mhurhangee/patent-ind-claim-en huggingface dataset:
A method of processing lignocellulosic material comprising: (a) providing a slurry in a first vessel, wherein the slurry comprises: (i) lignocellulosic material; and (ii) an aqueous liquid; (b) separating the slurry into a first stream and a second stream, wherein the first stream comprises lignocellulosic material having a first average particle size greater than a target value, wherein the second stream comprises lignocellulosic material having a second average particle size of the target value or less; (c) providing the second stream to a first downstream process; (d) reducing the size of the lignocellulosic material from the first stream to form a third stream comprising lignocellulosic material having a third average particle size, wherein the third average particle size is the target value or less; and (e) recycling at least a portion of the third stream to the first vessel. (a) providing a slurry in a first vessel, wherein the slurry comprises: (i) lignocellulosic material; and (ii) an aqueous liquid; (i) lignocellulosic material; and (ii) an aqueous liquid; (b) separating the slurry into a first stream and a second stream, wherein the first stream comprises lignocellulosic material having a first average particle size greater than a target value, wherein the second stream comprises lignocellulosic material having a second average particle size of the target value or less; (c) providing the second stream to a first downstream process; (d) reducing the size of the lignocellulosic material from the first stream to form a third stream comprising lignocellulosic material having a third average particle size, wherein the third average particle size is the target value or less; and (e) recycling at least a portion of the third stream to the first vessel.
An apparatus for mitigating voltage droops, the apparatus comprising: a processor coupled to a first power supply ; a multiplexor coupled to the processor ; a clock module coupled to the multiplexor and the first power supply , wherein the clock module includes an adjustable clock delay component , wherein the adjustable clock delay component comprises a ring oscillator coupled to the first power supply ; and a phase-locked loop , PLL, coupled to the multiplexor ; wherein the clock module is configured to calibrate a delay of the adjustable clock delay component to a frequency of the PLL , wherein the clock module is further configured to output a first clock signal to the multiplexor and to receive a second clock signal from the PLL , the first clock signal generated by the adjustable clock delay component , wherein the adjustable clock delay component includes a plurality of delay elements , and wherein each delay element of the plurality of delay elements , when selected, delays the first clock signal by a delay amount equal to the delay amount of each remaining delay element of the plurality of delay elements , wherein the multiplexor is configured to select the first clock signal from the clock module or a third clock signal from the PLL to output to the processor , and wherein, based on detection of a first droop in voltage on the first power supply , the multiplexor is configured to select the first clock signal from the clock module to output to the processor . a processor coupled to a first power supply ; a multiplexor coupled to the processor ; a clock module coupled to the multiplexor and the first power supply , wherein the clock module includes an adjustable clock delay component , wherein the adjustable clock delay component comprises a ring oscillator coupled to the first power supply ; and a phase-locked loop , PLL, coupled to the multiplexor ; wherein the clock module is configured to calibrate a delay of the adjustable clock delay component to a frequency of the PLL , wherein the clock module is further configured to output a first clock signal to the multiplexor and to receive a second clock signal from the PLL , the first clock signal generated by the adjustable clock delay component , wherein the adjustable clock delay component includes a plurality of delay elements , and wherein each delay element of the plurality of delay elements , when selected, delays the first clock signal by a delay amount equal to the delay amount of each remaining delay element of the plurality of delay elements , wherein the multiplexor is configured to select the first clock signal from the clock module or a third clock signal from the PLL to output to the processor , and wherein, based on detection of a first droop in voltage on the first power supply , the multiplexor is configured to select the first clock signal from the clock module to output to the processor .
An indication information transmission apparatus , comprising: a first determining module , configured to determine a first signature sequence and a first modulation constellation that are used to transmit an uplink data stream by a terminal device, wherein each signature sequence is a multi-dimensional complex-number vector comprising at least one zero element and at least one non-zero element, and the signature sequence is used to perform amplitude and phase adjustment on a modulation symbol obtained after the terminal device performs constellation mapping on the uplink data stream by using a modulation constellation; a second determining module , configured to determine indication information used to indicate the first signature sequence and the first modulation constellation that are determined by the first determining module; and a transmitting module , configured to transmit, to the terminal device, the indication information determined by the second determining module. a first determining module , configured to determine a first signature sequence and a first modulation constellation that are used to transmit an uplink data stream by a terminal device, wherein each signature sequence is a multi-dimensional complex-number vector comprising at least one zero element and at least one non-zero element, and the signature sequence is used to perform amplitude and phase adjustment on a modulation symbol obtained after the terminal device performs constellation mapping on the uplink data stream by using a modulation constellation; a second determining module , configured to determine indication information used to indicate the first signature sequence and the first modulation constellation that are determined by the first determining module; and a transmitting module , configured to transmit, to the terminal device, the indication information determined by the second determining module.
A chemical mechanical polishing composition comprising: a liquid carrier; cubiform ceria abrasive particles dispersed in the liquid carrier; and a cationic polymer having a charge density of less than about 6 milliequivalents per gram (meq/g). a liquid carrier; cubiform ceria abrasive particles dispersed in the liquid carrier; and a cationic polymer having a charge density of less than about 6 milliequivalents per gram (meq/g).
A bipolar type electrode for a lithium battery comprising a resin current collector containing a polyolefin-based resin matrix and a conductive filler, a positive electrode active material layer provided on one surface of the resin current collector , and a negative electrode active material layer provided to have a direct contact with the other surface of the resin current collector , wherein the polyolefin-based resin matrix is polypropylene (PP), wherein an electron conductive layer is disposed to have a direct contact with the surface of the resin current collector that is in contact with the positive electrode active material layer , and wherein the electron conductive layer contains an epoxy resin and a conductive filler. wherein the polyolefin-based resin matrix is polypropylene (PP), wherein an electron conductive layer is disposed to have a direct contact with the surface of the resin current collector that is in contact with the positive electrode active material layer , and wherein the electron conductive layer contains an epoxy resin and a conductive filler.
A flavor inhaler comprising: a flavor source configured to generate flavor without combusting; an inside holding member including a first side wall surrounding at least a part of the flavor source and an introduction port provided so as to introduce air to the flavor source in the first side wall ; a cylindrical holding member including a second side wall surrounding the first side wall and having a through-hole that is fluidly coupled to external air; a first flow path that connects the through-hole of the second side wall and the introduction port of the inside holding member , and passes between the first side wall and the second side wall ; a second flow path that is provided in the cylindrical holding member and that is extending from the flavor source toward a suction port for sucking the flavor; and a cooling layer provided only downstream of the flavor source , wherein the cooling layer is provided on an inner surface of the cylindrical holding member , and faces the second flow path . a flavor source configured to generate flavor without combusting; an inside holding member including a first side wall surrounding at least a part of the flavor source and an introduction port provided so as to introduce air to the flavor source in the first side wall ; a cylindrical holding member including a second side wall surrounding the first side wall and having a through-hole that is fluidly coupled to external air; a first flow path that connects the through-hole of the second side wall and the introduction port of the inside holding member , and passes between the first side wall and the second side wall ; a second flow path that is provided in the cylindrical holding member and that is extending from the flavor source toward a suction port for sucking the flavor; and a cooling layer provided only downstream of the flavor source , wherein the cooling layer is provided on an inner surface of the cylindrical holding member , and faces the second flow path .
(Amended) A macromer comprising: a siloxane backbone; a graft attached to the siloxane backbone, the graft comprising a polymerizable functional group; and a concentration of grafts comprising hydrophilic groups sufficient to render the macromer at least partially hydrophilic, wherein the macromer is of the Formula : where M is a hydrophilic group or segment; L is a hydrophilic or hydrophobic linkage; N is a hydrophilic or hydrophobic group or segment. Q is a polymerizable functional group; x is zero or an integer greater than zero; y is zero or an integer greater than zero; v an integer greater than zero; and z is greater than zero; when the L group is a hydrophilic linkage, L can be the same as or different than the hydrophilic M group. a siloxane backbone; a graft attached to the siloxane backbone, the graft comprising a polymerizable functional group; and a concentration of grafts comprising hydrophilic groups sufficient to render the macromer at least partially hydrophilic, wherein the macromer is of the Formula :
Sunshade blade comprising a system of constraint and articulation of the blade , wherein the constraint and articulation system substantially comprises a plurality of elements to form two hinges at whose articulation nodes a blade holder is articulated, which blade holder has a cross shape and is formed by a cylindrical sleeve to which a substantially quadrangular plate presenting a slot is integral, wherein the blade is formed by a central body slightly curved which extends into two lateral fins rolled up at the ends , and wherein the blade is attached to said blade holder , characterized in that said central body presents a slot whose dimensions correspond to the dimensions of the slot of the quadrangular plate , the connection of the blade to the blade holder is obtained by means of a clip with curved appendages which engage as undercut in both said slots , and in that the elements , the blade holder , the quadrangular plate , the central body and the clip in the assembled configuration have a height of less than 7 mm.
Apparatus for a lysis of a sample, in particular for an automated and/or controlled lysis of a sample, in particular a biological sample, the apparatus comprising: - at least one rotation disc , - at least one vial holder which is configured to receive a vial containing a sample, wherein the vial holder is arranged on the disc , - at least one driving device which is configured to rotate the disc and the vial holder , wherein the driving device comprises: - driving means for driving the disc , - a central pin , to which the disc is pivot-mounted, - a central pinion , fixed on the central pin , - at least a first stage gear , driven via the disc by the central pinion , - at least a second stage gear , driven by the first stage gear , wherein the vial holder is associated with the second stage gear , the apparatus further comprising - at least one heating device which is configured to heat the sample within the vial in the vial holder to a determined incubation temperature, - at least one control device which is configured to control the driving device and/or the heating device by means of a timing and/or step or process control, wherein the driving device is configured to rotate the disc in a first direction and the vial holder in a second direction, opposite the first direction with the same angular velocity, such that the absolute orientation of the vial holder is substantially kept constant while rotating. - at least one rotation disc , - at least one vial holder which is configured to receive a vial containing a sample, wherein the vial holder is arranged on the disc , - at least one driving device which is configured to rotate the disc and the vial holder , wherein the driving device comprises: - driving means for driving the disc , - a central pin , to which the disc is pivot-mounted, - a central pinion , fixed on the central pin , - at least a first stage gear , driven via the disc by the central pinion , - at least a second stage gear , driven by the first stage gear , - driving means for driving the disc , - a central pin , to which the disc is pivot-mounted, - a central pinion , fixed on the central pin , - at least a first stage gear , driven via the disc by the central pinion , - at least a second stage gear , driven by the first stage gear , - at least one heating device which is configured to heat the sample within the vial in the vial holder to a determined incubation temperature, - at least one control device which is configured to control the driving device and/or the heating device by means of a timing and/or step or process control,
A method of forming a hydrophobic coating on a substrate, including the steps of: providing in a reaction chamber a substrate having a layer of carbon nanostructures on the substrate, supplying the reaction chamber with a coating precursor which includes a fluorocarbon, and generating a plasma in the reaction chamber, in order to deposit a hydrophobic coating on at least a part of said layer of carbon nanostructures, wherein either the plasma generation takes place in the absence of a source of hydrogen atoms, in which case the substrate is heated to at least 100°C, the power density of the plasma is not more than 0.1 Wcm -2 and the plasma is generated for a period from 3 to 12 minutes, or the plasma generation takes place in the presence of a source of hydrogen atoms, in which case the power density of the plasma is not more than 0.2 Wcm -2 and the plasma is generated for a period from 5 to 14 seconds. providing in a reaction chamber a substrate having a layer of carbon nanostructures on the substrate, supplying the reaction chamber with a coating precursor which includes a fluorocarbon, and generating a plasma in the reaction chamber, in order to deposit a hydrophobic coating on at least a part of said layer of carbon nanostructures, wherein either the plasma generation takes place in the absence of a source of hydrogen atoms, in which case the substrate is heated to at least 100°C, the power density of the plasma is not more than 0.1 Wcm -2 and the plasma is generated for a period from 3 to 12 minutes, or the plasma generation takes place in the presence of a source of hydrogen atoms, in which case the power density of the plasma is not more than 0.2 Wcm -2 and the plasma is generated for a period from 5 to 14 seconds.
A pharmaceutical composition deliverable from a metered dose inhaler, comprising: a suspension medium comprising a pharmaceutically acceptable propellant; a plurality of micronized active agent particles comprising an active agent selected from glycopyrrolate and formoterol, including any pharmaceutically acceptable salts, esters, or solvates thereof, wherein at least 90% of the active agent particle material by volume exhibits an optical diameter of 7 μm or less; and a plurality of respirable suspending particles comprising perforated phospholipid microstructures and exhibiting a volume median optical diameter selected from between 0.2 μm and 50 μm, between 0.5 μm and 15 μm, between 1.5 μm and 10 μm, and between 2 μm and 5 μm; wherein a total mass of the suspending particles exceeds a total mass of the active agent particles, and the plurality of active agent particles associate with the plurality of suspending particles to form a co-suspension. a suspension medium comprising a pharmaceutically acceptable propellant; a plurality of micronized active agent particles comprising an active agent selected from glycopyrrolate and formoterol, including any pharmaceutically acceptable salts, esters, or solvates thereof, wherein at least 90% of the active agent particle material by volume exhibits an optical diameter of 7 μm or less; and a plurality of respirable suspending particles comprising perforated phospholipid microstructures and exhibiting a volume median optical diameter selected from between 0.2 μm and 50 μm, between 0.5 μm and 15 μm, between 1.5 μm and 10 μm, and between 2 μm and 5 μm; wherein a total mass of the suspending particles exceeds a total mass of the active agent particles, and the plurality of active agent particles associate with the plurality of suspending particles to form a co-suspension.
Cleaning head for vacuum cleaner, comprising a casing , a drive motor , a speed reducer coupled in rotation with the drive motor , and a rotary brush configured to be rotated by the drive motor by way of the speed reducer , the rotary brush being removably mounted in the casing of the cleaning head, characterised in that the speed reducer is housed in the rotary brush and is fixed to the rotary brush such that the speed reducer remains integral with the rotary brush during the extraction of the rotary brush outside of the casing of the cleaning head .
A method for producing rice with a low glycaemic index and a low glycaemic load, comprising: - a step of preparing of husked brown rice; - a step of humidifying the husked brown rice with water at room temperature until reaching a moisture content equal to 18-22%; - after the humidifying step, a step of resting the husked brown rice for 24-60 minutes; - after the resting step, a first heating step comprising heating the husked brown rice until the brown rice reaches a temperature of 80-85°C; - after the first heating step, a first step of cooling the husked brown rice in an environment at a temperature lower than the room temperature until the brown rice reaches a temperature of 10°C; - after the cooling step, a step of reconstituting the husked brown rice for 24-72 hours, maintaining the moisture content, until the husked brown rice reaches the room temperature; - after the reconstituting step, a second heating step comprising heating the husked brown rice until the husked brown rice externally reaches a temperature of 60-65°C, corresponding to an internal temperature greater than 70°C; - after the second heating step, a second cooling step until the husked brown rice reaches the room temperature; - after the second cooling step, a step of refining the husked brown rice having a moisture content equal to 18-22%; - after the refining step, a drying step until reaching a moisture content equal to 12-13%. - a step of preparing of husked brown rice; - a step of humidifying the husked brown rice with water at room temperature until reaching a moisture content equal to 18-22%; - after the humidifying step, a step of resting the husked brown rice for 24-60 minutes; - after the resting step, a first heating step comprising heating the husked brown rice until the brown rice reaches a temperature of 80-85°C; - after the first heating step, a first step of cooling the husked brown rice in an environment at a temperature lower than the room temperature until the brown rice reaches a temperature of 10°C; - after the cooling step, a step of reconstituting the husked brown rice for 24-72 hours, maintaining the moisture content, until the husked brown rice reaches the room temperature; - after the reconstituting step, a second heating step comprising heating the husked brown rice until the husked brown rice externally reaches a temperature of 60-65°C, corresponding to an internal temperature greater than 70°C; - after the second heating step, a second cooling step until the husked brown rice reaches the room temperature; - after the second cooling step, a step of refining the husked brown rice having a moisture content equal to 18-22%; - after the refining step, a drying step until reaching a moisture content equal to 12-13%.