mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communications performed by a user equipment, UE, comprising: successfully receiving , by the UE, a first packet during a first timeslot from a broadcast transmitter; measuring a power level of a negative acknowledgement, NACK, received during the first timeslot, relating to the first packet, and transmitted from one or more other receiving user equipments; receiving a second instance of the first packet during a second timeslot from the broadcast transmitter; determining , in response to receiving the second instance of the first packet during the second time slot, whether to relay the first packet during the second timeslot based on the measured power level of the NACK; and transmitting , in response to determining that the measured power level of the NACK is above a threshold power level, the first packet. successfully receiving , by the UE, a first packet during a first timeslot from a broadcast transmitter; measuring a power level of a negative acknowledgement, NACK, received during the first timeslot, relating to the first packet, and transmitted from one or more other receiving user equipments; receiving a second instance of the first packet during a second timeslot from the broadcast transmitter; determining , in response to receiving the second instance of the first packet during the second time slot, whether to relay the first packet during the second timeslot based on the measured power level of the NACK; and transmitting , in response to determining that the measured power level of the NACK is above a threshold power level, the first packet.
An ultrasonic imaging apparatus comprising: a user interface configured to receive an input signal of a user; a power-supply unit including a plurality of power-supply groups to provide power-supply signals for respectively driving a plurality of elements, and a power-supply processor to search for power data corresponding to the received input signal from among predetermined power data and to adjust power-supply signals applied to respective elements corresponding to the plurality of power-supply groups according to the searched power data; and wherein the input signal is configured to indicate transmission/reception (Tx/Rx) conditions regarding a frequency and interval of ultrasonic waves to be transmitted and received; and the power-supply processor is configured to search for power data corresponding to the input transmission/reception (Tx/Rx) conditions, and to adjust a switching frequency of power-supply signals applied to the plurality of elements according to the searched power data, characterized in that the plurality of power-supply groups comprises a first power-supply group (560_1) to provide a power-supply signal for driving a first element , and a second power-supply group (560_2) to provide power-supply signals for driving the first element and a second element . a user interface configured to receive an input signal of a user; a power-supply unit including a plurality of power-supply groups to provide power-supply signals for respectively driving a plurality of elements, and a power-supply processor to search for power data corresponding to the received input signal from among predetermined power data and to adjust power-supply signals applied to respective elements corresponding to the plurality of power-supply groups according to the searched power data; and wherein the input signal is configured to indicate transmission/reception (Tx/Rx) conditions regarding a frequency and interval of ultrasonic waves to be transmitted and received; and the power-supply processor is configured to search for power data corresponding to the input transmission/reception (Tx/Rx) conditions, and to adjust a switching frequency of power-supply signals applied to the plurality of elements according to the searched power data, characterized in that the plurality of power-supply groups comprises a first power-supply group (560_1) to provide a power-supply signal for driving a first element , and a second power-supply group (560_2) to provide power-supply signals for driving the first element and a second element .
A mobile terminal, comprising a metal rear cover used as a grounding component, bezels , a display , a printed circuit board accommodated between the metal rear cover and the display , and at least one antenna , wherein a radio frequency circuit and a reference ground that are corresponding to each antenna are disposed on the printed circuit board , the reference ground is connected to the metal rear cover , each antenna comprises a grounding pin , the grounding pin is electrically connected to the metal rear cover , and wherein bezels are disposed around the metal rear cover , each antenna further comprises a feeding pin , and the feeding pin is electrically connected to the radio frequency circuit corresponding to the respective antenna, characterized in that the bezels comprise a lower bezel which includes a metal material and gaps of a nonmetallic material to form metal parts ; one of the at least one antenna comprises an antenna wire that is connected to two metal parts of the lower bezel ; and said one of the at least one antenna further comprises a parasitic component in a position that is close to the feeding pin , said parasitic component comprising a further antenna wire and a further metal part of the lower bezel . wherein a radio frequency circuit and a reference ground that are corresponding to each antenna are disposed on the printed circuit board , the reference ground is connected to the metal rear cover , each antenna comprises a grounding pin , the grounding pin is electrically connected to the metal rear cover , and wherein bezels are disposed around the metal rear cover , each antenna further comprises a feeding pin , and the feeding pin is electrically connected to the radio frequency circuit corresponding to the respective antenna, characterized in that the bezels comprise a lower bezel which includes a metal material and gaps of a nonmetallic material to form metal parts ; one of the at least one antenna comprises an antenna wire that is connected to two metal parts of the lower bezel ; and said one of the at least one antenna further comprises a parasitic component in a position that is close to the feeding pin , said parasitic component comprising a further antenna wire and a further metal part of the lower bezel .
A method of assembling a plurality of wind turbine tower segments (30a; 30b; 30c; 202; 204; 206) for a wind turbine tower, the wind turbine tower comprising a plurality of cylindrical vertical tower sections (14a; 14b), which in the finished tower are mounted on top of one another, a vertical section of the tower having a longitudinal axis and comprising a plurality of wind turbine tower segments, the tower segments having vertical and horizontal edges and combining to form a complete vertical tower section by joining along their vertical edges, wherein adjacent vertical tower sections are joined to each other along the horizontal edges of the wind turbine tower segments, characterized in that at least a first segment and a second segment of a plurality of the wind turbine tower segments are coupled together by means of at least one hinge located at respective adjacent vertical edges of the first and second segments, and wherein the at least one hinge is at least partially closed, the method comprising: a) receiving the plurality of the tower segments; b) positioning first and second segments from the plurality of tower segments onto a support bed ; c) securing a lifting device to the second segment and lifting the second segment such that the hinge connecting the first and second segments opens; d) securing the hinged join between the first and second segments to prevent the first and second segments from moving relative to each other; e) rotating the combined first and second segment assembly to a new equilibrium position; f) positioning one or more subsequent segments with respect to the combined first and second segment assembly and securing them to it to form a complete tower section. a) receiving the plurality of the tower segments; b) positioning first and second segments from the plurality of tower segments onto a support bed ; c) securing a lifting device to the second segment and lifting the second segment such that the hinge connecting the first and second segments opens; d) securing the hinged join between the first and second segments to prevent the first and second segments from moving relative to each other; e) rotating the combined first and second segment assembly to a new equilibrium position; f) positioning one or more subsequent segments with respect to the combined first and second segment assembly and securing them to it to form a complete tower section.
A portable mobile telecommunications device arranged to generate sensor data associated with the behaviour of a vehicle and configured to log driving information associated with the vehicle during a driving period, when the portable mobile telecommunications device is within and removably installed to the vehicle and the vehicle is being driven by a driver, the portable mobile telecommunications device comprising: a sensor set comprising at least one of an image sensor , an audio sensor , an accelerometer and a positioning module ; a processor for processing sensor data from the sensor set to derive said driving information; a memory for storing said derived driving information; and a wireless telecommunications module operable to download an application; in use, the portable mobile telecommunications device being arranged to execute the downloaded application to control the portable mobile telecommunications device to: process sensor data from the sensor set during the driving period to derive driving information associated with how the vehicle is driven; and store a selection of the driving information to the memory characterised in that the portable mobile telecommunications device is arranged in use to execute the downloaded application to control the portable mobile telecommunications device to register the start of the driving period in response to an initialisation input generated automatically in response to the sensor data having predetermined values. a sensor set comprising at least one of an image sensor , an audio sensor , an accelerometer and a positioning module ; a processor for processing sensor data from the sensor set to derive said driving information; a memory for storing said derived driving information; and a wireless telecommunications module operable to download an application; in use, the portable mobile telecommunications device being arranged to execute the downloaded application to control the portable mobile telecommunications device to: process sensor data from the sensor set during the driving period to derive driving information associated with how the vehicle is driven; and store a selection of the driving information to the memory
A method for producing a construction material component that has a three-dimensional shape being curved in a concave or convex manner in one or more spatial directions and that is provided with a textile reinforcement , said method comprising the following steps; - providing a formwork having at least one formwork part for producing the construction material component , - placing spacers in the formwork , - arranging the textile reinforcement produced from at least one textile strand on the spacers , - applying a tensile force (FZ) to the textile reinforcement by means of a tensioning device , which is located outside the formwork , wherein the textile reinforcement prestressed by the tensile force (FZ) does not extend parallel to a plane, - pouring flowable construction material (B) into the formwork around the textile reinforcement and hardening the construction material (B), - removing the hardened construction material component from the formwork . - providing a formwork having at least one formwork part for producing the construction material component , - placing spacers in the formwork , - arranging the textile reinforcement produced from at least one textile strand on the spacers , - applying a tensile force (FZ) to the textile reinforcement by means of a tensioning device , which is located outside the formwork , wherein the textile reinforcement prestressed by the tensile force (FZ) does not extend parallel to a plane, - pouring flowable construction material (B) into the formwork around the textile reinforcement and hardening the construction material (B), - removing the hardened construction material component from the formwork .
A device for displaying information of importance for driving a vehicle to a driver inside a driver's cabin of the vehicle, the device comprising a display arrangement with a display unit having a screen configured to display said information, said display arrangement comprising two separate said display units with a screen each joined to form a display member with two screens on opposite sides thereof, the device further comprising a frame configured to be attached to a carrier inside a said driver's cabin and provided with on one hand mechanical members configured to interact with mechanical members of the display member for removable attachment of the display member to and within the frame with in use the screen of one of said display units facing the space of the driver's cabin and on the other hand with electrical connecting members for interacting with electrical connecting members of the display member for electrical connection of the display unit with in use the screen facing the space of the driver's cabin when the display member is attached to and received in said frame , characterized in that each display unit is a so called Driver's Machine Interface (DMI) configured to display important information to the driver of a heavy transport vehicle, such as a train, so as to obtain redundancy of the operation of the DMI for such a vehicle.
Device for cleaning air laden with CO 2 in an enclosed space, comprising two adsorption devices for adsorbing CO 2 from the air supplied to the adsorption devices , a desorption device assigned to each of the adsorption devices for desorbing adsorbed CO 2 , and respectively a removal device for removing the desorbed CO 2 , wherein one adsorption device is adsorbed while the other one is desorbed, and vice versa, characterised in that a filter device is connected upstream or downstream of each of the adsorption devices , by means of which filter device pollutants contained in the air to be supplied or in the cleaned air to be supplied back to the space can be filtered out and in that a fan is connected upstream of each adsorption device .
Polymer comprising sulfonated 2,6-diphenyl-1,4-phenylene oxide repeating units in accordance with Formula (Ia): wherein group R represents sulfonic acid (-SO 3 H), sulfonate salt (-SO 3 - X + ), wherein X + is a cation, or combinations thereof, wherein x, y and z are integer values, independently chosen from 0, 1 and 2; and wherein the equivalent weight, defined as the number of grams of dry sulfonated polymer per mol of group R, is between 215 and 270 g/(mol R). wherein group R represents sulfonic acid (-SO 3 H), sulfonate salt (-SO 3 - X + ), wherein X + is a cation, or combinations thereof, wherein x, y and z are integer values, independently chosen from 0, 1 and 2; and wherein the equivalent weight, defined as the number of grams of dry sulfonated polymer per mol of group R, is between 215 and 270 g/(mol R).
A method of a User Equipment, in the following also referred to as UE, for performing random access procedure, comprising: the UE transmits a Preamble to a network ; the UE receives a Msg2 from the network in response to the Preamble ; and the UE performs a Msg3 transmission to the network according to TTI information of the Msg3 , wherein the TTI information of the Msg3 is contained in the Msg2, characterized in that the TTI information of the Msg3 includes a first number of time units and a second number of time units for indicating a TTI duration of the Msg3 and a gap period between Msg2 reception and Msg3 transmission, respectively. the UE transmits a Preamble to a network ; the UE receives a Msg2 from the network in response to the Preamble ; and the UE performs a Msg3 transmission to the network according to TTI information of the Msg3 , wherein the TTI information of the Msg3 is contained in the Msg2, characterized in that the TTI information of the Msg3 includes a first number of time units and a second number of time units for indicating a TTI duration of the Msg3 and a gap period between Msg2 reception and Msg3 transmission, respectively.
A compound of Formula (I): a metabolite thereof or an ester of the compound of Formula (I), or a pharmaceutically acceptable salt of each of the foregoing, for use in a method of reducing a triglyceride blood level in a subject, in a method of reducing a total cholesterol blood level in a subject, or in a method of reducing a low density lipoprotein (LDL) blood level in a subject, wherein said compound, metabolite, ester or salt is administered to a subject in need thereof in an effective amount, and wherein m is an integer from 2 to 5, n is an integer from 3 to 8, X 1 and X 2 each independently represent a sulfur atom, oxygen atom, sulfinyl group, or a sulfonyl group, provided that X 1 and X 2 cannot both be oxygen atoms, wherein the metabolite of the compound of Formula (I) is a compound of Formula (IB): wherein the effective amount is about 50 mg to about 5000 mg per day. a metabolite thereof or an ester of the compound of Formula (I), or a pharmaceutically acceptable salt of each of the foregoing, for use in a method of reducing a triglyceride blood level in a subject, in a method of reducing a total cholesterol blood level in a subject, or in a method of reducing a low density lipoprotein (LDL) blood level in a subject, wherein said compound, metabolite, ester or salt is administered to a subject in need thereof in an effective amount, and wherein m is an integer from 2 to 5, n is an integer from 3 to 8, X 1 and X 2 each independently represent a sulfur atom, oxygen atom, sulfinyl group, or a sulfonyl group, provided that X 1 and X 2 cannot both be oxygen atoms, wherein the metabolite of the compound of Formula (I) is a compound of Formula (IB): wherein the effective amount is about 50 mg to about 5000 mg per day.
A mass spectrometer pumping device for supplying a diluted sample to a mass spectrometric analyser, comprising: a first conduit for a sample; a second conduit for a diluent; a third conduit for the diluted sample; a mixer arranged to mix a sample with a diluent to form the diluted sample, said mixer being disposed between the first conduit and the second conduit such that, in use, a sample enters the mixer through the first conduit at a first flow rate and a diluent enters the mixer through the second conduit at a second flow rate, the mixer being coupled to the third conduit and being arranged so that said diluted sample exits the mixer through the third conduit at a third flow rate, said third flow rate being substantially equal to the sum of the first and second flow rates; pump means for pumping fluid through the mixer and into the mass spectrometric analyser, the pump means comprising: a valve, or variable constriction, disposed in one of the first and second conduits and configured to control the first flow rate or the second flow rate, respectively; and a single pump arranged on the third conduit and configured to pump the diluted sample through the third conduit at the third flow rate; characterised in that the pump means further comprises a pump controller arranged to receive mass spectrometer analyser data indicative of the amount by which the sample is diluted and to control the pump means so that any of the first, second or third flow rates are adjustable with respect to one another in dependence upon the received mass spectrometer analyser data. a first conduit for a sample; a second conduit for a diluent; a third conduit for the diluted sample; a mixer arranged to mix a sample with a diluent to form the diluted sample, said mixer being disposed between the first conduit and the second conduit such that, in use, a sample enters the mixer through the first conduit at a first flow rate and a diluent enters the mixer through the second conduit at a second flow rate, the mixer being coupled to the third conduit and being arranged so that said diluted sample exits the mixer through the third conduit at a third flow rate, said third flow rate being substantially equal to the sum of the first and second flow rates; pump means for pumping fluid through the mixer and into the mass spectrometric analyser, the pump means comprising: a valve, or variable constriction, disposed in one of the first and second conduits and configured to control the first flow rate or the second flow rate, respectively; and a single pump arranged on the third conduit and configured to pump the diluted sample through a valve, or variable constriction, disposed in one of the first and second conduits and configured to control the first flow rate or the second flow rate, respectively; and a single pump arranged on the third conduit and configured to pump the diluted sample through the third conduit at the third flow rate;
A method for purifying a reclaimed polyolefin comprising: a. Obtaining the reclaimed polyolefin wherein said reclaimed polyolefin is selected from the group consisting of post-consumer use polymers, post-industrial use polymers, and combinations thereof; b. Contacting the reclaimed polyolefin at a temperature from 80°C to 220 °C and at a pressure from 1.03MPa (150 psig) to 103.43 MPA (15,000 psig) with a first fluid solvent having a standard boiling point less than 70°C, to produce an extracted reclaimed polyolefin; c. Dissolving the extracted reclaimed polyolefin in a solvent selected from the group consisting of the first fluid solvent, a second fluid solvent, and mixtures thereof, at a temperature from 90°C to 220°C and a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) to produce a polymer solution; d. Purifying said polymer solution at a temperature from 90°C to 220°C and at a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) by contacting said polymer solution with solid media to produce a purer polymer solution; and e. Separating a purer polymer from said purer polymer solution; wherein said second fluid solvent is of the same chemical composition or a different chemical composition as the first fluid solvent. a. Obtaining the reclaimed polyolefin wherein said reclaimed polyolefin is selected from the group consisting of post-consumer use polymers, post-industrial use polymers, and combinations thereof; b. Contacting the reclaimed polyolefin at a temperature from 80°C to 220 °C and at a pressure from 1.03MPa (150 psig) to 103.43 MPA (15,000 psig) with a first fluid solvent having a standard boiling point less than 70°C, to produce an extracted reclaimed polyolefin; c. Dissolving the extracted reclaimed polyolefin in a solvent selected from the group consisting of the first fluid solvent, a second fluid solvent, and mixtures thereof, at a temperature from 90°C to 220°C and a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) to produce a polymer solution; d. Purifying said polymer solution at a temperature from 90°C to 220°C and at a pressure from 2.41 MPa (350 psig) to 137.90 MPa (20,000 psig) by contacting said polymer solution with solid media to produce a purer polymer solution; and e. Separating a purer polymer from said purer polymer solution;