mhurhangee/patent-ind-claim-en huggingface dataset:
A TPU ball structure, comprising: a ball bladder layer, made of a thermoplastic polyurethane (TPU) material; a yarn layer, made of a TPU material and disposed to cover the ball bladder layer; and a surface layer, made of a TPU material and disposed to cover the yarn layer, wherein - the surface layer comprises an outer surface layer and a latex layer, and wherein the latex layer comprises a foamed latex layer and an unfoamed latex layer, the foamed latex layer is disposed on the unfoamed latex layer, and the outer surface layer is disposed on the foamed latex layer, the thickness composite ratio of the outer surface layer to the foamed latex layer to the unfoamed latex layer is 1:8:1; and/or - the ball bladder layer comprises a first high-resilience TPU layer, a high-airtightness TPU layer and a second high-resilience TPU layer, the high-airtightness TPU layer is disposed on the second high-resilience TPU layer, and the first high-resilience TPU layer is disposed on the high-airtightness TPU layer, the thickness composite ratio of the first high-resilience TPU layer to the high-airtightness TPU layer to the second high-resilience TPU layer is 1:2:1. a ball bladder layer, made of a thermoplastic polyurethane (TPU) material; a yarn layer, made of a TPU material and disposed to cover the ball bladder layer; and a surface layer, made of a TPU material and disposed to cover the yarn layer, wherein - the surface layer comprises an outer surface layer and a latex layer, - the surface layer comprises an outer surface layer and a latex layer, and wherein the latex layer comprises a foamed latex layer and an unfoamed latex layer, the foamed latex layer is disposed on the unfoamed latex layer, and the outer surface layer is disposed on the foamed latex layer, the thickness composite ratio of the outer surface layer to the foamed latex layer to the unfoamed latex layer is 1:8:1; and/or - the ball bladder layer comprises a first high-resilience TPU layer, a high-airtightness TPU layer and a second high-resilience TPU layer, the high-airtightness TPU layer is disposed on the second high-resilience TPU layer, and the first high-resilience TPU layer is disposed on the high-airtightness TPU layer, the thickness composite ratio of the first high-resilience TPU layer to the high-airtightness TPU layer to the second high-resilience TPU layer is 1:2:1. - the ball bladder layer comprises a first high-resilience TPU layer, a high-airtightness TPU layer and a second high-resilience TPU layer, the high-airtightness TPU layer is disposed on the second high-resilience TPU layer, and the first high-resilience TPU layer is disposed on the high-airtightness TPU layer, the thickness composite ratio of the first high-resilience TPU layer to the high-airtightness TPU layer to the second high-resilience TPU layer is 1:2:1.
A mobile computing device comprising: an emissive display panel configured to emit light from a front surface of the display panel, the display panel having a plurality of transparent layers and an opaque back cover layer ; a light sensor located behind the opaque back cover layer, wherein the opaque back cover layer includes an opening through which light from outside the display that is transmitted through the transparent layers of the display can pass to reach the sensor, wherein an air gap separates the light sensor from the transparent layers of the display panel, the light sensor being located behind an active area of the display; wherein the plurality of transparent layers includes a reflection attenuating layer on a back side of the display panel configured to attenuate the reflection of light from an interface between a transparent layer of the display panel and the air gap; and the active area of the display panel includes OLED emitters and semiconductor circuit elements configured to control a luminance of light emitted from the OLED emitters, wherein the semiconductor circuit elements are shielded from direct light received from outside the display panel by at least some opaque structures in the display panel. an emissive display panel configured to emit light from a front surface of the display panel, the display panel having a plurality of transparent layers and an opaque back cover layer ; a light sensor located behind the opaque back cover layer, wherein the opaque back cover layer includes an opening through which light from outside the display that is transmitted through the transparent layers of the display can pass to reach the sensor, wherein an air gap separates the light sensor from the transparent layers of the display panel, the light sensor being located behind an active area of the display; wherein the plurality of transparent layers includes a reflection attenuating layer on a back side of the display panel configured to attenuate the reflection of light from an interface between a transparent layer of the display panel and the air gap; and the active area of the display panel includes OLED emitters and semiconductor circuit elements configured to control a luminance of light emitted from the OLED emitters, wherein the semiconductor circuit elements are shielded from direct light received from outside the display panel by at least some opaque structures in the display panel.
A method for generating at least one information about the production of a handwritten, hand-affixed or printed trace on a surface, comprising: - extracting a plurality of features describing the trace from at least one three-dimensional image of said trace, acquired by an imagery system, and - inputting said extracted features in a trained module to output said at least one information, said module having been trained beforehand with a plurality of previously-acquired three-dimensional images of traces and corresponding information related to the production of these traces, characterized in that information about the surface or contained in it is combined with said extracted features describing the trace to generate said at least one information, and wherein at least two different resolutions of said at least one three-dimensional image are used to extract said features describing the trace, said features being then combined to generate said at least one information. - extracting a plurality of features describing the trace from at least one three-dimensional image of said trace, acquired by an imagery system, and - inputting said extracted features in a trained module to output said at least one information, said module having been trained beforehand with a plurality of previously-acquired three-dimensional images of traces and corresponding information related to the production of these traces,
A magnetic tube system comprising a tube formed of a flexible material; and a magnetic part inserted into the tube and deforming a form of the tube such that a direction of a magnetic moment of the magnetic part is arranged with a direction of a magnetic force generated by an external magnetic field, The magnetic part includes at least two or more magnetic bodies (4122-4130) that directions of magnetic moments of the magnetic bodies are different if no magnetic field is applied and the tube is not deformed. a tube formed of a flexible material; and a magnetic part inserted into the tube and deforming a form of the tube such that a direction of a magnetic moment of the magnetic part is arranged with a direction of a magnetic force generated by an external magnetic field, The magnetic part includes at least two or more magnetic bodies (4122-4130) that directions of magnetic moments of the magnetic bodies are different if no magnetic field is applied and the tube is not deformed.
Method for obtaining reference signals for systems for controlling a vehicle (V), in function of a geographical position of said vehicle (V) along a route to travel, comprising the operating steps of: - providing at least data relating to said vehicle (V) and at least data relating to a route to travel; - determining , on the basis of said data, at least one reference signal of a driving force F of said vehicle (V) and at least one reference signal of a speed v for said vehicle (V), in function of the position s of said vehicle (V) along said route to travel, through a first optimisation process configured to optimise the driving force F along said route to travel; and - determining at least one reference signal of an engaged gear γ and/or of gear change u sh of said vehicle (V), in function of the positions of said vehicle (V) along said route to travel, through a second optimisation process configured to optimise a fuel consumption of said vehicle (V) along said rout to travel; said second optimisation process being subsequent to said first optimisation process and receiving as input said data relating to said vehicle (V), said data relating to a route to travel, as well as said at least one reference signal of the driving force F and said at least one reference signal of the speed v , determined through said first optimisation process. - providing at least data relating to said vehicle (V) and at least data relating to a route to travel; - determining , on the basis of said data, at least one reference signal of a driving force F of said vehicle (V) and at least one reference signal of a speed v for said vehicle (V), in function of the position s of said vehicle (V) along said route to travel, through a first optimisation process configured to optimise the driving force F along said route to travel; and - determining at least one reference signal of an engaged gear γ and/or of gear change u sh of said vehicle (V), in function of the positions of said vehicle (V) along said route to travel, through a second optimisation process configured to optimise a fuel consumption of said vehicle (V) along said rout to travel;
A pressure pad having a base body, wherein the base body has a first surface and a second surface opposite the first surface, wherein the first surface of the base body has pressure cushions , characterized in in that the first surface of the base body has exactly five pressure cushions , wherein the first pressure cushion is located in the center of a rectangle (R) that is formed by the second pressure cushion , the third pressure cushion , the fourth pressure cushion and the fifth pressure cushion .
A method of forming a confined magnetic memory cell structure, the method comprising: first forming a recess in a dielectric substrate ; depositing a conductive material in the recess to form a bottom lead ; forming an antiferromagnetic region over the bottom lead ; forming a magnetic pinned region directly over the antiferromagnetic region ; depositing dielectric materials over the magnetic pinned region ; forming a via in the dielectric materials , wherein the via exposes a portion of the magnetic pinned region ; depositing barrier materials conformally into the via to form a barrier region such that all surface area of the via are covered by the barrier region ; forming a free region onto the barrier region by filling the via with magnetic materials, wherein the free region is contained in the via and surrounded by the barrier region ; forming a top lead directly over the free region , such that a bottom section and a periphery of the free region are entirely surrounded by the barrier region and a top section of the free region is entirely covered by the top lead . first forming a recess in a dielectric substrate ; depositing a conductive material in the recess to form a bottom lead ; forming an antiferromagnetic region over the bottom lead ; forming a magnetic pinned region directly over the antiferromagnetic region ; depositing dielectric materials over the magnetic pinned region ; forming a via in the dielectric materials , wherein the via exposes a portion of the magnetic pinned region ; depositing barrier materials conformally into the via to form a barrier region such that all surface area of the via are covered by the barrier region ; forming a free region onto the barrier region by filling the via with magnetic materials, wherein the free region is contained in the via and surrounded by the barrier region ; forming a top lead directly over the free region , such that a bottom section and a periphery of the free region are entirely surrounded by the barrier region and a top section of the free region is entirely covered by the top lead .
Sensor system for determining at least one rotation characteristic of an element rotating about at least one axis of rotation , wherein the sensor system has at least two encoder wheels that can be connected to the rotating element , the encoder wheels having an encoder wheel profile , wherein the sensor system has at least one inductive position sensor , the inductive position sensor having at least one coil assembly , comprising at least one exciter coil and at least two receiver coils , wherein the receiver coils are at least partly sinusoidally shaped, characterized in that the coil assembly has two receiver coil systems which, in the circumferential direction of the at least two encoder wheels , are arranged parallel to each other and offset axially from each other with respect to the axis of rotation of the at least two encoder wheels , wherein a first receiver coil system and a second receiver coil system each have exactly three receiver coils , wherein the receiver coils are arranged with a phase offset from one another within a receiver coil system and each have the same periodicity, wherein the periodicity of the receiver coils of the first receiver coil system differs from the periodicity of the receiver coils of the second receiver coil system , wherein the first receiver coil system is assigned a first encoder wheel , and the second receiver coil system is assigned a second encoder wheel , wherein the first encoder wheel has an angular spacing β1 between two adjacent profile elements of the first encoder wheel , and the receiver coils of the first receiver coil system assigned to the first encoder wheel have a periodicity which corresponds to an integer multiple of β1, wherein the second encoder wheel has an angular spacing β2 between two adjacent profile elements of the second encoder wheel , and the receiver coils of the second receiver coil system assigned to the second encoder wheel have a periodicity which corresponds to an integer multiple of β2, and wherein the angular spacing β2 between two adjacent profile elements of the second encoder wheel differs from the angular spacing β1 between two adjacent profile elements of the first encoder wheel.
A baseboard for laying flooring basestrips as a wall finish for a floor material, having a strip-shaped base body arrangeable parallel to the wall , said base body having a piping profile on its upper surface facing away from the floor , wherein the piping profile is provided with a casing matching the floor material and the base body has a receiving area for strip-shaped floor covering elements at its front surface between the piping profile and the floor , characterized in that the piping profile is integrally formed with the base body .
A drive unit for a motor vehicle, comprising: - an internal combustion engine which comprises a combustion engine and an exhaust gas system via which exhaust gas can be discharged from the combustion engine , - a circuit process device for converting thermal energy of the exhaust gas in a thermodynamic circuit process into mechanical work, with a working medium , with respect to the flow direction thereof, - flowing through a first heat exchange means in which a heat transfer from the exhaust gas to the working medium takes place, - subsequently flowing through an expansion device in which an expansion of the working medium and in the process the generation of the mechanical work takes place, and - subsequently flowing through a second heat exchange means in which a heat transfer from the working medium to a cooling medium takes place, - a thermoelectric generator which provides an electrical voltage in the event of a temperature difference between a high-temperature side and a low-temperature side , it being possible for the working medium of the circuit process device to also be guided via the high-temperature side , characterized in that cooling of the low-temperature side of the thermoelectric generator is effected by means of a coolant differing from the working medium . - an internal combustion engine which comprises a combustion engine and an exhaust gas system via which exhaust gas can be discharged from the combustion engine , - a circuit process device for converting thermal energy of the exhaust gas in a thermodynamic circuit process into mechanical work, with a working medium , with respect to the flow direction thereof, - flowing through a first heat exchange means in which a heat transfer from the exhaust gas to the working medium takes place, - subsequently flowing through an expansion device in which an expansion of the working medium and in the process the generation of the mechanical work takes place, and - subsequently flowing through a second heat exchange means in which a heat transfer from the working medium to a cooling medium takes place, - flowing through a first heat exchange means in which a heat transfer from the exhaust gas to the working medium takes place, - subsequently flowing through an expansion device in which an expansion of the working medium and in the process the generation of the mechanical work takes place, and - subsequently flowing through a second heat exchange means in which a heat transfer from the working medium to a cooling medium takes place, - a thermoelectric generator which provides an electrical voltage in the event of a temperature difference between a high-temperature side and a low-temperature side ,
Buffer device for temporarily receiving products from a product flow in the case of a fault downstream of the product flow and for delivering the received products after the malfunction has been remedied, comprising an endless flat-top chain which passes through a plurality of loops (5, 8, 11; 13, 14, 15) that are formed in an upper and a lower plane by horizontal deflectors (6, 7, 9, 10, 12; 16, 17, 18, 19, 20), the deflectors being arranged so as to be alternately stationary and horizontally movable, such that the loop lengths can be changed, characterized in that the movable horizontal deflectors in the upper and the lower plane are arranged on respective horizontally movable carriages , and the two carriages are coupled to one another in such a way that the horizontal movements are in opposite directions.
A dihydroorotate inhibitor for use in a method of treating or preventing a hematological cancer in a subject in need thereof, the method comprising administering to the subject a therapeutically effective amount of a dihydroorotate dehydrogenase (DHODH) inhibitor, or a salt or solvate thereof, wherein the dihydroorotate inhibitor selected from the group consisting of 6-fluoro-2-(2'-fluoro-[1,1'-biphenyl]-4-yl)-3-methylquinoline-4-carboxylic acid); 5-methyl-N-[4-(trifluoromethyl)phenyl]-isoxazole-4-carboxamide); -2-cyano-3-hydroxy-N-[4-(trifluoromethyl)phenyl]but-2-enamide) or any combinations thereof or a salt or solvate thereof is administered to the subject with a frequency less than or equal to once every 48 hours.
An automatic node adding method of a blockchain integrated station , comprising: receiving , by the blockchain integrated station , a first configuration instruction after accessing a certificate authority network, wherein the first configuration instruction indicates a first network address corresponding to a certificate authority center , wherein the first network address is configured by a user or pre-configured in the blockchain integrated station in factory settings; initiating an authentication application to the certificate authority center according to the first network address indicated in the first configuration instruction; receiving a digital certificate returned by the certificate authority center after the certificate authority center determines the authentication application passes verification; receiving , by the blockchain integrated station , a second configuration instruction after accessing a blockchain network, wherein the second configuration instruction indicates a second network address corresponding to a first blockchain node in the blockchain network, wherein the second network address is configured by the user or pre-configured in the blockchain integrated station upon leaving factory; and sending the digital certificate to the first blockchain node in the blockchain network according to the second network address indicated in the second configuration instruction, wherein the digital certificate is used to trigger the first blockchain node to add the blockchain integrated station as a newly-added blockchain node in the blockchain network. receiving , by the blockchain integrated station , a first configuration instruction after accessing a certificate authority network, wherein the first configuration instruction indicates a first network address corresponding to a certificate authority center , wherein the first network address is configured by a user or pre-configured in the blockchain integrated station in factory settings; initiating an authentication application to the certificate authority center according to the first network address indicated in the first configuration instruction; receiving a digital certificate returned by the certificate authority center after the certificate authority center determines the authentication application passes verification; receiving , by the blockchain integrated station , a second configuration instruction after accessing a blockchain network, wherein the second configuration instruction indicates a second network address corresponding to a first blockchain node in the blockchain network, wherein the second network address is configured by the user or pre-configured in the blockchain integrated station upon leaving factory; and sending the digital certificate to the first blockchain node in the blockchain network according to the second network address indicated in the second configuration instruction, wherein the digital certificate is used to trigger the first blockchain node to add the blockchain integrated station as a newly-added blockchain node in the blockchain network.