mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for extractive distillation of an extract from a feed stream, said apparatus comprising: an extractive distillation column ; a reboiler coupled to the extractive distillation column ; wherein the reboiler further comprises an internal steam sparger device; a feedstream input line coupled to the extractive distillation column ; a solvent input line coupled to the extractive distillation column ; a steam input line coupled to the internal steam sparger device; and a steam output line, wherein the apparatus is adapted so that a vapor stream generated inside the reboiler is sent back to the extractive distillation column and the remaining liquid in the reboiler is sent as a liquid product to the column bottom, and wherein the extractive distillation column further comprises an output line coupled to the reboiler and adapted to remove distillate and solvent from the extractive distillation column . an extractive distillation column ; a reboiler coupled to the extractive distillation column ; wherein the reboiler further comprises an internal steam sparger device; a feedstream input line coupled to the extractive distillation column ; a solvent input line coupled to the extractive distillation column ; a steam input line coupled to the internal steam sparger device; and a steam output line, wherein the apparatus is adapted so that a vapor stream generated inside the reboiler is sent back to the extractive distillation column and the remaining liquid in the reboiler is sent as a liquid product to the column bottom, and wherein the extractive distillation column further comprises an output line coupled to the reboiler and adapted to remove distillate and solvent from the extractive distillation column .
Flexible pipe for transporting a petroleum effluent, said pipe comprising at least one mechanical reinforcement element and a pressure sheath , said mechanical reinforcement element being disposed outside of said pressure sheath, said mechanical reinforcement element comprising at least one metal tensile armour layer and at least one composite tensile armour layer , said composite tensile armour layer being disposed outside of said metal tensile armour layer , characterized in that separation means (8; 10) separate said composite tensile armours , said separation means (8; 10) ensuring a radial play and a circumferential play for said composite tensile armours .
A handheld personal care device including a grip unit to be grasped by a hand and an operation unit configured to treat a human body, the handheld personal care device comprising: an operation switch configured to change a treatment operation of the operation unit; a sensor electrode that is embedded in the grip unit, and causes a change in capacitance depending on whether or not the grip unit is grasped; and a control device electrically connected to the operation switch and the sensor electrode, and configured to control the treatment operation of the operation unit, wherein the control device includes: a grasp detector configured to detect that the grip unit is grasped based on a change in capacitance of the sensor electrode; a change permission part configured to permit the operation switch to change the treatment operation of the operation unit when the change permission part receives, from the grasp detector, grasp information indicating that the grip unit is grasped and to prohibit the operation switch from changing the treatment operation of the operation unit when a first predetermined time period has elapsed with no operation of the operation switch. an operation switch configured to change a treatment operation of the operation unit; a sensor electrode that is embedded in the grip unit, and causes a change in capacitance depending on whether or not the grip unit is grasped; and a control device electrically connected to the operation switch and the sensor electrode, and configured to control the treatment operation of the operation unit, wherein the control device includes: a grasp detector configured to detect that the grip unit is grasped based on a change in capacitance of the sensor electrode; a change permission part configured to permit the operation switch to change the treatment operation of the operation unit when the change permission part receives, from the grasp detector, grasp information indicating that the grip unit is grasped and to prohibit the operation switch from changing the treatment operation of the operation unit when a first predetermined time period has elapsed with no operation of the operation switch. a grasp detector configured to detect that the grip unit is grasped based on a change in capacitance of the sensor electrode; a change permission part configured to permit the operation switch to change the treatment operation of the operation unit when the change permission part receives, from the grasp detector, grasp information indicating that the grip unit is grasped and to prohibit the operation switch from changing the treatment operation of the operation unit when a first predetermined time period has elapsed with no operation of the operation switch.
A lockable lateral adjuster mechanism , the mechanism comprising: a base with a counter bore ; a platform carried by the base with a channel in the platform opposite the base, and an aperture in the channel aligned with the counter bore in the base; a cam with an eccentric head and a stem , the eccentric head being pivotally disposed in the channel and the stem extending through the aperture in the channel and being pivotally disposed in the counter bore, the eccentric head being off-axis with respect to the stem and the platform being laterally displaceable with respect to the base as the cam pivots; and a countersunk interface between the eccentric head and the channel. a base with a counter bore ; a platform carried by the base with a channel in the platform opposite the base, and an aperture in the channel aligned with the counter bore in the base; a cam with an eccentric head and a stem , the eccentric head being pivotally disposed in the channel and the stem extending through the aperture in the channel and being pivotally disposed in the counter bore, the eccentric head being off-axis with respect to the stem and the platform being laterally displaceable with respect to the base as the cam pivots; and a countersunk interface between the eccentric head and the channel.
A method performed by a wireless device configured to operate in a wireless communication system, the method comprising: establishing a dual connectivity with a master node, MN, related to a master cell group, MCG, and a secondary node, SN, related to a secondary cell group, SCG; establishing a signaling radio bearer-3, SRB3, which enables a radio resource control, RRC, protocol data unit, PDU, for the SN to be sent directly between the wireless device and the SN; detecting (S 1700) a radio link failure, RLF, of the MCG; upon detecting the RLF of the MCG: i) transmitting (S1710) an MCG failure information message related to the RLF of the MCG to the SN via the SRB3; and ii) starting (S1710) a timer; and upon expiry of the timer, performing (S1720) a connection re-establishment procedure, wherein the connection re-establishment procedure includes i) indicating that the connection re-establishment procedure is triggered after transmitting the MCG failure information message, and ii) indicating a SCG configuration related to the transmission of the MCG failure information message. establishing a dual connectivity with a master node, MN, related to a master cell group, MCG, and a secondary node, SN, related to a secondary cell group, SCG; establishing a signaling radio bearer-3, SRB3, which enables a radio resource control, RRC, protocol data unit, PDU, for the SN to be sent directly between the wireless device and the SN; detecting (S 1700) a radio link failure, RLF, of the MCG; upon detecting the RLF of the MCG: i) transmitting (S1710) an MCG failure information message related to the RLF of the MCG to the SN via the SRB3; and ii) starting (S1710) a timer; and i) transmitting (S1710) an MCG failure information message related to the RLF of the MCG to the SN via the SRB3; and ii) starting (S1710) a timer; and upon expiry of the timer, performing (S1720) a connection re-establishment procedure, wherein the connection re-establishment procedure includes i) indicating that the connection re-establishment procedure is triggered after transmitting the MCG failure information message, and ii) indicating a SCG configuration related to the transmission of the MCG failure information message.
A peptidomimetic of Formula (II): Z2-Lys-Phe-Arg-Arg-Gln-Arg-Pro-aa'8-aa'9-Ser-His-Lys-Gly-Pro-Nle-Aib-paraBrPhe, or a pharmaceutically acceptable salt thereof, wherein aa'8-aa'9 is a dipeptide selected from a group consisting of: Arg-NMeLeu, Arg-αMeLeu, Arg-azaLeu, Arg-D-Leu, αMeArg-Leu, and azaArg-Leu; and wherein Z2 is selected from the group consisting of H, PALM or PEG; wherein PALM is wherein n is from 8 to 20; and wherein PEG is wherein m is from 3 to 10, and W is H, a lower alkyl, or a protecting group. Z2-Lys-Phe-Arg-Arg-Gln-Arg-Pro-aa'8-aa'9-Ser-His-Lys-Gly-Pro-Nle-Aib-paraBrPhe, or a pharmaceutically acceptable salt thereof, wherein aa'8-aa'9 is a dipeptide selected from a group consisting of: Arg-NMeLeu, Arg-αMeLeu, Arg-azaLeu, Arg-D-Leu, αMeArg-Leu, and azaArg-Leu; and wherein Z2 is selected from the group consisting of H, PALM or PEG; wherein PALM is wherein n is from 8 to 20; and wherein PEG is wherein m is from 3 to 10, and W is H, a lower alkyl, or a protecting group. Arg-NMeLeu, Arg-αMeLeu, Arg-azaLeu, Arg-D-Leu, αMeArg-Leu, and azaArg-Leu; and wherein Z2 is selected from the group consisting of H, PALM or PEG; wherein PALM is wherein n is from 8 to 20; and wherein PEG is wherein m is from 3 to 10, and W is H, a lower alkyl, or a protecting group.
A signal processing method, comprising: Sending , by a full-duplex device, a first data signal in a first resource block RB of a first subframe and receiving a second data signal in the first resource block RB; and further sending , by the device, a first reference signal according to first reference information in the first resource block RB and receiving a second reference signal according to second reference information in the first RB, wherein the first reference signal is used for demodulating the first data signal, the second reference signal is used for demodulating the second data signal, and the first reference information is different from the second reference information, wherein the first reference information comprises: a time-frequency resource location occupied by the first reference signal, and sequence information of the first reference signal; and the second reference information comprises: a time-frequency resource location occupied by the second reference signal, and sequence information of the second reference signal. Sending , by a full-duplex device, a first data signal in a first resource block RB of a first subframe and receiving a second data signal in the first resource block RB; and further sending , by the device, a first reference signal according to first reference information in the first resource block RB and receiving a second reference signal according to second reference information in the first RB, wherein the first reference signal is used for demodulating the first data signal, the second reference signal is used for demodulating the second data signal, and the first reference information is different from the second reference information, wherein the first reference information comprises: a time-frequency resource location occupied by the first reference signal, and sequence information of the first reference signal; and the second reference information comprises: a time-frequency resource location occupied by the second reference signal, and sequence information of the second reference signal.
A method of recovering copper from sulfide ores with copper and iron, the method comprising: reacting, in a reaction vessel, a copper-containing sulfide ore with sulfur dioxide gas at a temperature of 120°C to 140°C, and a residence time of less than 2 hours, to form a reaction mixture comprising elemental sulfur and residual solids, the residual solids comprising an iron oxide and a copper sulfide; condensing and removing the elemental sulfur from the reaction mixture; reacting residual solids remaining in the reaction mixture with concentrated sulfuric acid to form copper sulfate and sulfur dioxide gas; recycling the sulfur dioxide gas; separating solids comprising the iron oxide and copper sulfate from a liquid phase of the reaction mixture; drying the separated solids; leaching the dried solids with an aqueous solution comprising water or dilute sulfuric acid and solubilizing the copper sulfate; separating the solids comprising the iron oxide and gangue from a liquid phase of the reaction mixture; and recovering copper from the solubilized copper sulfate. reacting, in a reaction vessel, a copper-containing sulfide ore with sulfur dioxide gas at a temperature of 120°C to 140°C, and a residence time of less than 2 hours, to form a reaction mixture comprising elemental sulfur and residual solids, the residual solids comprising an iron oxide and a copper sulfide; condensing and removing the elemental sulfur from the reaction mixture; reacting residual solids remaining in the reaction mixture with concentrated sulfuric acid to form copper sulfate and sulfur dioxide gas; recycling the sulfur dioxide gas; separating solids comprising the iron oxide and copper sulfate from a liquid phase of the reaction mixture; drying the separated solids; leaching the dried solids with an aqueous solution comprising water or dilute sulfuric acid and solubilizing the copper sulfate; separating the solids comprising the iron oxide and gangue from a liquid phase of the reaction mixture; and recovering copper from the solubilized copper sulfate.
Sanitary insert unit having an insert housing which is mountable on or in a water outlet of a sanitary outlet fitting and in the housing interior of which a liquid path is provided which, during use, carries water flowing through the housing interior, wherein, in the liquid path, a jet splitter having a plurality of splitter openings is provided, which splitter openings divide the water flowing through into a plurality of individual jets, and having at least one lattice or mesh structure following the jet splitter in the liquid path, wherein at least one bypass duct that at least partially bypasses the liquid path is provided, the bypass duct has for this purpose, at least in one portion, a clear duct cross section that narrows in the direction towards its outflow-side duct opening, and wherein the bypass duct passes through the jet splitter , characterized in that the bypass duct is designed as a nozzle for creating at least one accelerated liquid jet, in that the jet splitter is designed as a diffuser which has an impact surface that deflects the inflowing water during use in the direction of splitter openings , which are provided in an outer circumferential wall of the diffuser, in that the outer circumferential wall of the diffuser is surrounded by a diffuser ring having an annular face , and in that , between the outer circumferential wall and the annular face of the diffuser ring, an annular gap is provided which at least in part narrows in the flow-through direction of the water.
A method of machining cooling holes (82; 182) in a component comprising the steps of: inserting an electro discharge machining guide (84; 184) that houses an electrode into an internal cavity (78; 178) of a component; and machining a cooling hole (82; 182) into a wall (70; 170) of the component with the electrode ; characterised by further comprising the step of applying a thermal barrier coating on the wall (70; 170) on a surface opposite the internal cavity (78; 178), the applying step being performed before the machining step. inserting an electro discharge machining guide (84; 184) that houses an electrode into an internal cavity (78; 178) of a component; and machining a cooling hole (82; 182) into a wall (70; 170) of the component with the electrode ; characterised by further comprising the step of applying a thermal barrier coating on the wall (70; 170) on a surface opposite the internal cavity (78; 178), the applying step being performed before the machining step.
A separating device for separating a web into a plurality of strips , comprising a first cutting roller which is rotatable about a first cutting roller axis and a second cutting roller which is rotatable about a second cutting roller axis that is parallel to the first, wherein the first and the second cutting roller each comprise a plurality of blades which cooperate with one another, characterized in that the first and/or the second cutting roller is/are designed as an intermittent cutting roller , wherein all blades of the intermittent cutting roller in each case comprise at least one cutout which interrupts a cutting edge of the blade , wherein the cutouts in the blades of the intermittent cutting roller are arranged along a helix and said helix is located in a cylindrical jacket that is spanned by the cutting edges of the blades and the axis of the helix coincides with the cutting roller axis of the intermittent cutting roller .
An integrated steel concrete building, comprising a plurality of prefabricated room modules of steel, wherein each prefabricated room module includes at least one column having a structure of hollow steel tube, which has an inner chamber inserted with penetrating rebars and poured with concrete, the penetrating rebars extending upwardly out of said column of said prefabricated room module into an inner chamber of a column of a prefabricated room module of an upper floor, characterized in that each prefabricated room module includes a steel structure frame , and a steel concrete bottom plate , which is provided with a base beam extending downwardly, so that a fireproof cavity is formed between two vertically adjacent prefabricated room modules ; and in that each prefabricated room module includes a steel concrete top plate , which is provided on its top surface with a boss extending upwardly, the boss being located at a position corresponding to the base beam of the prefabricated room module of said upper floor. characterized in that each prefabricated room module includes a steel structure frame , and a steel concrete bottom plate , which is provided with a base beam extending downwardly, so that a fireproof cavity is formed between two vertically adjacent prefabricated room modules ; and in that each prefabricated room module includes a steel concrete top plate , which is provided on its top surface with a boss extending upwardly, the boss being located at a position corresponding to the base beam of the prefabricated room module of said upper floor.
A wireless power transfer system for transferring power at more than one frequency, comprising: a transmitter capable of transmitting power wirelessly at more than one frequency; a first targeted receiver for receiving power at a first frequency from the transmitter; a second non-targeted receiver adapted to resonate at a second frequency and to transfer the power received from the transmitter at the second frequency to a load of the second non-targeted receiver; and an auxiliary circuit in said second non-targeted receiver, so as to ensure proper frequency-selective wireless power flow from said second non-targeted receiver to the first targeted receiver, wherein the second non-targeted receiver is designed to act as a resonator for the first frequency so as to transmit power from the transmitter to the first targeted receiver at the first frequency; and characterized by the auxiliary circuit being configured to act as one of a bandpass filter to shunt power at the first frequency to ground before the load of the second receiver or a bandstop filter to prevent the flow of the power at the first frequency to the load of the second non-targeted receiver. a transmitter capable of transmitting power wirelessly at more than one frequency; a first targeted receiver for receiving power at a first frequency from the transmitter; a second non-targeted receiver adapted to resonate at a second frequency and to transfer the power received from the transmitter at the second frequency to a load of the second non-targeted receiver; and an auxiliary circuit in said second non-targeted receiver, so as to ensure proper frequency-selective wireless power flow from said second non-targeted receiver to the first targeted receiver, wherein the second non-targeted receiver is designed to act as a resonator for the first frequency so as to transmit power from the transmitter to the first targeted receiver at the first frequency; and characterized by the auxiliary circuit being configured to act as one of a bandpass filter to shunt power at the first frequency to ground before the load of the second receiver or a bandstop filter to prevent the flow of the power at the first frequency to the load of the second non-targeted receiver.
A method comprising: providing a reaction chamber module of an atomic layer deposition reactor for processing a batch of substrates carried by a carriage by an atomic layer deposition process; pre-processing the batch of substrates carried by a carriage in a pre-processing module of the atomic layer deposition reactor; loading the carriage carrying the batch of substrates before processing into the reaction chamber module via a different route than the batch of substrates is unloaded after processing; processing the pre-processed batch of substrates by the atomic layer deposition process in the reaction chamber module of the reactor; wherein said processing by the atomic layer deposition process comprises depositing material on the batch of substrates by sequential self-saturating surface reactions; and wherein said pre-processing module is a pre-heating module and said pre-processing comprises pre-heating the batch of substrates by heat transport with an inactive gas. providing a reaction chamber module of an atomic layer deposition reactor for processing a batch of substrates carried by a carriage by an atomic layer deposition process; pre-processing the batch of substrates carried by a carriage in a pre-processing module of the atomic layer deposition reactor; loading the carriage carrying the batch of substrates before processing into the reaction chamber module via a different route than the batch of substrates is unloaded after processing; processing the pre-processed batch of substrates by the atomic layer deposition process in the reaction chamber module of the reactor; wherein said processing by the atomic layer deposition process comprises depositing material on the batch of substrates by sequential self-saturating surface reactions; and wherein said pre-processing module is a pre-heating module and said pre-processing comprises pre-heating the batch of substrates by heat transport with an inactive gas.