mhurhangee/patent-ind-claim-en huggingface dataset:
A jaw crusher comprising: a crusher housing having an inlet for material to be crushed, an outlet for material that has been crushed, a moveable jaw , provided with a wear plate and a stationary jaw , provided with a second wear plate , the moveable jaw and the stationary jaw forming between them a crushing chamber , the moveable jaw 2) being coupled to an eccentric jaw crusher shaft which causes the moveable jaw to reciprocate in an eccentric motion to crush the material between the moveable jaw and the stationary jaw and an adjustment device for adjusting the position of the moveable jaw relative to the stationary jaw , wherein the adjustment device comprises one or more drive cylinder with an internally mounted sensor to measure the position of the moveable jaw relative to the stationary jaw , characterized in that the sensor measures stroke distance of the drive cylinder, wherein measurement of the stroke distance provides a measure of total wear on the moveable jaw wear plate and fixed jaw wear plate , wherein the crusher comprises a machine programmable logic controller (PLC) configured to perform wear calibration periodically and to store each wear measurement for determining wear rate of liners within their current application. a crusher housing having an inlet for material to be crushed, an outlet for material that has been crushed, a moveable jaw , provided with a wear plate and a stationary jaw , provided with a second wear plate , the moveable jaw and the stationary jaw forming between them a crushing chamber , the moveable jaw 2) being coupled to an eccentric jaw crusher shaft which causes the moveable jaw to reciprocate in an eccentric motion to crush the material between the moveable jaw and the stationary jaw and an adjustment device for adjusting the position of the moveable jaw relative to the stationary jaw , wherein the adjustment device comprises one or more drive cylinder with an internally mounted sensor to measure the position of the moveable jaw relative to the stationary jaw , characterized in that the sensor measures stroke distance of the drive cylinder, wherein measurement of the stroke distance provides a measure of total wear on the moveable jaw wear plate and fixed jaw wear plate , wherein the crusher comprises a machine programmable logic controller (PLC) configured to perform wear calibration periodically and to store each wear measurement for determining wear rate of liners within their current application.
A method of determining a calibrated signal strength factor used for foreign object detection, the method performed by a receiver positioned on top of a transmitter , the method comprising: measuring a first signal strength, S1, resulting from a digital ping initiated by the transmitter at a first position, wherein the first position is a best coupling position; determining a first Q-factor, Q1, for the first position, wherein the first Q-factor, Q1, is a reported Q-factor; measuring a second signal strength, S2, resulting from another digital ping initiated by the transmitter at a second position; determining a second Q-factor, Q2, for the second position; and determining the calibrated signal strength factor, G, based on the first signal strength, S1, the second signal strength, S2, the first Q-factor, Q1, and the second Q-factor, Q2. measuring a first signal strength, S1, resulting from a digital ping initiated by the transmitter at a first position, wherein the first position is a best coupling position; determining a first Q-factor, Q1, for the first position, wherein the first Q-factor, Q1, is a reported Q-factor; measuring a second signal strength, S2, resulting from another digital ping initiated by the transmitter at a second position; determining a second Q-factor, Q2, for the second position; and determining the calibrated signal strength factor, G, based on the first signal strength, S1, the second signal strength, S2, the first Q-factor, Q1, and the second Q-factor, Q2.
A bubble separator used for a fluid circuit for an automobile and separating bubbles in liquid, comprising: a swirl flow formation part that includes a columnar-shaped internal space; a flow inlet disposed at one end of the swirl flow formation part , the flow inlet opening so as to cause the liquid to flow in in a tangential direction of an inner peripheral surface of the swirl flow formation part to form a swirl flow on the inner peripheral surface; a flow outlet disposed at another end of the swirl flow formation part , the flow outlet 26,126,226,326,426,526,626) opening so as to cause the liquid to flow out in the tangential direction from the inner peripheral surface; and gas discharge ports that discharge gas separated from the liquid at the swirl flow formation part to an outside of the swirl flow formation part , wherein the gas discharge ports are respectively provided at both ends of the swirl flow formation part , wherein the bubble separator comprises a tubular gas column promotion part that extends coaxially with the swirl flow formation part in the swirl flow formation part characterized in that , when an inner diameter of the flow inlet is d 1 , an inner diameter D of the swirl flow formation part ranges from 1.5d 1 to 3d 1 . a swirl flow formation part that includes a columnar-shaped internal space; a flow inlet disposed at one end of the swirl flow formation part , the flow inlet opening so as to cause the liquid to flow in in a tangential direction of an inner peripheral surface of the swirl flow formation part to form a swirl flow on the inner peripheral surface; a flow outlet disposed at another end of the swirl flow formation part , the flow outlet 26,126,226,326,426,526,626) opening so as to cause the liquid to flow out in the tangential direction from the inner peripheral surface; and gas discharge ports that discharge gas separated from the liquid at the swirl flow formation part to an outside of the swirl flow formation part , wherein the gas discharge ports are respectively provided at both ends of the swirl flow formation part , wherein the bubble separator comprises a tubular gas column promotion part that extends coaxially with the swirl flow formation part in the swirl flow formation part characterized in that , when an inner diameter of the flow inlet is d 1 , an inner diameter D of the swirl flow formation part ranges from 1.5d 1 to 3d 1 .
A method of a first device , the method comprising: entering an idle mode of a cellular radio interface ; performing a proximity connection with a second device using a proximity radio interface ; receiving, from the second device , information on a registered public land mobile network, PLMN, of the second device ; determining whether the registered PLMN of the second device is same as a registered PLMN of the first device ; transmitting, to the second device , a first message to request offloading an idle mode function for the first device to the second device in case that the registered PLMN of the second device is same as the registered PLMN of the first device ; and receiving, from the second device , a second message indicating that the second device accepts the request in response to the first message. entering an idle mode of a cellular radio interface ; performing a proximity connection with a second device using a proximity radio interface ; receiving, from the second device , information on a registered public land mobile network, PLMN, of the second device ; determining whether the registered PLMN of the second device is same as a registered PLMN of the first device ; transmitting, to the second device , a first message to request offloading an idle mode function for the first device to the second device in case that the registered PLMN of the second device is same as the registered PLMN of the first device ; and receiving, from the second device , a second message indicating that the second device accepts the request in response to the first message.
Device for holding objects in a vehicle, with a main body in which a recess for holding exchangeable insets is formed, and at least one inset , wherein at least one aligning device for aligning the inset in the recess and at least one latching device for securing same therein are arranged on the main body , characterized in that at least one interface for providing power transmission and/or data transmission to the inset is provided in the main body .
An optical sighting device comprising: a body with a first end and a second end and having a center axis; an objective lens system disposed within the body; an eyepiece lens disposed within the body; an erector lens system disposed within the body; the objective lens system, eyepiece lens, and erector lens system forming an optical system having a first focal plane and a second focal plane , the first focal plane proximate the objective lens system and the second focal plane proximate the eyepiece lens; a first reticle at the first focal plane having at least one subtension marking and no stadia lines; a second reticle at the second focal plane having a horizontal stadia line and a vertical stadia line and no subtension marking; and wherein the first reticle and the second reticle provide complementary markings creating the appearance of a single reticle when viewed along the center axis. a body with a first end and a second end and having a center axis; an objective lens system disposed within the body; an eyepiece lens disposed within the body; an erector lens system disposed within the body; the objective lens system, eyepiece lens, and erector lens system forming an optical system having a first focal plane and a second focal plane , the first focal plane proximate the objective lens system and the second focal plane proximate the eyepiece lens; a first reticle at the first focal plane having at least one subtension marking and no stadia lines; a second reticle at the second focal plane having a horizontal stadia line and a vertical stadia line and no subtension marking; and wherein the first reticle and the second reticle provide complementary markings creating the appearance of a single reticle when viewed along the center axis.
A surgical cutting instrument comprising a handle portion and an elongate shaft , the shaft having a distal end and a proximal end and a longitudinal axis extending therebetween, the shaft mounting a cutting element at the distal end, the instrument further comprising a safety sleeve including a substantially cylindrical channel through which the elongate shaft extends, wherein the safety sleeve is moveable axially along the shaft between a retracted position in which the cutting tip is exposed, and an extended position in which the cutting tip is located within the cylindrical channel of the safety sleeve; wherein the instrument further comprises locking means for preventing further axial movement of the safety sleeve with respect to the elongate shaft when the safety sleeve is in the extended position; wherein the locking means automatically engages when the safety sleeve is in the extended position, and the locking means prevents movement of the safety sleeve from the extended position to the retracted position; and wherein the locking means comprises first and second cooperating elements each located on a respective one of the distal end of the shaft and the safety sleeve. including a substantially cylindrical channel through which the elongate shaft extends, wherein the safety sleeve is moveable axially along the shaft between a retracted position in which the cutting tip is exposed, and an extended position in which the cutting tip is located within the cylindrical channel of the safety sleeve; wherein the instrument further comprises locking means for preventing further axial movement of the safety sleeve with respect to the elongate shaft when the safety sleeve is in the extended position; wherein the locking means automatically engages when the safety sleeve is in the extended position, and the locking means prevents movement of the safety sleeve from the extended position to the retracted position; and wherein the locking means comprises first and second cooperating elements each located on a respective one of the distal end of the shaft and the safety sleeve.
Device for hot stamping a part of a vehicle body , comprising: - a strip comprising a carrier film and a decorative film ; - at least one motorized arm capable of moving; - at least one head mounted movably in rotation on one end of the arm, the head comprising pressure means capable of applying pressure on the strip; and - means for unwinding the strip at the front of the head, characterized in that the head comprises the unwinding means and/or the strip . - a strip comprising a carrier film and a decorative film ; - at least one motorized arm capable of moving; - at least one head mounted movably in rotation on one end of the arm, the head comprising pressure means capable of applying pressure on the strip; and - means for unwinding the strip at the front of the head, characterized in that the head comprises the unwinding means and/or the strip .
A method for controlling operation of a work site comprising a transport vehicle provided with a container , and a work machine configured for loading material at an elevated position above the ground to the container of the transport vehicle , characterised in that the work machine comprises an onboard weight measurement apparatus and means for sending a signal with weight information to the transport vehicle, wherein the transport vehicle comprises a means for receiving a signal with information associated to the weight of the material received in the container, and a controller operatively connected to the said receipt means, wherein the controller is adapted for controlling at least one system in the transport vehicle in response to the weight information, the method comprising the step of said transport vehicle receiving information associated to the weight of the received material in said container from the work machine loading the material on the container, and in response to the weight information controlling operation of said vehicle.
A method for determining the position of a high orbit satellite , which is a geostationary satellite, situated above a plurality of navigation satellites wherein: - navigation signals emitted by navigation satellites are received by a plurality of navigation devices , wherein the navigation devices are situated on low orbit satellites and below the navigation satellites and wherein the navigation signals are used for determining the position of the navigation devices ; - at the position of the navigation devices positioning signals are emitted, which are received by the high orbit satellite and transmitted to a central unit ; - the central unit measures time delays of the positioning signals along their way from the navigation devices to the central unit and determines the position of the high orbit satellite based on the measured time delays, - each one of the navigation devices uses information on its own position and the position of the central unit for synchronizing a clock at the place of the navigation device with a central unit clock of the central unit , - timing information on the emission time of the positioning signal from the place of the navigation device to the central unit is transmitted to the central unit , and - the timing information is used by the central unit for determining the time delay of the positioning signals along their way from the navigation devices via the high orbit satellite to the central unit , characterised in that the measured time delays are processed by a ground station for determining the position of the high orbit satellite . - navigation signals emitted by navigation satellites are received by a plurality of navigation devices , wherein the navigation devices are situated on low orbit satellites and below the navigation satellites and wherein the navigation signals are used for determining the position of the navigation devices ; - at the position of the navigation devices positioning signals are emitted, which are received by the high orbit satellite and transmitted to a central unit ; - the central unit measures time delays of the positioning signals along their way from the navigation devices to the central unit and determines the position of the high orbit satellite based on the measured time delays, - each one of the navigation devices uses information on its own position and the position of the central unit for synchronizing a clock at the place of the navigation device with a central unit clock of the central unit , - timing information on the emission time of the positioning signal from the place of the navigation device to the central unit is transmitted to the central unit , and - the timing information is used by the central unit for determining the time delay of the positioning signals along their way from the navigation devices via the high orbit satellite to the central unit ,
An apparatus configured to perform telemetry monitoring, the apparatus comprising: a telemetry collector configured to: collect a first set of telemetry data to form a telemetry data timeline associated with a computing device, the first set of telemetry data collected based on a policy file; generate a first trigger indicative of a first operational condition specified in the policy file; and generate a second trigger indicative of a second operational condition that coincides with the first operational condition; an actuator configured to: collect a second set of telemetry data associated with the computing device in response to the first trigger; and collect a third set of telemetry data associated with the computing device in response to the second trigger, wherein the second and third sets of telemetry data are collected based on an order specified in the policy file; and a data reporter configured to report the telemetry data timeline, the second set of telemetry data, and the third set of telemetry data to a server, in response to a request, wherein the second set of telemetry data includes at least one of: graphics processing unit, GPU, hot-spot analysis data, or micro-architectural analysis data. a telemetry collector configured to: collect a first set of telemetry data to form a telemetry data timeline associated with a computing device, the first set of telemetry data collected based on a policy file; generate a first trigger indicative of a first operational condition specified in the policy file; and generate a second trigger indicative of a second operational condition that coincides with the first operational condition; collect a first set of telemetry data to form a telemetry data timeline associated with a computing device, the first set of telemetry data collected based on a policy file; generate a first trigger indicative of a first operational condition specified in the policy file; and generate a second trigger indicative of a second operational condition that coincides with the first operational condition; an actuator configured to: collect a second set of telemetry data associated with the computing device in response to the first trigger; and collect a third set of telemetry data associated with the computing device in response to the second trigger, wherein the second and third sets of telemetry data are collected based on an order specified in the policy file; and collect a second set of telemetry data associated with the computing device in response to the first trigger; and collect a third set of telemetry data associated with the computing device in response to the second trigger, wherein the second and third sets of telemetry data are collected based on an order specified in the policy file; and a data reporter configured to report the telemetry data timeline, the second set of telemetry data, and the third set of telemetry data to a server, in response to a request, wherein the second set of telemetry data includes at least one of: graphics processing unit, GPU, hot-spot analysis data, or micro-architectural analysis data.
A circuit board, comprising: a board body ; an electronic component , soldered to a surface of the board body by using soldering tin, wherein a solder leg is formed on the surface of the board body ; and a reaction particle , disposed on the surface of the board body and adjacent to the solder leg , wherein when the circuit board is energized and in an environment with water, the reaction particle reacts with the solder leg to form an insoluble protection layer on an outer surface of the solder leg , and the insoluble protection layer isolates the solder leg from water, wherein the reaction particle is a compound, and anionic reducibility of the compound is higher than that of tin, and wherein the reaction particle is dissolvable in water. a board body ; an electronic component , soldered to a surface of the board body by using soldering tin, wherein a solder leg is formed on the surface of the board body ; and a reaction particle , disposed on the surface of the board body and adjacent to the solder leg , wherein when the circuit board is energized and in an environment with water, the reaction particle reacts with the solder leg to form an insoluble protection layer on an outer surface of the solder leg , and the insoluble protection layer isolates the solder leg from water, wherein the reaction particle is a compound, and anionic reducibility of the compound is higher than that of tin, and wherein the reaction particle is dissolvable in water.
A combustor for a gas turbine engine comprising: a support shell ; a first liner panel mounted to the support shell via a multiple of studs , the first liner panel including a first rail that extends from a cold side of the first liner panel , the first rail is non-perpendicular to the cold side and includes a concave surface to at least partially form a curved interface passage (150;150A); and a second liner panel mounted to the support shell via a multiple of studs , the second liner panel including a second rail that extends from a cold side of the second liner panel , the second rail includes a convex surface to at least partially form the curved interface passage (150;150A), characterised in that : the first rail extends from the cold side of the first liner panel to an end facing the support shell; the second rail extends from the cold side of the second liner panel to an end facing the support shell; and the curved interface passage (150;150A) defines a centerline (L) formed about a single radius (R1), the end of the first rail is spaced from the support shell by a gap and the end of the second rail is spaced from the support shell by a gap. a support shell ; a first liner panel mounted to the support shell via a multiple of studs , the first liner panel including a first rail that extends from a cold side of the first liner panel , the first rail is non-perpendicular to the cold side and includes a concave surface to at least partially form a curved interface passage (150;150A); and a second liner panel mounted to the support shell via a multiple of studs , the second liner panel including a second rail that extends from a cold side of the second liner panel , the second rail includes a convex surface to at least partially form the curved interface passage (150;150A), characterised in that : the first rail extends from the cold side of the first liner panel to an end facing the support shell; the second rail extends from the cold side of the second liner panel to an end facing the support shell; and the curved interface passage (150;150A) defines a centerline (L) formed about a single radius (R1), the end of the first rail is spaced from the support shell by a gap and the end of the second rail is spaced from the support shell by a gap. the first rail extends from the cold side of the first liner panel to an end facing the support shell; the second rail extends from the cold side of the second liner panel to an end facing the support shell; and the curved interface passage (150;150A) defines a centerline (L) formed about a single radius (R1), the end of the first rail is spaced from the support shell by a gap and the end of the second rail is spaced from the support shell by a gap.