mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE , for a wireless communication system, the UE comprising: a transceiver ; and a processor operably connected to the transceiver and configured to: receive, from a base station , information configuring an uplink transmission without a transmit precoding matrix indicator, TPMI, receive, from the base station , configuration information on a non-zero power channel state information reference signal, CSI-RS, resource corresponding to a sounding reference signal, SRS, receive, from the base station, a non-zero power CSI-RS corresponding to the non-zero power CSI-RS resource, identify an uplink precoder for the SRS based on the received non-zero power CSI-RS, wherein the non-zero power CSI-RS resource corresponds to one or more SRS resources, and transmit, to the base station, the SRS . a transceiver ; and a processor operably connected to the transceiver and configured to: receive, from a base station , information configuring an uplink transmission without a transmit precoding matrix indicator, TPMI, receive, from the base station , configuration information on a non-zero power channel state information reference signal, CSI-RS, resource corresponding to a sounding reference signal, SRS, receive, from the base station, a non-zero power CSI-RS corresponding to the non-zero power CSI-RS resource, identify an uplink precoder for the SRS based on the received non-zero power CSI-RS, wherein the non-zero power CSI-RS resource corresponds to one or more SRS resources, and transmit, to the base station, the SRS . receive, from a base station , information configuring an uplink transmission without a transmit precoding matrix indicator, TPMI, receive, from the base station , configuration information on a non-zero power channel state information reference signal, CSI-RS, resource corresponding to a sounding reference signal, SRS, receive, from the base station, a non-zero power CSI-RS corresponding to the non-zero power CSI-RS resource, identify an uplink precoder for the SRS based on the received non-zero power CSI-RS, wherein the non-zero power CSI-RS resource corresponds to one or more SRS resources, and transmit, to the base station, the SRS .
Process for the production of foods, the foods being contained within a cylindrical sheath , the process comprising the step of heating through application of electrical current, wherein the sheath is contacted by at least two electrodes to which current of opposite polarity is applied, wherein the electrodes are cylindrical, are arranged axially in parallel, and are mounted concordantly rotatably around their axes, characterized in that at least one electrode is segmented into axial segments which are insulated against one another, wherein each electrode segment is contacted with the current source by means of a line and wherein each electrode segment is individually connectable to the current source, and in that the sheath with its longitudinal axis is arranged in parallel to the longitudinal axes of the electrodes , so that the at least two electrodes rotate axially in parallel to the sheath , the sheath having a rotational direction opposite to the electrodes .
A downhole drilling characteristic measurement system for measuring a characteristic of drilling through the earth's subsurface, the system comprising: a downhole tool having an active measurement system, comprising a receiver , a first transmitter , and a second transmitter ; a controller in communication with the first transmitter and the second transmitter , the controller configured to control the first transmitter and the second transmitter to transmit a first transmitted signal from the first transmitter and a second transmitted signal from the second transmitter , wherein the receiver is arranged to receive a first received signal from the first transmitted signal and a second received signal from the second transmitted signal; and a processor configured to determine a characteristic of drilling from the first received signal and the second received signal, wherein the characteristic of drilling is indicative of at least one of a rate of penetration, a depth, a rotational velocity, an arc length, and a toolface. a downhole tool having an active measurement system, comprising a receiver , a first transmitter , and a second transmitter ; a controller in communication with the first transmitter and the second transmitter , the controller configured to control the first transmitter and the second transmitter to transmit a first transmitted signal from the first transmitter and a second transmitted signal from the second transmitter , wherein the receiver is arranged to receive a first received signal from the first transmitted signal and a second received signal from the second transmitted signal; and a processor configured to determine a characteristic of drilling from the first received signal and the second received signal, wherein the characteristic of drilling is indicative of at least one of a rate of penetration, a depth, a rotational velocity, an arc length, and a toolface.
Milk frother for frothing milk for a hot beverage preparation device , in particular for a fully automatic coffee machine having a jet pump comprising a propulsion nozzle , wherein during operation of the milk frother steam can be released by means of the propulsion nozzle as a propellant of the jet pump in the form of a propulsion jet which can be discharged along a jet direction ; wherein the jet pump has a collection nozzle , which tapers along the jet direction (S), for collecting the propulsion jet, wherein the collection nozzle at least partially delimits a mixing chamber of the milk frother ; wherein a suction connection of the jet pump , in particular transversely to the jet direction (S), opens into the mixing chamber , so that the steam of the propulsion jet and a mixture of milk and air which can taken in by means of the jet pump can be mixed in the mixing chamber , in turn generating the milk froth; wherein an air duct and a milk container for receiving milk and/or a milk duct is fluidically connected to the suction connection of the jet pump , and wherein the milk frother has an adjustment facility which can be adjusted in particular manually or mechanically or hydromechanically in order to vary a consistency of the milk froth.
A communication device configured to use wireless channels, the communication device comprising: acceptance means for accepting, from a different communication device and through one of the wireless channels, channel information that indicates wireless channels that can be used by the different communication device; application means for outputting first information created in the communication device when the communication device acts as a transmitting source; control means for selecting, as a wireless forwarding channel that is to be used when the communication device acts as a relay device for forwarding first information that has been received from one communication device to another communication device, a wireless channel which is different from a wireless transmission channel for transmitting the first information created within the communication device, from among the wireless channels that are indicated by the channel information, and for adding second information indicating the selected wireless forwarding channel to the first information created within the communication device; and transmission means for transmitting the first information created within the communication device to which the second information has been added by using the wireless transmission channel, and for forwarding the first information that has been received from said one communication device to said another communication device by using the selected wireless forwarding channel. acceptance means for accepting, from a different communication device and through one of the wireless channels, channel information that indicates wireless channels that can be used by the different communication device; application means for outputting first information created in the communication device when the communication device acts as a transmitting source; control means for selecting, as a wireless forwarding channel that is to be used when the communication device acts as a relay device for forwarding first information that has been received from one communication device to another communication device, a wireless channel which is different from a wireless transmission channel for transmitting the first information created within the communication device, from among the wireless channels that are indicated by the channel information, and for adding second information indicating the selected wireless forwarding channel to the first information created within the communication device; and transmission means for transmitting the first information created within the communication device to which the second information has been added by using the wireless transmission channel, and for forwarding the first information that has been received from said one communication device to said another communication device by using the selected wireless forwarding channel.
A method of making ultra-small lipid structures (USLS) comprising the single step of diluting an optically clear stock solution containing: (a) a hydro-organic solvent mixture containing about 0.1% to about 20% (v/v) water and about 80% to about 99.9% (v/v) of one or more water-miscible organic solvents; (b) about 50 mg/ml to about 250 mg/ml of one or more lipid compounds; and (c) one or more passenger compounds; with water at a dilution ratio of about 1:5 to about 1:200, wherein the term "ultra-small lipid structures (USLS)" refers to lipid vesicles having a bilayer or non-bilayer lipid surrounding structure and an aqueous or semi-aqueous core, and having an average diameter of 100 nm or less as measured using a dynamic light scattering (DLS) analyzer, and wherein the USLS product obtained contains a population of from 1% to 2% particles having diameter of from 1 nm to 5 nm as measured using a dynamic light scattering (DLS) analyzer. (a) a hydro-organic solvent mixture containing about 0.1% to about 20% (v/v) water and about 80% to about 99.9% (v/v) of one or more water-miscible organic solvents; (b) about 50 mg/ml to about 250 mg/ml of one or more lipid compounds; and (c) one or more passenger compounds;
A stent-graft comprising: a graft having an elongate lumen and a longitudinal axis ; at least one stent having a plurality of struts (351-354) and an apex (311-382) between each of the plurality struts, the apices including proximal apices (311-313) and distal apices ; a running suture attaching the stent to the graft , the running suture comprising: first and second knots (502a, 502b; 503a, 503b; 504a, 504b) knotted along the length of each of at least some struts of the plurality of struts (351-354) at intermediate points spaced from the proximal and distal apices (311-382) of said at least some struts, a length of running suture running between the first and second knots , and a first bridging portion extending between a first knot on a first strut and a first knot on a second strut next adjacent the first strut , and a second bridging portion extending from a second knot on the second strut to a second knot of a third strut next adjacent the second strut . a graft having an elongate lumen and a longitudinal axis ; at least one stent having a plurality of struts (351-354) and an apex (311-382) between each of the plurality struts, the apices including proximal apices (311-313) and distal apices ; a running suture attaching the stent to the graft , the running suture comprising: first and second knots (502a, 502b; 503a, 503b; 504a, 504b) knotted along the length of each of at least some struts of the plurality of struts (351-354) at intermediate points spaced from the proximal and distal apices (311-382) of said at least some struts, a length of running suture running between the first and second knots , and a first bridging portion extending between a first knot on a first strut and a first knot on a second strut next adjacent the first strut , and a second bridging portion extending from a second knot on the second strut to a second knot of a third strut next adjacent the second strut . first and second knots (502a, 502b; 503a, 503b; 504a, 504b) knotted along the length of each of at least some struts of the plurality of struts (351-354) at intermediate points spaced from the proximal and distal apices (311-382) of said at least some struts, a length of running suture running between the first and second knots , and a first bridging portion extending between a first knot on a first strut and a first knot on a second strut next adjacent the first strut , and a second bridging portion extending from a second knot on the second strut to a second knot of a third strut next adjacent the second strut .
A device for measuring the characteristic angles and dimensions of wheels, steering system and chassis of vehicles in general, comprising a computer and a pair of 3D scanners for each axle of a vehicle having at least two axles, said 3D scanners being functionally connected to said computer and adapted to be arranged peripherally to said vehicle at the respective axle such that each pair of 3D scanners is arranged mutually opposite with respect to said vehicle whose dimensions and characteristic angles of wheels, steering system and chassis are to be measured, each 3D scanner comprising at least one camera framing at least one wheel of said vehicle for the three-dimensional acquisition of an image of said at least one wheel , each one of said 3D. scanners being further provided with at least one fixed target for the setting and calibration of said measurement device , wherein said at least one camera of each one of said 3D scanners is arranged in such a manner as to frame directly at least one fixed target of another one of said 3D scanners , characterised in that one of said cameras is arranged in such a manner as to frame directly at least two fixed targets of another two of said 3D scanners arranged on the opposite side of said vehicle , one along the same axle of said vehicle and, the other along a different axle of said vehicle , with respect to the 3D scanner being considered, for the setting and calibration of said measurement device by three-dimensional acquisitions of said fixed targets performed by said cameras.
A method for performing sidelink communication by a first apparatus , the method comprising: receiving information on reference signal received power, RSRP, for channel state information - reference signal, CSI-RS, from a second apparatus; determining the RSRP for the CSI-RS, based on the information on the RSRP for the CSI-RS; performing (S1410) initial transmission to the second apparatus through first physical sidelink control channel, PSCCH, and first physical sidelink shared channel, PSSCH, related to the PSCCH; performing (S1420) at least one of first retransmission to the second apparatus through at least one of second PSCCH and at least one of second PSSCH related to the at least one of second PSCCH; receiving (S1430) hybrid automatic repeat request negative acknowledgement, HARQ NACK, related to the initial transmission and the at least one of first retransmission from the second apparatus through physical sidelink feedback channel, PSFCH; and performing (S1440) at least one of second retransmission to the second apparatus based on the reception of the HARQ NACK, wherein a number of the at least one of second retransmission is determined based on mapping information between a number of retransmissions and the RSRP for the CSI-RS. receiving information on reference signal received power, RSRP, for channel state information - reference signal, CSI-RS, from a second apparatus; determining the RSRP for the CSI-RS, based on the information on the RSRP for the CSI-RS; performing (S1410) initial transmission to the second apparatus through first physical sidelink control channel, PSCCH, and first physical sidelink shared channel, PSSCH, related to the PSCCH; performing (S1420) at least one of first retransmission to the second apparatus through at least one of second PSCCH and at least one of second PSSCH related to the at least one of second PSCCH; receiving (S1430) hybrid automatic repeat request negative acknowledgement, HARQ NACK, related to the initial transmission and the at least one of first retransmission from the second apparatus through physical sidelink feedback channel, PSFCH; and performing (S1440) at least one of second retransmission to the second apparatus based on the reception of the HARQ NACK, wherein a number of the at least one of second retransmission is determined based on mapping information between a number of retransmissions and the RSRP for the CSI-RS.
An apparatus for introducing a foil to be laminated to an inner surface of an elongated duct , wherein the foil is providable on an axle , the axle being movable from a first position outside of the duct , where the foil is provided on the axle , to a second position inside the duct where the foil is in position for lamination to the inner surface of the duct , wherein the foil is in the form of a sheet, preferably rolled off a supply roll, and wherein the axle comprises means for regulating a gas, both under pressure and over pressure, and having orifices connected to the regulation means at a surface of the axle, and comprising an apparatus for laminating a foil to an inner surface of an elongated duct , wherein the apparatus comprises the axle or another axle provided with at least one heat laminating means , the at least one heat laminating means is provided in the vicinity of a first end of the axle, the axle being movable from a first position outside of a first end of the duct through an inner space of the duct to an end position where at least a portion of the axle, the portion having the heat laminating means, is outside of a second end of the duct, the first end of the axle is the end that enters the inner space of the duct during the movement.
A method for modulating a plurality of K -ary symbols to be transmitted on a transmission channel, the method comprising: converting the k bits of each K -ary symbol into a distinct integer value, and generating a Zadoff-Chu sequence, associated with this symbol, said Zadoff-Chu sequence being defined as: ZC N r , q k = e − j π N r k + 1 + 2 q k , k = 0 , ... , N − 1 if N is odd ZC N r , q k = e − j π N r k + 2 q k , k = 0 , ... , N − 1 , f N is even said Zadoff-Chu sequence being of length N, root r and frequency offset q where N is a positive integer such that log 2 N ≥ K, r is an integer such that r > 1 and prime with N, q is a relative integer, each K -ary symbol being modulated in the form of a sequence, of length greater than or equal to 2 K , of consecutive complex elements of the Zadoff-Chu sequence of length N, root r and frequency offset q equal to said integer value associated with said K -ary symbol, said modulation method being characterised in that any two K -ary symbols of said plurality are associated with Zadoff-Chu sequences having distinct frequency offsets. converting the k bits of each K -ary symbol into a distinct integer value, and generating a Zadoff-Chu sequence, associated with this symbol, said Zadoff-Chu sequence being defined as: ZC N r , q k = e − j π N r k + 1 + 2 q k , k = 0 , ... , N − 1 if N is odd ZC N r , q k = e − j π N r k + 2 q k , k = 0 , ... , N − 1 , f N is even said Zadoff-Chu sequence being of length N, root r and frequency offset q where N is a positive integer such that log 2 N ≥ K, r is an integer such that r > 1 and prime with N, q is a relative integer, each K -ary symbol being modulated in the form of a sequence, of length greater than or equal to 2 K , of consecutive complex elements of the Zadoff-Chu sequence of length N, root r and frequency offset q equal to said integer value associated with said K -ary symbol, said modulation method being characterised in that any two K -ary symbols of said plurality are associated with Zadoff-Chu sequences having distinct frequency offsets.
A cut, slash and/or abrasion resistant garment selected from the group consisting of shirts, sweaters, vests, undergarments, pants, jumpsuits, dickeys, and head coverings and made from one or more shaped knit fabric panels, said one or more shaped knit fabric panels comprising at least one cut, slash and/or abrasion resistant yarn, characterized in that : said at least one cut, slash and/or abrasion resistant yarn comprising a member selected from a high performance yarn or a yarn blend comprising one or more high performance yarns, wherein the high performance yarn is selected from extended chain polyethylene, aramids, and liquid crystalline polyesters, such that said or each shaped knit fabric panel has a cut resistance of at least 500 (as measured by ASTM-F1790-04) and a fabric weight of no more than 915.45 g/m 2 (27.9 ounces/square yard (OPSY)). said at least one cut, slash and/or abrasion resistant yarn comprising a member selected from a high performance yarn or a yarn blend comprising one or more high performance yarns, wherein the high performance yarn is selected from extended chain polyethylene, aramids, and liquid crystalline polyesters, such that said or each shaped knit fabric panel has a cut resistance of at least 500 (as measured by ASTM-F1790-04) and a fabric weight of no more than 915.45 g/m 2 (27.9 ounces/square yard (OPSY)).
A fluid delivery system comprising: a fluid reservoir; a pump that controls the flow of fluid from the fluid reservoir to a patient via a fluid path; a sensor located along the fluid path to detect fluid flow or pressure, the fluid path having a cavity adjacent a portion of the fluid path such that the fluid path is exposed within the cavity; and a processor configured to control the pump to deliver the fluid to the patient and to receive sensor data from the sensor; characterized in that the sensor comprises a protrusion on a sensor enclosure, the protrusion is configured to extend away from the sensor enclosure and into the cavity, and the cavity is dimensioned such that an exterior distal end of the protrusion is within the cavity and volume of the fluid in the cavity is minimized when the exterior distal end of the protrusion is disposed within the cavity, and wherein, when the protrusion is disposed within the cavity, the protrusion is exposed to the fluid in the fluid path to allow contact between the fluid and the sensor to detect the fluid flow or pressure, the sensor enclosure having electronics for generating sensor data corresponding to the detected fluid flow or pressure, the electronics configured to be connected to the processor to provide the sensor data to the processor . a fluid reservoir; a pump that controls the flow of fluid from the fluid reservoir to a patient via a fluid path; a sensor located along the fluid path to detect fluid flow or pressure, the fluid path having a cavity adjacent a portion of the fluid path such that the fluid path is exposed within the cavity; and a processor configured to control the pump to deliver the fluid to the patient and to receive sensor data from the sensor; characterized in that the sensor comprises a protrusion on a sensor enclosure, the protrusion is configured to extend away from the sensor enclosure and into the cavity, and the cavity is dimensioned such that an exterior distal end of the protrusion is within the cavity and volume of the fluid in the cavity is minimized when the exterior distal end of the protrusion is disposed within the cavity, and wherein, when the protrusion is disposed within the cavity, the protrusion is exposed to the fluid in the fluid path to allow contact between the fluid and the sensor to detect the fluid flow or pressure, the sensor enclosure having electronics for generating sensor data corresponding to the detected fluid flow or pressure, the electronics configured to be connected to the processor to provide the sensor data to the processor .