mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: generating a substantially acoustic monochromatic signal having a first phase and a first amplitude; transmitting the substantially acoustic monochromatic signal through a metamaterial system, wherein the metamaterial system has a plurality of structural elements defining a first elongated path through the metamaterial system, wherein the metamaterial system comprises stacked metamaterial layers, wherein the stacked metamaterial layers sample a curve in the complex plane and wherein the substantially acoustic monochromatic signal is transformed within the metamaterial system into a second signal having a second amplitude and a second phase; the method characterised by : actuating the plurality of structural elements so as to define a second elongated path through the metamaterial system, wherein the second elongated path has a different length than the first elongated path. generating a substantially acoustic monochromatic signal having a first phase and a first amplitude; transmitting the substantially acoustic monochromatic signal through a metamaterial system, wherein the metamaterial system has a plurality of structural elements defining a first elongated path through the metamaterial system, wherein the metamaterial system comprises stacked metamaterial layers, wherein the stacked metamaterial layers sample a curve in the complex plane and wherein the substantially acoustic monochromatic signal is transformed within the metamaterial system into a second signal having a second amplitude and a second phase; the method characterised by : actuating the plurality of structural elements so as to define a second elongated path through the metamaterial system, wherein the second elongated path has a different length than the first elongated path.
A powdered aluminium material containing magnesium, chromium, and zirconium characterised in that it additionally contains boron and at least one element from the group of manganese, iron, and nickel, with the following ratio of components, % wt. magnesium 4,5-6,5 chromium 0.35-0.80 zirconium 0.40-1.0 boron 0.002-0.12 manganese, iron, nickel 0.05-0.8 in total aluminium and unavoidable impurities remainder.
A pant-type garment having a length direction (L) and a width direction (W) and being divided in the length direction (L) into a front portion , a back portion and a crotch portion located between the front portion and the back portion , the front portion having a front waist edge extending in the width direction (W) and a pair of opposing side edges extending in the longitudinal direction (L) and the back portion having a back waist edge (21") extending in the width direction (W) and a pair of opposing side edges , extending in the longitudinal direction (L), the front and back portions being joined in a first and a second side seam arranged in first and second side seam regions and being formed by superposed layers of the front and back portions along the opposing side edges of the front and back portions , the first and second side seam regions comprising thermoplastic web material, the side seams being constituted by fused thermoplastic material extending along the side edges of the front and back portions of the pant-type garment , wherein each of the side seams has a width (w s ) in the width direction (W) of the pant-type garment in the range of from 0.3 to 1.5 millimetres, and a thickness (t s ) in the range of from 0.2 to 1.5 millimeters, the thickness (t s ) of the side seam being perpendicular to the width direction (W) and the length direction (L) of the pant type garment , characterized in that the material of the front and back portions comprises or consists of an elastic laminate comprising an elastic film which is stretch-bonded between two outer nonwoven webs , the side seams being fully or partly formed in the elastic laminate .
A method for use in power generation comprising: bringing a first target matter via wave resonance into a higher energy state by exposing the first target matter to electromagnetic radiation input energy provided by a first wave source for producing a first isotope shift in the first target matter and neutrons resulting from the first isotope shift, capturing the neutrons by a second target matter for producing a second isotope shift in the second target matter and electromagnetic radiation output energy, wherein, when the resulting electromagnetic radiation output power is produced above a power threshold value, maintaining the production of electromagnetic radiation output energy by exposing the first target matter to electromagnetic radiation maintenance energy provided by means of a second wave source. bringing a first target matter via wave resonance into a higher energy state by exposing the first target matter to electromagnetic radiation input energy provided by a first wave source for producing a first isotope shift in the first target matter and neutrons resulting from the first isotope shift, capturing the neutrons by a second target matter for producing a second isotope shift in the second target matter and electromagnetic radiation output energy, wherein, when the resulting electromagnetic radiation output power is produced above a power threshold value, maintaining the production of electromagnetic radiation output energy by exposing the first target matter to electromagnetic radiation maintenance energy provided by means of a second wave source.
Iron(III) complex according to formula or : wherein m = 1 to 5; Y 1 and Y 2 are independently selected from the group comprising O, NH and NR, wherein R is C1-C15 alkyl or C3-C10 cycloalkyl; Y 3 is selected from the group comprising O, NH and NR, wherein R is C1-C15 alkyl or C3-C10 cycloalkyl; Y 4 is selected from the group comprising OH, OR, NH 2 NHR and NR 5 R 6 , wherein R, R 5 and R 6 are C1-C15 alkyl or C3-C10 cycloalkyl and R 5 and R 6 are independently selected; Z means a bridge according to one of the formulae to : wherein n = 0 to 4; o = 0 to 4; * and *' denote binding sites of the bridge Z to Y 1 and Y 2 of formula and Y 3 and Y 4 of formula , respectively; and R 1 , R 2 , R 3 and R 4 are independently selected from the group comprising H, C1-C15 alkyl and C3-C10 cycloalkyl. m = 1 to 5; Y 1 and Y 2 are independently selected from the group comprising O, NH and NR, wherein R is C1-C15 alkyl or C3-C10 cycloalkyl; Y 3 is selected from the group comprising O, NH and NR, wherein R is C1-C15 alkyl or C3-C10 cycloalkyl; Y 4 is selected from the group comprising OH, OR, NH 2 NHR and NR 5 R 6 , wherein R, R 5 and R 6 are C1-C15 alkyl or C3-C10 cycloalkyl and R 5 and R 6 are independently selected; Z means a bridge according to one of the formulae to : wherein n = 0 to 4; o = 0 to 4; * and *' denote binding sites of the bridge Z to Y 1 and Y 2 of formula and Y 3 and Y 4 of formula , respectively; and R 1 , R 2 , R 3 and R 4 are independently selected from the group comprising H, C1-C15 alkyl and C3-C10 cycloalkyl.
A computing system configured to: generate, by an unsupervised training pipeline , a plurality of entity models , wherein each of the plurality of entity models is associated with one of a plurality of entities and is trained to detect an anomalous pattern using feature data associated with the one entity, wherein each entity of the plurality of entities is associated with at least one of a user, a machine, a service, or group thereof; generate, by the unsupervised training pipeline, an aggregate model , wherein the aggregate model is associated with a group of entities of the plurality of entities and is trained to detect an anomalous pattern using feature data associated with the group of entities; detect, by an inference pipeline , a first anomalous pattern in first data associated with a first entity of the plurality of entities using a first entity model of the plurality of entity models; detect, by the inference pipeline, a second anomalous pattern in second data associated with a second entity of the plurality of entities using a second entity model of the plurality of entity models; determine that a third entity of the plurality of entities is not associated with an entity model; determine that the third entity is associated with the group of entities; and detect, by the inference pipeline, a third anomalous pattern in third data associated with the third entity of the plurality of entities using the aggregate model. generate, by an unsupervised training pipeline , a plurality of entity models , wherein each of the plurality of entity models is associated with one of a plurality of entities and is trained to detect an anomalous pattern using feature data associated with the one entity, wherein each entity of the plurality of entities is associated with at least one of a user, a machine, a service, or group thereof; generate, by the unsupervised training pipeline, an aggregate model , wherein the aggregate model is associated with a group of entities of the plurality of entities and is trained to detect an anomalous pattern using feature data associated with the group of entities; detect, by an inference pipeline , a first anomalous pattern in first data associated with a first entity of the plurality of entities using a first entity model of the plurality of entity models; detect, by the inference pipeline, a second anomalous pattern in second data associated with a second entity of the plurality of entities using a second entity model of the plurality of entity models; determine that a third entity of the plurality of entities is not associated with an entity model; determine that the third entity is associated with the group of entities; and detect, by the inference pipeline, a third anomalous pattern in third data associated with the third entity of the plurality of entities using the aggregate model.
Straight-flow valve including a valve body which includes an infeed duct which, when viewed in the throughflow direction (R), terminates in a passage opening , wherein a terminal face that surrounds the passage opening configures a valve seat , furthermore including a shut-off member having a shut-off body which is movable between a closed position (S) and an open position (O) and which in the closed position (S) bears on the valve seat , wherein the valve has restoring means which are capable of exerting on the shut-off body a restoring force acting in the direction of the closed position (S), wherein the shut-off body is movable in a pivoting manner between an open position (O) and a closed position (S), characterized in that the valve body configures a V-shaped cut in which the passage opening is disposed, wherein a first wall of the V-shaped cut configures the valve seat .
A process of making a sweetened dairy product comprising: - a dairy material, - at least one steviol glycoside, and - a lactase enzyme, wherein the sweetened dairy product comprises a strained fermented dairy composition and an intermediate composition, mixed or arranged as layers or discrete inclusions, wherein the process comprises the steps of: step a) preparing a strained fermented dairy composition comprising the dairy material and the lactase enzyme, comprising the following steps: a1) providing a milk composition comprising lactose, a2) adding the enzyme and at least partially hydrolyzing the lactose, a3) inoculating lactic acid bacteria, and a4) allowing fermentation of the milk composition, and the following subsequent step: a5) separation, by ultrafiltration or centrifugal separation, to obtain a strained fermented dairy composition and an acid whey by-product, and step b) adding an intermediate composition comprising the at least one steviol glycoside. - a dairy material, - at least one steviol glycoside, and - a lactase enzyme, wherein the sweetened dairy product comprises a strained fermented dairy composition and an intermediate composition, mixed or arranged as layers or discrete inclusions, wherein the process comprises the steps of: step a) preparing a strained fermented dairy composition comprising the dairy material and the lactase enzyme, comprising the following steps: a1) providing a milk composition comprising lactose, a2) adding the enzyme and at least partially hydrolyzing the lactose, a3) inoculating lactic acid bacteria, and a4) allowing fermentation of the milk composition, and the following subsequent step: a5) separation, by ultrafiltration or centrifugal separation, to obtain a strained fermented dairy composition and an acid whey by-product, and step b) adding an intermediate composition comprising the at least one steviol glycoside. step a) preparing a strained fermented dairy composition comprising the dairy material and the lactase enzyme, comprising the following steps: a1) providing a milk composition comprising lactose, a2) adding the enzyme and at least partially hydrolyzing the lactose, a3) inoculating lactic acid bacteria, and a4) allowing fermentation of the milk composition, and the following subsequent step: a5) separation, by ultrafiltration or centrifugal separation, to obtain a strained fermented dairy composition and an acid whey by-product, and a1) providing a milk composition comprising lactose, a2) adding the enzyme and at least partially hydrolyzing the lactose, a3) inoculating lactic acid bacteria, and a4) allowing fermentation of the milk composition, and the following subsequent step: a5) separation, by ultrafiltration or centrifugal separation, to obtain a strained fermented dairy composition and an acid whey by-product, step b) adding an intermediate composition comprising the at least one steviol glycoside.
An actuating drive for moving a movable furniture part , comprising: - at least one actuating arm pivotally mounted about a pivoting axis for moving the movable furniture part , - a spring device for applying a force to the actuating arm , - a transmission mechanism for transmitting a force from the spring device to the actuating arm , wherein the transmission mechanism includes an actuating portion movement-coupled to the actuating arm , a setting contour and a pressure portion pressurized by the spring device , the pressure portion being configured as a rotatably mounted pressure roller and being configured to run along the setting contour upon a movement of the actuating arm , wherein the setting contour is arranged between the actuating portion and the pressure roller , - wherein the setting contour is arranged on a contour portion separate from the actuating portion , wherein the contour portion has a fastening section configured to bear against the actuating portion and a limb protruding transversely from the fastening portion , wherein the setting contour is formed by a curved outer surface of the limb , characterized in that the contour portion is fixed to only one side of the actuating portion , wherein the contour portion has a flat-shaped fastening section bearing against a corresponding, flat-shaped side surface of the actuating portion in a mounted position. - at least one actuating arm pivotally mounted about a pivoting axis for moving the movable furniture part , - a spring device for applying a force to the actuating arm , - a transmission mechanism for transmitting a force from the spring device to the actuating arm , wherein the transmission mechanism includes an actuating portion movement-coupled to the actuating arm , a setting contour and a pressure portion pressurized by the spring device , the pressure portion being configured as a rotatably mounted pressure roller and being configured to run along the setting contour upon a movement of the actuating arm , wherein the setting contour is arranged between the actuating portion and the pressure roller , - wherein the setting contour is arranged on a contour portion separate from the actuating portion , wherein the contour portion has a fastening section configured to bear against the actuating portion and a limb protruding transversely from the fastening portion , wherein the setting contour is formed by a curved outer surface of the limb ,
A method of controlling a building system by a controller of a building control system which comprises a plurality of building systems (202-205), the method comprising the steps of: receiving a user input from a mobile device , wherein the user input is for establishing a defined action, the user input being a motion input through a building system control application on the mobile device ; assigning the defined action to control a building system among the plurality of building systems (202-205); storing the defined action in a database in association with a user of the mobile device and the building system, the user having user control permissions granting the user an ability to control the building system; receiving a first user input from the mobile device , the first user input being input through the building system control application to select the building system among the plurality of building systems (202-205); receiving a second user input from the mobile device , the second user input corresponding to the defined action and being input through the building system control application; and controlling the building system using the defined action. receiving a user input from a mobile device , wherein the user input is for establishing a defined action, the user input being a motion input through a building system control application on the mobile device ; assigning the defined action to control a building system among the plurality of building systems (202-205); storing the defined action in a database in association with a user of the mobile device and the building system, the user having user control permissions granting the user an ability to control the building system; receiving a first user input from the mobile device , the first user input being input through the building system control application to select the building system among the plurality of building systems (202-205); receiving a second user input from the mobile device , the second user input corresponding to the defined action and being input through the building system control application; and controlling the building system using the defined action.
A transmission resource indication method, applied to a terminal side, wherein the method comprises: receiving auxiliary information that satisfies a preset format, wherein the preset format is a signaling format, an encapsulation format or an encoding format that is predefined in a protocol; wherein the auxiliary information is used to indicate a first synchronization signal block, SSB, actually sent by a network device and a second SSB associated with a target physical channel; the method characterized in that the auxiliary information comprises first indication information and second indication information, the first indication information is used to indicate the first SSB, and the second indication information is used to indicate the second SSB; or the auxiliary information comprises third indication information, and the third indication information is used to indicate the first SSB and the second SSB; wherein the third indication information includes one indication field or two indication fields; when the third indication information includes one indication field, the indication field indicates both the first SSB and the second SSB; when the third indication information includes two indication fields, one of the indication fields indicates the first SSB, and the other indication field indicates the second SSB. receiving auxiliary information that satisfies a preset format, wherein the preset format is a signaling format, an encapsulation format or an encoding format that is predefined in a protocol; wherein the auxiliary information is used to indicate a first synchronization signal block, SSB, actually sent by a network device and a second SSB associated with a target physical channel; the method characterized in that the auxiliary information comprises first indication information and second indication information, the first indication information is used to indicate the first SSB, and the second indication information is used to indicate the second SSB; or the auxiliary information comprises third indication information, and the third indication information is used to indicate the first SSB and the second SSB; wherein the third indication information includes one indication field or two indication fields; when the third indication information includes one indication field, the indication field indicates both the first SSB and the second SSB; when the third indication information includes two indication fields, one of the indication fields indicates the first SSB, and the other indication field indicates the second SSB.
Circuit arrangement comprising - a printed circuit board , - at least one micro-mirror component connected to the printed circuit board for modulating a light beam of a light source directed onto the micro-mirror component , - a heat sink thermally connected to the at least one micro mirror component , and - a current control unit , the micro-mirror component being assigned a heating element which can be controlled by means of the current control unit and is thermally connected to the micro-mirror component , characterised in that the current control unit for driving the heating element is electrically connected to the latter, the current control unit also being connected to the micro-mirror component via a thermal connection to the heat sink for transmitting heat loss occurring at the current control unit . - a printed circuit board , - at least one micro-mirror component connected to the printed circuit board for modulating a light beam of a light source directed onto the micro-mirror component , - a heat sink thermally connected to the at least one micro mirror component , and - a current control unit ,