mhurhangee/patent-ind-claim-en huggingface dataset:
A spring-loaded connector comprising: contact units each including a first pin for contacting a first connection target, a second pin for contacting a second connection target, and an intermediate member for biasing the first pin and the second pin in directions away from each other; a case including a cover including a through hole where a tip of the first pin is exposed, and a housing including a through hole where a tip of the second pin is exposed, the case being for supporting the contact units; and a waterproof elastic member including cylindrical parts corresponding to the contact units, respectively, the waterproof elastic member being disposed between the cover and the housing, a cylindrical part among the cylindrical parts sealing between the first pin and the intermediate member of a contact unit corresponding to the cylindrical part, among the contact units, in a watertight manner by being interposed between an inner side of the first pin and an outer side of the intermediate member, characterized in that the waterproof elastic member includes, between the cylindrical parts that are adjacent to each other, a water-shielding structure including a wall-shaped protrusion for preventing the first pins of the contact units corresponding to the cylindrical parts that are adjacent to each other from being electrically connected due to presence of water between the first pins. contact units each including a first pin for contacting a first connection target, a second pin for contacting a second connection target, and an intermediate member for biasing the first pin and the second pin in directions away from each other; a case including a cover including a through hole where a tip of the first pin is exposed, and a housing including a through hole where a tip of the second pin is exposed, the case being for supporting the contact units; and a waterproof elastic member including cylindrical parts corresponding to the contact units, respectively, the waterproof elastic member being disposed between the cover and the housing, a cylindrical part among the cylindrical parts sealing between the first pin and the intermediate member of a contact unit corresponding to the cylindrical part, among the contact units, in a watertight manner by being interposed between an inner side of the first pin and an outer side of the intermediate member, characterized in that the waterproof elastic member includes, between the cylindrical parts that are adjacent to each other, a water-shielding structure including a wall-shaped protrusion for preventing the first pins of the contact units corresponding to the cylindrical parts that are adjacent to each other from being electrically connected due to presence of water between the first pins.
A system for producing a nonwoven fabric, wherein the system includes a transport belt (1, 1', 1") for transporting a web of nonwoven fabric, which belt has a product side (PS) which is in contact with the nonwoven fabric, and a machine side (MS) which is contact with transport devices of the system, wherein the transport belt (1, 1', 1") has longitudinal threads (4, 4', 4", 4''') extending in the travel direction (L) of the web of nonwoven fabric and transverse threads extending perpendicularly thereto, which longitudinal and transverse threads are woven together, characterized in that at least partial regions of the surface of at least some of the longitudinal threads and/or transverse threads that faces the product side (PS) of the nonwoven fabric (1, 1', 1") consist of a polymer material that contains at least a fraction of a thermoplastic elastomer.
A processor package comprising: an integrated circuit; and a compression accelerator in the integrated circuit, the compression accelerator to process a request to compress source data into an output file, characterized in that the processor package further comprises: early-abort circuitry in the compression accelerator to provide for early abort of compression operations, wherein to provide for early abort of compression operations comprises: using a predetermined sample size to compute an estimated size for a portion of the output file, wherein the sample size specifies how much of the source data is to be analyzed before computing the estimated size for the portion of the output file; determining whether the estimated size for the portion of the output file reflects an acceptable amount of compression, based on a predetermined early-abort threshold; and causing the compression accelerator to abort the request if the estimated size for the portion of the output file does not reflect the acceptable amount of compression. an integrated circuit; and a compression accelerator in the integrated circuit, the compression accelerator to process a request to compress source data into an output file, characterized in that the processor package further comprises: early-abort circuitry in the compression accelerator to provide for early abort of compression operations, wherein to provide for early abort of compression operations comprises: using a predetermined sample size to compute an estimated size for a portion of the output file, wherein the sample size specifies how much of the source data is to be analyzed before computing the estimated size for the portion of the output file; determining whether the estimated size for the portion of the output file reflects an acceptable amount of compression, based on a predetermined early-abort threshold; and causing the compression accelerator to abort the request if the estimated size for the portion of the output file does not reflect the acceptable amount of compression. using a predetermined sample size to compute an estimated size for a portion of the output file, wherein the sample size specifies how much of the source data is to be analyzed before computing the estimated size for the portion of the output file; determining whether the estimated size for the portion of the output file reflects an acceptable amount of compression, based on a predetermined early-abort threshold; and causing the compression accelerator to abort the request if the estimated size for the portion of the output file does not reflect the acceptable amount of compression.
A method for processing image display of a remote cockpit, comprising: obtaining a vehicle state and an original image uploaded by a vehicle, processing the original image, and displaying the processed original image as a display image in a display of the remote cockpit; and the method is characterised by performing different movement processings on the display image in the display of the remote cockpit based on the vehicle state and monitored different states of a vehicle control module in the remote cockpit. obtaining a vehicle state and an original image uploaded by a vehicle, processing the original image, and displaying the processed original image as a display image in a display of the remote cockpit; and the method is characterised by performing different movement processings on the display image in the display of the remote cockpit based on the vehicle state and monitored different states of a vehicle control module in the remote cockpit.
A perforation information processing method for a bone scaffold model, comprising: step S1: importing a nonporous-bone-scaffold initial model; step S2: segmenting the nonporous-bone-scaffold initial model into a plurality of unit lattices according to an input signal; and step S3: perforating each of the unit lattices, to obtain a porous bone scaffold model, characterized in that for a single unit lattice, step S3 specifically comprises: step S31: drawing a first quantity of short girders in the unit lattice to form a porous lattice template, wherein the first quantity is received from an input device; step S32: generating equidistant sampling points according to a specified sampling pitch in a model space in which the nonporous-bone-scaffold initial model is located; step S33: calculating shortest distances between each of the sampling points and all the short girders; and step S34: extracting, according to the generated sampling points, an isosurface according to a specified short girder cylinder radius by using an isosurface extraction algorithm, to perforate the unit lattices. step S1: importing a nonporous-bone-scaffold initial model; step S2: segmenting the nonporous-bone-scaffold initial model into a plurality of unit lattices according to an input signal; and step S3: perforating each of the unit lattices, to obtain a porous bone scaffold model, characterized in that for a single unit lattice, step S3 specifically comprises: step S31: drawing a first quantity of short girders in the unit lattice to form a porous lattice template, wherein the first quantity is received from an input device; step S32: generating equidistant sampling points according to a specified sampling pitch in a model space in which the nonporous-bone-scaffold initial model is located; step S33: calculating shortest distances between each of the sampling points and all the short girders; and step S34: extracting, according to the generated sampling points, an isosurface according to a specified short girder cylinder radius by using an isosurface extraction algorithm, to perforate the unit lattices. step S31: drawing a first quantity of short girders in the unit lattice to form a porous lattice template, wherein the first quantity is received from an input device; step S32: generating equidistant sampling points according to a specified sampling pitch in a model space in which the nonporous-bone-scaffold initial model is located; step S33: calculating shortest distances between each of the sampling points and all the short girders; and step S34: extracting, according to the generated sampling points, an isosurface according to a specified short girder cylinder radius by using an isosurface extraction algorithm, to perforate the unit lattices.
A silicate glass comprising: 65.0 to 90.0 mol% SiO 2 , 4.0 to 15.0 mol% AL 2 O 3 , 1.0 to 10.0 mol% K 2 O, 0.1 to 7.0 mol% Na 2 O, 0.01 to 15.0 mol% CaO, less than 0.1 mol% Li2O, and less than 0.1 mol% B 2 O 3 , the silicate glass satisfying the relation {(number of moles of Al 2 O 3 )/(total number of moles of RO + R 2 O)} ≥ 0.70, wherein R in the metal oxide represented by RO represents a metallic element in group 2 or 12 of the periodic table, and R in the metal oxide represented by R 2 O represents a metallic element in group 1 of the periodic table. 65.0 to 90.0 mol% SiO 2 , 4.0 to 15.0 mol% AL 2 O 3 , 1.0 to 10.0 mol% K 2 O, 0.1 to 7.0 mol% Na 2 O, 0.01 to 15.0 mol% CaO, less than 0.1 mol% Li2O, and less than 0.1 mol% B 2 O 3 , the silicate glass satisfying the relation {(number of moles of Al 2 O 3 )/(total number of moles of RO + R 2 O)} ≥ 0.70, wherein R in the metal oxide represented by RO represents a metallic element in group 2 or 12 of the periodic table, and R in the metal oxide represented by R 2 O represents a metallic element in group 1 of the periodic table.
A method for estimating a property of a subsurface material , the method comprising: conveying a carrier through a borehole penetrating the subsurface material ; performing at least two magnetic resonance (NMR) measurements in a volume of interest in the subsurface material using an NMR tool disposed on the carrier , wherein a first NMR measurement has a first wait time and a first first-echo time and a second NMR measurement has a second wait time and a second first-echo time, and wherein the first first-echo time and the second first-echo time are different; receiving, by a processor , at least the first-echo of the first NMR measurement and receiving at least the first-echo of the second NMR measurement; and estimating, by the processor , the property of the subsurface material by using the at least two measured first-echoes simultaneously; characterized in that the first wait time and the second wait time are less than or equal to 200 milliseconds. conveying a carrier through a borehole penetrating the subsurface material ; performing at least two magnetic resonance (NMR) measurements in a volume of interest in the subsurface material using an NMR tool disposed on the carrier , wherein a first NMR measurement has a first wait time and a first first-echo time and a second NMR measurement has a second wait time and a second first-echo time, and wherein the first first-echo time and the second first-echo time are different; receiving, by a processor , at least the first-echo of the first NMR measurement and receiving at least the first-echo of the second NMR measurement; and estimating, by the processor , the property of the subsurface material by using the at least two measured first-echoes simultaneously; characterized in that the first wait time and the second wait time are less than or equal to 200 milliseconds.
An optical system, comprising: an image former configured to form a virtual image from a light pattern, wherein the image former comprises: a first layer composed on a first end surface of an optical material; a second layer composed on the first layer ; and a third layer composed on the second layer , wherein the first layer comprises Al 2 0 3 , the second layer comprises Al, and the third layer comprises Si02, wherein the optical system is configured to operate as a head-mountable device and further comprises a beam splitter optically coupled to the optical material and through which outside light is visible, and a light source optically coupled to the optical material and configured to generate the light pattern, characterised in that the optical material further comprises: a front surface, a rear surface, a top surface, and a bottom surface, and wherein the first end surface comprises a finite radius of curvature, wherein a combination of the first, second, and third layers comprise an overall layer thickness between 250nm and 300nm. an image former configured to form a virtual image from a light pattern, wherein the image former comprises: a first layer composed on a first end surface of an optical material; a second layer composed on the first layer ; and a third layer composed on the second layer , wherein the first layer comprises Al 2 0 3 , the second layer comprises Al, and the third layer comprises Si02, wherein the optical system is configured to operate as a head-mountable device and further comprises a beam splitter optically coupled to the optical material and through which outside light is visible, and a light source optically coupled to the optical material and configured to generate the light pattern, a first layer composed on a first end surface of an optical material; a second layer composed on the first layer ; and a third layer composed on the second layer , wherein the first layer comprises Al 2 0 3 , the second layer comprises Al, and the third layer comprises Si02, wherein the optical system is configured to operate as a head-mountable device and further comprises a beam splitter optically coupled to the optical material and through which outside light is visible, and a light source optically coupled to the optical material and configured to generate the light pattern, characterised in that the optical material further comprises: a front surface, a rear surface, a top surface, and a bottom surface, and wherein the first end surface comprises a finite radius of curvature, wherein a combination of the first, second, and third layers comprise an overall layer thickness between 250nm and 300nm.
A method for manufacturing a solar cell which includes steps of forming a p-n junction on a silicon semiconductor substrate and forming an aluminum oxide film on at least one main surface of the silicon semiconductor substrate, comprising: a step of subjecting the silicon semiconductor substrate to heat treatment in an atmosphere with 20 g or more water vapor per cubic meter and a temperature of 60°C or more and 100°C or less before the step of forming the aluminum oxide film.
Four-jaw compensation chuck, having a housing , in which a drive unit having a routed cable that can be moved in the direction of a chucking axis (S) is arranged, and two pairs of diametrically opposite base jaws (7a, c; 7b, d) are arranged, wherein the base jaws (7a - d) are guided substantially perpendicularly to the chucking axis (S), preferably radially, moveably in the housing, wherein the drive unit has two pairs of diametrically oppositely arranged slides (17a, c; 17b, d), wherein each slide (17a-d) is coupled to a base jaw (7a-d) for transferring force to the base jaw (7a-d), in order to convert the movement of the routed cables into the movement of the base jaw, characterised in that the slides (17a, c; 17b, d) are actively connected to the routed cables by means of a compensation element that can be rotated around the chucking axis (S) in relation to the routed cables , and in relation to the chucking axis (S), are mounted in the housing moveably in the peripheral direction and immovably in the radial direction. wherein the base jaws (7a - d) are guided substantially perpendicularly to the chucking axis (S), preferably radially, moveably in the housing, wherein the drive unit has two pairs of diametrically oppositely arranged slides (17a, c; 17b, d), wherein each slide (17a-d) is coupled to a base jaw (7a-d) for transferring force to the base jaw (7a-d), in order to convert the movement of the routed cables into the movement of the base jaw, characterised in that the slides (17a, c; 17b, d) are actively connected to the routed cables by means of a compensation element that can be rotated around the chucking axis (S) in relation to the routed cables , and in relation to the chucking axis (S), are mounted in the housing moveably in the peripheral direction and immovably in the radial direction.
Method for controlling the energy flow in an energy network , of a traffic system, having a number of users , in which at least one parameter characteristic of a working load of the energy network and at least one item of control information is determined, in which the at least one parameter and the at least one item of control information is transferred to at least a few of the users , in which an energy consumption of the user is independently controlled at least by a few of the users in each case as a function of the at least one parameter and the at least one item of control information , wherein the item of control information specifies the direction or the manner in which the user is to control its energy consumption, in which at least two different groups of users are formed in order to prioritise at least a few of the users , wherein in a first group of users large consumers and in a second group of users smaller consumers of the energy network are combined, and in which the at least one item of control information is transferred with higher priority to the user of the first group of users . in which at least one parameter characteristic of a working load of the energy network and at least one item of control information is determined, in which the at least one parameter and the at least one item of control information is transferred to at least a few of the users , in which an energy consumption of the user is independently controlled at least by a few of the users in each case as a function of the at least one parameter and the at least one item of control information , wherein the item of control information specifies the direction or the manner in which the user is to control its energy consumption, in which at least two different groups of users are formed in order to prioritise at least a few of the users , wherein in a first group of users large consumers and in a second group of users smaller consumers of the energy network are combined, and in which the at least one item of control information is transferred with higher priority to the user of the first group of users .
A high-efficiency process for extracting lipids from a marine biomass comprising: mixing said marine biomass with a protic solvent having a concentration of from 90% to 97% at a temperature of from about 5°C to about 65°C to yield a crude lipid solution; desalting said crude lipid solution; fractionating said desalted crude lipid solution by adjusting the dry matter content of said crude lipid solution to from about 10% to 40%, wherein the concentration of said protic solvent during said fractionating step is from about 65% to about 98%, and holding said solution at about 0°C to about 20°C so that phospholipids in said solution partition into a light phase and neutral lipids in said solution partition into a heavy phase; and separating said heavy and light phases. mixing said marine biomass with a protic solvent having a concentration of from 90% to 97% at a temperature of from about 5°C to about 65°C to yield a crude lipid solution; desalting said crude lipid solution; fractionating said desalted crude lipid solution by adjusting the dry matter content of said crude lipid solution to from about 10% to 40%, wherein the concentration of said protic solvent during said fractionating step is from about 65% to about 98%, and holding said solution at about 0°C to about 20°C so that phospholipids in said solution partition into a light phase and neutral lipids in said solution partition into a heavy phase; and separating said heavy and light phases.
A computer-implemented method performed by one or more computer systems, the method comprising: annotating a plurality of datasets with metadata, wherein the plurality of datasets includes a plurality of fields, wherein the metadata includes a plurality of categories in which each category corresponds to one or more fields of the plurality of fields; generating a hierarchy mapping that indicates a hierarchical relationship between different categories of the plurality of categories; receiving a natural language query that specifies a first granularity level indicating a particular category of the plurality of categories and one or more field values that correspond to the particular category; identifying , based on the hierarchy mapping, one or more categories of the plurality of categories that are hierarchically related to the particular category, wherein at least one of the one or more categories correspond to at least a second granularity level hierarchically related to the first granularity level; selecting , based on the metadata, two or more datasets of the plurality of datasets that include at least one category of the one or more categories; translating at least one dataset of the two or more datasets to the first granularity level; joining the two or more datasets to generate a composite dataset that includes the particular category; and executing the natural language query against the composite dataset to return a result for the natural language query. annotating a plurality of datasets with metadata, wherein the plurality of datasets includes a plurality of fields, wherein the metadata includes a plurality of categories in which each category corresponds to one or more fields of the plurality of fields; generating a hierarchy mapping that indicates a hierarchical relationship between different categories of the plurality of categories; receiving a natural language query that specifies a first granularity level indicating a particular category of the plurality of categories and one or more field values that correspond to the particular category; identifying , based on the hierarchy mapping, one or more categories of the plurality of categories that are hierarchically related to the particular category, wherein at least one of the one or more categories correspond to at least a second granularity level hierarchically related to the first granularity level; selecting , based on the metadata, two or more datasets of the plurality of datasets that include at least one category of the one or more categories; translating at least one dataset of the two or more datasets to the first granularity level; joining the two or more datasets to generate a composite dataset that includes the particular category; and executing the natural language query against the composite dataset to return a result for the natural language query.