mhurhangee/patent-ind-claim-en huggingface dataset:
A recline control system (600; 710; 900; 1100), comprising: a lockable hydraulic spring (318; 618; 918) couplable to a passenger seat to control movement of a portion of the passenger seat , the lockable hydraulic spring (318; 618; 918) actuatable between a locked state and an unlocked state; a lock actuator (328/326; 628; 926) coupled to the lockable hydraulic spring (318; 618; 918) for controlling a lock state of the lockable hydraulic spring (318; 618; 918); a sensor (332; 642; 932; 1132) for sensing a tactile input, the sensor operatively coupled to the lock actuator (328/326; 926) to initiate actuation of the lockable hydraulic spring (318; 618; 918) in response to sensing the tactile input; characterized in that the recline control system further comprises a controller (320; 620; 920) operatively coupled to at least the sensor (332; 642; 932) and the lock actuator (328/326; 926), wherein in use the controller (320; 620; 920) receives a master lockout signal and determines whether to lock or unlock the lockable hydraulic spring (318; 618; 918) taking into account the master lockout signal so disabling or enabling the ability to unlock the lockable hydraulic spring (318; 618; 918) in response to sensing the tactile input. a lockable hydraulic spring (318; 618; 918) couplable to a passenger seat to control movement of a portion of the passenger seat , the lockable hydraulic spring (318; 618; 918) actuatable between a locked state and an unlocked state; a lock actuator (328/326; 628; 926) coupled to the lockable hydraulic spring (318; 618; 918) for controlling a lock state of the lockable hydraulic spring (318; 618; 918); a sensor (332; 642; 932; 1132) for sensing a tactile input, the sensor operatively coupled to the lock actuator (328/326; 926) to initiate actuation of the lockable hydraulic spring (318; 618; 918) in response to sensing the tactile input; characterized in that the recline control system further comprises a controller (320; 620; 920) operatively coupled to at least the sensor (332; 642; 932) and the lock actuator (328/326; 926), wherein in use the controller (320; 620; 920) receives a master lockout signal and determines whether to lock or unlock the lockable hydraulic spring (318; 618; 918) taking into account the master lockout signal so disabling or enabling the ability to unlock the lockable hydraulic spring (318; 618; 918) in response to sensing the tactile input.
A system for use in an internal combustion engine having at least one engine valve associated with a cylinder, the system comprising: a main motion source configured to supply motions to the at least one engine valve along a main motion load path ; an auxiliary motion source configured to supply motions to the at least one engine valve; an automatic lash adjuster associated with the main motion load path; and a linkage configured to receive the motions from the auxiliary motion source and provide a first force to the at least one engine valve, the system being characterized in that the linkage is configured to provide a second force to the main motion load path in a direction toward the main motion source, wherein the second force is sufficient to control lash adjustment by the automatic lash adjuster. a main motion source configured to supply motions to the at least one engine valve along a main motion load path ; an auxiliary motion source configured to supply motions to the at least one engine valve; an automatic lash adjuster associated with the main motion load path; and a linkage configured to receive the motions from the auxiliary motion source and provide a first force to the at least one engine valve, the system being characterized in that the linkage is configured to provide a second force to the main motion load path in a direction toward the main motion source, wherein the second force is sufficient to control lash adjustment by the automatic lash adjuster.
A method comprising: receiving, by a universal authentication application from a resource provider computer , a user credential verification request message comprising a user identifier, server computer data, and interaction data for an interaction between a resource provider of the resource provider computer and a user of a user device ; transmitting, by the universal authentication application, the user credential verification request message to a web browser that invokes an authenticator to verify biometric information of the user; receiving, by the universal authentication application, a user credential verification response message from the authenticator, the user credential verification response message comprising signed interaction data; and sending, by the universal authentication application, the user credential verification response message to the resource provider computer, providing, by the resource provider computer, at least the signed interaction data to a plurality of server computers ; and receiving, by the resource provider computer, a plurality of portable device credentials respectively from the plurality of server computers. receiving, by a universal authentication application from a resource provider computer , a user credential verification request message comprising a user identifier, server computer data, and interaction data for an interaction between a resource provider of the resource provider computer and a user of a user device ; transmitting, by the universal authentication application, the user credential verification request message to a web browser that invokes an authenticator to verify biometric information of the user; receiving, by the universal authentication application, a user credential verification response message from the authenticator, the user credential verification response message comprising signed interaction data; and sending, by the universal authentication application, the user credential verification response message to the resource provider computer, providing, by the resource provider computer, at least the signed interaction data to a plurality of server computers ; and receiving, by the resource provider computer, a plurality of portable device credentials respectively from the plurality of server computers.
A system for acquiring data regarding a wound in tissue, comprising: at least one light source configured to directly illuminate a target surface with a homogeneous field of excitation light, the target surface including at least a portion of a wound and an area around the wound; an optical sensor configured to detect signals responsive to illumination of the illuminated portion of the wound and the area around the wound; a thermal sensor configured to detect thermal information regarding the illuminated portion of the wound and the area around the wound; a display for displaying the output data regarding the illuminated portion of the wound and the area around the wound output by the processor, characterized by the fact that the system comprises: a processor configured to receive the detected signals, to analyze the detected signal data using pixel intensity and to output data regarding the bacterial load of the illuminated portion of the wound and area around the wound, a wound analysis component comprising image analysis and/or manipulation software, configured to receive and manipulate data received from the optical sensor and the thermal sensor and to output diagnostic data that includes a biodistribution of bacteria in and around the wound, wherein each signal detected by the optical sensor is indicative of at least one of endogenous fluorescence, exogenous fluorescence, absorbance, and reflectance in the illuminated portion of the wound and the area around the wound, the processor being configured to correlate the thermal data with the bacterial load data. at least one light source configured to directly illuminate a target surface with a homogeneous field of excitation light, the target surface including at least a portion of a wound and an area around the wound; an optical sensor configured to detect signals responsive to illumination of the illuminated portion of the wound and the area around the wound; a thermal sensor configured to detect thermal information regarding the illuminated portion of the wound and the area around the wound; a display for displaying the output data regarding the illuminated portion of the wound and the area around the wound output by the processor, a processor configured to receive the detected signals, to analyze the detected signal data using pixel intensity and to output data regarding the bacterial load of the illuminated portion of the wound and area around the wound, a wound analysis component comprising image analysis and/or manipulation software, configured to receive and manipulate data received from the optical sensor and the thermal sensor and to output diagnostic data that includes a biodistribution of bacteria in and around the wound, wherein each signal detected by the optical sensor is indicative of at least one of endogenous fluorescence, exogenous fluorescence, absorbance, and reflectance in the illuminated portion of the wound and the area around the wound, the processor being configured to correlate the thermal data with the bacterial load data.
A method of manufacturing an ultrasonic transmission component of an ultrasonic surgical instrument, comprising: forming, via additive manufacturing, a waveguide , including: a body portion ; and a blade extending distally from the body portion, wherein the waveguide is formed to define a lumen extending through a portion of the body portion and a portion of the blade further comprising inserting an inner tube at least partially into the lumen. a body portion ; and a blade extending distally from the body portion, wherein the waveguide is formed to define a lumen extending through a portion of the body portion and a portion of the blade further comprising inserting an inner tube at least partially into the lumen.
A tetrafluoroethylene (TFE) polymer having drawability and non-melt processability, wherein - the TFE polymer has a ratio S 2 /S 1 of ≥ 0.60, wherein S 2 is an endotherm mJ/mg in a range of T 0 °C to 350°C, T 0 °C is a temperature 2.5°C lower than a temperature T p °C (340 ≤ T p ≤ 345) at which a minimum point is given on a heat-of-fusion curve obtained by measuring an unbaked polymer for measurement having no history of heating to a temperature of ≥ 300°C using a differential scanning calorimeter at a temperature-increasing rate of 2°C/min, and S 1 is an endotherm mJ/mg in a range of 320°C to T 0 °C, and - in the heat-of-fusion curve, a half-width HW that is a difference between temperatures at two intersection points of the heat-of-fusion curve and a line which is parallel to a baseline and passes through a half position of a vertical line extending from the minimum point at the temperature T p °C to the baseline is ≥ 5.0, wherein the above parameters are determined as described in the description. - the TFE polymer has a ratio S 2 /S 1 of ≥ 0.60, wherein S 2 is an endotherm mJ/mg in a range of T 0 °C to 350°C, T 0 °C is a temperature 2.5°C lower than a temperature T p °C (340 ≤ T p ≤ 345) at which a minimum point is given on a heat-of-fusion curve obtained by measuring an unbaked polymer for measurement having no history of heating to a temperature of ≥ 300°C using a differential scanning calorimeter at a temperature-increasing rate of 2°C/min, and S 1 is an endotherm mJ/mg in a range of 320°C to T 0 °C, and S 2 is an endotherm mJ/mg in a range of T 0 °C to 350°C, T 0 °C is a temperature 2.5°C lower than a temperature T p °C (340 ≤ T p ≤ 345) at which a minimum point is given on a heat-of-fusion curve obtained by measuring an unbaked polymer for measurement having no history of heating to a temperature of ≥ 300°C using a differential scanning calorimeter at a temperature-increasing rate of 2°C/min, and S 1 is an endotherm mJ/mg in a range of 320°C to T 0 °C, and - in the heat-of-fusion curve, a half-width HW that is a difference between temperatures at two intersection points of the heat-of-fusion curve and a line which is parallel to a baseline and passes through a half position of a vertical line extending from the minimum point at the temperature T p °C to the baseline is ≥ 5.0, wherein the above parameters are determined as described in the description.
An apparatus for performing a procedure within a patient's body, comprising: a tubular member comprising a proximal end , a distal end sized for introduction into a patient's body, a central axis extending therebetween, and a distal portion extending distally from an intermediate portion to the distal end; a primary lumen extending between the proximal and distal ends and surrounding at least a portion of the central axis; a steering element lumen extending at least partially between the proximal and distal ends adjacent the primary lumen; a steering element slidably disposed within the steering element lumen and comprising a distal end fixed to the tubular member distal end and a proximal end adjacent the proximal end of the tubular member; an actuator on the proximal end coupled to the steering element proximal end such that actuation of the actuator applies axial tension or compression to the steering element, thereby causing the distal portion to bend; and characterized by a compression-resistant element slidably disposed within the steering element lumen adjacent the steering element and extending from the proximal end of the tubular member through the intermediate portion and terminating before the distal portion for preventing forces from the steering element from transferring to the tubular member proximal to the distal portion . a tubular member comprising a proximal end , a distal end sized for introduction into a patient's body, a central axis extending therebetween, and a distal portion extending distally from an intermediate portion to the distal end; a primary lumen extending between the proximal and distal ends and surrounding at least a portion of the central axis; a steering element lumen extending at least partially between the proximal and distal ends adjacent the primary lumen; a steering element slidably disposed within the steering element lumen and comprising a distal end fixed to the tubular member distal end and a proximal end adjacent the proximal end of the tubular member; an actuator on the proximal end coupled to the steering element proximal end such that actuation of the actuator applies axial tension or compression to the steering element, thereby causing the distal portion to bend; and characterized by a compression-resistant element slidably disposed within the steering element lumen adjacent the steering element and extending from the proximal end of the tubular member through the intermediate portion and terminating before the distal portion for preventing forces from the steering element from transferring to the tubular member proximal to the distal portion .
A process for preparing a procatalyst composition comprising the steps of (a) reacting a hydrocarbon-soluble organomagnesium compound or complex thereof in a hydrocarbon solvent with an active non-metallic or metallic halide to form a magnesium halide support; (b) contacting the magnesium halide support and a compound containing titanium to form a supported titanium procatalyst; and (c) contacting the supported titanium procatalyst with an electron donor modifier having the formula (II): wherein: n is from 3 to 12; R is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more heteroatoms; and X is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more heteroatoms. (a) reacting a hydrocarbon-soluble organomagnesium compound or complex thereof in a hydrocarbon solvent with an active non-metallic or metallic halide to form a magnesium halide support; (b) contacting the magnesium halide support and a compound containing titanium to form a supported titanium procatalyst; and (c) contacting the supported titanium procatalyst with an electron donor modifier having the formula (II): wherein: n is from 3 to 12; R is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more heteroatoms; and X is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more heteroatoms. n is from 3 to 12; R is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more heteroatoms; and X is hydrogen or a C 1 -C 20 hydrocarbyl that is optionally substituted with one or more heteroatoms.
A height-adjustable stilt bearing , comprising a bottom part , a middle part and an upper part , which are arranged along a common vertical main axis , and each of which have a bottom side , an upper side and at least one outer radial surface , and which have, at least on the bottom or upper side , at least one support surface region wound in a helical manner, having an incline and being complementary in shape and function, wherein - the support surface region of the bottom part is formed on its upper side and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part , - and the support surface region of the upper part is formed on its bottom part and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part , - and the at least one middle part has at least one support surface region on its upper side , - and said support surface region of the upper side of the middle part is formed to cooperate with the at least one corresponding support surface region of the upper part or a further middle part and to be rotatable relative to the upper part and/or the further middle part , characterized in that - the at least one middle part also has at least one support surface region on its bottom side , which is formed to cooperate with the at least one corresponding support surface region of the bottom part and to be rotatable relative to the bottom part . - the support surface region of the bottom part is formed on its upper side and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part , - and the support surface region of the upper part is formed on its bottom part and to cooperate with the at least one corresponding support surface region of the adjacently-arranged middle part , - and the at least one middle part has at least one support surface region on its upper side , - and said support surface region of the upper side of the middle part is formed to cooperate with the at least one corresponding support surface region of the upper part or a further middle part and to be rotatable relative to the upper part and/or the further middle part , characterized in that - the at least one middle part also has at least one support surface region on its bottom side , which is formed to cooperate with the at least one corresponding support surface region of the bottom part and to be rotatable relative to the bottom part .
A satellite gateway , comprising: a pre-encoder , configured to encode payload data to obtain error correcting data for the payload data , and to provide a pre-encoded data packet comprising the payload data and the error correcting data for the payload data ; an encoder configured to encode the pre-encoded data packet to obtain error correcting data for the pre-encoded data packet , and to provide a data packet comprising the pre-encoded data packet as payload data and the error correcting data for the pre-encoded data packet ; and a transmitter , configured to transmit an uplink data stream comprising the data packet to a satellite; characterized in that the pre-encoder is configured to encode the payload data twice using two different error correcting codes, to obtain the error correcting data . for the payload data , the error correcting data comprising two different error correcting code words corresponding to the two different error correcting codes; wherein the error correcting data for the payload data comprises a BCH code word and a LDPC code word. a pre-encoder , configured to encode payload data to obtain error correcting data for the payload data , and to provide a pre-encoded data packet comprising the payload data and the error correcting data for the payload data ; an encoder configured to encode the pre-encoded data packet to obtain error correcting data for the pre-encoded data packet , and to provide a data packet comprising the pre-encoded data packet as payload data and the error correcting data for the pre-encoded data packet ; and a transmitter , configured to transmit an uplink data stream comprising the data packet to a satellite; characterized in that the pre-encoder is configured to encode the payload data twice using two different error correcting codes, to obtain the error correcting data . for the payload data , the error correcting data comprising two different error correcting code words corresponding to the two different error correcting codes; wherein the error correcting data for the payload data comprises a BCH code word and a LDPC code word.
A light emitting device , comprising: at least one solid-state light emitter operable to generate blue excitation light; and a wavelength conversion component positioned remotely to the at least one solid-state light emitter, said wavelength conversion component comprising: at least one blue light excitable photoluminescence material ; and a light scattering material , wherein the light scattering material has an average particle size that is selected such that the light scattering material will scatter blue excitation light relatively more than the light scattering material will scatter light generated by the at least one photoluminescence material, wherein the at least one photoluminescence material is located in a wavelength conversion layer and the light scattering material is located in a light diffusing layer different from the wavelength conversion layer, and wherein the light scattering material has an average particle size in a range 100nm to 150nm and the wavelength conversion layer faces the at least one solid-state light emitter such that, in operation, the diffusing layer decreases the probability of externally originating photons from interacting with the at least one photoluminescence material thereby improving an OFF state white appearance of the component of the light emitting device. at least one solid-state light emitter operable to generate blue excitation light; and a wavelength conversion component positioned remotely to the at least one solid-state light emitter, said wavelength conversion component comprising: at least one blue light excitable photoluminescence material ; and a light scattering material , wherein the light scattering material has an average particle size that is selected such that the light scattering material will scatter blue excitation light relatively more than the light scattering material will scatter light generated by the at least one photoluminescence material, wherein the at least one photoluminescence material is located in a wavelength conversion layer and the light scattering material is located in a light diffusing layer different from the wavelength conversion layer, and wherein the light scattering material has an average particle size in a range 100nm to 150nm and the wavelength conversion layer faces the at least one solid-state light emitter such that, in operation, the diffusing layer decreases the probability of externally originating photons from interacting with the at least one photoluminescence material thereby improving an OFF state white appearance of the component of the light emitting device.
Valve sack comprising a filling device containing a valve formed by a corner folding and side flaps, the filling device with valve containing or consisting of at least two slips folded to a tube, which are, with respect to the filling direction, arranged concentrically within each other and the first, outer slip with respect to the filling direction has a backfolding and is shorter than the second, inner slip , whereby the filling device is inlaid in a bottom folding of a valve bottom.