mhurhangee/patent-ind-claim-en huggingface dataset:
An ophthalmic surgical laser system comprising: a laser source for generating a pulsed laser beam ; a laser delivery system for delivering the pulsed laser beam to a cornea of an eye and including an X, Y scanner for deflecting or directing the pulsed laser beam from the laser source on or within the cornea and a Z scanner for modifying the depth of the pulsed laser beam ; a patient interface for coupling to and constraining the eye relative to the laser delivery system; and a controller for controlling the laser delivery system; wherein the laser delivery system further comprises a high frequency scanner configured to produce a short, fast scan line ; characterized in that: the controller is configured to control the X, Y and Z scanners to slowly sweep the fast scan line along a trajectory to perform an anterior surface volume dissection on the cornea. a laser source for generating a pulsed laser beam ; a laser delivery system for delivering the pulsed laser beam to a cornea of an eye and including an X, Y scanner for deflecting or directing the pulsed laser beam from the laser source on or within the cornea and a Z scanner for modifying the depth of the pulsed laser beam ; a patient interface for coupling to and constraining the eye relative to the laser delivery system; and a controller for controlling the laser delivery system; wherein the laser delivery system further comprises a high frequency scanner configured to produce a short, fast scan line ;
An isolated monoclonal antibody or an antigen-binding fragment thereof that binds specifically to leukocyte immunoglobulin-like receptor subfamily B member 4 (LILRB4) comprising: (a) a heavy chain (HC) variable region (VH) comprising: a heavy chain complementarity determining region (HC-CDR) 1 having the amino acid sequence set forth in SEQ ID NO: 100, a HC-CDR2 having the amino acid sequence set forth in SEQ ID NO: 101, and a HC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 102, 224 or 227; and (b) a light chain (LC) variable region (VL) comprising: a light chain complementarity determining region (LC-CDR) having the amino acid sequence set forth in SEQ ID NO: 104, a LC-CDR2 having the amino acid sequence of KAS or set forth in SEQ ID NO: 233, and a LC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 105 or 234. (a) a heavy chain (HC) variable region (VH) comprising: a heavy chain complementarity determining region (HC-CDR) 1 having the amino acid sequence set forth in SEQ ID NO: 100, a HC-CDR2 having the amino acid sequence set forth in SEQ ID NO: 101, and a HC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 102, 224 or 227; and a heavy chain complementarity determining region (HC-CDR) 1 having the amino acid sequence set forth in SEQ ID NO: 100, a HC-CDR2 having the amino acid sequence set forth in SEQ ID NO: 101, and a HC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 102, 224 or 227; and (b) a light chain (LC) variable region (VL) comprising: a light chain complementarity determining region (LC-CDR) having the amino acid sequence set forth in SEQ ID NO: 104, a LC-CDR2 having the amino acid sequence of KAS or set forth in SEQ ID NO: 233, and a LC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 105 or 234. a light chain complementarity determining region (LC-CDR) having the amino acid sequence set forth in SEQ ID NO: 104, a LC-CDR2 having the amino acid sequence of KAS or set forth in SEQ ID NO: 233, and a LC-CDR3 having the amino acid sequence set forth in SEQ ID NO: 105 or 234.
Insulation piercing cable connection system, comprising an insulation piercing cable , and an insulation piercing cable connector , wherein said insulation piercing cable comprises a flat cable having three or more conductors embedded in insulation material, and wherein said insulation piercing cable connector comprises a cavity for receiving said insulation piercing cable, wherein said cavity comprises three or more cable piercing conductors, wherein the amount of cable piercing conductors in the insulation piercing cable connector is the same as the amount of conductors in the insulation piercing cable, and wherein said insulation piercing cable connector is compatible to be electrically connected to said insulation piercing cable by piercing the insulation of said insulation piercing cable with said cable piercing conductors, characterized in that a cross-section of the insulation piercing cable has a perimeter with two orthogonal axes of symmetry, and wherein the arrangement of conductors in said cross-section has point symmetry.
An apparatus for receiving wireless power from a wireless power transmitting apparatus based on foreign object detection in a wireless power transmitting system, the apparatus comprising: a power pick-up unit being configured to receive wireless power from the wireless power transmitting apparatus via magnetic coupling with the wireless power transmitting apparatus, and to convert an alternating current, AC, signal being generated from the wireless power to a direct current, DC, signal; and a communication/control unit being configured to receive the direct current, DC, signal from the power pick-up unit and to perform control of the wireless power, characterized in that : the communication/control unit transmits a foreign object detection, FOD, status packet including a reported quality factor value to the wireless power transmitting apparatus, the communication/control unit receives ACK/NAK response information as a response to the foreign object detection status packet from the wireless power transmitting apparatus, in case the ACK/NAK response information informs NAK, the communication/control unit allows the wireless power to be received based on a baseline power profile, BPP, the NAK informs that a foreign object is detected, and the wireless power is limited to 5W or less in the BPP. a power pick-up unit being configured to receive wireless power from the wireless power transmitting apparatus via magnetic coupling with the wireless power transmitting apparatus, and to convert an alternating current, AC, signal being generated from the wireless power to a direct current, DC, signal; and a communication/control unit being configured to receive the direct current, DC, signal from the power pick-up unit and to perform control of the wireless power, characterized in that : the communication/control unit transmits a foreign object detection, FOD, status packet including a reported quality factor value to the wireless power transmitting apparatus, the communication/control unit receives ACK/NAK response information as a response to the foreign object detection status packet from the wireless power transmitting apparatus, in case the ACK/NAK response information informs NAK, the communication/control unit allows the wireless power to be received based on a baseline power profile, BPP, the NAK informs that a foreign object is detected, and the wireless power is limited to 5W or less in the BPP. the communication/control unit transmits a foreign object detection, FOD, status packet including a reported quality factor value to the wireless power transmitting apparatus, the communication/control unit receives ACK/NAK response information as a response to the foreign object detection status packet from the wireless power transmitting apparatus, in case the ACK/NAK response information informs NAK, the communication/control unit allows the wireless power to be received based on a baseline power profile, BPP, the NAK informs that a foreign object is detected, and the wireless power is limited to 5W or less in the BPP.
A dishwasher , comprising • a housing , the housing having a washing compartment ; • a first detergent storage tank , the first detergent storage tank being configured to contain washing detergent; • at least a first supply tube; • at least a first spraying device , the first spraying device being configured to spray the contents of the at least one supply tube into the washing compartment ; • a second detergent storage tank , the second detergent storage tank being configured to contain a presoak detergent; • a control system including a controller configured to run a presoak cycle program prior to running a washing cycle program; wherein the controller is configured to utilize the contents of the second detergent storage tank during the presoak cycle; and wherein the controller is configured to utilize the contents of the first detergent storage tank during the washing cycle program following the presoak cycle; • at least a second supply tube; and • at least a second spraying device , the second spraying device being configured to spray the contents of the second supply tube into the washing compartment ; wherein • the first supply tube is fluidly connected with the first detergent storage tank ; • the second supply tube is fluidly connected with the second detergent storage tank ; and • the first detergent storage tank and the second detergent storage tank are fluidly independent. • a housing , the housing having a washing compartment ; • a first detergent storage tank , the first detergent storage tank being configured to contain washing detergent; • at least a first supply tube; • at least a first spraying device , the first spraying device being configured to spray the contents of the at least one supply tube into the washing compartment ; • a second detergent storage tank , the second detergent storage tank being configured to contain a presoak detergent; • a control system including a controller configured to run a presoak cycle program prior to running a washing cycle program; wherein the controller is configured to utilize the contents of the second detergent storage tank during the presoak cycle; and wherein the controller is configured to utilize the contents of the first detergent storage tank during the washing cycle program following the presoak cycle; wherein the controller is configured to utilize the contents of the second detergent storage tank during the presoak cycle; and wherein the controller is configured to utilize the contents of the first detergent storage tank during the washing cycle program following the presoak cycle; • at least a second supply tube; and • at least a second spraying device , the second spraying device being configured to spray the contents of the second supply tube into the washing compartment ; wherein • the first supply tube is fluidly connected with the first detergent storage tank ; • the second supply tube is fluidly connected with the second detergent storage tank ; and • the first detergent storage tank and the second detergent storage tank are fluidly independent.
A method for using augmented reality devices, the method comprising: capturing, by a first augmented reality device, speech spoken by a person in a real-world scene; determining, by the first augmented reality device, a second augmented reality device to receive text corresponding to the speech; transmitting the text corresponding to the speech to the second augmented reality device; transmitting, by the first augmented reality device to the second augmented reality device, an indication of an identity of the person that spoke the speech, wherein the indication is an image of the person that spoke the speech; and displaying, by a head-mounted display of the second augmented reality device, the text corresponding to the speech by the person such that the text is graphically attributed to the person by superimposing the text on the real-world scene. capturing, by a first augmented reality device, speech spoken by a person in a real-world scene; determining, by the first augmented reality device, a second augmented reality device to receive text corresponding to the speech; transmitting the text corresponding to the speech to the second augmented reality device; transmitting, by the first augmented reality device to the second augmented reality device, an indication of an identity of the person that spoke the speech, wherein the indication is an image of the person that spoke the speech; and displaying, by a head-mounted display of the second augmented reality device, the text corresponding to the speech by the person such that the text is graphically attributed to the person by superimposing the text on the real-world scene.
A polythiol compound having the general Formula VI: wherein: m is an integer of from 4 to 600; n is an integer of from 4 to 400; R 1 is a C 1 -C 18 alkylene group, C 2 -C 18 oxyalkylene group, C 2 -C 18 thioalkylene group, C 6 -C 18 arylene or C 7 -C 18 aralkylene group; and R 2 is H or methyl. m is an integer of from 4 to 600; n is an integer of from 4 to 400; R 1 is a C 1 -C 18 alkylene group, C 2 -C 18 oxyalkylene group, C 2 -C 18 thioalkylene group, C 6 -C 18 arylene or C 7 -C 18 aralkylene group; and R 2 is H or methyl.
A furnace for performing an endothermic process, comprising a plurality of process tubes containing a catalyst for converting a gaseous feed, wherein said process tubes are arranged in rows within the furnace, each row of process tubes thereby defining a process tube row , a plurality of inner burners arranged in rows , each row of inner burners being arranged between and parallel to process tube rows, thereby defining an inner burner row , and a plurality of outer burners arranged in rows, each row of outer burners being arranged between and parallel to a process tube row and a furnace wall, thereby defining an outer burner row , wherein a number of burners of an outer burner row is smaller than a number of burners of an inner burner row.
An assembly for an aircraft propulsion system , comprising: a first actuator , for example a linear actuator; a second actuator ; and a linkage system configured to transfer torque between the first actuator and the second actuator , the linkage system including a first linkage shaft , a second linkage shaft and a gearbox , the first linkage shaft having a first centerline , the second linkage shaft having a second centerline offset from the first centerline , and the gearbox coupled to and between the first linkage shaft and the second linkage shaft , wherein the first actuator and the second actuator are each configured as a self-driven actuator; wherein the linkage system extends circumferentially about a rotational axis of the aircraft propulsion system from the first actuator to the second actuator , characterised in that : the first linkage shaft and the second linkage shaft extend circumferentially about the rotational axis of the aircraft propulsion system . a first actuator , for example a linear actuator; a second actuator ; and a linkage system configured to transfer torque between the first actuator and the second actuator , the linkage system including a first linkage shaft , a second linkage shaft and a gearbox , the first linkage shaft having a first centerline , the second linkage shaft having a second centerline offset from the first centerline , and the gearbox coupled to and between the first linkage shaft and the second linkage shaft , wherein the first actuator and the second actuator are each configured as a self-driven actuator; wherein the linkage system extends circumferentially about a rotational axis of the aircraft propulsion system from the first actuator to the second actuator , characterised in that : the first linkage shaft and the second linkage shaft extend circumferentially about the rotational axis of the aircraft propulsion system .
A method comprising: while a locked screen is presented by a device, receiving an indication of a swipe gesture being performed from a first predefined portion of a display to a second predefined portion of the display, wherein the swipe gesture is initiated at a touch screen on the display; classifying the swipe gesture as a trigger gesture based on an insertion of a motion delay of at least a threshold period of time in connection with the swipe gesture, wherein the insertion of a motion delay of at least a threshold period of time comprises, at some point along the swipe path, holding the swipe for at least a threshold period of time; causing, in response to classifying the swipe gesture as the trigger gesture, a display of a predefined set of functional elements that cause execution of a corresponding function when a respective one of the predefined set of functional elements is selected; and in an instance in which the swipe gesture extends beyond a threshold distance, classifying the swipe gesture as a functional implementation gesture, causing a change of state from a locked state to an unlocked state and causing display of other content or applications relative to the predefined set of functional elements caused to be displayed in response to classifying the swipe gesture as the trigger gesture. while a locked screen is presented by a device, receiving an indication of a swipe gesture being performed from a first predefined portion of a display to a second predefined portion of the display, wherein the swipe gesture is initiated at a touch screen on the display; classifying the swipe gesture as a trigger gesture based on an insertion of a motion delay of at least a threshold period of time in connection with the swipe gesture, wherein the insertion of a motion delay of at least a threshold period of time comprises, at some point along the swipe path, holding the swipe for at least a threshold period of time; causing, in response to classifying the swipe gesture as the trigger gesture, a display of a predefined set of functional elements that cause execution of a corresponding function when a respective one of the predefined set of functional elements is selected; and in an instance in which the swipe gesture extends beyond a threshold distance, classifying the swipe gesture as a functional implementation gesture, causing a change of state from a locked state to an unlocked state and causing display of other content or applications relative to the predefined set of functional elements caused to be displayed in response to classifying the swipe gesture as the trigger gesture.
A method for adjusting characteristics of a furnace process in a furnace space limited by a furnace shell of a metallurgical furnace , defined by a first providing step for providing a furnace aperture extending through the furnace shell, by a second providing step for providing an injection unit comprising a frame , at least one linearly movable injection device that is configured to move linearly with respect to the frame and that is configured to inject additives, mounting means for mounting the injection unit on the metallurgical furnace outside the furnace space , first moving means for linearly moving said at least one linearly movable injection device with respect to the frame , and second moving means for moving said at least one linearly movable injection device between a first position and a second position with respect to the mounting means , by a mounting step for mounting the injection unit by means of the mounting means on the metallurgical furnace outside the furnace space , by a first moving step for moving the first moving means by means of the second moving means with respect to the mounting means from the first position into the second position, where the first moving means is able to move said at least one linearly movable injection device linearly through the furnace aperture in the furnace shell , by a second moving step for moving said at least one linearly movable injection device by means of the first moving means in said second position linearly through the furnace aperture in the furnace shell at least partly into the furnace space , and an injection step for injecting additives into the furnace space by means of said at least one linearly movable injection device that is at least partly inside the furnace space , by a third moving step for moving said at least one linearly movable injection device by means of the first moving means in said second position linearly through the furnace aperture in the furnace shell out of the furnace space , by a fourth moving step for moving the first moving means by means of the second moving means with respect to the mounting means from the second position into a third position, where the first moving means is unable to linearly move said at least one linearly movable injection device linearly through the furnace aperture in the furnace shell , and characterized by mounting the injection unit by means of the mounting means on at least one of a furnace roof or a furnace steel structure above the furnace roof of the furnace shell .
Cleaning robot for a cushioned surface , wherein the cleaning robot comprises the following: - a drive facility ; - a control facility for guiding the cleaning robot over the surface to be cleaned; - a cleaning facility , which is designed to fight dust mites in the region of the surface ; characterised in that the cleaning robot comprises the following: - an output apparatus for a lure for dust mites; - wherein the control facility is designed to output lures onto the surface and after a predetermined waiting time to activate the cleaning facility in the region of the output lure. - a drive facility ; - a control facility for guiding the cleaning robot over the surface to be cleaned; - a cleaning facility , which is designed to fight dust mites in the region of the surface ; characterised in that the cleaning robot comprises the following: - an output apparatus for a lure for dust mites; - wherein the control facility is designed to output lures onto the surface and after a predetermined waiting time to activate the cleaning facility in the region of the output lure.
A method for stabilizing deep excavations or earth slope instability near existing civil objects by means of a retaining engineering structure comprising a vertical building structure and a plurality of tensile batter piles disposed inclining downwardly towards backfill, the vertical building structure and each of the plurality of tensile batter piles are mutually coupled by a coupling means and mutually arranged at an angle β , the angle β is the angle between each of the plurality of tensile batter piles and the vertical building structure at the point of their coupling by said means to the vertical, the method comprising the following steps: a) determining a type of the retaining engineering structure according to a deepness of excavation; b) determining soil condition status; c) determining parameters of the retaining engineering structure according to the type; and d) carrying out retaining engineering structure construction work, characterized by that irrespective of the type of the retaining engineering structure a horizontal load H on the vertical building structure is calculated according the expression H = P a − K a × A n × cos β where P a is a horizontal load generated by the ground mass G 1 , K α is coefficient of active earth pressure, and A n is tensile force in each of the tensile batter pile , wherein the angle β is in a range between 15-20°. a) determining a type of the retaining engineering structure according to a deepness of excavation; b) determining soil condition status; c) determining parameters of the retaining engineering structure according to the type; and d) carrying out retaining engineering structure construction work, characterized by that irrespective of the type of the retaining engineering structure a horizontal load H on the vertical building structure is calculated according the expression H = P a − K a × A n × cos β where P a is a horizontal load generated by the ground mass G 1 , K α is coefficient of active earth pressure, and A n is tensile force in each of the tensile batter pile , wherein the angle β is in a range between 15-20°.
Infigratinib for use in a method of treating a FGFR3-related skeletal disease in a fetus, wherein an effective amount of Infigratinib is administered to the pregnant subject and wherein said FGFR3-related skeletal disease is FGFR3-related chondrodysplasia.