mhurhangee/patent-ind-claim-en huggingface dataset:
Method for receiving an input on a touch-sensitive panel , wherein the panel is designed to determine the location of a touch of the panel by the finger of a user, wherein the touch-sensitive panel comprises a tactile threshold , wherein the threshold is arranged such that at least one area of the touch-sensitive panel lies on each of both its sides and wherein the method comprises: detecting a movement of the finger of the user on the touch-sensitive panel that crosses the threshold in a first portion of the threshold; activating a first function in response to the detection that the threshold has been crossed in the first portion; detecting a movement of a finger on the touch-sensitive panel that crosses the threshold in a second portion of the threshold; activating a second function in response to the detection that the threshold has been crossed in the second portion. wherein the panel is designed to determine the location of a touch of the panel by the finger of a user, wherein the touch-sensitive panel comprises a tactile threshold , wherein the threshold is arranged such that at least one area of the touch-sensitive panel lies on each of both its sides and wherein the method comprises: detecting a movement of the finger of the user on the touch-sensitive panel that crosses the threshold in a first portion of the threshold; activating a first function in response to the detection that the threshold has been crossed in the first portion; detecting a movement of a finger on the touch-sensitive panel that crosses the threshold in a second portion of the threshold; activating a second function in response to the detection that the threshold has been crossed in the second portion. detecting a movement of the finger of the user on the touch-sensitive panel that crosses the threshold in a first portion of the threshold; activating a first function in response to the detection that the threshold has been crossed in the first portion; detecting a movement of a finger on the touch-sensitive panel that crosses the threshold in a second portion of the threshold; activating a second function in response to the detection that the threshold has been crossed in the second portion.
Rubber composition based on at least one diene elastomer, a reinforcing filler and a 1,3-dipolar compound comprising an epoxide group, the epoxide group being a 3-membered ether ring in which a first member is a carbon atom exhibiting a connection to the dipole of the 1,3-dipolar compound and a second member is a tertiary or quaternary carbon.
A lubricating oil composition, comprising a) 50 to 92 wt. % of a base oil, based on the total weight of the lubricating oil composition: b) a dihydrocarbyl dithiophosphate metal salt antiwear compound in an amount sufficient to provide from 100 to 1000 ppm by weight phosphorus to the lubricating oil composition, based on a total weight of the lubricant composition, and c) from 0.1 to 2.0 wt.% based on a total weight of the lubricating oil composition of a heat bodied vegetable oil, different from the base oil. a) 50 to 92 wt. % of a base oil, based on the total weight of the lubricating oil composition: b) a dihydrocarbyl dithiophosphate metal salt antiwear compound in an amount sufficient to provide from 100 to 1000 ppm by weight phosphorus to the lubricating oil composition, based on a total weight of the lubricant composition, and c) from 0.1 to 2.0 wt.% based on a total weight of the lubricating oil composition of a heat bodied vegetable oil, different from the base oil.
Method for conversion of magnesium chloride into magnesium oxide and HCl, comprising the steps of: - subjecting a magnesium chloride solution to a drying step at a temperature of 100-160°C, which drying step forms a magnesium chloride compound comprising at least 50 wt.% of MgCl 2 .4H 2 O and comprising less than 40 wt.% of the total of magnesium chloride anhydrate, magnesium chloride monohydrate, and magnesium chloride dihydrate; - providing said solid magnesium chloride compound to a thermohydrolysis reactor, the reactor being at a temperature of at least 300°C but below 700°C; and, - withdrawing MgO from the thermohydrolysis reactor in solid form, and withdrawing an HCl containing gas stream from the thermohydrolysis reactor. - subjecting a magnesium chloride solution to a drying step at a temperature of 100-160°C, which drying step forms a magnesium chloride compound comprising at least 50 wt.% of MgCl 2 .4H 2 O and comprising less than 40 wt.% of the total of magnesium chloride anhydrate, magnesium chloride monohydrate, and magnesium chloride dihydrate; - providing said solid magnesium chloride compound to a thermohydrolysis reactor, the reactor being at a temperature of at least 300°C but below 700°C; and, - withdrawing MgO from the thermohydrolysis reactor in solid form, and withdrawing an HCl containing gas stream from the thermohydrolysis reactor.
A dual-threaded screw structure having two kinds of threads formed on a shank , the two kinds of threads comprising: a first thread (S1) consisting of one thread or more threads of a kind selected from a metric thread, a Whitworth thread, a unified thread, a trapezoidal thread, a pipe thread, a round thread, a ball thread and an angular thread, and a second thread (S2) having a lead larger than the first thread (S1); wherein a root diameter of the second thread (S2) is larger than an effective diameter (d) of the first thread (S1) and smaller than an outer diameter of the first thread (S1). a first thread (S1) consisting of one thread or more threads of a kind selected from a metric thread, a Whitworth thread, a unified thread, a trapezoidal thread, a pipe thread, a round thread, a ball thread and an angular thread, and a second thread (S2) having a lead larger than the first thread (S1); wherein a root diameter of the second thread (S2) is larger than an effective diameter (d) of the first thread (S1) and smaller than an outer diameter of the first thread (S1).
Two-part oil pan for an internal combustion engine, wherein the oil pan has a box section and a pan section , wherein the pan section forms a base of the oil pan and the box section forms a pan wall of the oil pan , wherein the box section and the pan section are sealingly connected to one another by first connecting means at an encircling rim with an encircling first sealing surface on the pan section and an encircling second sealing surface on the box section , wherein the pan section and the box section are additionally connected to one another by at least one second connecting means which is arranged within the rim and furthermore with a spacing (A) to said rim such that the second connecting means directly connects the base of the pan section to the box section , wherein the box section has at least one transverse strut which connects two mutually spaced-apart regions of the pan wall to one another, wherein the pan section and the box section are connected to one another at the transverse strut by the second connecting means .
Filter media comprising a microorganism-killing membrane, wherein a first spunbonded nonwoven polymeric fabric layer is thermally bonded to a first side of a microorganism-killing membrane that comprises electrospun nanofiber fabrics loaded with biocidal agents; a first side of a second spunbonded nonwoven polymeric fabric layer is bonded to a second side of the microorganism-killing membrane by either electrospinning the microorganism-killing membrane onto the second spunbonded nonwoven polymeric fabric or by thermally bonding the microorganism-killing membrane to the second spunbonded nonwoven polymeric fabric; a first side of a pathogen-retaining filter medium is thermally laminated to a second side of the second spunbonded nonwoven polymeric fabric layer; and a third spunbonded nonwoven polymeric fabric layer thermally bonded to a second side of the pathogen-retaining filter medium; and wherein said filter media does not contain an adhesive layer. a first spunbonded nonwoven polymeric fabric layer is thermally bonded to a first side of a microorganism-killing membrane that comprises electrospun nanofiber fabrics loaded with biocidal agents; a first side of a second spunbonded nonwoven polymeric fabric layer is bonded to a second side of the microorganism-killing membrane by either electrospinning the microorganism-killing membrane onto the second spunbonded nonwoven polymeric fabric or by thermally bonding the microorganism-killing membrane to the second spunbonded nonwoven polymeric fabric; a first side of a pathogen-retaining filter medium is thermally laminated to a second side of the second spunbonded nonwoven polymeric fabric layer; and a third spunbonded nonwoven polymeric fabric layer thermally bonded to a second side of the pathogen-retaining filter medium; and wherein said filter media does not contain an adhesive layer.
A header for an agricultural harvester , the header including a header frame and a combination flex and rigid control system , the header being configured to operate in either a floating flex mode configuration, in which the header more or less floats over the field surface, or in a fixed rigid mode configuration, with the header more or less rigid across the width of the machine and at a fixed orientation relative to the ground surface, said combination flex and rigid control system having a controller , and - at least one sensor having a communication link to the controller ; and - a flex arm , pivotally connected to the header frame , extending along a bottom of the header and connected to a first one of the at least one sensor for acquiring and conveying ground proximity information during flex mode operation; and - an elongated feeler arm , pivotally connected to the flex arm , extending angularly away from the flex arm below the flex arm and characterized in that the elongated feeler arm is connected to the first one of the at least one sensor for acquiring and conveying ground proximity information during rigid mode operation. - at least one sensor having a communication link to the controller ; and - a flex arm , pivotally connected to the header frame , extending along a bottom of the header and connected to a first one of the at least one sensor for acquiring and conveying ground proximity information during flex mode operation; and - an elongated feeler arm , pivotally connected to the flex arm , extending angularly away from the flex arm below the flex arm and
A method for compensating for transients caused by load modulation by adjusting pulse shapes, the method comprising: modulating, by a transmitter device, a radio frequency (RF) carrier signal using load modulation; detecting, by the transmitter device, for the modulated RF carrier signal, a particular symbol pattern for a first symbol that precedes a second symbol that does not use load modulation, wherein the first symbol includes a series of pulses located at a second half of the first symbol, and wherein the second symbol is represented by an unmodulated symbol period which uses the lack of modulation to convey data, the unmodulated symbol period identifying the end of a communication; and adjusting, in response to the detecting, a pulse shape of the first symbol to mitigate the transients in the second symbol. modulating, by a transmitter device, a radio frequency (RF) carrier signal using load modulation; detecting, by the transmitter device, for the modulated RF carrier signal, a particular symbol pattern for a first symbol that precedes a second symbol that does not use load modulation, wherein the first symbol includes a series of pulses located at a second half of the first symbol, and wherein the second symbol is represented by an unmodulated symbol period which uses the lack of modulation to convey data, the unmodulated symbol period identifying the end of a communication; and adjusting, in response to the detecting, a pulse shape of the first symbol to mitigate the transients in the second symbol.
A hydraulically driven torque tool having an apparatus for tightening or loosening threaded fasteners including an internal energy storage assembly for automatic piston return, wherein the internal energy storage assembly operates by a pneumatic fluid which compresses during an advance stroke of a piston assembly of the tool and expands during a retract stroke of the piston assembly of the tool , characterised in that the internal energy storage assembly operates by a pneumatic fluid and a spring which compresses during an advance stroke of a piston assembly of the tool and expands during a retract stroke of the piston assembly of the tool. wherein the internal energy storage assembly operates by a pneumatic fluid which compresses during an advance stroke of a piston assembly of the tool and expands during a retract stroke of the piston assembly of the tool , characterised in that the internal energy storage assembly operates by a pneumatic fluid and a spring which compresses during an advance stroke of a piston assembly of the tool and expands during a retract stroke of the piston assembly of the tool.
An article, comprising: a multi-layer wall structure including an embedded sensor, the multi-layer wall structure and the sensor bonded together, wherein the article is configured for use in a gas turbine engine, and, when the article is in use, at least one layer of the multi-layer wall structure covers the sensor and protects the sensor from exposure to a core flow path of the gas turbine engine.
An elevator system comprising: a car ; a hoist motor for elevating and lowering the car ; a brake for limiting car movement; an input device for selecting a destination for a run; and a controller for receiving a command from the input device and for controlling operation of the hoist motor and the brake , wherein the controller has a loss reduction mode wherein the controller selects a velocity profile for the run that varies according to car load, run direction, and run distance to reduce a combined set of energy losses for the run; wherein the controller further has a normal mode in which a normal velocity profile for the run has a combined set of energy losses greater than that of the velocity profile selected in the loss reduction mode; and characterized in that a portion of the velocity profile selected in the loss reduction mode has a greater jerk value at a beginning or end of the run than a corresponding portion of the normal velocity profile selected in the normal mode for the run. a car ; a hoist motor for elevating and lowering the car ; a brake for limiting car movement; an input device for selecting a destination for a run; and a controller for receiving a command from the input device and for controlling operation of the hoist motor and the brake , wherein the controller has a loss reduction mode wherein the controller selects a velocity profile for the run that varies according to car load, run direction, and run distance to reduce a combined set of energy losses for the run; wherein the controller further has a normal mode in which a normal velocity profile for the run has a combined set of energy losses greater than that of the velocity profile selected in the loss reduction mode; and characterized in that a portion of the velocity profile selected in the loss reduction mode has a greater jerk value at a beginning or end of the run than a corresponding portion of the normal velocity profile selected in the normal mode for the run.
A method implemented by a network device in a network for monitoring a segment of the network without direct access to an internal configuration or state of the segment, the method comprising: receiving a request to perform a network function validation task on a monitoring zone within the network, the monitoring zone including a subset of network devices of the network, wherein the monitoring zone has an ingress data path that carries ingress traffic into the monitoring zone and an egress data path that carries egress traffic out of the monitoring zone; configuring the network to mirror the ingress traffic or the egress traffic to a configurable probe in the network; obtaining an indication of an expected traffic processing behavior of a network function implemented in the monitoring zone; configuring the configurable probe to install a network function validation task that validates whether the mirrored ingress traffic of the monitoring zone and the mirrored egress traffic of the monitoring zone are consistent with the expected traffic processing behavior of the network function; configuring the configurable probe to perform the network function validation task on the monitoring zone, wherein the configurable probe is configured to perform the network function validation task based on analysis of the mirrored ingress traffic or the mirrored egress traffic; and receiving a result of the network function validation task from the configurable probe. receiving a request to perform a network function validation task on a monitoring zone within the network, the monitoring zone including a subset of network devices of the network, wherein the monitoring zone has an ingress data path that carries ingress traffic into the monitoring zone and an egress data path that carries egress traffic out of the monitoring zone; configuring the network to mirror the ingress traffic or the egress traffic to a configurable probe in the network; obtaining an indication of an expected traffic processing behavior of a network function implemented in the monitoring zone; configuring the configurable probe to install a network function validation task that validates whether the mirrored ingress traffic of the monitoring zone and the mirrored egress traffic of the monitoring zone are consistent with the expected traffic processing behavior of the network function; configuring the configurable probe to perform the network function validation task on the monitoring zone, wherein the configurable probe is configured to perform the network function validation task based on analysis of the mirrored ingress traffic or the mirrored egress traffic; and receiving a result of the network function validation task from the configurable probe.
Oral formulation selected between: (i) a solid form, as a compressible or a flowable powder that can be inserted in hard capsules, or (ii) a liquid aqueous suspension comprising: • one or more lipophilic and gastro-irritating active principles, • one or more lipophilic and unpleasantly tasting active principles, or • one or more lipophilic gastro-irritating and unpleasantly tasting active principles, dispersed in a self-emulsifying and gastro resistant fat matrix (A), which in turn comprises: - mono and diglycerides of fatty acids C12-C20, - an ascorbic acid ester with a fatty acid C 12-C20, wherein said one or more active principles are liquid or solid at room temperature and are dispersed in said self-emulsifying and gastro resistant fat matrix (A) with a process consisting of the following steps: a) dry mixing the mixture of mono and diglycerides of fatty acids C12-C20, the ascorbic acid ester with a fatty acid C12-C20 and the one or more active principles if they are solid, b) hot melting the mixture obtained in step a), c) adding the active principle to the molten mass in case said one or more active principles are liquid at room temperature. (i) a solid form, as a compressible or a flowable powder that can be inserted in hard capsules, or (ii) a liquid aqueous suspension • one or more lipophilic and gastro-irritating active principles, • one or more lipophilic and unpleasantly tasting active principles, or • one or more lipophilic gastro-irritating and unpleasantly tasting active principles, dispersed in a self-emulsifying and gastro resistant fat matrix (A), which in turn comprises: - mono and diglycerides of fatty acids C12-C20, - an ascorbic acid ester with a fatty acid C 12-C20, - mono and diglycerides of fatty acids C12-C20, - an ascorbic acid ester with a fatty acid C 12-C20, a) dry mixing the mixture of mono and diglycerides of fatty acids C12-C20, the ascorbic acid ester with a fatty acid C12-C20 and the one or more active principles if they are solid, b) hot melting the mixture obtained in step a), c) adding the active principle to the molten mass in case said one or more active principles are liquid at room temperature.
A method of signal processing of an input signal in a hearing device including a receiver , a microphone and an adaptive feedback canceller to provide acoustic feedback cancellation on the input signal, the input signal comprising sound picked up by the microphone , the method comprising: training a neural network to identify acoustic features in a plurality of example system inputs and predict target outputs for the plurality of example system inputs ; and using the trained neural network to predict an output for the input signal and to use the output to govern adaptive behavior of the adaptive feedback canceller . training a neural network to identify acoustic features in a plurality of example system inputs and predict target outputs for the plurality of example system inputs ; and using the trained neural network to predict an output for the input signal and to use the output to govern adaptive behavior of the adaptive feedback canceller .
A method for monitoring a dosing plant , the dosing plant comprising a collection duct , a first injection hose fluidly connected to the collection duct and a second injection hose fluidly connected to the collection duct , the first injection hose being provided with a first flow meter and the second injection hose being provided with a second flow meter , the monitoring method comprising the following steps: - (E1) establishment of a flow of a fluid along a monitoring route passing through the first injection hose , through the second injection hose and through at least one portion of the collection duct ; - (E2) collection of a first measurement value from the first flow meter and a second measurement value from the second flow meter when the flow is established; - (E3) determination of a difference between the first measurement value and the second measurement value ; - (E4) comparison of the difference with a dysfunction threshold value ; - (E5) generation of a warning signal if the difference is greater than the dysfunction threshold value . - (E1) establishment of a flow of a fluid along a monitoring route passing through the first injection hose , through the second injection hose and through at least one portion of the collection duct ; - (E2) collection of a first measurement value from the first flow meter and a second measurement value from the second flow meter when the flow is established; - (E3) determination of a difference between the first measurement value and the second measurement value ; - (E4) comparison of the difference with a dysfunction threshold value ; - (E5) generation of a warning signal if the difference is greater than the dysfunction threshold value .
A hydraulic system for a vehicle comprising: a first hydraulic fluid reservoir ; a braking system fluidically coupled to the first hydraulic fluid reservoir ; a second hydraulic fluid reservoir ; a suspension system fluidically coupled to the second hydraulic fluid reservoir ; characterized in that: a valve system selectively fluidically couples the braking system to the suspension system , and selectively couples a steering system of the hydraulic system to the second hydraulic fluid reservoir . a first hydraulic fluid reservoir ; a braking system fluidically coupled to the first hydraulic fluid reservoir ; a second hydraulic fluid reservoir ; a suspension system fluidically coupled to the second hydraulic fluid reservoir ;