mhurhangee/patent-ind-claim-en huggingface dataset:
Information equipment that is controlled by a control apparatus and located in a consumer's facility, comprising: a receiver configured to receive, as a command including an operational instruction on the information equipment , a setting command including operation route specifying information indicating a route type of the operational instruction on the information equipment , a storage unit configured to store a variable indicating a route type of an operational instruction on the information equipment based on the operation route specifying information included in the setting command, a control unit configured to control operations of the information equipment according to the operational instruction, and a transmission unit configured to transmit, to the control apparatus , a response command including the stored variable according to reception of the setting command, wherein the stored variable indicates that the operational instruction on the information equipment is an inside-consumer's facility operation in which an operation is input to the information equipment from an operation apparatus connected to a narrow area network installed in the consumer's facility or an outside-consumer's facility operation in which an operation is input to the information equipment from an operation apparatus connected to a wide area network different from the narrow area network. a receiver configured to receive, as a command including an operational instruction on the information equipment , a setting command including operation route specifying information indicating a route type of the operational instruction on the information equipment , a storage unit configured to store a variable indicating a route type of an operational instruction on the information equipment based on the operation route specifying information included in the setting command, a control unit configured to control operations of the information equipment according to the operational instruction, and a transmission unit configured to transmit, to the control apparatus , a response command including the stored variable according to reception of the setting command, wherein the stored variable indicates that the operational instruction on the information equipment is an inside-consumer's facility operation in which an operation is input to the information equipment from an operation apparatus connected to a narrow area network installed in the consumer's facility or an outside-consumer's facility operation in which an operation is input to the information equipment from an operation apparatus connected to a wide area network different from the narrow area network.
A method for controlling an asynchronous motor of a laundry treating machine, said asynchronous motor driving a drum and/or an air stream fan of said laundry treating machine and including a main coil and an auxiliary coil permanently interconnected via a first capacitor and switchably interconnected via a second capacitor by means of a switch , whereby the method comprises the steps of: - detecting a first parameter of the asynchronous motor , wherein the first parameter is selected among the voltage (V), current, phase or rotation speed of said asynchronous motor , and - controlling the ON and/or OFF state of the switch on the basis of the first parameter of the asynchronous motor . - detecting a first parameter of the asynchronous motor , wherein the first parameter is selected among the voltage (V), current, phase or rotation speed of said asynchronous motor , and - controlling the ON and/or OFF state of the switch on the basis of the first parameter of the asynchronous motor .
A method for an anesthetic vaporizer , comprising: determining a quantitative acceleration of the anesthetic vaporizer based on acceleration vectors measured by an accelerometer coupled within the anesthetic vaporizer , determining an orientation of the anesthetic vaporizer during the quantitative acceleration based on the acceleration vectors; and outputting an alert responsive to the quantitative acceleration exceeding an acceleration threshold, wherein the acceleration threshold is selected from a plurality of acceleration thresholds based on the determined orientation. determining a quantitative acceleration of the anesthetic vaporizer based on acceleration vectors measured by an accelerometer coupled within the anesthetic vaporizer , determining an orientation of the anesthetic vaporizer during the quantitative acceleration based on the acceleration vectors; and outputting an alert responsive to the quantitative acceleration exceeding an acceleration threshold, wherein the acceleration threshold is selected from a plurality of acceleration thresholds based on the determined orientation.
An isolated antibody or antigen-binding fragment thereof which specifically binds to CD73 comprising a V L and a V H comprising VL-CDR1, VL-CRD2, VL-CDR3, VH-CDR1, VHCDR2, and VH-CDR3 amino acid sequences of SEQ ID NOs: 46, 51, 56, 36, 39, and 45 respectively.
A system comprising: a logic device configured to communicate with a communication module and a position sensor coupled to a mobile platform , wherein the communication module is configured to establish a wireless communication link with a base station associated with the mobile platform, the position sensor is configured to provide a position of the mobile platform as it maneuvers within a survey area, and the logic device is configured to: determine communication link quality data associated with the wireless communication link between the mobile platform and the base station and corresponding to one or more positions of the mobile platform as the mobile platform maneuvers within the survey area, wherein determining communication link quality data comprises receiving at least a portion of the communication link quality data from a second communication module coupled to or within the base station as the mobile platform maneuvers within the survey area; receive position data corresponding to the one or more positions of the mobile platform; and generate communication coverage information corresponding to the survey area based, at least in part, on a combination of the position data and the communication link quality data. determine communication link quality data associated with the wireless communication link between the mobile platform and the base station and corresponding to one or more positions of the mobile platform as the mobile platform maneuvers within the survey area, wherein determining communication link quality data comprises receiving at least a portion of the communication link quality data from a second communication module coupled to or within the base station as the mobile platform maneuvers within the survey area; receive position data corresponding to the one or more positions of the mobile platform; and generate communication coverage information corresponding to the survey area based, at least in part, on a combination of the position data and the communication link quality data.
A method of producing a hot press-formed product, the method comprising: subjecting an Al-plated steel sheet to hot press forming using a die , the Al-plated steel sheet having a zinc compound layer or a metallic zinc layer , as an outermost surface layer, provided on an Al plating layer , wherein the die comprises a hard layer having a skewness (Rsk), as measured in a direction from an outside of a die hole toward an inside of the die hole, of from -5.0 to 1.3 and a hardness Hv_Die of HV 2,000 or more, over an entirety of a region of a steel sheet contact surface that is adjacent to a die shoulder portion , the steel sheet contact surface being located outside of the die hole and configured to contact with the Al-plated steel sheet that is to be subjected to the hot press forming. subjecting an Al-plated steel sheet to hot press forming using a die , the Al-plated steel sheet having a zinc compound layer or a metallic zinc layer , as an outermost surface layer, provided on an Al plating layer , wherein the die comprises a hard layer having a skewness (Rsk), as measured in a direction from an outside of a die hole toward an inside of the die hole, of from -5.0 to 1.3 and a hardness Hv_Die of HV 2,000 or more, over an entirety of a region of a steel sheet contact surface that is adjacent to a die shoulder portion , the steel sheet contact surface being located outside of the die hole and configured to contact with the Al-plated steel sheet that is to be subjected to the hot press forming.
A compact digital vehicle camera and infrared (IR) illuminator apparatus, comprising: a plurality of IR illuminators arranged adjacent to the digital camera , the digital camera having a camera lens , each IR illuminator including at least one IR light emitting diode (LED); and a single cover lens positioned to cover the IR LEDs and the camera lens , wherein a region of the single cover lens that covers the IR LEDs comprises a transparent black cover and blocks visible light and a region of the single cover lens that covers the camera lens comprises a neutral cover and is a neutral lens that transmits visible light; characterized in that the single cover lens is molded as the transparent black cover bonded to the neutral cover for the camera lens and in that the transparent black cover has an elliptical shape having an oval peripheral and an inner surface that is of a different shape than the external surface such that the thickness of the elliptical cover lens varies such that the variation in thickness of the cover lens provides IR light distribution that is wider than the distribution pattern of the IR LEDs. a plurality of IR illuminators arranged adjacent to the digital camera , the digital camera having a camera lens , each IR illuminator including at least one IR light emitting diode (LED); and a single cover lens positioned to cover the IR LEDs and the camera lens , wherein a region of the single cover lens that covers the IR LEDs comprises a transparent black cover and blocks visible light and a region of the single cover lens that covers the camera lens comprises a neutral cover and is a neutral lens that transmits visible light; characterized in that the single cover lens is molded as the transparent black cover bonded to the neutral cover for the camera lens and in that the transparent black cover has an elliptical shape having an oval peripheral and an inner surface that is of a different shape than the external surface such that the thickness of the elliptical cover lens varies such that the variation in thickness of the cover lens provides IR light distribution that is wider than the distribution pattern of the IR LEDs.
A root canal treating device , comprising: a root canal treating hand piece having, attached thereto, a visible light camera that is configured to capture a visible light image (P) of a tooth in a tooth axis direction of the tooth as a target of interest; a position detection unit that is configured to detect a position of the root canal treating hand piece ; a display unit that is configured to display the visible light image; and an image processing unit that is configured to display three images of an image (Ip) corresponding to at least a tip position of a cutting tool attached to the root canal treating hand piece , an X-ray cross-sectional image (Cs1) of the tooth captured by X-ray CT image capturing beforehand, which is an X-ray CT image that is perpendicular to the tooth axis direction, and the visible light image (P) captured by the visible light camera , the three images being displayed on the display unit in an overlapping manner in positional correspondence with one another, based on information on the position of the root canal treating hand piece detected by the position detection unit . a root canal treating hand piece having, attached thereto, a visible light camera that is configured to capture a visible light image (P) of a tooth in a tooth axis direction of the tooth as a target of interest; a position detection unit that is configured to detect a position of the root canal treating hand piece ; a display unit that is configured to display the visible light image; and an image processing unit that is configured to display three images of an image (Ip) corresponding to at least a tip position of a cutting tool attached to the root canal treating hand piece , an X-ray cross-sectional image (Cs1) of the tooth captured by X-ray CT image capturing beforehand, which is an X-ray CT image that is perpendicular to the tooth axis direction, and the visible light image (P) captured by the visible light camera , the three images being displayed on the display unit in an overlapping manner in positional correspondence with one another, based on information on the position of the root canal treating hand piece detected by the position detection unit .
(Amended) A communication apparatus , comprising: a data processing unit adapted to generate packets storing encoded data; and a communication unit adapted to transmit the generated packets to a data reception apparatus , wherein a plurality of the transmitted packets carry fragments of a NAL unit obtained by further dividing the NAL unit configuring a group of pictures (GOP) serving as a processing unit of the encoded data, each of the plurality of the transmitted packets carrying a different one of the fragments of the NAL unit and including in-NAL unit position identification information in a header for identifying whether the different one of the fragments is data located at a head position, an intermediate position, or a tail position of the NAL unit before the division and arrangement information of the different one of the fragments in the NAL unit as additional information, the encoded data stored in the packets being equal to or less than a maximum data transfer unit (a maximum transfer unit (MTU) of a MAC frame, the data processing unit being further adapted to sequentially transmit the packets through the communication unit. a data processing unit adapted to generate packets storing encoded data; and a communication unit adapted to transmit the generated packets to a data reception apparatus , wherein a plurality of the transmitted packets carry fragments of a NAL unit obtained by further dividing the NAL unit configuring a group of pictures (GOP) serving as a processing unit of the encoded data, each of the plurality of the transmitted packets carrying a different one of the fragments of the NAL unit and including in-NAL unit position identification information in a header for identifying whether the different one of the fragments is data located at a head position, an intermediate position, or a tail position of the NAL unit before the division and arrangement information of the different one of the fragments in the NAL unit as additional information, the encoded data stored in the packets being equal to or less than a maximum data transfer unit (a maximum transfer unit (MTU) of a MAC frame, the data processing unit being further adapted to sequentially transmit the packets through the communication unit.
Method for producing a structural component (9, 9.1), comprising different single-piece component sections, for setting up a larger structure, such as are typically used in aerospace technology, made of a high-strength alloy material, characterised in that - the structural component (9, 9.1) is divided into at least two component sections which differ with respect to their requirement profiles when the structural component is later used, wherein one component section (3, 3.1), as a core segment in the use of the structural component (9, 9.1), must meet a higher requirement profile with respect to occurring loads, and the at least one further component section (8, 8.1, 8.2) must meet a lower requirement profile, - in a first production step for producing the core segment (3, 3.1) with the higher requirements, a blank is brought to a near end-contour or precise end-contour shape by a massive forming process in some regions, - in at least one following step, on at least one surface region of the core segment, which has not yet been brought into its near end-contour or precise end-contour shape by the massive forming process, and as a substrate for the forming of the at least one component section (8, 8.1, 8.2) with the lower requirement profile, this component section is applied onto the predetermined surface region of the blank, in order to bring also these regions of the massive-formed core segment into a shape closer to the end-contour, and - following this, the semi-finished product produced in this manner, as a completed pre-form (7, 7.1) is then brought into its end contour in one or more steps. - the structural component (9, 9.1) is divided into at least two component sections which differ with respect to their requirement profiles when the structural component is later used, wherein one component section (3, 3.1), as a core segment in the use of the structural component (9, 9.1), must meet a higher requirement profile with respect to occurring loads, and the at least one further component section (8, 8.1, 8.2) must meet a lower requirement profile, - in a first production step for producing the core segment (3, 3.1) with the higher requirements, a blank is brought to a near end-contour or precise end-contour shape by a massive forming process in some regions, - in at least one following step, on at least one surface region of the core segment, which has not yet been brought into its near end-contour or precise end-contour shape by the massive forming process, and as a substrate for the forming of the at least one component section (8, 8.1, 8.2) with the lower requirement profile, this component section is applied onto the predetermined surface region of the blank, in order to bring also these regions of the massive-formed core segment into a shape closer to the end-contour, and - following this, the semi-finished product produced in this manner, as a completed pre-form (7, 7.1) is then brought into its end contour in one or more steps.
A method of determining a posterior error probability distribution for a parameter measured by a Global Navigation Satellite System (GNSS) receiver , the method comprising: receiving a value for each of one or more GNSS measurement quality indicators associated with the GNSS measurement of the parameter; inputting the or each received measurement quality indicator value into a multivariate probability distribution function to determine the posterior error probability distribution for the GNSS measurement; marginalising the multivariate probability distribution function with respect to the measurement quality indicator(s) to obtain a marginal probability distribution function; and normalising the multivariate probability distribution function using the marginal probability distribution function to obtain a conditional probability distribution, wherein the variates of the multivariate probability distribution function comprise measurement error for said parameter, and the or each measurement quality indicator, wherein one or more of the measurement quality indicator(s) is/are indicative of signal distortion of one or more GNSS satellite signals received by the GNSS receiver , or one or more of the measurement quality indicator(s) is/are derived from one or more GNSS satellite signals received by the GNSS receiver , and wherein one or more of the GNSS measurement quality indicator(s) comprises one or more of: carrier-to-noise density, carrier-to-noise density variability, carrier phase variance, multipath deviation, loss-of-lock detection, code lock time and phase lock time, satellite elevation, and satellite azimuth. receiving a value for each of one or more GNSS measurement quality indicators associated with the GNSS measurement of the parameter; inputting the or each received measurement quality indicator value into a multivariate probability distribution function to determine the posterior error probability distribution for the GNSS measurement; marginalising the multivariate probability distribution function with respect to the measurement quality indicator(s) to obtain a marginal probability distribution function; and normalising the multivariate probability distribution function using the marginal probability distribution function to obtain a conditional probability distribution, wherein the variates of the multivariate probability distribution function comprise measurement error for said parameter, and the or each measurement quality indicator, wherein one or more of the measurement quality indicator(s) is/are indicative of signal distortion of one or more GNSS satellite signals received by the GNSS receiver , or one or more of the measurement quality indicator(s) is/are derived from one or more GNSS satellite signals received by the GNSS receiver , and wherein one or more of the GNSS measurement quality indicator(s) comprises one or more of: carrier-to-noise density, carrier-to-noise density variability, carrier phase variance, multipath deviation, loss-of-lock detection, code lock time and phase lock time, satellite elevation, and satellite azimuth.
A hot melt adhesive composition comprising: (A) a polyolefin - polydiorganosiloxane block copolymer, where the polyolefin - polydiorganosiloxane block copolymer comprises unit formula (I): , where each R 1 is an independently selected monovalent hydrocarbyl group, each R 3 is independently selected from a hydrogen atom and a monovalent organic group free of hydrolyzable functionality, each R 5 is an independently selected hydrogen terminated polyolefin, each R 6 is an independently selected divalent polyolefin, each R 10 is independently selected from R 3 and an alkoxysilyl functional hydrocarbylene containing group each subscript a is independently 1 or 2, each subscript b is independently 0 or a positive number; subscript w is 0 to 2, subscript x is 0 or a positive number, subscript y is 0 or a positive number, subscript z is 0 to 2, a quantity (w + y) ≥ 1, a quantity (x + z) ≥ 1, with the proviso that when subscript w is 0, subscript z is > 0 and when subscript z = 0, subscript w > 0; (B) a polydiorganosiloxane; and (C) a polyorganosilicate resin. (A) a polyolefin - polydiorganosiloxane block copolymer, where the polyolefin - polydiorganosiloxane block copolymer comprises unit formula (I): , where each R 1 is an independently selected monovalent hydrocarbyl group, each R 3 is independently selected from a hydrogen atom and a monovalent organic group free of hydrolyzable functionality, each R 5 is an independently selected hydrogen terminated polyolefin, each R 6 is an independently selected divalent polyolefin, each R 10 is independently selected from R 3 and an alkoxysilyl functional hydrocarbylene containing group each subscript a is independently 1 or 2, each subscript b is independently 0 or a positive number; subscript w is 0 to 2, subscript x is 0 or a positive number, subscript y is 0 or a positive number, subscript z is 0 to 2, a quantity (w + y) ≥ 1, a quantity (x + z) ≥ 1, with the proviso that when subscript w is 0, subscript z is > 0 and when subscript z = 0, subscript w > 0; (B) a polydiorganosiloxane; and (C) a polyorganosilicate resin.