mhurhangee/patent-ind-claim-en huggingface dataset:
Meter electronics for processing sensor signals for a multi-phase flow material in a Coriolis flowmeter , comprising: an interface for receiving a first sensor signal and a second sensor signal for the multi-phase flow material; and a processing system in communication with the interface , the processing system being configured to: receive the first sensor signal and the second sensor signal from the interface ; generate a first ninety degree phase shift from the first sensor signal and generate a second ninety degree phase shift from the second sensor signal ; compute a frequency from the first sensor signal and the first ninety degree phase shift ; compute a phase difference from the first sensor signal , the second sensor signal and one or more of the first ninety degree phase shift and the second ninety degree phase shift ; compute one or more of a mass flow rate , a density , or a volume flow rate for the multi-phase flow material using the frequency or both the frequency and the phase difference . an interface for receiving a first sensor signal and a second sensor signal for the multi-phase flow material; and a processing system in communication with the interface , the processing system being configured to: receive the first sensor signal and the second sensor signal from the interface ; generate a first ninety degree phase shift from the first sensor signal and generate a second ninety degree phase shift from the second sensor signal ; compute a frequency from the first sensor signal and the first ninety degree phase shift ; compute a phase difference from the first sensor signal , the second sensor signal and one or more of the first ninety receive the first sensor signal and the second sensor signal from the interface ; generate a first ninety degree phase shift from the first sensor signal and generate a second ninety degree phase shift from the second sensor signal ; compute a frequency from the first sensor signal and the first ninety degree phase shift ; compute a phase difference from the first sensor signal , the second sensor signal and one or more of the first ninety degree phase shift and the second ninety degree phase shift ; compute one or more of a mass flow rate , a density , or a volume flow rate for the multi-phase flow material using the frequency or both the frequency and the phase difference .
A can end for a two-piece container, comprising: a seamable can end having an upper surface, a lower surface, and a formed edge curl around its perimeter; a breachable seal positioned over an aperture in the can end; a heater affixed to the lower surface of the can end; and a consumer user interface attached to the upper surface of the can end; characterised in that the consumer user interface includes a cam that sequentially engages the heater to initiate an exothermic reaction and also sequentially engages the breachable seal to create a passageway through the can end. a seamable can end having an upper surface, a lower surface, and a formed edge curl around its perimeter; a breachable seal positioned over an aperture in the can end; a heater affixed to the lower surface of the can end; and a consumer user interface attached to the upper surface of the can end; characterised in that the consumer user interface includes a cam that sequentially engages the heater to initiate an exothermic reaction and also sequentially engages the breachable seal to create a passageway through the can end.
Semiconductor structure comprising at least: - a substrate , - a first layer comprising GaN and arranged on the substrate , - a stack composed of several second and third layers arranged alternately on each other, located between the substrate and the first layer , and such that the semiconductor of the second layers is Al X Ga (1-X) N with 0 ≤ X < 1 and the semiconductor of the third layers is GaN, and in which: - the material of the substrate comprises a lattice parameter different of that of GaN, - the ratio of Ga of the semiconductor of the second layers varies and increases from one second layer to the next along a direction from the substrate to the first layer , and - the thickness of each of the second and third layers is less than about 2 nm, characterized in that : - the ratio of Ga in the semiconductor of the second layer which is closest to the first layer is between about 0.6 and 0.1, and/or the ratio of Ga in the average composition of the set comprising the second layer which is closest to the first layer and the third layer which is closest to the first layer is higher than about 0.2, and - the ratios of Ga in the semiconductors within each of the second layers and of the third layers are constant. - a substrate , - a first layer comprising GaN and arranged on the substrate , - a stack composed of several second and third layers arranged alternately on each other, located between the substrate and the first layer , and such that the semiconductor of the second layers is Al X Ga (1-X) N with 0 ≤ X < 1 and the semiconductor of the third layers is GaN, - the material of the substrate comprises a lattice parameter different of that of GaN, - the ratio of Ga of the semiconductor of the second layers varies and increases from one second layer to the next along a direction from the substrate to the first layer , and - the thickness of each of the second and third layers is less than about 2 nm, - the ratio of Ga in the semiconductor of the second layer which is closest to the first layer is between about 0.6 and 0.1, and/or the ratio of Ga in the average composition of the set comprising the second layer which is closest to the first layer and the third layer which is closest to the first layer is higher than about 0.2, and - the ratios of Ga in the semiconductors within each of the second layers and of the third layers are constant.
An apparatus comprising means for: obtaining a set of alternative control parameters associated with an industrial automation device ; evaluating the set of alternative control parameters by simulating a digital twin associated with the industrial automation device with multiple combinations of inputs, while the digital twin is configured to use the set of alternative control parameters, wherein the multiple combinations of inputs comprise at least control inputs, which comprise commands for starting, stopping, accelerating, and decelerating rotation of an electric motor connected to the industrial automation device ; indicating whether or not the digital twin stays within a safe operating range based on the simulating; and applying the set of alternative control parameters to the industrial automation device . obtaining a set of alternative control parameters associated with an industrial automation device ; evaluating the set of alternative control parameters by simulating a digital twin associated with the industrial automation device with multiple combinations of inputs, while the digital twin is configured to use the set of alternative control parameters, wherein the multiple combinations of inputs comprise at least control inputs, which comprise commands for starting, stopping, accelerating, and decelerating rotation of an electric motor connected to the industrial automation device ; indicating whether or not the digital twin stays within a safe operating range based on the simulating; and applying the set of alternative control parameters to the industrial automation device .
System (56; 62) for forming a room cell (58 or 64), comprising at least two flexible arcuate room dividers , each comprising a vertical column , at least two room divider segments each having a vertical wall element and an upper crossmember , wherein the room divider segments are mounted so as to be rotatable via the respective upper crossmember about the column on a circular arc in such a way that the room divider segments can be brought from a first position, in which the wall elements are arranged radially next to one another, into a second position, in which the wall elements are arranged behind one another so as to extend around - where appropriate with a lateral offset and/or, where appropriate, in an overlapping manner; and a baseplate having at least two, preferably excentric, devices for the arrangement and, where appropriate, also fastening of the columns of the at least two room dividers .
A solar roof system , having - a roof surface comprising a predetermined number of solar panels , - at least two base support elements for retaining the roof surface , wherein each base support element has a main support which is bent in a bending region within a bending plane and is formed from a closed hollow profile, and which is bend in a bending region within a bending plane, wherein the bending planes of the main supports of the base support elements are arranged parallel to one another, - at least three framework elements - at least two foundation adapters associated with the base support elements for fastening the base support elements to a foundation , and - a support and sealing rail for retaining and for sealingly connecting the solar panels , the edges of which lie next to one another in parallel to the bending plane, and for guiding connection cables of the solar panels , characterized in that the main supports are all in one piece and identical in construction, wherein each of the main supports is bent in a bending region by less than 90 degrees and more than 60 degrees without kinks with a bending radius of at least 2 meters, and has at least one straight support leg adjoining the bending region and has at least one straight support leg adjoining the bending region , on which the roof surface is borne, and wherein the support legs being supported on a bend outside of the bending region are tensioned by means of the framework elements in the intended installation state of the solar roof system . - a roof surface comprising a predetermined number of solar panels , - at least two base support elements for retaining the roof surface , wherein each base support element has a main support which is bent in a bending region within a bending plane and is formed from a closed hollow profile, and which is bend in a bending region within a bending plane, wherein the bending planes of the main supports of the base support elements are arranged parallel to one another, - at least three framework elements - at least two foundation adapters associated with the base support elements for fastening the base support elements to a foundation , and - a support and sealing rail for retaining and for sealingly connecting the solar panels , the edges of which lie next to one another in parallel to the bending plane, and for guiding connection cables of the solar panels ,
A fluid pathway connection comprising: a piercing member and a sterile sleeve , wherein the piercing member is initially retained within the sterile sleeve , a drug container having a cap , a pierceable seal , a barrel , and a plunger seal , a fluid conduit , and a connection hub having an internal aperture therein, the piercing member and the fluid conduit being connected at opposite ends of the internal aperture of the connection hub , and the internal aperture having at least one of a smaller diameter than the fluid conduit to restrict the flow of a drug fluid passing there-through, and a circuitous or tortuous path within the connection hub to extend the fluid pathway. a piercing member and a sterile sleeve , wherein the piercing member is initially retained within the sterile sleeve , a drug container having a cap , a pierceable seal , a barrel , and a plunger seal , a fluid conduit , and a connection hub having an internal aperture therein, the piercing member and the fluid conduit being connected at opposite ends of the internal aperture of the connection hub , and the internal aperture having at least one of a smaller diameter than the fluid conduit to restrict the flow of a drug fluid passing there-through, and a circuitous or tortuous path within the connection hub to extend the fluid pathway. a smaller diameter than the fluid conduit to restrict the flow of a drug fluid passing there-through, and a circuitous or tortuous path within the connection hub to extend the fluid pathway.
A device for assessing the solidity of a material comprising: - an ancillary tool having opposite first and second ends , - an impactor suitable for striking the first end of the ancillary tool , - at least one sensor , and - a processing unit , wherein the ancillary tool is adapted for being placed between a material and the impactor , with its second end in contact with the material , and for transmitting the impact force generated by the impactor to the material , wherein the sensor is capable of measuring a quantity from among the impact force generated and the deformation of the impactor, and of supplying a measurement signal representing the variation in time of said quantity upon an impact, wherein the processing unit is adapted for calculating, from the measurement signal, an indicator (IN) representative of the solidity of the material , and wherein the indicator (IN) corresponds to the duration of a time window, the start of this time window being defined with respect to an instant (t1) corresponding to the first peak (P1) of maximum amplitude of the measurement signal, the device being characterized in that the end of said time window is defined with respect to an instant (t2) corresponding to the second peak of maximum amplitude (P2) of the measurement signal, and in that the second end of the ancillary tool is in the form of a point or blade. - an ancillary tool having opposite first and second ends , - an impactor suitable for striking the first end of the ancillary tool , - at least one sensor , and - a processing unit , wherein the ancillary tool is adapted for being placed between a material and the impactor , with its second end in contact with the material , and for transmitting the impact force generated by the impactor to the material , wherein the sensor is capable of measuring a quantity from among the impact force generated and the deformation of the impactor, and of supplying a measurement signal representing the variation in time of said quantity upon an impact, wherein the processing unit is adapted for calculating, from the measurement signal, an indicator (IN) representative of the solidity of the material , and wherein the indicator (IN) corresponds to the duration of a time window, the start of this time window being defined with respect to an instant (t1) corresponding to the first peak (P1) of maximum amplitude of the measurement signal, the device being characterized in that the end of said time window is defined with respect to an instant (t2) corresponding to the second peak of maximum amplitude (P2) of the measurement signal, and in that the second end of the ancillary tool is in the form of a point or blade.
An article of footwear, apparel or sporting equipment, or a component of footwear, apparel or sporting equipment (100; 130; 160; 400) comprising: an optical element (12A'-12M'; 112a-b; 136a-b'; 172a-b; 175a-d; 182; 185; 187a-e; 197; 200; 300; 410) disposed on a surface of the article or component, wherein the optical element includes at least a first section disposed on a first area of the article or component and a second section disposed on a second area of the article or component, wherein the first section of the optical element imparts a first structural color to the first area of the article or component, wherein the second section of the optical element imparts a second structural color to the second area of the article or component, and wherein a color parameter of the first structural color and the second structural color are different from each other when viewed from the same angle of observation of a viewer having 20/20 visual acuity and normal color vision from a distance of about 1 meter from the article; wherein the first section has a first number of layers (220, 240, 245; 320, 340, 345; 424A-D, 430) and the second section has a second number of layers (220, 240, 245; 320, 340, 345; 430, 444A-F), wherein the refractive index of adjacent layers in each section is different, wherein the first number of layers and the second number of layers differ by at least 5, and wherein at least one of the corresponding layers (424A-D, 430, 444A-D) is a continuous layer that extends over the first section and the second section of the optical element and has a different average thickness in the first section than the second section. an optical element (12A'-12M'; 112a-b; 136a-b'; 172a-b; 175a-d; 182; 185; 187a-e; 197; 200; 300; 410) disposed on a surface of the article or component, wherein the optical element includes at least a first section disposed on a first area of the article or component and a second section disposed on a second area of the article or component, wherein the first section of the optical element imparts a first structural color to the first area of the article or component, wherein the second section of the optical element imparts a second structural color to the second area of the article or component, and wherein a color parameter of the first structural color and the second structural color are different from each other when viewed from the same angle of observation of a viewer having 20/20 visual acuity and normal color vision from a distance of about 1 meter from the article; wherein the first section has a first number of layers (220, 240, 245; 320, 340, 345; 424A-D, 430) and the second section has a second number of layers (220, 240, 245; 320, 340, 345; 430, 444A-F), wherein the refractive index of adjacent layers in each section is different, wherein the first number of layers and the second number of layers differ by at least 5, and wherein at least one of the corresponding layers (424A-D, 430, 444A-D) is a continuous layer that extends over the first section and the second section of the optical element and has a different average thickness in the first section than the second section.
A surgical hand piece comprising: a shell having proximal and distal ends; a channel having an irrigation conduit for carrying irrigation fluid, the channel having proximal and distal ends, wherein an opening is provided at the distal end of the channel for allowing the irrigation fluid to exit the channel , the channel being coupled to the shell such that the proximal end of the channel is located at the proximal end of the shell and the distal end of the channel is located near the distal end of the shell , and wherein an opening in the shell is coextensive with the opening at the distal end of the channel , thereby permitting the irrigation fluid to travel through the channel and into the shell , a passage being provided in the shell for the irrigation fluid to travel therethrough and exit at the distal end of the shell ; characterised in that the hand piece further comprises a sensor housing comprising an irrigation path extending through the sensor housing, the sensor housing comprising a seal interface on one end of the sensor housing , the seal interface end of the sensor housing coupled to the proximal end of the channel such that the irrigation conduit of the channel is fluidly coupled to the irrigation path of the sensor housing. a shell having proximal and distal ends; a channel having an irrigation conduit for carrying irrigation fluid, the channel having proximal and distal ends, wherein an opening is provided at the distal end of the channel for allowing the irrigation fluid to exit the channel , the channel being coupled to the shell such that the proximal end of the channel is located at the proximal end of the shell and the distal end of the channel is located near the distal end of the shell , and wherein an opening in the shell is coextensive with the opening at the distal end of the channel , thereby permitting the irrigation fluid to travel through the channel and into the shell , a passage being provided in the shell for the irrigation fluid to travel therethrough and exit at the distal end of the shell ; characterised in that the hand piece further comprises a sensor housing comprising an irrigation path extending through the sensor housing, the sensor housing comprising a seal interface on one end of the sensor housing , the seal interface end of the sensor housing coupled to the proximal end of the channel such that the irrigation conduit of the channel is fluidly coupled to the irrigation path of the sensor housing.
An apparatus for controlling the timing of a function of a commercial vehicle in a cockpit , comprising: an operating unit for operating the function in the cockpit; and a screen for configuring the timing control for the function, and an operating element , arranged on the operating unit, that is designed to cause a user interface for configuring the timing control for the function to be displayed on the screen , wherein the operating element is designed to exclusively cause the user interface to be displayed, wherein the screen is designed to configure further functions of the commercial vehicle, wherein the apparatus further comprises a further operating unit for each of the further functions, each of the operating units comprising a respective operating element designed to cause a user interface for configuring the respective functions of the commercial vehicle to be displayed on the screen , and wherein the operating units and the screen are at a distance from one another. an operating unit for operating the function in the cockpit; and a screen for configuring the timing control for the function, and an operating element , arranged on the operating unit, that is designed to cause a user interface for configuring the timing control for the function to be displayed on the screen , wherein the operating element is designed to exclusively cause the user interface to be displayed, wherein the screen is designed to configure further functions of the commercial vehicle, wherein the apparatus further comprises a further operating unit for each of the further functions, each of the operating units comprising a respective operating element designed to cause a user interface for configuring the respective functions of the commercial vehicle to be displayed on the screen , and wherein the operating units and the screen are at a distance from one another.
A method for pickling steel sheets , said steel sheets being continuously dipped in a pickling bath , containing a pickling solution , said bath being connected to a treatment unit including a recirculation tank , circulation means and , a continuous entering flow of said solution being fed into an ultrafiltration device from the recirculation tank and two flows exits the ultrafiltration device, one filtered exiting flow being then fed back inside said recirculation tank and one unfiltered flow , said treatment unit including no storage tank.