat exchanger overlaps the cross-flow fan approximately halfway, and the housing depth (t, T) of the housing enlarges from the top towards the bottom, the depth (t) of the ceiling wall has a measure of about 20 cm, preferably 20.5 cm, and the construction height (h) of the housing has a measure of about 20 cm, preferably 18.5 cm, and wherein the housing has at least one air inlet opening and at least one air outlet opening, each arranged in its ceiling wall.
Solenoid valve having an inlet and an outlet for fluid, in particular compressed air, comprising: - an actuator and - a shut-off member driven by the actuator and movable between a closed position preventing the passage of fluid between the inlet and the outlet and an open position allowing for the passage of fluid between the inlet and the outlet, the shut-off member having at least one orifice and being displaced upon contact with a seat having a corresponding orifice, said orifice being at least partially superposed upon the orifice of the shut-off member when the latter is in the open position and the seat shutting off the orifice of the shut-off member when the latter is in the closed position, said solenoid valve being characterised in that the stroke of the shut-off member between the open and closed positions is less than 1 mm, the body of the solenoid valve being traversed by an internal channel communicating with the fluid inlet, the internal channel being shut off by a lower cover or the internal channel communicating with a channel formed in a base and opening on to the fluid inlet. - an actuator and - a shut-off member driven by the actuator and movable between a closed position preventing the passage of fluid between the inlet and the outlet and an open position allowing for the passage of fluid between the inlet and the outlet,
A communication control device (100, 200) for use in a communication system including a macro cell and a small cell partially or entirely overlapping with the macro cell, the communication control device (100, 200) comprising: an acquisition unit (151, 161, 171, 181, 251, 261) configured to acquire band use information, priority information and adjustment information; a communication control unit (153, 163, 173, 183, 253, 263) configured to notify a terminal device of the band use information, the priority information and the adjustment information; and a radio communication unit (120, 220) configured to perform radio communication with the terminal device using a plurality of frequency bands (CCs); wherein the band use information indicates which cell of a macro cell and a small cell uses each of a plurality of frequency bands used by one of the macro cell and the small cell; wherein the priority information indicates priority of a measurement among the plurality of frequency bands; and wherein the adjustment information indicates a relative priority among frequency bands of the macro cell and frequency bands of the small cell for the measurement; wherein the relative priority between the frequency band used in the macro cell and the frequency band used in the small cell depends on a situation of the terminal device; and the situation of the terminal device includes a movement situation of the terminal device and/or communication quality of the terminal device in the frequency band used in the macro cell. an acquisition unit (151, 161, 171, 181, 251, 261) configured to acquire band use information, priority information and adjustment information; a communication control unit (153, 163, 173, 183, 253, 263) configured to notify a terminal device of the band use information, the priority information and the adjustment information; and a radio communication unit (120, 220) configured to perform radio communication with the terminal device using a plurality of frequency bands (CCs); wherein the band use information indicates which cell of a macro cell and a small cell uses each of a plurality of frequency bands used by one of the macro cell and the small cell; wherein the priority information indicates priority of a measurement among the plurality of frequency bands; and wherein the adjustment information indicates a relative priority among frequency bands of the macro cell and frequency bands of the small cell for the measurement; wherein the relative priority between the frequency band used in the macro cell and the frequency band used in the small cell depends on a situation of the terminal device; and the situation of the terminal device includes a movement situation of the terminal device and/or communication quality of the terminal device in the frequency band used in the macro cell.
A laminate for a light emitting device, comprising: a glass substrate having a refractive index n1 from 1.45 to 1.65; a random network of reliefs made of enamel, formed on the glass substrate, said network having a refractive index n2 ranging from 1.45 to 1.65; and a flattening layer made of enamel, formed on said network and said glass substrate, said flattening layer having a refractive index n3 ranging from 1.8 to 2.1; characterized in that at least 50%, preferably at least 75% and more preferably at least 85%, of said reliefs show a cross section having: a height (b) ranging from 1 to 10 μm, preferably the maximum height of said reliefs being lower than 15 μm, and a width ranging from 2 to 40 μm, preferably at most 10 μm; and wherein at least 50%, preferably at least 75%, and more preferably at least 85%, of pitches (c) of said network are in the range from 2 μm to 15 μm, a pitch being a distance from a center of the lowest part of a relief to a center of the lowest part of another adjacent relief. a glass substrate having a refractive index n1 from 1.45 to 1.65; a random network of reliefs made of enamel, formed on the glass substrate, said network having a refractive index n2 ranging from 1.45 to 1.65; and a flattening layer made of enamel, formed on said network and said glass substrate, said flattening layer having a refractive index n3 ranging from 1.8 to 2.1; characterized in that at least 50%, preferably at least 75% and more preferably at least 85%, of said reliefs show a cross section having: a height (b) ranging from 1 to 10 μm, preferably the maximum height of said reliefs being lower than 15 μm, and a width ranging from 2 to 40 μm, preferably at most 10 μm; and wherein at least 50%, preferably at least 75%, and more preferably at least 85%, of pitches (c) of said network are in the range from 2 μm to 15 μm, a pitch being a distance from a center of the lowest part of a relief to a center of the lowest part of another adjacent relief. a height (b) ranging from 1 to 10 μm, preferably the maximum height of said reliefs being lower than 15 μm, and a width ranging from 2 to 40 μm, preferably at most 10 μm; and wherein at least 50%, preferably at least 75%, and more preferably at least 85%, of pitches (c) of said network are in the range from 2 μm to 15 μm, a pitch being a distance from a center of the lowest part of a relief to a center of the lowest part of another adjacent relief.
A method for transmitting a sidelink data signal by a user equipment, UE, in a wireless communication system, the method comprising: randomly selecting a resource for transmitting the sidelink data signal in a resource pool; transmitting a scheduling assignment signal including information about the randomly selected resource; and transmitting the sidelink data signal using the randomly selected resource in a transmission period, wherein the sidelink data signal includes a field indicating whether the randomly selected resource is maintained or not in a next transmission period. randomly selecting a resource for transmitting the sidelink data signal in a resource pool; transmitting a scheduling assignment signal including information about the randomly selected resource; and transmitting the sidelink data signal using the randomly selected resource in a transmission period, wherein the sidelink data signal includes a field indicating whether the randomly selected resource is maintained or not in a next transmission period.
A method for wireless communication, comprising: Establishing, at a user equipment, UE, a first connection with a base station; transmitting, to the base station, a first uplink communication via a first set of contention-free preconfigured uplink resources, PUR, allocated to the UE, wherein the first uplink communication comprises an indication that the UE will transmit a second uplink communication using a second set of contention-based PUR, and one or more physical layer parameters associated with the second uplink communication; and transmitting the second uplink communication using the indicated one or more physical layer parameters via the contention-based PUR. Establishing, at a user equipment, UE, a first connection with a base station; transmitting, to the base station, a first uplink communication via a first set of contention-free preconfigured uplink resources, PUR, allocated to the UE, wherein the first uplink communication comprises an indication that the UE will transmit a second uplink communication using a second set of contention-based PUR, and one or more physical layer parameters associated with the second uplink communication; and transmitting the second uplink communication using the indicated one or more physical layer parameters via the contention-based PUR.