mhurhangee/patent-ind-claim-en huggingface dataset:
A food processor, comprising: a host component which comprises a driving component ; a barrel body component mounted on the host component , wherein the barrel body component comprises: a feed inlet; a first barrel body communicated with the feed inlet; characterized in that the food processor is furthermore comprising a second barrel body communicated with the first barrel body through a communication opening ; a crushing device arranged in the first barrel body , connected with the driving component and rotating under the driving of the driving component ; and an extrusion device arranged in the second barrel body , connected with the driving component and rotating under the driving of the driving component ; wherein the crushing device can operate with an inner side wall of the first barrel body while rotating so as to crush food entering the first barrel body from the feed inlet, and the crushed food enters the second barrel body through the communication opening under the action of the crushing device , and juice is separated from residues under the extrusion of the extrusion device in the second barrel body a host component which comprises a driving component ; a barrel body component mounted on the host component , wherein the barrel body component comprises: a feed inlet; a first barrel body communicated with the feed inlet; characterized in that the food processor is furthermore comprising a second barrel body communicated with the first barrel body through a communication opening ; a crushing device arranged in the first barrel body , connected with the driving component and rotating under the driving of the driving component ; and an extrusion device arranged in the second barrel body , connected with the driving component and rotating under the driving of the driving component ; a feed inlet; a first barrel body communicated with the feed inlet; characterized in that the food processor is furthermore comprising a second barrel body communicated with the first barrel body through a communication opening ; a crushing device arranged in the first barrel body , connected with the driving component and rotating under the driving of the driving component ; and an extrusion device arranged in the second barrel body , connected with the driving component and rotating under the driving of the driving component ; wherein the crushing device can operate with an inner side wall of the first barrel body while rotating so as to crush food entering the first barrel body from the feed inlet, and the crushed food enters the second barrel body through the communication opening under the action of the crushing device , and juice is separated from residues under the extrusion of the extrusion device in the second barrel body
A method of assigning a species to a plurality of sequence reads , the method comprising: receiving the plurality of sequence reads ; selecting a test set of the plurality of sequence reads , wherein the test set includes selected ones of the plurality of sequence reads ; selecting a plurality of sub-indices (710a-e) of an index, wherein the index points to all sequences of a set of reference sequences corresponding to a plurality of species, wherein each of the sub-indices (710a-e) points to sequences in the set of reference sequences included in a corresponding sector of a phylogenetic tree of the set of reference sequences; aligning the test set to the plurality of sub-indices (710a-e), wherein the aligning is performed in parallel by one or more processing units ; identifying, with the one or more processing units , a certain sub-index of the plurality of sub-indices (710a-2) with the best alignment to the test set ; aligning, with the one or more processing units , the plurality of sequence reads to the certain sub-index ; and assigning the species to the plurality of sequence reads based on said aligning the plurality of sequence reads to the certain sub-index. receiving the plurality of sequence reads ; selecting a test set of the plurality of sequence reads , wherein the test set includes selected ones of the plurality of sequence reads ; selecting a plurality of sub-indices (710a-e) of an index, wherein the index points to all sequences of a set of reference sequences corresponding to a plurality of species, wherein each of the sub-indices (710a-e) points to sequences in the set of reference sequences included in a corresponding sector of a phylogenetic tree of the set of reference sequences; aligning the test set to the plurality of sub-indices (710a-e), wherein the aligning is performed in parallel by one or more processing units ; identifying, with the one or more processing units , a certain sub-index of the plurality of sub-indices (710a-2) with the best alignment to the test set ; aligning, with the one or more processing units , the plurality of sequence reads to the certain sub-index ; and assigning the species to the plurality of sequence reads based on said aligning the plurality of sequence reads to the certain sub-index.
A 4-methyl-1-pentene polymer wherein: a content of a constitutional unit derived from 4-methyl-1-pentene is 90 to 100% by mol; a content of a constitutional unit derived from at least one olefin selected from ethylene and an α-olefin, other than 4-methyl-1-pentene, having 3 to 20 carbon atoms is 0 to 10% by mol; and the 4-methyl-1-pentene polymer satisfies all the following requirements (a) to (e): (a) a meso diad fraction (m) measured by 13 C-NMR falls within the range of 98 to 100%; (b) a ratio of Z-average molecular weight Mz to weight-average molecular weight Mw (Mz/Mw) measured by gel permeation chromatography (GPC) falls within the range of 2.5 to 20; (c) a ratio of weight-average molecular weight Mw to number-average molecular weight Mn (Mw/Mn) measured by gel permeation chromatography (GPC) falls within the range of 3.6 to 30; (d) a melt flow rate (MFR) measured under conditions of 260°C and a 5 kg load in conformity to ASTM D1238 falls within the range of 0.1 to 500 g/10 min; and (e) an amount of a decane-soluble portion at 23°C is 5.0% by mass or less. (a) a meso diad fraction (m) measured by 13 C-NMR falls within the range of 98 to 100%; (b) a ratio of Z-average molecular weight Mz to weight-average molecular weight Mw (Mz/Mw) measured by gel permeation chromatography (GPC) falls within the range of 2.5 to 20; (c) a ratio of weight-average molecular weight Mw to number-average molecular weight Mn (Mw/Mn) measured by gel permeation chromatography (GPC) falls within the range of 3.6 to 30; (d) a melt flow rate (MFR) measured under conditions of 260°C and a 5 kg load in conformity to ASTM D1238 falls within the range of 0.1 to 500 g/10 min; and (e) an amount of a decane-soluble portion at 23°C is 5.0% by mass or less.
A power encoder, comprising: a pulse width modulator configured to modulate a signal according to a set of thresholds including at least two positive voltage thresholds to produce a pulse width modulated, PWM, signal; a first and a second switching device (650, I1, I2); and a switch mode power amplifier configured to amplify the PWM signal by switching states of switching the devices according to amplitudes of the PWM signal, characterised in that at least one or a combination of a distribution of values of the voltage thresholds in the set of thresholds and a distribution of values of a current generated by the different switching devices are non-uniform, wherein the distribution of values of the voltage thresholds in the set of thresholds are non-uniform such, that the distance between neighbouring voltage thresholds varies, wherein the set of thresholds includes a first voltage threshold, V 1 , for a first level of the PWM signal and a second voltage threshold, V 2 , for a second level of the PWM signal, wherein a ratio a v =V 1 /V 2 is between 0.3 and 0.4, inclusively; and wherein the power amplifier includes the first switching device (I1) configured to generate a current with a first value I 1 , such that the power amplifier produces I 1 current for the first level of the PWM signal, wherein the power amplifier includes the second switching device (I2) configured to generate a current with a second value I 2 , such that the power amplifier produces I 1 +I 2 current for the second level of the PWM signal, wherein a ratio a i =I 1 /(I 1 +I 2 ) is between 0.2 and 0.4 inclusively. a pulse width modulator configured to modulate a signal according to a set of thresholds including at least two positive voltage thresholds to produce a pulse width modulated, PWM, signal; a first and a second switching device (650, I1, I2); and a switch mode power amplifier configured to amplify the PWM signal by switching states of switching the devices according to amplitudes of the PWM signal, characterised in that at least one or a combination of a distribution of values of the voltage thresholds in the set of thresholds and a distribution of values of a current generated by the different switching devices are non-uniform, wherein the distribution of values of the voltage thresholds in the set of thresholds are non-uniform such, that the distance between neighbouring voltage thresholds varies, wherein the set of thresholds includes a first voltage threshold, V 1 , for a first level of the PWM signal and a second voltage threshold, V 2 , for a second level of the PWM signal, wherein a ratio a v =V 1 /V 2 is between 0.3 and 0.4, inclusively; and wherein the power amplifier includes the first switching device (I1) configured to generate a current with a first value I 1 , such that the power amplifier produces I 1 current for the first level of the PWM signal, wherein the power amplifier includes the second switching device (I2) configured to generate a current with a second value I 2 , such that the power amplifier produces I 1 +I 2 current for the second level of the PWM signal, wherein a ratio a i =I 1 /(I 1 +I 2 ) is between 0.2 and 0.4 inclusively.
A phased array antenna system comprising: an antenna platter ; a plurality of antenna elements distributed on the antenna platter according to a polygonal grid comprising a plurality of polygonal pairs ; wherein each polygonal pair comprises first and second polygons arranged symmetrically about a central polygon of the antenna platter; wherein the plurality of antenna elements in each polygon of each polygonal pair is arranged in symmetrical pairs (22-1) (22-2) (22-3) about a center point (C) of the polygon such that the antenna elements of each symmetrical pair are complex conjugates of one another in beam forming calculations and are substantially equidistant from the center point (C); wherein the plurality of antenna elements comprise a thinned antenna array, and wherein a density (D) of the plurality of antenna elements on the antenna platter varies as a function of distance from the center of the antenna platter; and wherein the shape and/or size of the polygons is such that each polygon encompasses substantially the same number of antenna elements per polygon. an antenna platter ; a plurality of antenna elements distributed on the antenna platter according to a polygonal grid comprising a plurality of polygonal pairs ; wherein each polygonal pair comprises first and second polygons arranged symmetrically about a central polygon of the antenna platter; wherein the plurality of antenna elements in each polygon of each polygonal pair is arranged in symmetrical pairs (22-1) (22-2) (22-3) about a center point (C) of the polygon such that the antenna elements of each symmetrical pair are complex conjugates of one another in beam forming calculations and are substantially equidistant from the center point (C); wherein the plurality of antenna elements comprise a thinned antenna array, and wherein a density (D) of the plurality of antenna elements on the antenna platter varies as a function of distance from the center of the antenna platter; and wherein the shape and/or size of the polygons is such that each polygon encompasses substantially the same number of antenna elements per polygon.
A terminal comprising a control unit adapted to control a start timing of a measurement gap for Dual Connectivity, DC, wherein the control unit is configured to match the start timing with a timing of a sub-frame configured in a cell of a secondary cell group for the measurement gap, MG, such as the Per-FR gap for frequency range 2, FR2, configured from a secondary node, SN, and the control unit is configured to start the measurement gap, MG, at the start timing. the control unit is configured to match the start timing with a timing of a sub-frame configured in a cell of a secondary cell group for the measurement gap, MG, such as the Per-FR gap for frequency range 2, FR2, configured from a secondary node, SN, and the control unit is configured to start the measurement gap, MG, at the start timing.
A detection apparatus comprising: a unit to acquire, when an IoT Internet of Things device is added to a monitoring target IoT network, information on the IoT device; a model acquisition unit configured to specify based on the information on the IoT device, functions of the IoT device and to acquire, from a storage unit having stored therein normal communication models for determining, for each function of the IoT device , whether or not communication of the IoT device having the function is normal communication, a plurality of normal communication models that correspond to the functions of the IoT device and wherein the normal communication models are created based on learning event probabilities of normal communication patterns of the IoT device; a model coupling unit configured to couple the plurality of acquired normal communication models; a detection unit configured to perform an initial monitoring of the communication of the IoT device using the coupled acquired normal communication models, and detect an abnormality in the communication; and an additional learning unit configured to, when a predetermined amount of communication data of the IoT device has been acquired, additionally learn the acquired coupled normal communication models using the communication data, wherein the detection unit is configured to perform, after the additional learning is completed, a subsequent monitoring of the communication of the IoT device using the additionally learned acquired coupled normal communication models, and detect the abnormality in the communication. a unit to acquire, when an IoT Internet of Things device is added to a monitoring target IoT network, information on the IoT device; a model acquisition unit configured to specify based on the information on the IoT device, functions of the IoT device and to acquire, from a storage unit having stored therein normal communication models for determining, for each function of the IoT device , whether or not communication of the IoT device having the function is normal communication, a plurality of normal communication models that correspond to the functions of the IoT device and wherein the normal communication models are created based on learning event probabilities of normal communication patterns of the IoT device; a model coupling unit configured to couple the plurality of acquired normal communication models; a detection unit configured to perform an initial monitoring of the communication of the IoT device using the coupled acquired normal communication models, and detect an abnormality in the communication; and an additional learning unit configured to, when a predetermined amount of communication data of the IoT device has been acquired, additionally learn the acquired coupled normal communication models using the communication data, wherein the detection unit is configured to perform, after the additional learning is completed, a subsequent monitoring of the communication of the IoT device using the additionally learned acquired coupled normal communication models, and detect the abnormality in the communication.
Use of glycerin in a printing fluid employed in a three-dimensional printing method for the manufacture of a three-dimensionally printed orodispersible dosage form having a three-dimensionally printed porous matrix comprising 0.05 % wt. to 5 % wt. of glycerin, based upon the final weight of the dosage form, the three-dimensional printing method comprising: a) providing a printing fluid consisting of 1 % wt. to 10 % wt. glycerin, 1 % wt. to 25 % wt. of at least one alcohol, 55 % wt. to 95 % wt. water, 1 % wt. to 20 % wt. polyvinylpyrrolidone, 0.1 % wt. to 4 % wt. of surfactant and, optionally, >0 to 5 % wt. sweetener; b) depositing the printing fluid in a sufficient amount onto at least one layer of powder comprising drug-containing powder and 1 % wt. to 30 % wt. of a disintegrant, such to bind the particles of the at least one layer of powder; and c) reducing the content of water and solvent in the at least one layer, thereby forming a three-dimensionally printed porous matrix comprising 0.05 % wt. to 5 % wt. of glycerin. a) providing a printing fluid consisting of 1 % wt. to 10 % wt. glycerin, 1 % wt. to 25 % wt. of at least one alcohol, 55 % wt. to 95 % wt. water, 1 % wt. to 20 % wt. polyvinylpyrrolidone, 0.1 % wt. to 4 % wt. of surfactant and, optionally, >0 to 5 % wt. sweetener; b) depositing the printing fluid in a sufficient amount onto at least one layer of powder comprising drug-containing powder and 1 % wt. to 30 % wt. of a disintegrant, such to bind the particles of the at least one layer of powder; and c) reducing the content of water and solvent in the at least one layer, thereby forming a three-dimensionally printed porous matrix comprising 0.05 % wt. to 5 % wt. of glycerin.
A control element, comprising: - a base element , at which a joystick forming a first proportional actuation element is continuously pivotable with its attachment end about two pivot axes (2a, b) that are oriented at an angle relative to each other and that are typically horizontally oriented, wherein - the joystick includes an expanded head at an actuation end that is arranged opposite to the attachment end and a shaft that runs from the expanded head to the attachment end , - the joystick has a convex curved front surface that is typically oriented towards the user, a concave curved rear surface that is arranged opposite to the front surface, and a left and a right side surface (6a, b) that connects the two surfaces at sides, and additional, in particular proportional, actuation elements (3a, b) are arranged - in the front surface - on the back surface - and optionally also on the right side surface in a portion of the head characterized in that a longitudinal center line is arcuate in front view and extends in a center between the two side surfaces (6a, b) on the front surface and has a lateral inclination angle at an upper end between 15 degrees and 46 degrees relative to a vertical . - a base element , at which a joystick forming a first proportional actuation element is continuously pivotable with its attachment end about two pivot axes (2a, b) that are oriented at an angle relative to each other and that are typically horizontally oriented, wherein - the joystick includes an expanded head at an actuation end that is arranged opposite to the attachment end and a shaft that runs from the expanded head to the attachment end , - the joystick has a convex curved front surface that is typically oriented towards the user, a concave curved rear surface that is arranged opposite to the front surface, and a left and a right side surface (6a, b) that connects the two surfaces at sides, and additional, in particular proportional, actuation elements (3a, b) are arranged - in the front surface - on the back surface - and optionally also on the right side surface in a portion of the head
A method of producing an ammonium sulfate nitrate 1:2 double salt, (NH 4 ) 2 SO 4• 2(NH 4 NO 3 ), the method comprising: combining ammonium sulfate, nitric acid and a source of ammonia in an aqueous solution to form a reaction mixture; heating the reaction mixture to a temperature from 160 °C to 180 °C; allowing the reaction mixture to undergo a reaction for a time period sufficient to form an intermediate mixture; removing sufficient water from the intermediate mixture to form the ammonium sulfate nitrate 1:2 double salt, wherein the step of removing sufficient water from the intermediate mixture comprises either (a) reducing the water content to a range of 0.4 weight percent to 1 weight percent; or (b) removing the water from the intermediate mixture; and adding a final amount of water back into the intermediate mixture to form the ammonium sulfate nitrate double salt. combining ammonium sulfate, nitric acid and a source of ammonia in an aqueous solution to form a reaction mixture; heating the reaction mixture to a temperature from 160 °C to 180 °C; allowing the reaction mixture to undergo a reaction for a time period sufficient to form an intermediate mixture; removing sufficient water from the intermediate mixture to form the ammonium sulfate nitrate 1:2 double salt, wherein the step of removing sufficient water from the intermediate mixture comprises either (a) reducing the water content to a range of 0.4 weight percent to 1 weight percent; or (b) removing the water from the intermediate mixture; and adding a final amount of water back into the intermediate mixture to form the ammonium sulfate nitrate double salt. (a) reducing the water content to a range of 0.4 weight percent to 1 weight percent; or (b) removing the water from the intermediate mixture; and adding a final amount of water back into the intermediate mixture to form the ammonium sulfate nitrate double salt.
An adhesive composition comprising: a thermally curable epoxy resin formed of a hydroxyl group-containing epoxy copolymer; and a UV curable epoxy resin having an epoxy equivalent weight of 100 g/eq to 500 g/eq, wherein the thermally curable epoxy resin has a hydroxyl group equivalent weight of 200 g/eq to 400 g/eq, wherein the thermally curable epoxy resin is present in an amount of 10 parts by weight to 60 parts by weight based on 100 parts by weight of the UV curable epoxy resin. a thermally curable epoxy resin formed of a hydroxyl group-containing epoxy copolymer; and a UV curable epoxy resin having an epoxy equivalent weight of 100 g/eq to 500 g/eq, wherein the thermally curable epoxy resin has a hydroxyl group equivalent weight of 200 g/eq to 400 g/eq, wherein the thermally curable epoxy resin is present in an amount of 10 parts by weight to 60 parts by weight based on 100 parts by weight of the UV curable epoxy resin.
A method of forming a sensor device , the method comprising the steps of: providing a substrate ; etching a portion of the substrate to form an etch region ; after the step of etching, forming a buried insulating region proximate the etch region ; forming a source region overlying a first surface of the substrate ; and forming a drain region overlying a second surface of the substrate , forming a nanopore through the etch region. providing a substrate ; etching a portion of the substrate to form an etch region ; after the step of etching, forming a buried insulating region proximate the etch region ; forming a source region overlying a first surface of the substrate ; and forming a drain region overlying a second surface of the substrate , forming a nanopore through the etch region.
A compound of the following structure: wherein: R 1 is R 2 is hydrogen; R 3 is hydrogen; R 4 is ∼X-POLY; R 5 is hydrogen; R 6 is hydrogen; X is -O- or -OC(O)NH-; POLY is -(CH 2 CH 2 O) n -Y; n is an integer from 1 to 30; Y is hydrogen, C1-C6 alkyl, or trifluoromethyl; and pharmaceutically acceptable salts and solvates thereof. R 1 is R 2 is hydrogen; R 3 is hydrogen; R 4 is ∼X-POLY; R 5 is hydrogen; R 6 is hydrogen; X is -O- or -OC(O)NH-; POLY is -(CH 2 CH 2 O) n -Y; n is an integer from 1 to 30; Y is hydrogen, C1-C6 alkyl, or trifluoromethyl;