mhurhangee/patent-ind-claim-en huggingface dataset:
A tool path generation method for generating a tool path (HP) for machining a workpiece , the method comprising the steps of: setting a first reference plane (RS 1 ) with respect to the workpiece , setting a second reference plane (RS 2 ) that is not parallel to the first reference plane (RS 1 ), with respect to the workpiece , interpolating, based on the first reference plane (RS 1 ) and the second reference plane (RS 2 ), a plurality of third reference planes (RS 3 ) that are not parallel to each other, between the first reference plane (RS 1 ) and the second reference plane (RS 2 ), generating, with respect to each of the plurality of third reference planes (RS 3 ), a partial tool path (TPi) for machining the workpiece , based on the corresponding third reference plane (RS 3 ), and generating a tool path (HP) by sequentially connecting the partial tool paths (TPi) of the plurality of third reference planes (RS 3 ). setting a first reference plane (RS 1 ) with respect to the workpiece , setting a second reference plane (RS 2 ) that is not parallel to the first reference plane (RS 1 ), with respect to the workpiece , interpolating, based on the first reference plane (RS 1 ) and the second reference plane (RS 2 ), a plurality of third reference planes (RS 3 ) that are not parallel to each other, between the first reference plane (RS 1 ) and the second reference plane (RS 2 ), generating, with respect to each of the plurality of third reference planes (RS 3 ), a partial tool path (TPi) for machining the workpiece , based on the corresponding third reference plane (RS 3 ), and generating a tool path (HP) by sequentially connecting the partial tool paths (TPi) of the plurality of third reference planes (RS 3 ).
A confectionery having a grape-like mouthfeel, the confectionery comprising: a solidified gel composition; and a collagen casing having a film thickness of 5 to 100 μm, and coating the solidified gel composition, wherein the solidified gel composition contains a gum, a gelatin, and glycerin, content of the gum is in a range of 1.5 to 5 wt.%, content of the gelatin is in a range of 0.1 to 2.5 wt.%, content of the glycerin is in a range of 3 to 15 wt.%, and the solidified gel composition has a dynamic viscoelastic pattern, in which a loss tangent value at an angular frequency of 63.1 rad/S decreases by 34 to 83% relative to a loss tangent value at an angular frequency of 3.98 rad/S. a solidified gel composition; and a collagen casing having a film thickness of 5 to 100 μm, and coating the solidified gel composition, wherein the solidified gel composition contains a gum, a gelatin, and glycerin, content of the gum is in a range of 1.5 to 5 wt.%, content of the gelatin is in a range of 0.1 to 2.5 wt.%, content of the glycerin is in a range of 3 to 15 wt.%, and the solidified gel composition has a dynamic viscoelastic pattern, in which a loss tangent value at an angular frequency of 63.1 rad/S decreases by 34 to 83% relative to a loss tangent value at an angular frequency of 3.98 rad/S.
A method for displaying graphic elements on a digital map based on application data generated or received by an application executing on a client computing device, the method comprising: sending a mapping data request from the client computing device via a network connection, the mapping data request including a geographic location and a request time; receiving, in response to the mapping data request, mapping data corresponding to the geographic location, wherein the mapping data is in a vector format and includes a plurality of graphic elements that, when rendered, depict a plurality of respective map features at the geographic location; retrieving application data generated or received by an application executing on the client computing device, wherein the application data includes an application data time and an application data location, and the geographic location corresponds to the application data location; determining a difference between the application data time and the request time; modifying the received mapping data, including determining which of the plurality of map features to display based on the retrieved application data and the difference between the application data time and the request time; and displaying the modified mapping data on the client computing device. sending a mapping data request from the client computing device via a network connection, the mapping data request including a geographic location and a request time; receiving, in response to the mapping data request, mapping data corresponding to the geographic location, wherein the mapping data is in a vector format and includes a plurality of graphic elements that, when rendered, depict a plurality of respective map features at the geographic location; retrieving application data generated or received by an application executing on the client computing device, wherein the application data includes an application data time and an application data location, and the geographic location corresponds to the application data location; determining a difference between the application data time and the request time; modifying the received mapping data, including determining which of the plurality of map features to display based on the retrieved application data and the difference between the application data time and the request time; and displaying the modified mapping data on the client computing device.
A method, at a virtual interface card, comprising: associating a first virtual storage controller with a first host, wherein the first virtual storage controller uses a first transport protocol; receiving a first input/output, I/O, request from the first virtual storage controller using the first transport protocol, the first I/O request directed at a storage device; determining a second transport protocol used by the storage device; converting the first I/O request from a format according to the first transport protocol to a format according to the second transport protocol; storing the first I/O request from the first virtual storage controller in a request queue; receiving a second I/O request from a second virtual storage controller associated with a second host using the first transport protocol; converting the second I/O request from the format according to the first transport protocol to the format according to the second transport protocol; storing the second I/O request from the second virtual storage controller in the request queue; and transmitting the first I/O request and the second I/O request from the request queue to the storage device. associating a first virtual storage controller with a first host, wherein the first virtual storage controller uses a first transport protocol; receiving a first input/output, I/O, request from the first virtual storage controller using the first transport protocol, the first I/O request directed at a storage device; determining a second transport protocol used by the storage device; converting the first I/O request from a format according to the first transport protocol to a format according to the second transport protocol; storing the first I/O request from the first virtual storage controller in a request queue; receiving a second I/O request from a second virtual storage controller associated with a second host using the first transport protocol; converting the second I/O request from the format according to the first transport protocol to the format according to the second transport protocol; storing the second I/O request from the second virtual storage controller in the request queue; and transmitting the first I/O request and the second I/O request from the request queue to the storage device.
A method for channel selection, comprising: detecting , by a first network node, at least a second network node; determining , by the first network node, a primary channel of the second network node and a set of channel bonding configurations supported by the second network node, wherein the set of channel bonding configurations defines one or more configurations for combining the primary channel with auxiliary channels; determining , by the first network node, channel utilisation factors of the second network node for a set of frequency channels by using the set of channel bonding configurations; and characterized by selecting , by the first network node, a primary channel on the basis of the channel utilisation factors by forming frequency channel groups from the set of frequency channels such that each frequency channel group has a determined bandwidth; selecting , amongst the channel utilisation factors of each frequency channel group, the channel utilisation factor associated with the highest channel utilisation to represent the frequency channel group; and selecting , as the primary channel, a frequency channel of a frequency channel group having a channel utilisation factor associated with the lowest channel utilisation amongst the frequency channel groups. detecting , by a first network node, at least a second network node; determining , by the first network node, a primary channel of the second network node and a set of channel bonding configurations supported by the second network node, wherein the set of channel bonding configurations defines one or more configurations for combining the primary channel with auxiliary channels; determining , by the first network node, channel utilisation factors of the second network node for a set of frequency channels by using the set of channel bonding configurations; and characterized by selecting , by the first network node, a primary channel on the basis of the channel utilisation factors by forming frequency channel groups from the set of frequency channels such that each frequency channel group has a determined bandwidth; selecting , amongst the channel utilisation factors of each frequency channel group, the channel utilisation factor associated with the highest channel utilisation to represent the frequency channel group; and selecting , as the primary channel, a frequency channel of a frequency channel group having a channel utilisation factor associated with the lowest channel utilisation amongst the frequency channel groups. selecting , by the first network node, a primary channel on the basis of the channel utilisation factors by forming frequency channel groups from the set of frequency channels such that each frequency channel group has a determined bandwidth; selecting , amongst the channel utilisation factors of each frequency channel group, the channel utilisation factor associated with the highest channel utilisation to represent the frequency channel group; and selecting , as the primary channel, a frequency channel of a frequency channel group having a channel utilisation factor associated with the lowest channel utilisation amongst the frequency channel groups.
A transfer coupling comprising a static component and a rotatable component arranged in co-axial alignment, characterized in that each of the static and the rotatable components has a circumferential wall comprised substantially of a porous material having pores configured and arranged, in use, to homogenise a flow area for a fluid being transferred through the pores and thereby create a homogenous volume flow.
A method of optimizing acoustic transducer performance, the method comprising: mechanically coupling an acoustic transducer to a fluid barrier , including temporarily coupling the acoustic transducer to the fluid barrier with one or more shims between the acoustic transducer and the fluid barrier; calibrating the acoustic transducer by varying the one or more shims or combinations thereof and measuring responses of the acoustic transducer as a function of drive frequency of the acoustic transducer to determine an optimum shim combination and one or more optimum drive frequencies, wherein the one or more optimum drive frequencies are optimized for acoustic power transmission through the fluid barrier and into a fluid with the acoustic transducer coupled to the fluid barrier; and storing the one or more optimum drive frequencies for use in operating the acoustic transducer. mechanically coupling an acoustic transducer to a fluid barrier , including temporarily coupling the acoustic transducer to the fluid barrier with one or more shims between the acoustic transducer and the fluid barrier; calibrating the acoustic transducer by varying the one or more shims or combinations thereof and measuring responses of the acoustic transducer as a function of drive frequency of the acoustic transducer to determine an optimum shim combination and one or more optimum drive frequencies, wherein the one or more optimum drive frequencies are optimized for acoustic power transmission through the fluid barrier and into a fluid with the acoustic transducer coupled to the fluid barrier; and storing the one or more optimum drive frequencies for use in operating the acoustic transducer.
A cassette comprising: a) biological tissue mimicking a hernia, characterised in that it further comprises b) a plate to which the tissue is adhered, wherein the plate is adapted to be connected to a grounding means that electrically grounds the biological tissue to facilitate electrocautery, and to affix the tissue into a simulated anatomic framework that mirrors the human abdomen, wherein the tissue is porcine tissue, and wherein the tissue comprises a section of a pork belly. a) biological tissue mimicking a hernia, characterised in that it further comprises b) a plate to which the tissue is adhered,
Wing for a window or a door with a frame profile with a pivotable handle element comprising an inner rose with an abutment surface on which projections are arranged, wherein a bearing flange is pivotably mounted on the inner rose , to which bearing flange the handle element is fixed in a pivotable manner, wherein the frame profile comprises a cutout in which a bowl-shaped holding element for fixing the inner rose , which is inserted into the holding element , is held non-rotatably with an exterior surface , wherein the abutment surface and/or the projections are inserted non-rotatably with an interior surface of the holding element into the holding element , and wherein the cutout comprises a shape deviating from a circle-shape.
A wash-down toilet comprising: a bowl having a sump ; a passageway having an inlet , an outlet provided at a height above the inlet , and a weir , the inlet being in fluid communication with the sump ; and a trapway including a body extending between an inlet and an outlet of the trapway wherein the inlet of the trapway is in fluid communication with the outlet of the passageway , and the outlet of the trapway is configured to be in fluid communication with a soil pipe , characterized in that : the trapway includes a first vent and a second vent , one of the first and second vents is configured as a one-way vent that allows fluid, such as air, to enter the body portion of the trapway from the first vent , and the second vent is configured as a one-way vent that allows gases to exit the body portion into the second vent , said first vent comprises a valve to supply air from an air supply to the trapway to prevent siphoning of the toilet and to prevent the fluid flowing through the trapway from entering the first vent from the trapway , and said second vent comprises a valve , said valve enabling gases to escape from the body portion and preventing fluid from entering the second vent from the body of the trapway . a bowl having a sump ; a passageway having an inlet , an outlet provided at a height above the inlet , and a weir , the inlet being in fluid communication with the sump ; and a trapway including a body extending between an inlet and an outlet of the trapway wherein the inlet of the trapway is in fluid communication with the outlet of the passageway , and the outlet of the trapway is configured to be in fluid communication with a soil pipe , characterized in that : the trapway includes a first vent and a second vent , one of the first and second vents is configured as a one-way vent that allows fluid, such as air, to enter the body portion of the trapway from the first vent , and the second vent is configured as a one-way vent that allows gases to exit the body portion into the second vent , said first vent comprises a valve to supply air from an air supply to the trapway to prevent siphoning of the toilet and to prevent the fluid flowing through the trapway from entering the first vent from the trapway , and said second vent comprises a valve , said valve enabling gases to escape from the body portion and preventing fluid from entering the second vent from the body of the trapway .
An amplifier comprising: a power stage configured to generate first and second PWM signals (pwmp, pwwmm); an integration stage comprising input nodes configured to receive an input differential analog signal, wherein the integration stage is configured to generate an output differential analog signal in response to the PWM signals and the input differential analog signal; and an active compensation circuit configured to provide a compensation signal (comp) to the integration stage to reduce disturbances at the input nodes associated with the PWM signals switching between a common mode and a differential mode; characterized in that the compensation signal comprises: a low voltage when the PWM signals are in a first common mode configuration when the PWM signals are both high; a high voltage when the PWM signals are in a second common mode configuration when the PWM signals are both low; and a floating intermediate voltage when the PWM signals are in a differential mode configuration such that the voltage at the input nodes settles quickly at a steady state. a power stage configured to generate first and second PWM signals (pwmp, pwwmm); an integration stage comprising input nodes configured to receive an input differential analog signal, wherein the integration stage is configured to generate an output differential analog signal in response to the PWM signals and the input differential analog signal; and an active compensation circuit configured to provide a compensation signal (comp) to the integration stage to reduce disturbances at the input nodes associated with the PWM signals switching between a common mode and a differential mode; characterized in that the compensation signal comprises: a low voltage when the PWM signals are in a first common mode configuration when the PWM signals are both high; a high voltage when the PWM signals are in a second common mode configuration when the PWM signals are both low; and a floating intermediate voltage when the PWM signals are in a differential mode configuration such that the voltage at the input nodes settles quickly at a steady state.
A dispenser for sheet products, comprising: a housing having a space inside for accommodating a stack (S) of sheet products, wherein the housing includes a dispensing opening for dispensing a sheet product from the front of the stack (S); an electronic controller, the controller being configured to receive a pull-out signal indicating the removal of a product from the front of the stack (S) through the dispensing opening and, upon receiving said pull-out signal, to send out a drive signal to transfer a number of one or more sheet products from the front of the stack (S) into a presentation position in which a respective first portion of each of the one or more sheet products is advanced by a transfer device through the dispensing opening , and a pull-out detector for detecting the removal of a product from the front of the stack (S) through the dispensing opening and for providing the pull-out signal to the controller, wherein the pull-out detector includes a detection element which is supported in the dispenser housing so as to be movable and in contact with a second portion of the front-most product in the stack (S), so as to be set in motion upon the removal of a product from the front of the stack (S) through the dispensing opening , wherein the dispenser further comprises a stack retainer for retaining second portions of the one or more sheet products within the dispenser in the presentation position of the sheet product(s), wherein the detection element is supported by the stack retainer . a housing having a space inside for accommodating a stack (S) of sheet products, wherein the housing includes a dispensing opening for dispensing a sheet product from the front of the stack (S); an electronic controller, the controller being configured to receive a pull-out signal indicating the removal of a product from the front of the stack (S) through the dispensing opening and, upon receiving said pull-out signal, to send out a drive signal to transfer a number of one or more sheet products from the front of the stack (S) into a presentation position in which a respective first portion of each of the one or more sheet products is advanced by a transfer device through the dispensing opening , and a pull-out detector for detecting the removal of a product from the front of the stack (S) through the dispensing opening and for providing the pull-out signal to the controller, wherein the pull-out detector includes a detection element which is supported in the dispenser housing so as to be movable and in contact with a second portion of the front-most product in the stack (S), so as to be set in motion upon the removal of a product from the front of the stack (S) through the dispensing opening , wherein the dispenser further comprises a stack retainer for retaining second portions of the one or more sheet products within the dispenser in the presentation position of the sheet product(s), wherein the detection element is supported by the stack retainer .
A cooling, air-conditioning or heating system for a building comprising a circuit for modifying the temperature of said building and a hot water heating circuit equipped with a hot water tank , said system being based on the principle of the heat pump using air as outside source and including an external heat exchange unit provided with an evaporator and an internal unit having a condenser and intended to heat a secondary fluid alternatively circulating in the temperature modification circuit and the hot water heating circuit where it ensures the heating of a tertiary fluid supplying the tank , through an exchanger thermally connecting the secondary and tertiary fluids, characterized in that it comprises an automatic control device configured, during deicing operations of the evaporator done by a cycle inversion of the external unit , to stop the circulation of the secondary fluid in the temperature modification circuit , and to redirect said secondary fluid toward the exchanger so as to keep the secondary fluid at a certain temperature using a withdrawal of the heat energy necessary for said cycle in the hot water tank via the condenser of the internal unit.
A composition comprising an isolated polypeptide having at least 80% identity to SEQ_ID NO: 1 or a biologically active fragment thereof, wherein the isolated polypeptide or the biologically active fragment thereof, exhibits polymerase activity and an improvement relative to a reference polymerase of SEQ ID NO:1 and/or SEQ ID NO:34, in one or more properties selected from thermostability and/or a sequencing property selected from read length, accuracy, strand bias, systematic error, and total sequencing throughput when the polypeptide is used in an emulsion PCR template amplification step of a sequencing workflow, and wherein the isolated polypeptide or the biologically active fragment thereof includes the amino acid substitution E397V.