mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method of processing data for use in additive manufacturing processes, the method comprising: receiving data representing a three dimensional object, the data comprising object property data indicative of at least one physical attribute of at least a portion of the three dimensional object; transforming the object property data into a plurality of device independent object property data objects, the object property data objects having a common data structure and each object property data object comprising a plurality of property values, wherein each value of the plurality of values is indicative of each of a predetermined set of object properties; and associating one of the device independent object property data objects with each of a plurality of locations within the object. receiving data representing a three dimensional object, the data comprising object property data indicative of at least one physical attribute of at least a portion of the three dimensional object; transforming the object property data into a plurality of device independent object property data objects, the object property data objects having a common data structure and each object property data object comprising a plurality of property values, wherein each value of the plurality of values is indicative of each of a predetermined set of object properties; and associating one of the device independent object property data objects with each of a plurality of locations within the object.
A method of at least partially forming an optical interface comprising an optical fiber and a ferrule , the method comprising: eccentrically positioning a portion of a core of the optical fiber in a bore of the ferrule , characterized in that an asymmetric cross-sectional region of the optical fiber being substantially disproportionate, uneven, irregular, or unbalanced about a lengthwise axis (B) of the optical fiber includes the portion of the core , and further includes an outer surface , the core of the optical fiber being located eccentrically with respect to the outer surface , the outer surface includes an inclined portion spaced outwardly from the portion of the core in a first direction, and the eccentrically positioning is comprised of there being contact between the inclined portion and the ferrule , so that a lengthwise axis (B) of the portion of the core is spaced apart from a lengthwise axis of the bore in a second direction, and the first and second directions extend substantially opposite from one another. an asymmetric cross-sectional region of the optical fiber being substantially disproportionate, uneven, irregular, or unbalanced about a lengthwise axis (B) of the optical fiber includes the portion of the core , and further includes an outer surface , the core of the optical fiber being located eccentrically with respect to the outer surface , the outer surface includes an inclined portion spaced outwardly from the portion of the core in a first direction, and the eccentrically positioning is comprised of there being contact between the inclined portion and the ferrule , so that a lengthwise axis (B) of the portion of the core is spaced apart from a lengthwise axis of the bore in a second direction, and the first and second directions extend substantially opposite from one another.
A matrix adhesive composition comprising: a) a silane end-capped polymeric mixture comprising a silane end-capped prepolymer urethane, wherein the silane end-capped prepolymer urethane is produced by combining a silane and a prepolymer urethane, wherein the prepolymer urethane comprises a slow-cure urethane prepolymer having a functionality (Fn) between about 2.5 and 2.55, an NCO content between about 15 to 18%, a viscosity between 3000 and 8000 mPa·s at 25°C, an appearance as brown liquid, and an equivalent weight between 250 and 270; a flexible binder urethane prepolymer having a functionality (Fn) of about 2.00, an NCO content between about 7 and 10%, a viscosity between 1500 and 3500 mPa·s at 25°C, an appearance as clear liquid, and an equivalent weight between 425 and 550; or a combination of both; wherein the slow-cure urethane prepolymer and the flexible binder urethane prepolymer are polyisocyantate prepolymers based on diphenylmethane diisocyanate (MDI); b) an aliphatic quencher; c) a reinforcing extender; and d) a thixotropic agent. a) a silane end-capped polymeric mixture comprising a silane end-capped prepolymer urethane, wherein the silane end-capped prepolymer urethane is produced by combining a silane and a prepolymer urethane, wherein the prepolymer urethane comprises a slow-cure urethane prepolymer having a functionality (Fn) between about 2.5 and 2.55, an NCO content between about 15 to 18%, a viscosity between 3000 and 8000 mPa·s at 25°C, an appearance as brown liquid, and an equivalent weight between 250 and 270; a flexible binder urethane prepolymer having a functionality (Fn) of about 2.00, an NCO content between about 7 and 10%, a viscosity between 1500 and 3500 mPa·s at 25°C, an appearance as clear liquid, and an equivalent weight between 425 and 550; or a combination of both; wherein the slow-cure urethane prepolymer and the flexible binder urethane prepolymer are polyisocyantate prepolymers based on diphenylmethane diisocyanate (MDI); b) an aliphatic quencher; c) a reinforcing extender; and d) a thixotropic agent.
Method for preparing a suspension of a hydrochloride of an organic amine, comprising the following steps: (i) initially charging at least one organic solvent in a reaction vessel to form a liquid level, (ii) adding hydrogen chloride, (iii) adding the organic amine, characterized in that the organic amine is added below the liquid level present in the reaction vessel and steps (ii) and (iii) are at least partly carried out simultaneously. (i) initially charging at least one organic solvent in a reaction vessel to form a liquid level, (ii) adding hydrogen chloride, (iii) adding the organic amine,
A computer program product for operating a wearable, continuous physiological monitoring system, the computer program product comprising computer executable code that, when executing on the wearable, continuous physiological monitoring system, performs the steps of: storing a window of time domain data for a physiological signal, the window including a series of samples of the physiological signal; detecting a first peak and a second peak in the physiological signal using a time domain process on the series of samples, wherein the time domain process includes a first state machine configured to sequentially process the series of samples and identify the first peak and the second peak in the series of samples; evaluating a quality of the time domain data in the window indicative of how well a time domain shape associated with a peak shape matches an expected peak shape for the physiological signal, wherein evaluating a quality of the time domain data includes identifying the peak shape by identifying a local minimum located between a first local maximum and a second local maximum with a second state machine ; locally refining a peak position of each of the first peak and the second peak , wherein locally refining the peak position includes interpolating a location of a maximum for a number of sequential samples within the time domain data having similar magnitudes; and when the quality exceeds a predetermined threshold, conditionally calculating a physiological interval for the window of time domain data wherein the physiological interval is based on a time between the first peak and the second peak and storing a value based on the quality as a quality flag for the window of time domain data. storing a window of time domain data for a physiological signal, the window including a series of samples of the physiological signal; detecting a first peak and a second peak in the physiological signal using a time domain process on the series of samples, wherein the time domain process includes a first state machine configured to sequentially process the series of samples and identify the first peak and the second peak in the series of samples; evaluating a quality of the time domain data in the window indicative of how well a time domain shape associated with a peak shape matches an expected peak shape for the physiological signal, wherein evaluating a quality of the time domain data includes identifying the peak shape by identifying a local minimum located between a first local maximum and a second local maximum with a second state machine ; locally refining a peak position of each of the first peak and the second peak , wherein locally refining the peak position includes interpolating a location of a maximum for a number of sequential samples within the time domain data having similar magnitudes; and when the quality exceeds a predetermined threshold, conditionally calculating a physiological interval for the window of time domain data wherein the physiological interval is based on a time between the first peak and the second peak and storing a value based on the quality as a quality flag for the window of time domain data.
Communication device called capacitive dongle intended to be used with a visualisation device having a capacitive touch-sensitive surface comprising a matrix of conductive rows and columns, the communication device being arranged on said capacitive touch-sensitive surface in operational use, the communication device operating in send mode and in receive mode, said communication device having at least: - means for sending periodic analogue signals, said signals being sent at at least one specific frequency called dongle frequency; - a ring-shaped flat conductive metal part connected to said sending means, said part intended to be placed on said capacitive touch-sensitive surface; - means for receiving the received signals originating from said conductive metal part; - means for analysing said digitised received signals; - means for storing the sent signals and the analysed signals; - a digital communication interface ; characterised in that the communication device has a suction cup device making it possible to hold the communication device in place on the capacitive touch-sensitive surface. - means for sending periodic analogue signals, said signals being sent at at least one specific frequency called dongle frequency; - a ring-shaped flat conductive metal part connected to said sending means, said part intended to be placed on said capacitive touch-sensitive surface; - means for receiving the received signals originating from said conductive metal part; - means for analysing said digitised received signals; - means for storing the sent signals and the analysed signals; - a digital communication interface ;
System comprising an optical device intended to be worn by a user and a calculation module , the optical device comprising a light sensor (302-a), the light sensor (302-a) being located in an internal side of the optical device and in a vicinity of a front part (F1) of the optical device , the light sensor (302-a) being configured to determine an amount of light that it receives, the calculation module being configured to determine an amount of backlight received by the optical device using the amount of light received by the light sensor (302-a). the optical device comprising a light sensor (302-a), the light sensor (302-a) being located in an internal side of the optical device and in a vicinity of a front part (F1) of the optical device , the light sensor (302-a) being configured to determine an amount of light that it receives, the calculation module being configured to determine an amount of backlight received by the optical device using the amount of light received by the light sensor (302-a).
A gas turbomachine having a combustion chamber , the combustion chamber comprising: - two walls which are inner wall and outer wall , respectively, - a chamber bottom comprising an upstream wall and a downstream wall extending between said inner and outer walls and comprising mounting openings for mounting fuel injection devices for injecting fuel through said openings, the downstream wall being sectorised , for support on the upstream wall , the downstream wall comprises: - at an outer periphery, an upstream facing annular flange , and, - at an inner periphery, an upstream facing annular flange , characterised in that the downstream wall bears under radial prestress on the upstream wall and the upstream wall is screwed with the inner wall and outer wall and comprises: - at an outer periphery, an upstream facing annular flange for attachment to an upstream end of the outer wall , and - at an inner periphery, an upstream facing annular flange for attachment to an upstream end of the inner wall . - two walls which are inner wall and outer wall , respectively, - a chamber bottom comprising an upstream wall and a downstream wall extending between said inner and outer walls and comprising mounting openings for mounting fuel injection devices for injecting fuel through said openings, the downstream wall being sectorised , for support on the upstream wall , the downstream wall comprises: - at an outer periphery, an upstream facing annular flange , and, - at an inner periphery, an upstream facing annular flange , - at an outer periphery, an upstream facing annular flange , and, - at an inner periphery, an upstream facing annular flange , characterised in that the downstream wall bears under radial prestress on the upstream wall and the upstream wall is screwed with the inner wall and outer wall and comprises: - at an outer periphery, an upstream facing annular flange for attachment to an upstream end of the outer wall , and - at an inner periphery, an upstream facing annular flange for attachment to an upstream end of the inner wall . - at an outer periphery, an upstream facing annular flange for attachment to an upstream end of the outer wall , and - at an inner periphery, an upstream facing annular flange for attachment to an upstream end of the inner wall .
Method for detecting an axle assignment of at least one first pressure controller (22.1) for a first brake cylinder, and of a second pressure controller (22.2) for a second brake cylinder of an electronically controlled brake system of a vehicle , wherein the first pressure controller (22.1) is assigned to a first axle (23.1), and the second pressure controller (22.2) is assigned to a second axle (23.2), and the first and second pressure controllers (22.1, 22.2) are structurally identical, characterized in that the method comprises the following steps: - detecting a time sequence of a first disturbance of the wheel speed of the vehicle during a driving operation for at least one first wheel (26.1) which is assigned to the first axle (23.1); - detecting a time sequence of a second disturbance of the wheel speed of the vehicle during the driving operation for at least one second wheel (26.2) which is assigned to the second axle (23.2); - comparing the time sequence of the first and second disturbance of the wheel speed with a reference sequence in a vehicle electronic module which is connected to the first and second pressure controllers (22.1, 22.2); - evaluating the comparison in the vehicle electronic module in order to determine a deviation from the reference sequence; and - assigning the deviation to a status message of the vehicle in such a way that when a deviation is determined, notification is sent of an incorrect installation arrangement of the pressure controllers (22.1, 22.2). - detecting a time sequence of a first disturbance of the wheel speed of the vehicle during a driving operation for at least one first wheel (26.1) which is assigned to the first axle (23.1); - detecting a time sequence of a second disturbance of the wheel speed of the vehicle during the driving operation for at least one second wheel (26.2) which is assigned to the second axle (23.2); - comparing the time sequence of the first and second disturbance of the wheel speed with a reference sequence in a vehicle electronic module which is connected to the first and second pressure controllers (22.1, 22.2); - evaluating the comparison in the vehicle electronic module in order to determine a deviation from the reference sequence; and - assigning the deviation to a status message of the vehicle in such a way that when a deviation is determined, notification is sent of an incorrect installation arrangement of the pressure controllers (22.1, 22.2).
A hinge structure applied to a folding electronic device, wherein the hinge structure comprises a housing and at least one first hinge , and the first hinge comprises: a trajectory limiting mechanism including a first hinge bracket fixedly connected to the housing , a first slider which comprises a first hollow chute , and a second slider which comprises a second hollow chute ; and a synchronization mechanism including a cylindrical gear set , a first guide gear , and a second guide gear , the first guide gear and the second guide gear including a gear end and a guide end respectively, the gear end of the first guide gear engaging with an end gear of the cylindrical gear set , the gear end of the second guide gear engaging with another end gear of the cylindrical gear set , the guide end of the first guide gear being in sliding fit with the first hollow chute , and the guide end of the second guide gear being in sliding fit with the second hollow chute , so as to drive the first slider and the second slider respectively to rotate with respect to the first hinge bracket . a trajectory limiting mechanism including a first hinge bracket fixedly connected to the housing , a first slider which comprises a first hollow chute , and a second slider which comprises a second hollow chute ; and a synchronization mechanism including a cylindrical gear set , a first guide gear , and a second guide gear , the first guide gear and the second guide gear including a gear end and a guide end respectively, the gear end of the first guide gear engaging with an end gear of the cylindrical gear set , the gear end of the second guide gear engaging with another end gear of the cylindrical gear set , the guide end of the first guide gear being in sliding fit with the first hollow chute , and the guide end of the second guide gear being in sliding fit with the second hollow chute , so as to drive the first slider and the second slider respectively to rotate with respect to the first hinge bracket .
A composite structure comprising: a composite structural member formed from a synthetic composite material; a sealant layer disposed on a surface of the composite structural member ; a first metallic layer disposed on the sealant layer ; and characterized by a second metallic layer disposed in or on a surface of the composite structural member , wherein the first metallic layer overlaps the second metallic layer ; and wherein the sealant layer is configured with an overlap of the second metallic layer . a composite structural member formed from a synthetic composite material; a sealant layer disposed on a surface of the composite structural member ; a first metallic layer disposed on the sealant layer ; and characterized by a second metallic layer disposed in or on a surface of the composite structural member , wherein the first metallic layer overlaps the second metallic layer ; and wherein the sealant layer is configured with an overlap of the second metallic layer .
A personal care appliance, comprising a handle and a head , wherein said handle is provided with an ON/OFF power button , a display device , a drive unit including a motor for driving a moveable tool element in the head via a drive transmitter, wherein said head is provided with at least one coupling means for coupling different types of tool elements with the drive transmitter, said tool elements comprising at least two of the following tool elements: a skincare unit, a long-hair cutting unit, a beard-trimming unit, a brush, and a short hair cutting unit, wherein at least one mode button is provided for changing operating parameters of said motor, wherein said at least one mode button is configured to indicate upon activation at least one of the aforementioned tool elements at the display device .
A bale transporter comprising a chassis extending between a forward end and a rearward end and supported on at least a pair of rotatably mounted ground engaging wheels spaced apart transversely relative to the direction of normal forward motion of the transporter, and a transfer means configured to pick up bales from the ground with the bales in the transfer means in an aligned state, characterised in that the chassis defines an elongated first bale carrier , an elongated second bale carrier is mounted on the chassis and is moveable between a first state adjacent the first bale carrier and a second state spaced apart upwardly above the first bale carrier , and the transfer means is further configured to transfer the bales in the aligned state onto a selected one of the first and second bale carriers .
A computer-implemented method to provide a data transfer mechanism for a multiple graphics processing unit, GPU, configuration of a graphics processor , the computer-implemented method comprises: monitoring cross tile memory accesses from a first GPU of the graphics processor , to another, second GPU of the graphics processor ; and determining, with a memory controller of the first GPU , whether frequent cross tile memory accesses occur from the first GPU to the second GPU ; sending a message from the memory controller to a graphics driver to initiate the data transfer mechanism when frequent cross tile memory accesses occur from the first GPU to the second GPU , receiving, with the graphics driver, the message from the memory controller of the first GPU ; providing, with the graphics driver, the data transfer mechanism in response to receiving the message, wherein the data transfer mechanism transfers or copies the data that is being accessed frequently by the first GPU to the local memory (2770-1, 2780-1) of the first GPU and to local memory (2770-2, 2780-2) of at least one other GPU ; and enabling split frame rendering with the first GPU handling rendering for a first portion of a display and the at least one other GPU handling rendering for a second different portion of the display using the transferred or copied the data. monitoring cross tile memory accesses from a first GPU of the graphics processor , to another, second GPU of the graphics processor ; and determining, with a memory controller of the first GPU , whether frequent cross tile memory accesses occur from the first GPU to the second GPU ; sending a message from the memory controller to a graphics driver to initiate the data transfer mechanism when frequent cross tile memory accesses occur from the first GPU to the second GPU , receiving, with the graphics driver, the message from the memory controller of the first GPU ; providing, with the graphics driver, the data transfer mechanism in response to receiving the message, wherein the data transfer mechanism transfers or copies the data that is being accessed frequently by the first GPU to the local memory (2770-1, 2780-1) of the first GPU and to local memory (2770-2, 2780-2) of at least one other GPU ; and enabling split frame rendering with the first GPU handling rendering for a first portion of a display and the at least one other GPU handling rendering for a second different portion of the display using the transferred or copied the data.