mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear having an upper including a knitted component that is formed of unitary knit construction, the knitted component including: a foot region extending through a forefoot region , a midfoot region , and a heel region of the article of footwear , the foot region including an instep area that extends between a medial side and a lateral side of the upper ; an ankle region forming a portion of the upper that extends above the foot region , the ankle region including an ankle cuff that defines a throat opening to a void within the upper for receiving a foot ; wherein the ankle cuff is formed of unitary knit construction with at least the instep area of the foot region and a portion of foot region disposed on the medial side and lateral side in the heel region ; wherein the ankle cuff further comprises at least one malleolus zone disposed on at least one of the medial side and the lateral side of the upper , the at least one malleolus zone including a plurality of indentations in an exterior surface of the ankle cuff ; and wherein the article of footwear is characterized in that the at least one malleolus zone including the plurality of indentations exhibits a stretch resistance that is less than a stretch resistance of the remaining portion of the ankle region wherein an arrangement of the plurality of indentations is associated with a geometric shape. a foot region extending through a forefoot region , a midfoot region , and a heel region of the article of footwear , the foot region including an instep area that extends between a medial side and a lateral side of the upper ; an ankle region forming a portion of the upper that extends above the foot region , the ankle region including an ankle cuff that defines a throat opening to a void within the upper for receiving a foot ; wherein the ankle cuff is formed of unitary knit construction with at least the instep area of the foot region and a portion of foot region disposed on the medial side and lateral side in the heel region ; wherein the ankle cuff further comprises at least one malleolus zone disposed on at least one of the medial side and the lateral side of the upper , the at least one malleolus zone including a plurality of indentations in an exterior surface of the ankle cuff ; and wherein the article of footwear is characterized in that the at least one malleolus zone including the plurality of indentations exhibits a stretch resistance that is less than a stretch resistance of the remaining portion of the ankle region wherein an arrangement of the plurality of indentations is associated with a geometric shape.
Method for measuring a quantity of liquid in a liquid-insulated electrical component comprising a main tank and an expansion tank fluidly connected with the main tank , the method comprising: measuring a first pressure (P 1 ) of the liquid at a first point in the main tank ; measuring a second pressure (P2) of the liquid at a second point in the main tank , the second point being at a height (H) above the first point; measuring a third pressure (P 3 ) of the liquid at a third point in the expansion tank , wherein the expansion tank comprises a breather ; and determining the quantity of liquid in the liquid-insulated electrical component based on the first pressure (P 1 ), the second pressure (P 2 ) and the third pressure (P 3 ). measuring a first pressure (P 1 ) of the liquid at a first point in the main tank ; measuring a second pressure (P2) of the liquid at a second point in the main tank , the second point being at a height (H) above the first point; measuring a third pressure (P 3 ) of the liquid at a third point in the expansion tank , wherein the expansion tank comprises a breather ; and determining the quantity of liquid in the liquid-insulated electrical component based on the first pressure (P 1 ), the second pressure (P 2 ) and the third pressure (P 3 ).
A computer-implemented method for determining a device type, the computer-implemented method comprising the steps of: receiving at least one data stream for one or more first devices (110 - 117) having an unknown device type connected to one or more local networks ; creating at least one functional group from behavioral data of second devices (110 - 117) having a known device type; creating a behavior profile for the at least one functional group; determining behavioral data from the at least one data stream for the one or more first devices (110 - 117); determining a similarity between the behavioral data of the one or more first devices (110 - 117) and the behavior profile of the at least one functional group; and in response to determining that the similarity exceeds a predetermined or configurable threshold, assigning a device type associated with the at least one functional group to the one or more first devices (110 - 117). receiving at least one data stream for one or more first devices (110 - 117) having an unknown device type connected to one or more local networks ; creating at least one functional group from behavioral data of second devices (110 - 117) having a known device type; creating a behavior profile for the at least one functional group; determining behavioral data from the at least one data stream for the one or more first devices (110 - 117); determining a similarity between the behavioral data of the one or more first devices (110 - 117) and the behavior profile of the at least one functional group; and in response to determining that the similarity exceeds a predetermined or configurable threshold, assigning a device type associated with the at least one functional group to the one or more first devices (110 - 117).
A phosphorylated ubiquitin protein comprising a phosphorylated serine residue at position 65.
A display device , comprising: a plurality of pixels (B, G, R); and a light shielding layer defining a plurality of openings; wherein one of the plurality of pixels is disposed in one of the plurality of openings and comprises: a color conversion layer ; a dielectric layer disposed on the color conversion layer, and a light filter layer disposed on the dielectric layer , wherein a refractive index of the dielectric layer is less than a refractive index of the color conversion layer, and characterised in that the light shielding layer contains fluorine elements or function groups with fluorine. a plurality of pixels (B, G, R); and a light shielding layer defining a plurality of openings; wherein one of the plurality of pixels is disposed in one of the plurality of openings and comprises: a color conversion layer ; a dielectric layer disposed on the color conversion layer, and a light filter layer disposed on the dielectric layer , wherein a refractive index of the dielectric layer is less than a refractive index of the color conversion layer, and characterised in that the light shielding layer contains fluorine elements or function groups with fluorine. a color conversion layer ; a dielectric layer disposed on the color conversion layer, and a light filter layer disposed on the dielectric layer , wherein a refractive index of the dielectric layer is less than a refractive index of the color conversion layer, and characterised in that the light shielding layer contains fluorine elements or function groups with fluorine.
A process of forming a plurality of hair anchors from a single elongated metal tube, comprising: forming at least two slits in an elongated direction of the elongated metal tube, each slit spanning prospective end portions of at least two hair anchors ; and severing the elongated metal tube at an intermediate location (B) along the at least two slits such that a first portion of each of the at least two slits is contained in one of the at least two hair anchors and a second portion of each of the at least two slits remains attached to the elongated metal tube for inclusion in a subsequent hair anchor to be later severed from the elongated metal tube. forming at least two slits in an elongated direction of the elongated metal tube, each slit spanning prospective end portions of at least two hair anchors ; and severing the elongated metal tube at an intermediate location (B) along the at least two slits such that a first portion of each of the at least two slits is contained in one of the at least two hair anchors and a second portion of each of the at least two slits remains attached to the elongated metal tube for inclusion in a subsequent hair anchor to be later severed from the elongated metal tube.
A method for checking a cable harness which includes a plurality of electric lines (4a-f), wherein - a test section of the cable harness is selected, which is a group of lines with lines (4a-f), - an electrode of a measuring apparatus is arranged on the test section , wherein the electrode forms a respective capacitor (Ca-c) with each of the lines (4a-f) of the group of lines in the test section , - one of the lines (4a-f) of the cable harness is selected as the current test line, - an electrical reference potential (R) is applied to the remaining lines (4a-f) of the cable harness , - an electrical test signal (P) is applied to the test line, and a characteristic variable (K) is determined on the basis of the electrical potential (M) of the electrode , - a decision (E) is made: - that the test line is in the test section if the characteristic variable (K) meets a test criterion (T), or - that the test line is not in the test section if the characteristic variable (K) does not meet the test criterion (T), characterised in that at least a part of the electrode is configured as a multiple structure which has at least two measuring chambers , wherein at least one of the lines (4a-f) of the group of lines is inserted into each of the measuring chambers . - a test section of the cable harness is selected, which is a group of lines with lines (4a-f), - an electrode of a measuring apparatus is arranged on the test section , wherein the electrode forms a respective capacitor (Ca-c) with each of the lines (4a-f) of the group of lines in the test section , - one of the lines (4a-f) of the cable harness is selected as the current test line, - an electrical reference potential (R) is applied to the remaining lines (4a-f) of the cable harness , - an electrical test signal (P) is applied to the test line, and a characteristic variable (K) is determined on the basis of the electrical potential (M) of the electrode , - a decision (E) is made: - that the test line is in the test section if the characteristic variable (K) meets a test criterion (T), or - that the test line is not in the test section if the characteristic variable (K) does not meet the test criterion (T),
A sealing insert for use with metallic closure caps of aluminium bottles comprising: - a bottom with a first surface designed to sealingly abut a mouth of a bottle and a second surface , opposite the first surface , - a sealing portion designed to be elastically deformed and located on the periphery of the bottom , wherein the sealing portion comprises a first radially external lip and a second radially internal lip connected to each other, the first lip being defined by a first protrusion and the second lip being defined by a second protrusion , the second protrusion protruding from the first surface more than the first protrusion , the sealing insert being characterized in that the first lip and the second lip are separated from each other by a separation region (RS) having a diameter (R1) between 22.8 mm and 25 mm and in that the first protrusion is formed by two surfaces, a first radially external rectilinear surface and a second radially internal curved surface . - a bottom with a first surface designed to sealingly abut a mouth of a bottle and a second surface , opposite the first surface , - a sealing portion designed to be elastically deformed and located on the periphery of the bottom , wherein the sealing portion comprises a first radially external lip and a second radially internal lip connected to each other, the first lip being defined by a first protrusion and the second lip being defined by a second protrusion , the second protrusion protruding from the first surface more than the first protrusion , the sealing insert being characterized in that the first lip and the second lip are separated from each other by a separation region (RS) having a diameter (R1) between 22.8 mm and 25 mm and in that the first protrusion is formed by two surfaces, a first radially external rectilinear surface and a second radially internal curved surface .
A filter cartridge comprising: filter media ; a contoured end member including a contoured alignment portion and a contoured seal portion, wherein the contoured alignment portion is an axial end portion of the contoured end member , the contoured alignment portion including a plurality of axially extending alignment projections ; the contoured seal portion provides a radially directed seal surface that has a contoured profile in the axial direction and is provided by a plurality of axially extending seal projections ; wherein the alignment projections extend an axial distance (h2) that is at least twice an axial distance (h1) of the seal projections . filter media ; a contoured end member including a contoured alignment portion and a contoured seal portion, wherein the contoured alignment portion is an axial end portion of the contoured end member , the contoured alignment portion including a plurality of axially extending alignment projections ; the contoured seal portion provides a radially directed seal surface that has a contoured profile in the axial direction and is provided by a plurality of axially extending seal projections ; wherein the alignment projections extend an axial distance (h2) that is at least twice an axial distance (h1) of the seal projections .
An override system for a saddle type vehicle comprising: one or more powertrains to power said vehicle , said one or more powertrains electrically controlled by a vehicle controller , said vehicle controller comprises one or more driver circuits; one or more controlling means configured to said one or more powertrains through said one or more driver circuits to control function of said one or more powertrain ; an alert means to indicate a warning; one or more input units electrically connected to said vehicle controller , combination of said one or more inputs to enable actuation of said one or more powertrain within a predetermined quantum of time (Z) through said one or more driver circuits provided in said vehicle controller to overcome disabled said one or more powertrains ; said one or more alert means enabled by said vehicle controller after actuation of said one or more powertrain ; characterized in that , one or more alert means to indicate disabled said one or more controlling means, said predetermined quantum of time (Z) is calculated from turning ON of an ignition key. one or more powertrains to power said vehicle , said one or more powertrains electrically controlled by a vehicle controller , said vehicle controller comprises one or more driver circuits; one or more controlling means configured to said one or more powertrains through said one or more driver circuits to control function of said one or more powertrain ; an alert means to indicate a warning; one or more input units electrically connected to said vehicle controller , combination of said one or more inputs to enable actuation of said one or more powertrain within a predetermined quantum of time (Z) through said one or more driver circuits provided in said vehicle controller to overcome disabled said one or more powertrains ; said one or more alert means enabled by said vehicle controller after actuation of said one or more powertrain ; characterized in that , one or more alert means to indicate disabled said one or more controlling means, said predetermined quantum of time (Z) is calculated from turning ON of an ignition key.
A method for managing an operation mode of a first user equipment, UE, in device-to-device communication, wherein the device-to-device communication comprises vehicle-to-everything, V2X, communication, comprising: transmitting , by the first UE, a request message to a base station to indicate the first UE is switching from a base station scheduling mode to a peer UE scheduling mode; receiving , by the first UE, an acknowledgment message from the base station indicating a mode change, wherein the acknowledgement message includes a resume identifier for resuming the base station scheduling mode; and maintaining a connection mode with the base station while in the peer UE scheduling mode. transmitting , by the first UE, a request message to a base station to indicate the first UE is switching from a base station scheduling mode to a peer UE scheduling mode; receiving , by the first UE, an acknowledgment message from the base station indicating a mode change, wherein the acknowledgement message includes a resume identifier for resuming the base station scheduling mode; and maintaining a connection mode with the base station while in the peer UE scheduling mode.
A method, comprising: assigning a port profile to a first port group on a virtual switch executing on a computer server hosting a plurality of virtual machine instances , wherein the port profile includes network policies; connecting a virtual network interface on each of the virtual machine instances to a respective port in the first port group ; and forwarding, based on one of the network policies, network traffic addressed to one of the virtual network interfaces in the first port group to a second port group, wherein the one of the network policies comprises one or more of: a span rule specifying to copy network traffic addressed to one of the virtual network interfaces in the first port group to an active port in the second port group; and a redirect rule specifying to redirect network traffic addressed to one of the virtual network interfaces in the first port group to an active port in the second port group. assigning a port profile to a first port group on a virtual switch executing on a computer server hosting a plurality of virtual machine instances , wherein the port profile includes network policies; connecting a virtual network interface on each of the virtual machine instances to a respective port in the first port group ; and forwarding, based on one of the network policies, network traffic addressed to one of the virtual network interfaces in the first port group to a second port group, wherein the one of the network policies comprises one or more of: a span rule specifying to copy network traffic addressed to one of the virtual network interfaces in the first port group to an active port in the second port group; and a redirect rule specifying to redirect network traffic addressed to one of the virtual network interfaces in the first port group to an active port in the second port group. a span rule specifying to copy network traffic addressed to one of the virtual network interfaces in the first port group to an active port in the second port group; and a redirect rule specifying to redirect network traffic addressed to one of the virtual network interfaces in the first port group to an active port in the second port group.
A glass pane having a transparent electrically conductive coating on a surface of the glass pane, such that the glass pane has a coated surface, the coated surface having a central region and a perimeter region, wherein the perimeter region constitutes less than 50% of the entire surface area of the coated surface, the transparent electrically conductive coating having a higher electrical conductivity at the central region than it does at the perimeter region, wherein the transparent electrically conductive coating has a sheet resistance that is at least 5 Ω/square higher at the perimeter region than it is at the central region.
A method for determining and/or monitoring the state of a protective cover , wherein the protective cover comprises at least one length-adjustable protective cover element , a support frame , at least one frame element and/or a length-adjustable restraining element, the method comprising the steps of a) obtaining a first state value of at least two characteristic physical, mechanical and/or chemical properties of the protective cover at a first point in time, wherein the two characteristic properties are translucence, light absorption, light reflection, viscosity, acceleration, speed, elasticity, stiffness, temperature, moisture content, electrical conductivity, pressure force, compressive load, tensile load, pre-load, porosity, weight, brittleness, thickness and/or density; and b) obtaining a second state value of the at least two characteristic properties of the protective cover at a second point in time, which is subsequent to the first point in time; and c) comparing the obtained state values; and d) determining the state of the protective cover based on the comparison performed in step c). a) obtaining a first state value of at least two characteristic physical, mechanical and/or chemical properties of the protective cover at a first point in time, wherein the two characteristic properties are translucence, light absorption, light reflection, viscosity, acceleration, speed, elasticity, stiffness, temperature, moisture content, electrical conductivity, pressure force, compressive load, tensile load, pre-load, porosity, weight, brittleness, thickness and/or density; and b) obtaining a second state value of the at least two characteristic properties of the protective cover at a second point in time, which is subsequent to the first point in time; and c) comparing the obtained state values; and d) determining the state of the protective cover based on the comparison performed in step c).