mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment (150, 800), in the following also referred to as UE, in a wireless network, comprising: receiving, from a base station (120, 850), configuration information of a serving cell; identifying, from the configuration information, a downlink control information, in the following also referred to as DCI, format (410, 510) that includes a channel occupancy duration, in the following also referred to as CO duration, field (430, 530) of the serving cell, and a slot format information, in the following also referred to as SFI, -index field of the serving cell or only includes the SFI-index field; and detecting the DCI format; wherein the method is characterized by further comprising: in response to a determination from the configuration information that the DCI format (410, 510) includes the CO duration field (430, 530), determining, from the CO duration field (430, 530) of the serving cell included in the DCI format (410, 510), a CO duration (Tn) of the serving cell in a time domain at a symbol-level granularity; and in response to a determination from the configuration information that the DCI format (410, 510) does not include the CO duration field (430, 530), determining, from the SFI-index field of the serving cell included in the DCI format (410, 510), the CO duration (Tn) of the serving cell in the time domain at a slot-level granularity. receiving, from a base station (120, 850), configuration information of a serving cell; identifying, from the configuration information, a downlink control information, in the following also referred to as DCI, format (410, 510) that includes a channel occupancy duration, in the following also referred to as CO duration, field (430, 530) of the serving cell, and a slot format information, in the following also referred to as SFI, -index field of the serving cell or only includes the SFI-index field; and detecting the DCI format; in response to a determination from the configuration information that the DCI format (410, 510) includes the CO duration field (430, 530), determining, from the CO duration field (430, 530) of the serving cell included in the DCI format (410, 510), a CO duration (Tn) of the serving cell in a time domain at a symbol-level granularity; and in response to a determination from the configuration information that the DCI format (410, 510) does not include the CO duration field (430, 530), determining, from the SFI-index field of the serving cell included in the DCI format (410, 510), the CO duration (Tn) of the serving cell in the time domain at a slot-level granularity.
A concentration measurement method for measuring a concentration of impurities in a measurement target object, the concentration measurement method comprising: an irradiation step of irradiating the measurement target object with measurement light and stimulus light subjected to intensity modulation using a modulation signal including a plurality of predetermined frequencies; an outputting step of outputting detection signals by detecting an intensity of reflected light from the measurement target object or transmitted light through the measurement target object; and an estimation step of detecting a plurality of phase delays of the detection signals having the plurality of frequencies with respect to the modulation signal, obtaining a frequency at which the phase delay has a predetermined value on the basis of the plurality of phase delays for the plurality of respective predetermined frequencies, and estimating a concentration of impurities in the measurement target object on the basis of the obtained frequency. an irradiation step of irradiating the measurement target object with measurement light and stimulus light subjected to intensity modulation using a modulation signal including a plurality of predetermined frequencies; an outputting step of outputting detection signals by detecting an intensity of reflected light from the measurement target object or transmitted light through the measurement target object; and an estimation step of detecting a plurality of phase delays of the detection signals having the plurality of frequencies with respect to the modulation signal, obtaining a frequency at which the phase delay has a predetermined value on the basis of the plurality of phase delays for the plurality of respective predetermined frequencies, and estimating a concentration of impurities in the measurement target object on the basis of the obtained frequency.
A gas turbine engine comprising: an inner nacelle; a compressor section; a fluid intake; a turbine section including a turbine case; a conduit configured to direct a fluid from the fluid intake to the turbine case; and a valve configured to regulate a flow of the fluid through the conduit; characterised in that the engine further comprises a firewall located upstream of the turbine section, and that the valve is located on a first side of the firewall opposite from the turbine section and is located radially inward from the inner nacelle and radially outward from the compressor section. an inner nacelle; a compressor section; a fluid intake; a turbine section including a turbine case; a conduit configured to direct a fluid from the fluid intake to the turbine case; and a valve configured to regulate a flow of the fluid through the conduit; characterised in that the engine further comprises a firewall located upstream of the turbine section, and that the valve is located on a first side of the firewall opposite from the turbine section and is located radially inward from the inner nacelle and radially outward from the compressor section.
An apparatus for estimating a state of a secondary battery, connectable to a positive electrode lead, a negative electrode lead, a first measuring lead and a second measuring lead included in the secondary battery, the apparatus comprising: a terminal case including a plurality of inner terminals, each configured to be contactable with the positive electrode lead, the negative electrode lead, the first measuring lead, or the second measuring lead on a first surface of the terminal case, and a plurality of outer terminals configured to be respectively electrically connectable to the plurality of inner terminals on a second surface facing the first surface of the terminal case; a voltage measuring unit configured to be electrically connected to at least two of the plurality of outer terminals, and measure a potential difference between the first measuring lead and the second measuring lead; and a control unit configured to estimate a state of health of the secondary battery based on the potential difference between the first measuring lead and the second measuring lead measured by the voltage measuring unit, characterized in that the plurality of inner terminals includes inner charging/discharging terminals (511, 512), and the inner charging/discharging terminals (511, 512) include: a first inner positive electrode terminal configured to be connectable to each of the first measuring lead, the second measuring lead and the positive electrode lead; and a first inner negative electrode terminal configured to be connectable to the negative electrode lead. a terminal case including a plurality of inner terminals, each configured to be contactable with the positive electrode lead, the negative electrode lead, the first measuring lead, or the second measuring lead on a first surface of the terminal case, and a plurality of outer terminals configured to be respectively electrically connectable to the plurality of inner terminals on a second surface facing the first surface of the terminal case; a voltage measuring unit configured to be electrically connected to at least two of the plurality of outer terminals, and measure a potential difference between the first measuring lead and the second measuring lead; and a control unit configured to estimate a state of health of the secondary battery based on the potential difference between the first measuring lead and the second measuring lead measured by the voltage measuring unit, characterized in that the plurality of inner terminals includes inner charging/discharging terminals (511, 512), and the inner charging/discharging terminals (511, 512) include: a first inner positive electrode terminal configured to be connectable to each of the first measuring lead, the second measuring lead and the positive electrode lead; and a first inner negative electrode terminal configured to be connectable to the negative electrode lead. a first inner positive electrode terminal configured to be connectable to each of the first measuring lead, the second measuring lead and the positive electrode lead; and a first inner negative electrode terminal configured to be connectable to the negative electrode lead.
An on-skin sensor assembly and an applicator for applying the on-skin sensor assembly to a skin of a host, the on-skin sensor assembly including: - a sensor configured to measure an analyte concentration of the host, and - an outer housing (292, 294) comprising an aperture which is disposed to a side of the outer housing (292, 294); and the applicator comprising: - an applicator housing, - a needle carrier assembly comprising an insertion element configured to insert the sensor of the on-skin sensor assembly into the skin of the host, wherein the aperture in the outer housing (292, 294) of the on-skin sensor assembly is configured to allow the insertion element and /or the sensor to pass through, - a sensor retention element, wherein the insertion element is configured to be inserted at least partially into the sensor retention element such that the sensor is retained within the insertion element prior to activation of the applicator, and - a bottom cap, wherein the sensor retention element is coupled to the bottom cap and configured to be removed with the bottom cap prior to activation of the applicator. the on-skin sensor assembly including: - a sensor configured to measure an analyte concentration of the host, and - an outer housing (292, 294) comprising an aperture which is disposed to a side of the outer housing (292, 294); and - a sensor configured to measure an analyte concentration of the host, and - an outer housing (292, 294) comprising an aperture which is disposed to a side of the outer housing (292, 294); and the applicator comprising: - an applicator housing, - a needle carrier assembly comprising an insertion element configured to insert the sensor of the on-skin sensor assembly into the skin of the host, wherein the aperture in the outer housing (292, 294) of the on-skin sensor assembly is configured to allow the insertion element and /or the sensor to pass through, - a sensor retention element, wherein the insertion element is configured to be inserted at least partially into the sensor retention element such that the sensor is retained within the insertion element prior to activation of the applicator, and - a bottom cap, wherein the sensor retention element is coupled to the bottom cap and configured to be removed with the bottom cap prior to activation of the applicator. - an applicator housing, - a needle carrier assembly comprising an insertion element configured to insert the sensor of the on-skin sensor assembly into the skin of the host, wherein the aperture in the outer housing (292, 294) of the on-skin sensor assembly is configured to allow the insertion element and /or the sensor to pass through, - a sensor retention element, wherein the insertion element is configured to be inserted at least partially into the sensor retention element such that the sensor is retained within the insertion element prior to activation of the applicator, and - a bottom cap, wherein the sensor retention element is coupled to the bottom cap and configured to be removed with the bottom cap prior to activation of the applicator.
A method for separating an olefin from an olefin-containing mixed gas using at least one adsorption column (AD-1, AD-2, AD-3, AD-4) and at least two distillation columns (D1, D2) including a distillation column for separating an olefin rich stream from a desorbent and a distillation column for separating an olefin poor stream from a desorbent, comprising the steps of: i) introducing the olefin-containing mixed gas into an adsorption column packed with an olefin selective adsorbent to adsorb an olefin from the mixed gas, and sending unadsorbed components and a desorbent, fed into the adsorption column during desorption, through the outlet of the adsorption column to a distillation column for separating an olefin poor stream/desorbent mixture into components; ii) introducing a high-concentration olefin, obtained from a distillation column for separating an olefin from a desorbent, into the adsorption column, thereby removing paraffin and other gases from the adsorption column to increase the purity of the olefin in the adsorption column; iii) introducing a desorbent into the adsorption column having been subjected to step ii), to desorb the olefin from the adsorption column so as to form an olefin/desorbent mixture, and then sending the olefin/desorbent mixture to a distillation column for separating the olefin/desorbent mixture into components, thereby producing a high-purity olefin; and before or after the step i), iv) introducing a gas (olefin-containing gas) resulting from olefin rinse into the adsorption column, thereby recovering an olefin from the olefin-containing gas. i) introducing the olefin-containing mixed gas into an adsorption column packed with an olefin selective adsorbent to adsorb an olefin from the mixed gas, and sending unadsorbed components and a desorbent, fed into the adsorption column during desorption, through the outlet of the adsorption column to a distillation column for separating an olefin poor stream/desorbent mixture into components; ii) introducing a high-concentration olefin, obtained from a distillation column for separating an olefin from a desorbent, into the adsorption column, thereby removing paraffin and other gases from the adsorption column to increase the purity of the olefin in the adsorption column; iii) introducing a desorbent into the adsorption column having been subjected to step ii), to desorb the olefin from the adsorption column so as to form an olefin/desorbent mixture, and then sending the olefin/desorbent mixture to a distillation column for separating the olefin/desorbent mixture into components, thereby producing a high-purity olefin; and before or after the step i), iv) introducing a gas (olefin-containing gas) resulting from olefin rinse into the adsorption column, thereby recovering an olefin from the olefin-containing gas.
Hinged component with one degree of freedom, comprising three concentric rings (10, 20, 30), rotatable with respect to one other about a central axis, defining a friction interface (40, 50) therebetween, and including: - an outer ring having an inner friction surface, - an inner ring having an outer friction surface and an inner friction surface provided to receive a movable element guided by the component in rotation, oscillation and/or translation, and - an intermediate ring located between the outer and inner rings; a first friction interface being defined between the intermediate ring and the outer ring, a second friction interface being defined between the intermediate ring and the inner ring, the component having five friction surfaces (12; 22; 24; 32; 34), the friction interfaces (40, 50) between the rings (10, 20, 30) receiving a lubricant and at least one of the friction surfaces (12; 22; 12; 22; 24) comprises arrangements (18; 28) capable of acting as a reserve of lubricant; characterised in that the component comprises sealing means on opposite sides of the component arranged to prevent leaks of lubricant out of the friction interface. - an outer ring having an inner friction surface, - an inner ring having an outer friction surface and an inner friction surface provided to receive a movable element guided by the component in rotation, oscillation and/or translation, and - an intermediate ring located between the outer and inner rings; a first friction interface being defined between the intermediate ring and the outer ring, a second friction interface being defined between the intermediate ring and the inner ring, the component having five friction surfaces (12; 22; 24; 32; 34), the friction interfaces (40, 50) between the rings (10, 20, 30) receiving a lubricant and at least one of the friction surfaces (12; 22; 12; 22; 24) comprises arrangements (18; 28) capable of acting as a reserve of lubricant; characterised in that the component comprises sealing means on opposite sides of the component arranged to prevent leaks of lubricant out of the friction interface.
Texturing device for texturing at least one continuous yarn composed of a plurality of filaments, containing at least one yarn duct, at least one fluid supply duct leading with a radial component into the yarn duct, an exit region of the yarn duct, an entry region of the yarn duct, characterized by at least one backflow orifice for taking up part of a flow having a component opposite to the thread movement direction, the distance (d2, d10) of the backflow orifice from the inlet orifice of the fluid supply duct with a radial component amounting to at most 14 mm.
An apparatus comprising: a plurality of bio-signal acquisition channels, each bio-signal acquisition channel comprising a gain amplifier configured to, by bipolar sensing for each input, amplify differential biopotential signals received from a pair of associated surface electrodes placed on a patient; to generate a differential wide-band cardiac phase gradient signal, wherein the gain amplifier is configured to amplify each differential biopotential signal to generate a wide-band cardiac phase gradient signal that has a frequency component above 1kHz, and each output of the plurality of bio-signal acquisition channels is configured to feed an analog-to-digital conversion circuit; wherein the analog-to-digital conversion circuit is configured to simultaneously sample, each of the plurality of bio-signal acquisition channels to generate a differential wide-band cardiac phase gradient signal data stream.
A container for a beverage, in particular wine or a wine-based drink, wherein the inner surface of the container is at least partially coated with a coating layer comprising resveratrol.
A data unit sending node comprising a sender for sending data units of a data unit communication in a sequence, each sent data unit being associated with a sequence position identifier, and a receiver for receiving feedback messages that using said sequence position identifiers contain data unit receive information, and a controller - for interpreting at least a first type and a second type of data unit receive information in said feedback messages, where said first type receive information indicates correct receipt at said intermediate node and said second type receive information indicates correct receipt at said receiving node, - for conducting a data unit retransmission procedure in dependence on said feedback messages, and - for conducting a data unit flow control procedure for controlling an amount of data that can be sent at a given time in dependence on said feedback messages, said data unit flow control procedure comprising a first flow control reaction to receiving said first type of receive information for a sequence position identifier for which no first type receive information was previously received, and a second flow control reaction to receiving said second type of receive information for a sequence position identifier for which no second type receive information was previously received, where said first flow control reaction comprises sending one or more new data units, and said second flow control reaction comprises changing a value of a send rate limitation parameter towards an increase in send rate. - for interpreting at least a first type and a second type of data unit receive information in said feedback messages, where said first type receive information indicates correct receipt at said intermediate node and said second type receive information indicates correct receipt at said receiving node, - for conducting a data unit retransmission procedure in dependence on said feedback messages, and - for conducting a data unit flow control procedure for controlling an amount of data that can be sent at a given time in dependence on said feedback messages, said data unit flow control procedure comprising a first flow control reaction to receiving said first type of receive information for a sequence position identifier for which no first type receive information was previously received, and a second flow control reaction to receiving said second type of receive information for a sequence position identifier for which no second type receive information was previously received, where said first flow control reaction comprises sending one or more new data units, and said second flow control reaction comprises changing a value of a send rate limitation parameter towards an increase in send rate.
Solar tracker comprising: - at least one support (1a, 1d) attached to a rotating shaft, wherein at least one solar panel is arranged; - a tracking system equipped with a control subsystem and an operating subsystem of the rotating shaft, wherein said tracking system comprises at least one sensor for detecting the position of the rotating shaft, one motor for operating the rotating shaft, and one power source for said motor; - a blocking system connected to the rotating shaft; - a junction box connected to the tracking system, to the motor, and to the blocking system; wherein the blocking system comprises: - two reciprocating hydraulic pistons, arranged in the form of a V and controlled by a solenoid valve, said hydraulic pistons being connected to a support (1a, 1d) at the lower portion thereof, and to the rotating shaft at the upper portion thereof, such that the extension of said hydraulic pistons configures the angular blocking position of the rotating shaft; and characterized in that - the hydraulic pistons are connected to one another by means of a hose communicating the oil chambers thereof, therefore allowing the passage of oil from one piston to another; and - the hose is connected to the solenoid valve, such that it allows or retains the passage of oil from one piston to another for keeping the movements of the hydraulic pistons unblocked or blocked, respectively. - at least one support (1a, 1d) attached to a rotating shaft, wherein at least one solar panel is arranged; - a tracking system equipped with a control subsystem and an operating subsystem of the rotating shaft, wherein said tracking system comprises at least one sensor for detecting the position of the rotating shaft, one motor for operating the rotating shaft, and one power source for said motor; - a blocking system connected to the rotating shaft; - a junction box connected to the tracking system, to the motor, and to the blocking system; - two reciprocating hydraulic pistons, arranged in the form of a V and controlled by a solenoid valve, said hydraulic pistons being connected to a support (1a, 1d) at the lower portion thereof, and to the rotating shaft at the upper portion thereof, such that the extension of said hydraulic pistons configures the angular blocking position of the rotating shaft; - the hydraulic pistons are connected to one another by means of a hose communicating the oil chambers thereof, therefore allowing the passage of oil from one piston to another; and - the hose is connected to the solenoid valve, such that it allows or retains the passage of oil from one piston to another for keeping the movements of the hydraulic pistons unblocked or blocked, respectively.