mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing impurities from a hydrocarbon stream, the method comprising the steps of: (a) supplying a portion of an untreated feed stream, said feed stream comprising one or more hydrocarbons and undesirable impurities, said impurities comprise at least one compound having at least one of the following elements: nitrogen, halogens, oxygen, sulfur, arsenic, selenium, tellurium, phosphorus, and Group 1 through Group 12 metals, (b) supplying a guard bed material which comprises a zeolite having a Constraint Index of less than 3 and a mesoporous binder, said mesoporous binder comprises a mesoporous metal oxide which has a particle diameter of greater than or equal to 20 μm at 50% of the cumulative particle size distribution (d 50 ), a pore volume of less than 1 cc/g and an alumina content greater than or equal to 75%, by weight, wherein the ratio of said zeolite to said mesoporous metal oxide is in the range from 95:5 to 5:95, by weight, wherein said guard bed material has one or more of the following properties: (i) an Alpha Value of greater than or equal to 500, (ii) a Collidine Uptake of greater than or equal to 600 μmoles/g, and (iii) a Temperature Programmed Ammonia Desportion of greater than or equal to 0.70 meq/g; and (c) contacting said portion of said untreated feed stream with said guard bed material under treatment conditions to remove at least a portion of said impurities and produce a treated feed stream having a reduced amount of impurities. (a) supplying a portion of an untreated feed stream, said feed stream comprising one or more hydrocarbons and undesirable impurities, said impurities comprise at least one compound having at least one of the following elements: nitrogen, halogens, oxygen, sulfur, arsenic, selenium, tellurium, phosphorus, and Group 1 through Group 12 metals, (b) supplying a guard bed material which comprises a zeolite having a Constraint Index of less than 3 and a mesoporous binder, said mesoporous binder comprises a mesoporous metal oxide which has a particle diameter of greater than or equal to 20 μm at 50% of the cumulative particle size distribution (d 50 ), a pore volume of less than 1 cc/g and an alumina content greater than or equal to 75%, by weight, wherein the ratio of said zeolite to said mesoporous metal oxide is in the range from 95:5 to 5:95, by weight, wherein said guard bed material has one or more of the following properties: (i) an Alpha Value of greater than or equal to 500, (ii) a Collidine Uptake of greater than or equal to 600 μmoles/g, and (iii) a Temperature Programmed Ammonia Desportion of greater than or equal to 0.70 meq/g; and (i) an Alpha Value of greater than or equal to 500, (ii) a Collidine Uptake of greater than or equal to 600 μmoles/g, and (iii) a Temperature Programmed Ammonia Desportion of greater than or equal to 0.70 meq/g; and (c) contacting said portion of said untreated feed stream with said guard bed material under treatment conditions to remove at least a portion of said impurities and produce a treated feed stream having a reduced amount of impurities.
A base station comprising: an allocating circuit adapted to allocate, to a group common control resource set, a group common physical downlink control channel, PDCCH, which contains information indicating a configuration of a slot and another PDCCH which does not contain the information; and a transmitter adapted to transmit the group common PDCCH and the another PDCCH to a terminal, the base station being characterized in that : a number of symbols to which the group common PDCCH is allocated is made equal to a smallest number of symbols to which the another PDCCH is allocated. an allocating circuit adapted to allocate, to a group common control resource set, a group common physical downlink control channel, PDCCH, which contains information indicating a configuration of a slot and another PDCCH which does not contain the information; and a transmitter adapted to transmit the group common PDCCH and the another PDCCH to a terminal, the base station being characterized in that : a number of symbols to which the group common PDCCH is allocated is made equal to a smallest number of symbols to which the another PDCCH is allocated.
A method, comprising: switching a first set of capacitors of a capacitor bank of a low pass filter, LPF, of a phase-locked loop, PLL, from the LPF to an output of a buffer during a calibration phase of the PLL, wherein in the calibration phase, a loop of the PLL is locked and a voltage controlled oscillator, VCO, tuning voltage is shaped by the loop in order to produce a calibration ramp of a dummy chirp at a VCO output, during the calibration phase, the buffer of the PLL is copying the VCO tuning voltage on the first set of capacitors resulting in providing the calibration ramp to the first set of capacitors, measuring a buffer output current provided to the first set of capacitors during the calibration phase, matching a chirp injection current profile with the measured buffer output current, switching the first set of capacitors from the output of the buffer to the LPF during an acquisition phase of the PLL, generating a frequency chirp based on the chirp injection current profile during the acquisition phase of the PLL. switching a first set of capacitors of a capacitor bank of a low pass filter, LPF, of a phase-locked loop, PLL, from the LPF to an output of a buffer during a calibration phase of the PLL, wherein in the calibration phase, a loop of the PLL is locked and a voltage controlled oscillator, VCO, tuning voltage is shaped by the loop in order to produce a calibration ramp of a dummy chirp at a VCO output, during the calibration phase, the buffer of the PLL is copying the VCO tuning voltage on the first set of capacitors resulting in providing the calibration ramp to the first set of capacitors, measuring a buffer output current provided to the first set of capacitors during the calibration phase, matching a chirp injection current profile with the measured buffer output current, switching the first set of capacitors from the output of the buffer to the LPF during an acquisition phase of the PLL, generating a frequency chirp based on the chirp injection current profile during the acquisition phase of the PLL.
An inkjet ink composition comprising: (a) particles of a polymer compound having at least one reactive functional group selected from the group consisting of an epoxy group and a carboxy group; (b) a reactive compound having a functional group that reacts with the reactive functional group of the (a) particles of the polymer compound by energy application, wherein the functional group of the (b) reactive compound is different from the reactive functional group of the (a) particles of the polymer compound, and is at least one selected from the group consisting of an epoxy group and a carboxy group; (c) a coloring agent; and (d) a water-soluble organic solvent. (a) particles of a polymer compound having at least one reactive functional group selected from the group consisting of an epoxy group and a carboxy group; (b) a reactive compound having a functional group that reacts with the reactive functional group of the (a) particles of the polymer compound by energy application, wherein the functional group of the (b) reactive compound is different from the reactive functional group of the (a) particles of the polymer compound, and is at least one selected from the group consisting of an epoxy group and a carboxy group; (c) a coloring agent; and (d) a water-soluble organic solvent.
A filter insert comprising: a mounting disc ; a tube and a closed-ended cylindrical cap , one end of the tube being sealingly affixed around the periphery of the mounting disc ; the other end of the tube being sealingly affixed around the periphery of the closed-ended cylindrical cap , wherein the mounting disc and the closed-ended cylindrical cap both comprise cylindrical spigots ; an inlet aperture and an outlet aperture in the mounting disc , each aperture communicating via a through hole in the mounting disc with the interior of the tube ; a porous tubular filter element located within the tube and being interposed between the inlet aperture and the outlet aperture , the filter element comprising: an outer surface ; and an interior surface that is an interference fit with the outer surface of the cylindrical spigots , wherein the outlet aperture is located radially inwardly of the interior surface of the filter element and the inlet aperture is located radially outwardly of the outer surface of the filter element and wherein the tube is at least partially manufactured of a flexible plastics material, and wherein the mounting disc is rigid. a mounting disc ; a tube and a closed-ended cylindrical cap , one end of the tube being sealingly affixed around the periphery of the mounting disc ; the other end of the tube being sealingly affixed around the periphery of the closed-ended cylindrical cap , wherein the mounting disc and the closed-ended cylindrical cap both comprise cylindrical spigots ; an inlet aperture and an outlet aperture in the mounting disc , each aperture communicating via a through hole in the mounting disc with the interior of the tube ; a porous tubular filter element located within the tube and being interposed between the inlet aperture and the outlet aperture , the filter element comprising: an outer surface ; and an interior surface that is an interference fit with the outer surface of the cylindrical spigots , wherein the outlet aperture is located radially inwardly of the interior surface of the filter element and the inlet aperture is located radially outwardly of the outer surface of the filter element and wherein the tube is at least partially manufactured of a flexible plastics material, and wherein the mounting disc is rigid. an outer surface ; and an interior surface that is an interference fit with the outer surface of the cylindrical spigots , wherein the outlet aperture is located radially inwardly of the interior surface of the filter element and the inlet aperture is located radially outwardly of the outer surface of the filter element and wherein the tube is at least partially manufactured of a flexible plastics material, and wherein the mounting disc is rigid.
A method comprising: providing a jet of liquid; breaking the jet of liquid into a stream of discrete volumes of liquid; being characterized by : directing a pulsed laser beam towards the stream of discrete volumes of liquid to selectively engage some discrete volumes, such that volumes of liquid in the stream of discrete volumes of liquid that are engaged by the pulsed laser beam are displaced away from the stream and volumes of liquid in the stream of discrete volumes of liquid that are not engaged by the pulsed laser beam remain in the stream; and adjusting a parameter of the pulsed laser beam to change a distance and/or direction of the displacement of the volumes of liquid that are engaged by the pulsed laser beam away from the stream. providing a jet of liquid; breaking the jet of liquid into a stream of discrete volumes of liquid; being characterized by : directing a pulsed laser beam towards the stream of discrete volumes of liquid to selectively engage some discrete volumes, such that volumes of liquid in the stream of discrete volumes of liquid that are engaged by the pulsed laser beam are displaced away from the stream and volumes of liquid in the stream of discrete volumes of liquid that are not engaged by the pulsed laser beam remain in the stream; and adjusting a parameter of the pulsed laser beam to change a distance and/or direction of the displacement of the volumes of liquid that are engaged by the pulsed laser beam away from the stream. directing a pulsed laser beam towards the stream of discrete volumes of liquid to selectively engage some discrete volumes, such that volumes of liquid in the stream of discrete volumes of liquid that are engaged by the pulsed laser beam are displaced away from the stream and volumes of liquid in the stream of discrete volumes of liquid that are not engaged by the pulsed laser beam remain in the stream; and adjusting a parameter of the pulsed laser beam to change a distance and/or direction of the displacement of the volumes of liquid that are engaged by the pulsed laser beam away from the stream.
An electronic device comprising: circuitry configured to identify that data is awaiting transmission at the electronic device (S311, S321); determine a first parameter corresponding to a length or duration of data to be transmitted by the electronic device; determine whether the first parameter exceeds a predetermined threshold value (S313, S323); control a wireless interface of the electronic device to transmit a request to send the data when the first parameter exceeds the predetermined threshold value (S316, S326); characterized in that the circuitry is further configured to acquire a second parameter related to detection sensitivity or transmission power (S314, S324); determine, when the first parameter does not exceed the predetermined threshold value, whether to transmit the data based on the second parameter (S305); and control the transmission power according to the detection sensitivity. identify that data is awaiting transmission at the electronic device (S311, S321); determine a first parameter corresponding to a length or duration of data to be transmitted by the electronic device; determine whether the first parameter exceeds a predetermined threshold value (S313, S323); control a wireless interface of the electronic device to transmit a request to send the data when the first parameter exceeds the predetermined threshold value (S316, S326); characterized in that the circuitry is further configured to acquire a second parameter related to detection sensitivity or transmission power (S314, S324); determine, when the first parameter does not exceed the predetermined threshold value, whether to transmit the data based on the second parameter (S305); and control the transmission power according to the detection sensitivity.
Attachment device for a hose arrangement having a plurality of chambers, comprising a first line connector which has a hose connection at one end thereof for connection to a first chamber of the hose arrangement, and a second line connector which has a hose connection at one end thereof for connection to a second chamber of the hose arrangement, wherein the first line connector defines a first fluid passage in its interior, wherein the second line connector and the first line connector are operationally fixedly connected to one another in their assembled state, in which the second line connector surrounds the first line connector so that between the first line connector and the second line connector a second fluid passage is created which is fluidically separated from the first fluid passage , wherein the hose connection of the first line connector and the hose connection of the second line connector are arranged on the same side of the attachment device in the assembled state, and wherein the second line connector can be pushed onto the first line connector from its end, which is opposite to the hose connection of the first line connector , from a completely separated state into the assembled state, characterised in that the first fluid passage and the entire second fluid passage run completely coaxially with one another. a first line connector which has a hose connection at one end thereof for connection to a first chamber of the hose arrangement, and a second line connector which has a hose connection at one end thereof for connection to a second chamber of the hose arrangement, wherein the first line connector defines a first fluid passage in its interior, wherein the second line connector and the first line connector are operationally fixedly connected to one another in their assembled state, in which the second line connector surrounds the first line connector so that between the first line connector and the second line connector a second fluid passage is created which is fluidically separated from the first fluid passage , wherein the hose connection of the first line connector and the hose connection of the second line connector are arranged on the same side of the attachment device in the assembled state, and wherein the second line connector can be pushed onto the first line connector from its end, which is opposite to the hose connection of the first line connector , from a completely separated state into the assembled state, characterised in that the first fluid passage and the entire second fluid passage run completely coaxially with one another.
A plate heat exchanger comprising: a cylindrical fluid manifold extending through the plate heat exchanger; an end plate of the heat exchanger arranged at one end of the heat exchanger, the end plate having a circular aperture to allow the fluid manifold to extend through the end plate; a non-planar cap arranged at the one end of the heat exchanger to close off the cylindrical fluid manifold; the heat exchanger being characterized by a reinforcement plate arranged between and joined to the end plate and the non-planar cap, the location of the reinforcing plate within a plane perpendicular to a central axis of the cylindrical fluid manifold being fixed by features of the end plate, and the location of the non-planar cap within that plane being fixed by features of the reinforcement plate; wherein the non-planar cap includes a centrally located domed portion and a planar portion surrounding the centrally located domed portion, the non-planar cap being joined to the reinforcement plate by the planar portion. a cylindrical fluid manifold extending through the plate heat exchanger; an end plate of the heat exchanger arranged at one end of the heat exchanger, the end plate having a circular aperture to allow the fluid manifold to extend through the end plate; a non-planar cap arranged at the one end of the heat exchanger to close off the cylindrical fluid manifold; the heat exchanger being characterized by a reinforcement plate arranged between and joined to the end plate and the non-planar cap, the location of the reinforcing plate within a plane perpendicular to a central axis of the cylindrical fluid manifold being fixed by features of the end plate, and the location of the non-planar cap within that plane being fixed by features of the reinforcement plate; wherein the non-planar cap includes a centrally located domed portion and a planar portion surrounding the centrally located domed portion, the non-planar cap being joined to the reinforcement plate by the planar portion.
A communication apparatus , comprising: a communication section configured to transmit and receive a wireless signal; and a control section configured to control operation as a base station; wherein the control section is configured to control transmission of a frame, which includes schedule information relating to scheduled communication of the communication apparatus and is received by a different wireless terminal, or to control reception of schedule information relating to scheduled information of a different base station, wherein the schedule information includes information relating to a transmission schedule of a frame for inducing multi-user communication of an uplink, and the frame for inducing the multi-user communication of the uplink is transmitted in accordance with a collision avoidance mechanism, whereby a random waiting time is selected, and the frame for inducing the multi-user communication of the uplink is transmitted after the expiry of the random waiting time. a communication section configured to transmit and receive a wireless signal; and a control section configured to control operation as a base station; wherein the control section is configured to control transmission of a frame, which includes schedule information relating to scheduled communication of the communication apparatus and is received by a different wireless terminal, or to control reception of schedule information relating to scheduled information of a different base station, wherein the schedule information includes information relating to a transmission schedule of a frame for inducing multi-user communication of an uplink, and the frame for inducing the multi-user communication of the uplink is transmitted in accordance with a collision avoidance mechanism, whereby a random waiting time is selected, and the frame for inducing the multi-user communication of the uplink is transmitted after the expiry of the random waiting time.
A communication method, comprising: sending , by a terminal device, a first indication message, wherein the first indication message is used to trigger an access network device to send time information to the terminal device in unicast mode; receiving , by the terminal device, the time information from the access network device; synchronizing , by the terminal device, a time of the terminal device based on the time information; sending , by the terminal device, a third indication message to the access network device, where the third indication message is used to indicate to deactivate the access network device to send the time information to the terminal device. sending , by a terminal device, a first indication message, wherein the first indication message is used to trigger an access network device to send time information to the terminal device in unicast mode; receiving , by the terminal device, the time information from the access network device; synchronizing , by the terminal device, a time of the terminal device based on the time information; sending , by the terminal device, a third indication message to the access network device, where the third indication message is used to indicate to deactivate the access network device to send the time information to the terminal device.