mhurhangee/ep-ind-claims huggingface dataset:
A gas detector tube, comprising a sealed transparent tube, a chemical reagent capable of a colorimetric reaction with a gaseous chemical compound within the sealed transparent tube wherein the gas detector tube comprises a first elongated extension fixedly attached to and extending from the tube along a longitudinal axis and a second extension attached on an opposite side of the transparent tube as the first extension, wherein at least the first extension comprises electronically or optically readable tube information (17, 17a, 17b, 17c, 17d, 17e) describing characteristics of the chemical reagent in the gas detector tube and including one or more environment correction factors for compensating for environmental conditions, the electronically or optically readable tube information capable of being read by an information reader of an electronic gas detector tube reader; and at least one visually readable length of stain measurement scale on the extension, and wherein the two extensions (14, 14a) are in different but substantially parallel planes.
A method of manufacturing an integrated magneto-resistive sensor, the method comprising: forming a plurality of magneto-resistive sensor elements (141, 142, 143, 144) on or over a substrate; depositing an insulating material on or over each of the plurality of magneto-resistive sensor elements (141, 142, 143, 144); and forming one or more flux guides on or in the insulating material or on or in the substrate, wherein (i) the one or more flux guides comprise a magnetic material; and (ii) wherein an entirety of each flux guide of the one or more flux guides is adjacent to and laterally offset from at least one associated magneto-resistive sensor element of the plurality of magneto-resistive sensor elements. forming a plurality of magneto-resistive sensor elements (141, 142, 143, 144) on or over a substrate; depositing an insulating material on or over each of the plurality of magneto-resistive sensor elements (141, 142, 143, 144); and forming one or more flux guides on or in the insulating material or on or in the substrate, wherein (i) the one or more flux guides comprise a magnetic material; and (ii) wherein an entirety of each flux guide of the one or more flux guides is adjacent to and laterally offset from at least one associated magneto-resistive sensor element of the plurality of magneto-resistive sensor elements.
A method of holding a part on a fixture in a precisely known predetermined position, comprising: - pressing a surface of said part against a hard-stop, mounted on a cylindrical bearing in a base of a vacuum head (25, 170) for swiveling about a lateral axis of the cylindrical bearing; - allowing said hard-stop to self-align with said surface on said part; - sealing an annular elastomeric sealing ring secured to said base around said hard-stop against said part surface to create a suction chamber between said part and said base with said sealing ring; - engaging a valve button of a valve with said part surface to move said valve and establish communication between a source of partial vacuum and said suction chamber; and - pulling said part with said partial vacuum against said hard-stop in said vacuum head (25, 170), and holding said part with said partial vacuum at a known position against said hard-stop. - pressing a surface of said part against a hard-stop, mounted on a cylindrical bearing in a base of a vacuum head (25, 170) for swiveling about a lateral axis of the cylindrical bearing; - allowing said hard-stop to self-align with said surface on said part; - sealing an annular elastomeric sealing ring secured to said base around said hard-stop against said part surface to create a suction chamber between said part and said base with said sealing ring; - engaging a valve button of a valve with said part surface to move said valve and establish communication between a source of partial vacuum and said suction chamber; and - pulling said part with said partial vacuum against said hard-stop in said vacuum head (25, 170), and holding said part with said partial vacuum at a known position against said hard-stop.
A battery connector for an electric vehicle, comprising: a connecting sheet having a fusing portion; and a protective component in which the fusing portion is encased, wherein a cross sectional area of the fusing portion is less than a cross sectional area of rest part of the connecting sheet, wherein the connecting sheet comprises a first connecting portion and a second connecting portion, and the fusing portion is disposed between the first connecting portion and the second connecting portion, wherein the protective component includes a first shell and a second shell, the first shell and the second shell define a sealed protective chamber therebetween, and the fusing portion is disposed in the protective chamber, wherein the first shell and the second shell are preferably connected to each other via snap-fit, characterized in that the protective chamber is filled with hydrogen. a connecting sheet having a fusing portion; and a protective component in which the fusing portion is encased, wherein a cross sectional area of the fusing portion is less than a cross sectional area of rest part of the connecting sheet, wherein the connecting sheet comprises a first connecting portion and a second connecting portion, and the fusing portion is disposed between the first connecting portion and the second connecting portion, wherein the protective component includes a first shell and a second shell, the first shell and the second shell define a sealed protective chamber therebetween, and the fusing portion is disposed in the protective chamber, wherein the first shell and the second shell are preferably connected to each other via snap-fit, characterized in that the protective chamber is filled with hydrogen.
Device for inserting artificial grass strand parts in the ground, the device comprising: - a frame which is configured to support the various parts of the device, - a plurality of spools with artificial grass strands wound thereon, - at least one drum (16A, 16B) which is mounted rotatably on the frame and rotates about a substantially horizontal rotation axis, wherein the drum is configured to receive a plurality of artificial grass strands which are unwound from the spools and to rotate these artificial grass strands with the movement of the drum, wherein the drum comprises a plurality of clamps (50A, 50B, 50C, 50D, 50E, 50F) which, viewed in side view, are arranged around the rotation axis, wherein the clamps rotate with the drum, wherein the clamps are configured to hold an artificial grass strand part of each artificial grass strand clamped between a front clamp and a rear clamp, viewed in the direction of rotation, and to allow the artificial grass strand parts to rotate with the drum, - at least one cutting device for cutting through the artificial grass strands, so that the clamped artificial grass strand parts are cut off from the rest of the respective artificial grass strands, - at least one insertion device which comprises a plurality of insertion pins and at least one actuator, wherein the actuator inserts the insertion pins into the ground over a depth, wherein the drum is configured to rotate the series of artificial grass strand parts to below the insertion device, wherein the insertion device is configured to insert the artificial grass strand parts which have been rotated to below the insertion device into the ground. - a frame which is configured to support the various parts of the device, - a plurality of spools with artificial grass strands wound thereon, - at least one drum (16A, 16B) which is mounted rotatably on the frame and rotates about a substantially horizontal rotation axis, wherein the drum is configured to receive a plurality of artificial grass strands which are unwound from the spools and to rotate these artificial grass strands with the movement of the drum, wherein the drum comprises a plurality of clamps (50A, 50B, 50C, 50D, 50E, 50F) which, viewed in side view, are arranged around the rotation axis, wherein the clamps rotate with the drum, wherein the clamps are configured to hold an artificial grass strand part of each artificial grass strand clamped between a front clamp and a rear clamp, viewed in the direction of rotation, and to allow the artificial grass strand parts to rotate with the drum, - at least one cutting device for cutting through the artificial grass strands, so that the clamped artificial grass strand parts are cut off from the rest of the respective artificial grass strands, - at least one insertion device which comprises a plurality of insertion pins and at least one actuator, wherein the actuator inserts the insertion pins into the ground over a depth,
A method performed by a base station, comprising: synchronizing (1205, 1215) clear channel assessment, CCA, slots across a plurality of base stations to determine availability of an unlicensed spectrum for transmissions in a next transmission interval; identifying one of the CCA slots in which to determine the availability of the unlicensed spectrum, wherein the one CCA slot is identified based at least in part on a pseudo-random selection sequence driven by a randomization seed, wherein a subset of the plurality of base stations use the same randomization seed for their pseudo-random selection sequence generation, the subset being associated with a deployment of base stations by a single operator. synchronizing (1205, 1215) clear channel assessment, CCA, slots across a plurality of base stations to determine availability of an unlicensed spectrum for transmissions in a next transmission interval; identifying one of the CCA slots in which to determine the availability of the unlicensed spectrum, wherein the one CCA slot is identified based at least in part on a pseudo-random selection sequence driven by a randomization seed, wherein a subset of the plurality of base stations use the same randomization seed for their pseudo-random selection sequence generation, the subset being associated with a deployment of base stations by a single operator.
An animal feed composition consisting of a human diet equivalent, the human diet equivalent consisting of 57- 64% by wet weight carbohydrates, 3- 7% by wet weight total dietary fiber, 10- 15% by wet weight fat, 2.0- 3.5% total saturated fatty acids of fat, 35-40 mg cholesterol/100g Total Diet Equivalent, 13- 17% by wet weight protein, 300- 500 mg sodium/100g TD, 500- 700 mg potassium/100g TD, 4- 8% by wet weight moisture, and 4.0- 4.4 Kcal/g TD; wherein the human diet equivalent is made from a defined ratio of eight food groups, the eight food groups consisting of food items identified by the first three or four digits of an eight digit food code as represented in Table A, wherein (a) milk and milk products have a food code with a first digit of 1 and are 5- 25% by wet weight, (b) meat, poultry, fish, egg, nuts, seeds, and legumes have a food code with a first digit selected from the group consisting of 2, 3, and 4 and are 10- 25% by wet weight, (c) grain products have a food code with a first digit of 5 and are 10- 20% by wet weight, (d) fruits have a food code with a first digit of 6 and are 10- 25% by wet weight, (e) vegetables have a food code with a first digit of 7 and are 10- 25% by wet weight, (f) fats and oils have a food code with a first digit of 8 and are 0.5- 5% by wet weight, (g) sugars and sweets have a food code with a first digit of 9 and a second digit of 1 and are 0.5- 5% by wet weight, and (h) beverages have a food code with a first digit of 9 and a second digit of 2 or 3 and are 10-60% by wet weight.
A wireless transmit/receive unit, WTRU, comprising: a processor; and a transceiver; the transceiver configured to receive configuration information indicating a location of a monitoring indicator to be carried in downlink control information, DCI, and identifying a first one or more search spaces and a second one or more search spaces; the transceiver configured to receive a first physical downlink control channel, PDCCH, transmission including first DCI, the first DCI including the monitoring indicator at the indicated location; the transceiver configured to monitor, based on the monitoring indicator, either the first one or more search spaces or the second one or more search spaces; and the transceiver configured to decode a second PDCCH transmission detected in either the first one or more search spaces or the second one or more search spaces to receive second DCI. a processor; and a transceiver; the transceiver configured to receive configuration information indicating a location of a monitoring indicator to be carried in downlink control information, DCI, and identifying a first one or more search spaces and a second one or more search spaces; the transceiver configured to receive a first physical downlink control channel, PDCCH, transmission including first DCI, the first DCI including the monitoring indicator at the indicated location; the transceiver configured to monitor, based on the monitoring indicator, either the first one or more search spaces or the second one or more search spaces; and the transceiver configured to decode a second PDCCH transmission detected in either the first one or more search spaces or the second one or more search spaces to receive second DCI.
A method for producing a capsular polysaccharide from Streptococcus agalactiae comprising: culturing in a suitable culture medium a CpsA or CpsD mutant that exhibits increased secretion of capsular polysaccharide compared to the wild-type strain and recovering the polysaccharide from the culture medium, wherein CpsA or CpsD mutant is selected from - a point mutation or in-frame deletion of the CpsA gene resulting in altered activity of CpsA polypeptide such that attachment of the capsular polysaccharide to the cell wall is reduced while secretion or release of capsular polysaccharide into the external environment is increased compared to the wild-type strain, - deletion of the polynucleotide sequence that encodes the entire CpsA polypeptide, - a point mutation or in-frame deletion of the CpsD gene resulting in altered activity of CpsD polypeptide such that attachment of the capsular polysaccharide to the cell wall is reduced while secretion or release of capsular polysaccharide into the external environment is increased compared to the wild-type strain, and - deletion of the polynucleotide sequence that encodes the entire CpsD polypeptide. - a point mutation or in-frame deletion of the CpsA gene resulting in altered activity of CpsA polypeptide such that attachment of the capsular polysaccharide to the cell wall is reduced while secretion or release of capsular polysaccharide into the external environment is increased compared to the wild-type strain, - deletion of the polynucleotide sequence that encodes the entire CpsA polypeptide, - a point mutation or in-frame deletion of the CpsD gene resulting in altered activity of CpsD polypeptide such that attachment of the capsular polysaccharide to the cell wall is reduced while secretion or release of capsular polysaccharide into the external environment is increased compared to the wild-type strain, and - deletion of the polynucleotide sequence that encodes the entire CpsD polypeptide.
A dishwasher rack comprising a bottom from which a plurality of walls (31,32,33,34) extend, a first tilting support positioned on the bottom of the rack, wherein the first support comprises segments for supporting crockery, and said first support is movable between a raised position, in which the segments extend inside the rack, and a lowered position, in which the segments are substantially parallel to the bottom, said segments being coupled to a base wire positioned on the bottom of the rack and able to rotate about its own axis, and wherein the raised position of the first support is made stable by the interference between the wires of the rack and at least one bent end of the base wire, characterised in that said bent end defines a recess for housing a wire of the bottom of said rack when the first support is in said raised position.
An electronic device comprising: a connector comprising a first terminal to which a voltage is applied by a charger and a second terminal for transmitting and receiving data; a first charging unit configured to charge a battery of the electronic device by using a first voltage applied to the first terminal; and a second charging unit configured to charge the battery by using a dropped voltage obtained by dropping a second voltage applied to the first terminal based on a voltage drop rate, wherein the voltage drop rate is identified based on a first value of a current required for charging the battery and a second value of a current set for a first line connecting the first terminal with the second charging unit, wherein the first charging unit comprises: a first switch connected with the first terminal; a communication unit; and a first controller configured to obtain first information corresponding to a voltage of the battery, control the communication unit to transmit first information to the charger connectable with the connector through the second terminal, and control the first switch to supply the second voltage adjusted by the charger, based on the first information and the voltage drop rate, to the second charging unit through the first terminal. a connector comprising a first terminal to which a voltage is applied by a charger and a second terminal for transmitting and receiving data; a first charging unit configured to charge a battery of the electronic device by using a first voltage applied to the first terminal; and a second charging unit configured to charge the battery by using a dropped voltage obtained by dropping a second voltage applied to the first terminal based on a voltage drop rate, wherein the voltage drop rate is identified based on a first value of a current required for charging the battery and a second value of a current set for a first line connecting the first terminal with the second charging unit, wherein the first charging unit comprises: a first switch connected with the first terminal; a communication unit; and a first controller configured to obtain first information corresponding a first switch connected with the first terminal; a communication unit; and a first controller configured to obtain first information corresponding to a voltage of the battery, control the communication unit to transmit first information to the charger connectable with the connector through the second terminal, and control the first switch to supply the second voltage adjusted by the charger, based on the first information and the voltage drop rate, to the second charging unit through the first terminal.
A method of determining an optimal frame size for tag collision prevention in a radio frequency identification, RFID, system in which frame sizes limited in predetermined units are used to identify tags, the method comprising the steps of: (a) calculating, by an RFID reader, an estimated optimal frame value based on a number of tags, a time delay of an idle slot and a time delay of a collision slot; (b) calculating, by the RFID reader, expected time delays per tag of a left-hand frame size and a right-hand frame size, which show the smallest differences with respect to the estimated optimal frame value, among the frame sizes, the left-hand frame size being smaller than the estimated optimal frame value, the right-hand frame size being greater than the estimated optimal frame value; (c) comparing, by the RFID reader, the expected time delay per tag of the left-hand frame size with that of the right-hand frame size; and (d) determining, by the RFID reader, a frame size which has a smaller expected time delay per tag, between the left-hand frame size and the right-hand frame size, to be an optimal frame size. (a) calculating, by an RFID reader, an estimated optimal frame value based on a number of tags, a time delay of an idle slot and a time delay of a collision slot; (b) calculating, by the RFID reader, expected time delays per tag of a left-hand frame size and a right-hand frame size, which show the smallest differences with respect to the estimated optimal frame value, among the frame sizes, the left-hand frame size being smaller than the estimated optimal frame value, the right-hand frame size being greater than the estimated optimal frame value; (c) comparing, by the RFID reader, the expected time delay per tag of the left-hand frame size with that of the right-hand frame size; and (d) determining, by the RFID reader, a frame size which has a smaller expected time delay per tag, between the left-hand frame size and the right-hand frame size, to be an optimal frame size.
A method, carried out by a head-mounted display (102, 300), for identifying a target object, the method comprising: perceiving, via a sensor coupled to the head-mounted display, an area of a reference object; detecting, via the sensor, a change to the perceived area of the reference object; making a determination that a detected object caused the change to the perceived area by blocking a portion of the perceived area of the reference object; in response to making the determination, identifying the detected object as the target object; and performing optical character recognition on the target object. perceiving, via a sensor coupled to the head-mounted display, an area of a reference object; detecting, via the sensor, a change to the perceived area of the reference object; making a determination that a detected object caused the change to the perceived area by blocking a portion of the perceived area of the reference object; in response to making the determination, identifying the detected object as the target object; and performing optical character recognition on the target object.
A system for sorting cells, the system comprising: a cell sorter configured to produce an analyzed stream of droplets and comprising a deflector capable of deflecting an analyzed droplet from the analyzed stream of droplets to a deflected droplet receiving location; a support stage comprising a container and configured to continuously move in two dimensions; and a processor operably coupled to a memory that includes instructions stored thereon to determine the alignment of the container of a continuously moving support stage with the deflected droplet receiving location and send a deflection signal to the cell sorter when the container is aligned with the deflected droplet receiving location, wherein the memory comprises instructions for determining a timeslot during which the container is aligned with the deflected droplet receiving location, characterized in that it is based on the velocity of movement of the support stage and the spatial pathway in an x-y plane of the support stage. a cell sorter configured to produce an analyzed stream of droplets and comprising a deflector capable of deflecting an analyzed droplet from the analyzed stream of droplets to a deflected droplet receiving location; a support stage comprising a container and configured to continuously move in two dimensions; and a processor operably coupled to a memory that includes instructions stored thereon to determine the alignment of the container of a continuously moving support stage with the deflected droplet receiving location and send a deflection signal to the cell sorter when the container is aligned with the deflected droplet receiving location, wherein the memory comprises instructions for determining a timeslot during which the container is aligned with the deflected droplet receiving location, characterized in that it is based on the velocity of movement of the support stage and the spatial pathway in an x-y plane of the support stage.