mhurhangee/patent-ind-claim-en huggingface dataset:
A substrate manufacturing method, comprising: a first step of disposing a laser condensing means on a surface of a single crystal member of magnesium oxide to be irradiated in a non-contact manner, the laser condensing means being for condensing a laser beam, the laser beam having a power density of 1000 W/cm 2 or more; and a second step of irradiating the laser beam to a surface of the single crystal member and condensing the laser beam into an inner portion of the single crystal member under a designated irradiation condition using the laser condensing means, simultaneously moving the laser condensing means and the single crystal member two-dimensionally relative to each other, and forming processing mark lines in parallel with one another, each of the processing mark lines being composed by forming processing marks in a line at the inner portion of the single crystal member, the processing marks being formed by thermal processing, wherein, in the second step, continuously formed line portions in which the processing marks are continuously formed in at least a part of the processing mark lines, such that air gaps that continue with one another are formed over the processing mark lines in the overlapped line portions, and planar peeling is caused from the irradiated surface side. a first step of disposing a laser condensing means on a surface of a single crystal member of magnesium oxide to be irradiated in a non-contact manner, the laser condensing means being for condensing a laser beam, the laser beam having a power density of 1000 W/cm 2 or more; and a second step of irradiating the laser beam to a surface of the single crystal member and condensing the laser beam into an inner portion of the single crystal member under a designated irradiation condition using the laser condensing means, simultaneously moving the laser condensing means and the single crystal member two-dimensionally relative to each other, and forming processing mark lines in parallel with one another, each of the processing mark lines being composed by forming processing marks in a line at the inner portion of the single crystal member, the processing marks being formed by thermal processing, wherein, in the second step, continuously formed line portions in which the processing marks are continuously formed in at least a part of the processing mark lines, such that air gaps that continue with one another are formed over the processing mark lines in the overlapped line portions, and planar peeling is caused from the irradiated surface side.
A system for a removable syringe micro pump with wave spring, comprising: a pump housing having a first end and opposite thereto an attaching end , and at least one sidewall there between, the pump housing having a base proximate to the first end and, the attaching end having an attacher structured and arranged to temporarily engage a syringe having a barrel with an open end opposite from a nozzle, the attacher structured and arranged to attach to the open end of the syringe, the syringe remaining external to the sidewall of the pump housing ; a wave spring nested within the pump housing and attached proximate to the base , the wave spring having a first position wherein the wave spring is compressed under tension such that an initial height of the wave spring is disposed within the pump housing ; and a wave spring restrainer structured and arranged to restrain the wave spring in the first position until released by an operator, wherein, releasing the wave spring restrainer permits the distal end of the wave spring to extend normally away from the pump housing, the wave spring having a diameter pre-selected to pass within a barrel of the engaged syringe , the wave spring further having a distal end structured and arranged to engage a plunger seal of the engaged syringe , wherein the release of tension from the first position permits the distal end of the wave spring to move the plunger seal towards a nozzle of the syringe . a pump housing having a first end and opposite thereto an attaching end , and at least one sidewall there between, the pump housing having a base proximate to the first end and, the attaching end having an attacher structured and arranged to temporarily engage a syringe having a barrel with an open end opposite from a nozzle, the attacher structured and arranged to attach to the open end of the syringe, the syringe remaining external to the sidewall of the pump housing ; a wave spring nested within the pump housing and attached proximate to the base , the wave spring having a first position wherein the wave spring is compressed under tension such that an initial height of the wave spring is disposed within the pump housing ; and a wave spring restrainer structured and arranged to restrain the wave spring in the first position until released by an operator, wherein, releasing the wave spring restrainer permits the distal end of the wave spring to extend normally away from the pump housing, the wave spring having a diameter pre-selected to pass within a barrel of the engaged syringe , the wave spring further having a distal end structured and arranged to engage a plunger seal of the engaged syringe , wherein the release of tension from the first position permits the distal end of the wave spring to move the plunger seal towards a nozzle of the syringe .
A computer-implemented method comprising: receiving a digital image that depicts a document that includes words; performing a first optical character recognition operation on the digital image to extract, from the digital image, a portion of the words included in the document, the portion including fewer words than the document; determining a document type of the document based on the portion of the words; selecting between at least two dictionary based language models according to the document type of the document; performing a second optical character recognition operation on the digital image to extract, from the digital image, the words included in the document; processing the words extracted by the second optical character recognition operation in accordance with the selected dictionary based language model; indexing the digital image based on the processed words; and storing the digital image for later retrieval based on one or more received search terms. receiving a digital image that depicts a document that includes words; performing a first optical character recognition operation on the digital image to extract, from the digital image, a portion of the words included in the document, the portion including fewer words than the document; determining a document type of the document based on the portion of the words; selecting between at least two dictionary based language models according to the document type of the document; performing a second optical character recognition operation on the digital image to extract, from the digital image, the words included in the document; processing the words extracted by the second optical character recognition operation in accordance with the selected dictionary based language model; indexing the digital image based on the processed words; and storing the digital image for later retrieval based on one or more received search terms.
A hygiene composition for reduction of malodour comprising (i) a zinc salt; and (ii) a rhamnolipid; and (iii) one or more polysaccharide selected from algin or pectin preferably pectin. (i) a zinc salt; and (ii) a rhamnolipid; and (iii) one or more polysaccharide selected from algin or pectin preferably pectin.
A food product that comprises a fermented dairy fraction representing between 80% and 90% by weight of the final product and a second fraction that consists of a vegetable jam representing between 10% and 20% by weight of the final product, characterised in that : - the jam comprises between 40 and 60% by weight of a vegetable pulp or extract and a remaining sweetener, of which at least 40% by weight is a dietary fibre having a low degree of polymerisation and a low glycaemic index selected from oligofructose, sucralose, lactitol, kojibiose and tagatose, and wherein - the fermented dairy fraction comprises at least one lactic bacterium, dietary fibre having a high degree of polymerisation of the fermented dairy fraction selected from inulin, starch, polydextrose, pectin, galactomannan and arabinoxylan, and at least one probiotic strain. - the jam comprises between 40 and 60% by weight of a vegetable pulp or extract and a remaining sweetener, of which at least 40% by weight is a dietary fibre having a low degree of polymerisation and a low glycaemic index selected from oligofructose, sucralose, lactitol, kojibiose and tagatose, and wherein - the fermented dairy fraction comprises at least one lactic bacterium, dietary fibre having a high degree of polymerisation of the fermented dairy fraction selected from inulin, starch, polydextrose, pectin, galactomannan and arabinoxylan, and at least one probiotic strain.
A lighting control system comprising a first sub-system comprising, a first control unit , a gateway module in communication with the first control unit , and at least one first lighting unit associated with the first control unit , and a second sub-system comprising a second control unit , and at least one second lighting unit associated with the second control unit , wherein the first control unit comprises a first communication module for wireless communication in a first personal area network with said at least one associated first lighting unit , and a second communication module for wireless communication in a second personal area network with the second control unit , and wherein the second control unit comprises a first communication module for wireless communication with said at least one second lighting unit associated with the second control unit , and a second communication module for wireless communication in the second personal area network with the first control unit , characterized in that the second personal area network is a wireless mesh network, and the first control unit and the second control unit are mesh nodes, and the second sub-system is configured to communicate with a local area network via the first control unit and the gateway module .
A computer implemented object tracking method , comprising: obtaining a first relative position vector (V1) from a first node to a second node at a first time point; obtaining a first position data of the first node and a second position data of the second node at a second time point; identifying a position variation vector (V2) from the first node to the second node based on the first position data of the first node and the second position data of the second node ; and identifying a second relative position vector (V3) from the first node to the second node at the second time point based on the first relative position vector (V1) and the position variation vector (V2), wherein the first relative position vector (V1) is obtained through a sensor mounted on the first node , wherein the second node is in a detection range of the sensor at the first time point and is out of the detection range of the sensor at the second time point, wherein the first position data and the second position data are Global Position System (GPS) raw data, wherein the GPS raw data comprises pseudorange, satellite orbital data and carrier phase, wherein the position variation vector (V2) from the first node to the second node is obtained by performing a double differentiation operation on the first position data and the second position data. obtaining a first relative position vector (V1) from a first node to a second node at a first time point; obtaining a first position data of the first node and a second position data of the second node at a second time point; identifying a position variation vector (V2) from the first node to the second node based on the first position data of the first node and the second position data of the second node ; and identifying a second relative position vector (V3) from the first node to the second node at the second time point based on the first relative position vector (V1) and the position variation vector (V2), wherein the first relative position vector (V1) is obtained through a sensor mounted on the first node , wherein the second node is in a detection range of the sensor at the first time point and is out of the detection range of the sensor at the second time point, wherein the first position data and the second position data are Global Position System (GPS) raw data, wherein the GPS raw data comprises pseudorange, satellite orbital data and carrier phase, wherein the position variation vector (V2) from the first node to the second node is obtained by performing a double differentiation operation on the first position data and the second position data.
Molding device for casting an optical article with a thermoset resin, the optical article defining two opposed main surfaces, one of which being formed by an optical functional wafer, the molding device comprising: a. a molding element forming a rear or a front part of a casting mold b. a gasket intended to surround the periphery of the molding element c. an initially curved wafer defining a predetermined curvature depending on one of the two main surfaces of the optical article to be manufactured d. a closing element defining in a closing position in which the peripheral part of the wafer on the gasket is pinched, a pouring space between the molding element, the gasket and the wafer e. spacing means interposed between the wafer and the closing element to define an internal volume between the wafer and the closing element, the molding device being characterized in that the spacing means, wafer and closing element are configured to form a set hermetic to the resin to be poured into the molding device when the closing element occupies a closing position, wherein the central part of the wafer surrounded by the spacing means is hermetic to the resin to be poured into the molding device. a. a molding element forming a rear or a front part of a casting mold b. a gasket intended to surround the periphery of the molding element c. an initially curved wafer defining a predetermined curvature depending on one of the two main surfaces of the optical article to be manufactured d. a closing element defining in a closing position in which the peripheral part of the wafer on the gasket is pinched, a pouring space between the molding element, the gasket and the wafer e. spacing means interposed between the wafer and the closing element to define an internal volume between the wafer and the closing element,
A magnetoresistance effect element comprising: a first ferromagnetic metal layer ; a second ferromagnetic metal layer ; and a tunnel barrier layer that is sandwiched between the first and second ferromagnetic metal layers, wherein the tunnel barrier layer has a spinel structure in which cations are arranged in a disordered manner, and the tunnel barrier layer is expressed by a composition formula of (M 1-x Zn x )((T1) 2-y (T2) y )O 4 , wherein M represents a non-magnetic divalent cation other than Zn, each of T1 and T2 represents a non-magnetic trivalent cation, and x and y represent a composition ratio in a region where composition ratios combined as follows ( to ) are vertexes, and the vertexes are connected by straight lines: x=0.2, y=0.1, x=0.8, y=0.1, x=0.8, y=1.7, x=0.6, y=1.7, and x=0.2, y=0.7. a first ferromagnetic metal layer ; a second ferromagnetic metal layer ; and a tunnel barrier layer that is sandwiched between the first and second ferromagnetic metal layers, wherein the tunnel barrier layer has a spinel structure in which cations are arranged in a disordered manner, and the tunnel barrier layer is expressed by a composition formula of (M 1-x Zn x )((T1) 2-y (T2) y )O 4 , wherein M represents a non-magnetic divalent cation other than Zn, each of T1 and T2 represents a non-magnetic trivalent cation, and x and y represent a composition ratio in a region where composition ratios combined as follows ( to ) are vertexes, and the vertexes are connected by straight lines: x=0.2, y=0.1, x=0.8, y=0.1, x=0.8, y=1.7, x=0.6, y=1.7, and x=0.2, y=0.7. x=0.2, y=0.1, x=0.8, y=0.1, x=0.8, y=1.7, x=0.6, y=1.7, and x=0.2, y=0.7.
A container with fastening means comprising a box-like body in the form of a parallelepiped with rounded ribs (R), a cover , and means for lifting and transferring the container located in the upper part of the side faces of the container, wherein each side faces of the container is provided with two pairs of latches that are staggered in a circle in a horizontal plane so as to be capable of engaging with latches of adjacent analogous containers, characterized in that the latche are detachable, and have a mushroom shape with a flat rectangular cap and a stem of a corresponding shape which is inserted in an opening in a rectangular plate that is provided with an analogous parallel rectangular opening for mating with the second analogous latch of a latch pair, wherein a threaded blind hole is configured through the axis of the stem into the centre of the cap, the latch being secured via said hole from the inside of the container by means of a screw , wherein horseshoe-shaped supports are secured to the ribs (R) of the container from the underside, said supports being configured to interact with a supporting metal strip fastened below the cover to the inner surfaces of the side faces of the container.
Structural component , in particular for an aircraft, spacecraft or rocket , comprising: a ply of fiber reinforced polymer; a first carbon nano tube mat ; and a metallic layer , wherein the carbon nano tube mat and the metallic layer are arranged on the ply of fiber reinforced polymer to form a hybrid lightning strike protection layer . a ply of fiber reinforced polymer; a first carbon nano tube mat ; and a metallic layer , wherein the carbon nano tube mat and the metallic layer are arranged on the ply of fiber reinforced polymer to form a hybrid lightning strike protection layer .
A board comprising acetylated wood elements, wherein the acetylated wood elements are obtained from rubberwood, wherein said acetylated wood elements have an acetyl content of at least 17%, and wherein said acetylated wood elements are selected from the group consisting of fibres, chips, particles, splinters, and fibre bundles; preferably fibres; wherein fibres have a length of from 1 mm to 5 mm, a width of from 0.05 mm to 0.1 mm, and a thickness of from 0.05 mm to 0.1 mm; chips have a length of from 5 mm to 75 mm, a width of from 5 mm to 50 mm, and a thickness of from 1.5 mm to 25 mm; particles have a length of from 1.5 mm to 20 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm; splinters have a length of from 5 mm to 75 mm, a width of from 0.15 mm to 0.5 mm, and a thickness of from 0.15 mm to 0.5 mm; and fibre bundles have a length of from 1.5 mm to 25 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm. wherein fibres have a length of from 1 mm to 5 mm, a width of from 0.05 mm to 0.1 mm, and a thickness of from 0.05 mm to 0.1 mm; chips have a length of from 5 mm to 75 mm, a width of from 5 mm to 50 mm, and a thickness of from 1.5 mm to 25 mm; particles have a length of from 1.5 mm to 20 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm; splinters have a length of from 5 mm to 75 mm, a width of from 0.15 mm to 0.5 mm, and a thickness of from 0.15 mm to 0.5 mm; and fibre bundles have a length of from 1.5 mm to 25 mm, a width of from 0.15 mm to 5 mm, and a thickness of from 0.15 mm to 5 mm.
Gear unit of a combing machine for spinning preparation, having: - a main drive shaft which can be driven by means of a drive motor by way of a main drive wheel , - a nipper shaft which can be made to move in an oscillating to and fro rotational movement by a four-bar linkage connected to the main drive wheel , - a coupling linkage which is connected to the nipper shaft in such a manner that the coupling linkage can be moved in an oscillating rotating manner by the nipper shaft , - a detaching cylinder gear which is adapted for driving at least one detaching cylinder , and wherein - the detaching cylinder gear can be driven continuously by way of the main drive shaft , and wherein - the oscillating movement can be introduced into the detaching cylinder gear by means of the coupling linkage and can be applied to the continuous drive by means of the main drive shaft in the detaching cylinder gear , so that a pilgrim step movement can be performed with an output shaft of the detaching cylinder gear , characterised in that an adjusting gear unit and a control motor are provided, wherein the output shaft of the detaching cylinder gear is in operative connection with the adjusting gear unit and wherein the control motor is adapted for introducing a rotational movement into the adjusting gear unit in order to apply the rotational movement to the output shaft of the detaching cylinder gear using the adjusting gear unit , wherein the adjusting gear unit is in the form of a planetary gear which is arranged between the detaching cylinder gear and the detaching cylinders . - a main drive shaft which can be driven by means of a drive motor by way of a main drive wheel , - a nipper shaft which can be made to move in an oscillating to and fro rotational movement by a four-bar linkage connected to the main drive wheel , - a coupling linkage which is connected to the nipper shaft in such a manner that the coupling linkage can be moved in an oscillating rotating manner by the nipper shaft , - a detaching cylinder gear which is adapted for driving at least one detaching cylinder , and wherein - the detaching cylinder gear can be driven continuously by way of the main drive shaft , and wherein - the oscillating movement can be introduced into the detaching cylinder gear by means of the coupling linkage and can be applied to the continuous drive by means of the main drive shaft in the detaching cylinder gear , so that a pilgrim step movement can be performed with an output shaft of the detaching cylinder gear , characterised in that
A process for the production of lutein from harvested microalgal biomass, said process comprising the following steps: i. subjecting said dried harvested microalgal biomass having particle size in the range of 75 microns to 100 microns, to one of supercritical fluid extraction process or ultrasonication extraction process, to obtain a mixture comprising lutein and at least one fluid medium; ii. saponifying said mixture, using at least one alkali at a temperature in the range of 55 °C to 65 °C and for a time period in the range of 2 hrs to 2.5 hrs to produce a saponified slurry, wherein the ratio of said alkali to said fluid medium is 1:9; iii. centrifuging said saponified slurry at a speed in the range of 2500 rpm to 3000 rpm, to separate a wet mass comprising lutein; and iv. concentrating said wet mass at a temperature in the range of 25 °C to 30 °C to obtain lutein. i. subjecting said dried harvested microalgal biomass having particle size in the range of 75 microns to 100 microns, to one of supercritical fluid extraction process or ultrasonication extraction process, to obtain a mixture comprising lutein and at least one fluid medium; ii. saponifying said mixture, using at least one alkali at a temperature in the range of 55 °C to 65 °C and for a time period in the range of 2 hrs to 2.5 hrs to produce a saponified slurry, wherein the ratio of said alkali to said fluid medium is 1:9; iii. centrifuging said saponified slurry at a speed in the range of 2500 rpm to 3000 rpm, to separate a wet mass comprising lutein; and iv. concentrating said wet mass at a temperature in the range of 25 °C to 30 °C to obtain lutein.