mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer for an electrode protective layer comprising a polymer(A) in which a monomer including poly(alkylene oxide) and a monomer including a curable functional group are grafted on a fluorine-based polymer, wherein the polymer(A) includes a structure of the following Chemical Formula 2: in Chemical Formula 2, p, q, r, and s are each independently 0≤p≤20,000, 0<q≤22,000, 0≤r≤15,000 and 0≤s<22,000; R 1 , R 2 , and R 3 are each independently hydrogen or methyl; R 4 is any one selected from among hydrogen, an alkyl group having 1 to 12 carbon atoms, and a phenyl group unsubstituted or substituted with an alkyl group having 1 to 12 carbon atoms; Z is a curable functional group represented by the following Chemical Formula 4; l, m and n are each independently 2≤1≤230, 1≤m≤200 and 2≤n≤50; and R 5 is any one selected from among hydrogen, chlorine or bromine, in Chemical Formula 4, X is a single bond, or any one selected from among alkylene having 1 to 12 carbon atoms, alkyleneoxycarbonyl having 1 to 12 carbon atoms (. ), urethane group-containing alkyleneoxycarbonyl having 1 to 12 carbon atoms, poly(ethylene oxide)carbonyl having an ethylene oxide repeating number of 1 to 10 and phenylene; and * represents a bonding site directly bonding to O in Chemical Formula 2. p, q, r, and s are each independently 0≤p≤20,000, 0<q≤22,000, 0≤r≤15,000 and 0≤s<22,000; R 1 , R 2 , and R 3 are each independently hydrogen or methyl; R 4 is any one selected from among hydrogen, an alkyl group having 1 to 12 carbon atoms, and a phenyl group unsubstituted or substituted with an alkyl group having 1 to 12 carbon atoms; Z is a curable functional group represented by the following Chemical Formula 4; l, m and n are each independently 2≤1≤230, 1≤m≤200 and 2≤n≤50; and R 5 is any one selected from among hydrogen, chlorine or bromine, in Chemical Formula 4, X is a single bond, or any one selected from among alkylene having 1 to 12 carbon atoms, alkyleneoxycarbonyl having 1 to 12 carbon atoms (. ), urethane group-containing alkyleneoxycarbonyl having 1 to 12 carbon atoms, poly(ethylene oxide)carbonyl having an ethylene oxide repeating number of 1 to 10 and phenylene; and * represents a bonding site directly bonding to O in Chemical Formula 2. X is a single bond, or any one selected from among alkylene having 1 to 12 carbon atoms, alkyleneoxycarbonyl having 1 to 12 carbon atoms (. ), urethane group-containing alkyleneoxycarbonyl having 1 to 12 carbon atoms, poly(ethylene oxide)carbonyl having an ethylene oxide repeating number of 1 to 10 and phenylene; and * represents a bonding site directly bonding to O in Chemical Formula 2.
A shaped abrasive particle comprising a body comprising a first major surface , a second major surface , and a side surface extending between the first major surface and the second major surface , wherein a first portion of the side surface has a first curved section between a first linear section and a second linear section , wherein the first linear section terminates at a first external corner of the body and the second linear section terminates at a second external corner of the body , wherein the first curved section and the first linear section define a first interior corner defining a first interior angle having an obtuse value, wherein the first curved section and the second linear section define a second interior corner defining a second interior angle having an obtuse value, wherein the first curved section has a first curved section length (Lcl) that extends for a fraction of the total length (Lfpl) of the first portion of the side surface between the adjacent corners and , wherein the body has a hybrid polygonal shape having a sum of all external corners of substantially 180 degrees. wherein a first portion of the side surface has a first curved section between a first linear section and a second linear section , wherein the first linear section terminates at a first external corner of the body and the second linear section terminates at a second external corner of the body , wherein the first curved section and the first linear section define a first interior corner defining a first interior angle having an obtuse value, wherein the first curved section and the second linear section define a second interior corner defining a second interior angle having an obtuse value, wherein the first curved section has a first curved section length (Lcl) that extends for a fraction of the total length (Lfpl) of the first portion of the side surface between the adjacent corners and , wherein the body has a hybrid polygonal shape having a sum of all external corners of substantially 180 degrees.
An anhydrate crystalline form, which is Form 2 of compound of formula , characterized by having a powder-X-ray diffractogram displaying peaks expressed as degree 2-Theta angles at 9.5; 11.8; 14.1; 14.6; 17.7 and 18.5.
Piston ring arrangement with a piston ring encircling a main axis (X), the piston ring having a sealing surface directed radially outward and a contact surface directed radially outward, the sealing surface being radially outside of the contact surface , and with a retaining ring encircling the main axis (X) with a retaining surface directed radially inward, the piston ring and the retaining ring being arranged such that the retaining surface and the contact surface are adjacent in the radial direction, wherein the piston ring arrangement is suitable to be arranged in a groove (32a-32h), which is formed by two annular piston discs (30a-30h), which encircles the main axis (X) and which is open radially outward, characterized in that the retaining ring is closed circumferentially.
BBU unit, "Base Band Unit", characterized in that it comprises means for connecting to a plurality of microwave heads (MW BBU ), and in that it comprises means for providing any one of these microwave heads (MW BBU ) with an identifier of this BBU unit, or for receiving from any one of these microwave heads (MW BBU ) an identifier of an RRH unit, "Remote Radio Head", which identifier is contained in at least one predetermined control sub-channel of a signal for digital radio.
A control method for transmitting charging power to a wireless power receiver in a wireless power transmitter, the control method comprising: receiving an advertisement signal from the wireless power receiver, characterised by : discovering a handle value for identifying each of at least one packet associated with transmitting charging power, within the advertisement signal; and communicating with the wireless power receiver by using the advertisement signal. discovering a handle value for identifying each of at least one packet associated with transmitting charging power, within the advertisement signal; and communicating with the wireless power receiver by using the advertisement signal.
A striped pattern image examination support apparatus comprising: a feature extraction part to extract at least central lines and feature points from each of first and second striped pattern images, as a feature of each of the first and second striped pattern images, the first and second striped pattern images being fingerprint images or palmprint images; a central line collation part to perform collation of the respective central lines of the first striped pattern image and the second striped pattern image and compute corresponding central lines between the first and second striped pattern images; a display part to determine a display form of each of the central lines based on the computed corresponding central lines and superimpose and display the central lines on each of the first and second striped pattern images, according to the determined display form; a feature modification part to modify the feature of at least one of the first and second striped pattern images, wherein the feature extraction part extracts a central line again while holding the feature of the at least one of the striped pattern images that has been modified by the feature modification part; the central line collation part computes corresponding central lines from the first and second striped pattern images, using the central line that has been extracted again; and the display part determines a display form of each of the central lines based on the corresponding central lines that have been computed again. a feature extraction part to extract at least central lines and feature points from each of first and second striped pattern images, as a feature of each of the first and second striped pattern images, the first and second striped pattern images being fingerprint images or palmprint images; a central line collation part to perform collation of the respective central lines of the first striped pattern image and the second striped pattern image and compute corresponding central lines between the first and second striped pattern images; a display part to determine a display form of each of the central lines based on the computed corresponding central lines and superimpose and display the central lines on each of the first and second striped pattern images, according to the determined display form; a feature modification part to modify the feature of at least one of the first and second striped pattern images, wherein the feature extraction part extracts a central line again while holding the feature of the at least one of the striped pattern images that has been modified by the feature modification part; the central line collation part computes corresponding central lines from the first and second striped pattern images, using the central line that has been extracted again; and the display part determines a display form of each of the central lines based on the corresponding central lines that have been computed again.
A vibratory feeder comprising a feeder plate , said feeder plate comprising a laminate of two different layers: (a) a first, upwardly facing, solid layer ; and (b) a second, downwardly facing, layer comprising voids, characterised in that the second layer imparts a stiffness on the laminate that enables the first layer and the second layer to move together in the same directions to minimise deformation of the first layer . (a) a first, upwardly facing, solid layer ; and (b) a second, downwardly facing, layer comprising voids,
Front structure of motor vehicle body , comprising: - on each side of the vehicle , a dashboard cross-member side support attached to a front wing liner , and - a lower cross-member of a bay positioned in front of the side supports and laterally attached to the front wing liners , characterized in that the structure further comprises, at at least one of the sides of the vehicle , a carrier for the passenger compartment beam bearing on the corresponding side carrier for the dashboard cross-member and on the lower cross-member for the bay . - on each side of the vehicle , a dashboard cross-member side support attached to a front wing liner , and - a lower cross-member of a bay positioned in front of the side supports and laterally attached to the front wing liners ,
A system for generation of a virtual template of the body of a user, comprising at least one acquisition unit , which acquisition unit consists of a structure defining an acquisition chamber , which structure comprises a plurality of cameras configured for capturing images, said structure consists of a frame for supporting a plurality of panels , being each camera disposed on a corresponding panel , facing said acquisition chamber , a control unit being provided, which control unit communicates with a unit for operating said cameras , said control unit being provided with processor means configured to run a logic program which comprises the following steps: a) generating instructions for said user to obtain a proper positioning of the user within the acquisition chamber b) activating the cameras , c) generating a virtual template of said user, the system characterised in the panels being arranged in such a way that said acquisition chamber is shaped as an egg, and step a) comprising the following sub-steps: a1) generating a shape adapted to define an acquisition zone, a2) visualizing both said shape and a real-time image of the body of said user simultaneously, and step b) being carried out automatically through a synchronized image capture by each camera as soon as the image of the body of said user is included within said acquisition zone. said structure consists of a frame for supporting a plurality of panels , being each camera disposed on a corresponding panel , facing said acquisition chamber , a control unit being provided, which control unit communicates with a unit for operating said cameras , said control unit being provided with processor means configured to run a logic program which comprises the following steps: a) generating instructions for said user to obtain a proper positioning of the user within the acquisition chamber b) activating the cameras , c) generating a virtual template of said user, a) generating instructions for said user to obtain a proper positioning of the user within the acquisition chamber b) activating the cameras , c) generating a virtual template of said user, the system characterised in the panels being arranged in such a way that said acquisition chamber is shaped as an egg, and step a) comprising the following sub-steps: a1) generating a shape adapted to define an acquisition zone, a2) visualizing both said shape and a real-time image of the body of said user simultaneously, and a1) generating a shape adapted to define an acquisition zone, a2) visualizing both said shape and a real-time image of the body of said user simultaneously, and step b) being carried out automatically through a synchronized image capture by each camera as soon as the image of the body of said user is included within said acquisition zone.
A gas sensor kit comprising: a gas sensor that is configured to measure a gas concentration of an exhalation gas of a subject; a gas supply unit that is configured to supply a therapeutic gas, supplied through a tube , to the subject; and a nasal adapter configured to be disposed in a vicinity of nostrils of the subject for introducing the exhalation gas of the subject to the gas sensor , wherein each of the gas supply unit and the gas sensor has an attachment and detachment mechanism by which the gas supply unit is capable of being attached to and detached from the gas sensor , and the gas supply unit is connected with the nasal adapter through the gas sensor . a gas sensor that is configured to measure a gas concentration of an exhalation gas of a subject; a gas supply unit that is configured to supply a therapeutic gas, supplied through a tube , to the subject; and a nasal adapter configured to be disposed in a vicinity of nostrils of the subject for introducing the exhalation gas of the subject to the gas sensor , wherein each of the gas supply unit and the gas sensor has an attachment and detachment mechanism by which the gas supply unit is capable of being attached to and detached from the gas sensor , and the gas supply unit is connected with the nasal adapter through the gas sensor .
A method for preparing a compound represented by the following Formula 1, comprising a step (S1) of reacting a compound represented by the following Formula 2 with a compound represented by the following Formula 3 in the presence of a base which is sodium tert-butoxide or potassium tert-butoxide:
An information processing apparatus comprising: an acquisition means for acquiring an object image that contains one or more objects; a first inference means for inferring one or more rectangular areas that respectively surround the one or more objects in the object image, and a type of each of the one or more objects, by applying the object image to a first learning model; a second inference means for inferring an area of a target object in the object image by applying the one or more rectangular areas and the type of each of the one or more objects to a second learning model; and an extraction means for extracting colors of the target object, wherein the object image is image data generated from a Y element, a Cb element, and a Cr element of data generated from a YCbCr image through a DCT conversion; and wherein the image data is data generated by adjusting sizes of Y elements, Cb elements, and Cr elements of pieces of data subjected to DCT conversion, and concatenating the pieces of data with each other. an acquisition means for acquiring an object image that contains one or more objects; a first inference means for inferring one or more rectangular areas that respectively surround the one or more objects in the object image, and a type of each of the one or more objects, by applying the object image to a first learning model; a second inference means for inferring an area of a target object in the object image by applying the one or more rectangular areas and the type of each of the one or more objects to a second learning model; and an extraction means for extracting colors of the target object, wherein the object image is image data generated from a Y element, a Cb element, and a Cr element of data generated from a YCbCr image through a DCT conversion; and wherein the image data is data generated by adjusting sizes of Y elements, Cb elements, and Cr elements of pieces of data subjected to DCT conversion, and concatenating the pieces of data with each other.
A heat pump comprising a closed circuit configured for flow of a solvent and a refrigerant, which closed circuit comprises an evaporator and an absorber , which are mutually interconnected with a first line configured for the transport of vapour from the evaporator to the absorber , a second line configured for the transport of a primarily liquid stream from the evaporator to the absorber , and a third line configured for transport of an enriched liquid from the absorber towards the evaporator , wherein said evaporator is typically in heat communication with an input stream for transmission of heat into the evaporator and wherein said enriched liquid being brought in heat communication with a output stream for transmission of heat thereto, particularly at high pressure, wherein a compressor is arranged in the first line and an expansion device is arranged in the third line , wherein: - the absorber is configured to have a first outlet to the third line characterized in that the absorber is configured to have further a second outlet to a fourth line , said second outlet and said fourth line being configured for vapour transport back to the evaporator ; - the absorber and the evaporator , each having a first inlet for a predominantly liquid stream and with a second inlet for the vapour stream, are configured such for at least partially countercurrent flow of vapour and liquid. - the absorber is configured to have a first outlet to the third line characterized in that the absorber is configured to have further a second outlet to a fourth line , said second outlet and said fourth line being configured for vapour transport back to the evaporator ; characterized in that the absorber is configured to have further a second outlet to a fourth line , said second outlet and said fourth line being configured for vapour transport back to the evaporator ; - the absorber and the evaporator , each having a first inlet for a predominantly liquid stream and with a second inlet for the vapour stream, are configured such for at least partially countercurrent flow of vapour and liquid.
An inter-gear teeth error removal device for a crank pulser rotor, comprising: means detecting an angular velocity at each crank angle from an inter-crank pulse time period; means calculating, based on the angular velocity at each crank angle, a relative angular velocity at each crank angle with respect to a reference angular velocity detected in proximity of a compression top dead center of an engine; means integrating the relative angular velocity within a given crank angle range to calculate an integration angular velocity; means removing an inertia torque component and a pumping torque component from the integration angular velocity or the angular velocity before integration to calculate a post-removal integration angular velocity; means calculating and learning an inter-gear teeth error coefficient by dividing the post-removal integration angular velocity by the reference angular velocity; means calculating an inter-gear teeth error component at each engine speed using the inter-gear teeth error coefficient; and means removing the inter-gear teeth error component from the post-removal integration angular velocity. means detecting an angular velocity at each crank angle from an inter-crank pulse time period; means calculating, based on the angular velocity at each crank angle, a relative angular velocity at each crank angle with respect to a reference angular velocity detected in proximity of a compression top dead center of an engine; means integrating the relative angular velocity within a given crank angle range to calculate an integration angular velocity; means removing an inertia torque component and a pumping torque component from the integration angular velocity or the angular velocity before integration to calculate a post-removal integration angular velocity; means calculating and learning an inter-gear teeth error coefficient by dividing the post-removal integration angular velocity by the reference angular velocity; means calculating an inter-gear teeth error component at each engine speed using the inter-gear teeth error coefficient; and means removing the inter-gear teeth error component from the post-removal integration angular velocity.
Method for planning or controlling the movements of a plurality of vehicles over a network of routes, the nodes and edges of which are formed by route elements, wherein each vehicle as an entity represented in a distributed ledger system enters into transaction agreements with the route elements, likewise represented as entities in this distributed ledger system, wherein each transaction agreement of a vehicle with a route element comprises at least one time specification, which defines the period of time for which the route element is occupied by the vehicle, and wherein the route elements belong to a path necessary for a journey by the vehicle.