mhurhangee/patent-ind-claim-en huggingface dataset:
Cover for an electronic device , in particular a mobile telephone or a hand-held computer, having a receiving casing with metal, into which the device can be inserted in a fitting manner, wherein - a base element made of metal is provided, which is shaped as a substantially planar plate, and - along a peripheral edge of the plate-shaped base element a retaining lip made of an elastic material is arranged, wherein the retaining lip forms a side wall region of the receiving casing , characterized in that - the elastic material is a thermoplastic resin which, in a melted state, is molded or extruded onto the peripheral edge , and - in that along the peripheral edge of the plate-shaped base element openings for enhanced attachment of the molded-on or extruded-on retaining lip are provided. - a base element made of metal is provided, which is shaped as a substantially planar plate, and - along a peripheral edge of the plate-shaped base element a retaining lip made of an elastic material is arranged, wherein the retaining lip forms a side wall region of the receiving casing , - the elastic material is a thermoplastic resin which, in a melted state, is molded or extruded onto the peripheral edge , and - in that along the peripheral edge of the plate-shaped base element openings for enhanced attachment of the molded-on or extruded-on retaining lip are provided.
A spherical hollow body having a diameter of from 37 mm to 45 mm, in particular a diameter of 39.7 mm to 40.75 mm, and a weight of from 2.5 g to 3.5 g, in particular a weight of 2.6 g to 2.85 g, comprising a shell and an inner hollow space, wherein the shell has a wall thickness of 0.2 mm to 1.3 mm, in particular 0.3 mm to 0.8 mm, characterized in that the shell is free of celluloid and comprises at least one styrene-containing copolymer, wherein the styrene-containing copolymer comprises olefin monomers, particularly butadiene monomers, wherein the styrene-containing copolymer is selected from among the group comprising acrylonitrile-butadiene-styrene copolymer (ABS), styrene-butadiene copolymer (SBC), methyl methacrylate-butadiene-styrene copolymer (MBS) and methyl methacrylate-acrylonitrile-butadiene-styrene (MABS), wherein the shell further comprises at least one second organic polymer, wherein the second organic polymer is a homopolymer selected from the group comprising polycarbonate and polystyrene or is a copolymer of styrene-butadiene copolymer (SBC).
Watch dial having an organic light-emitting diode display , the display comprising: an anode ; a structured layer of coloured resin; an organic layer stack in contact with the anode and with the structured coloured resin layer, said structured layer of coloured resin being structured so as to include gaps in which the stack of organic layers is in direct contact with the anode and at least one of the organic layers being a light-emitting layer; and a cathode in contact with the organic layer stack. an anode ; a structured layer of coloured resin; an organic layer stack in contact with the anode and with the structured coloured resin layer, said structured layer of coloured resin being structured so as to include gaps in which the stack of organic layers is in direct contact with the anode and at least one of the organic layers being a light-emitting layer; and a cathode in contact with the organic layer stack.
A dryer comprising a body having two side walls and a rear wall , a drum disposed in the body , into which the laundry to be dried is placed, a condenser providing the dehumidification of the cooling air used in the drying process by condensing it, a base unit disposed under the drum , supporting the motor, the fan, the condenser and other elements required for the drying process, a first opening disposed on the base unit , providing the cooling air passing through the condenser to be delivered into the body , a second opening disposed on the rear wall , providing the cooling air delivered into the body to be discharged to the outer environment, characterized by a guide closed all around, extending between the first opening and the second opening , providing the cooling air discharged from the condenser to be discharged to the outer environment such that it does not spread between the drum and the body .
An electronic device, comprising: at least one layer (N1, N2, N3, N4) of a conducting material having an epsilon-near-zero, ENZ, regime of permittivity at a given wavelength and configured to be tunable to vary the permittivity with applied electrical bias, characterized in that the at least one of the plurality of conducting layers having a ratio of a layer thickness to the accumulation region thickness in the layer of 8:1 or less, wherein the at least one layer enables an absorption of at least 95%.
Cooling circuit of a drive unit of a motor vehicle , at least having a first fluid circuit , which is connected via a first feed connector and a first discharge connector to a first radiator for the purposes of conducting a first fluid through the first radiator ; wherein the first feed connector and the first discharge connector are connected via a bypass line ; wherein, via a bypass valve , the first fluid can be diverted from the first feed connector to the first discharge connector so as to bypass the first radiator ; wherein the bypass valve has at least one ventilation connector for the ventilation of at least the bypass line ; characterized in that the first feed connector and the first discharge connector are arranged such that the first radiator can be flowed through by the first fluid from bottom to top; wherein the first radiator is connected to the bypass valve via a first discharge line , wherein the first discharge line runs in a rising manner to the bypass valve and to the at least one ventilation connector .
A polymerizable composition for an optical material, comprising: polyisocyanate (a) which is obtained from a plant-derived raw material and includes a modified product of aliphatic polyisocyanate; alicyclic polyisocyanate (b); (poly)glycerin fatty acid esters (e) represented by General Formula ; and polyol (d) which is a plant-derived compound; wherein in General Formula , R represents a C5 to C19 alkyl group or a C5 to C19 alkenyl group, the alkyl group or the alkenyl group may have a straight chain or a branched chain; X represents a hydrogen atom or a RCO group, wherein R represents a C5 to C19 alkyl group or a C5 to C19 alkenyl group), a plurality of Xs may be identical to each other or different from each other; and n represents an integer of 0 to 3. polyisocyanate (a) which is obtained from a plant-derived raw material and includes a modified product of aliphatic polyisocyanate; alicyclic polyisocyanate (b); (poly)glycerin fatty acid esters (e) represented by General Formula ; and polyol (d) which is a plant-derived compound; wherein in General Formula , R represents a C5 to C19 alkyl group or a C5 to C19 alkenyl group, the alkyl group or the alkenyl group may have a straight chain or a branched chain; X represents a hydrogen atom or a RCO group, wherein R represents a C5 to C19 alkyl group or a C5 to C19 alkenyl group), a plurality of Xs may be identical to each other or different from each other; and n represents an integer of 0 to 3.
Cell frame for forming an electrochemical cell , in particular a redox flow battery, peripherally enclosing at least one cell interior and comprising at least one supply channel for supply electrolyte into the cell interior , wherein the supply channel has an inlet opening for the electrolyte to be supplied, which is spaced apart from the cell interior , and an outlet opening adjacent to the cell interior for the electrolyte to be supplied to flow out into the cell interior , characterized in that the supply channel has at least one transport channel , which connects the inlet opening to the outlet opening at least in sections, for transporting the electrolyte through the supply channel into the cell interior and at least one return channel for partially returning the electrolyte to be supplied counter to the transport direction (T) of the electrolyte to be returned in the transport channel , that the return channel is in fluid contact with the transport channel via a respective at least one inlet opening for the entry of the electrolyte to be returned and outlet opening for the exit of the electrolyte to be returned, spaced apart in the transport direction (T) of the electrolyte to be supplied,.
an optical isolator for use with a wavelength band of 600-800 nm comprises a Faraday rotator made of an oxide material containing an oxide represented by formula (I) in an amount of 99 % or higher and having a Verdet constant of 262 rad T -1 .m -1 or greater in the case of a wavelength band of 633 nm, and a hollow magnet arranged to surround the Faraday rotator and having its magnetic field polarity in the direction of the optical axis of the isolator wherein a sample length L (in mm) through which the Faraday rotator is arranged is in a range represented by an inequality and that the magnetic flux density B (T) impressed on the Faraday rotator is in a range represented by inequality , wherein the formula (I), the inequality , and the inequality are (Tb x R 1-x ) 2 O 3 (I) wherein 0.5 ≦ x ≦ 1.0, and R is at least one element selected from scandium, yttrium and any lanthanoid but Tb, 6 ≦ L ≦ 11 and B < 0.5
A saddle-type vehicle comprising: a vehicle body frame ; a pillion step supported by the vehicle body frame and on which a foot of a passenger is to be placed; a passenger seat supported by the vehicle body frame and on which the passenger is to be seated; an exhaust pipe configured to guide an exhaust gas discharged from an engine (E) to an outside; an exhaust pipe cover covering the exhaust pipe from a lateral outside thereof; and a guard body extending laterally outward from the vehicle body frame , wherein the guard body is disposed below the pillion step , characterised by a guard body cover covering the guard body from a lateral outside thereof, wherein a saddlebag which is configured to accommodate luggage is disposed rearward and upward of the guard body cover , wherein the guard body and the guard body cover are disposed to protrude laterally from an opening part formed in the exhaust pipe cover , and wherein the guard body and the guard body cover are disposed at a lateral inner side of an outermost end portion of the saddlebag . a vehicle body frame ; a pillion step supported by the vehicle body frame and on which a foot of a passenger is to be placed; a passenger seat supported by the vehicle body frame and on which the passenger is to be seated; an exhaust pipe configured to guide an exhaust gas discharged from an engine (E) to an outside; an exhaust pipe cover covering the exhaust pipe from a lateral outside thereof; and a guard body extending laterally outward from the vehicle body frame , wherein the guard body is disposed below the pillion step , characterised by a guard body cover covering the guard body from a lateral outside thereof, wherein a saddlebag which is configured to accommodate luggage is disposed rearward and upward of the guard body cover , wherein the guard body and the guard body cover are disposed to protrude laterally from an opening part formed in the exhaust pipe cover , and wherein the guard body and the guard body cover are disposed at a lateral inner side of an outermost end portion of the saddlebag .
A catalyst for solid polymer fuel cells in which catalyst particles containing Pt as an essential catalyst metal are supported on a carbon powder carrier, wherein the catalyst particles comprise Pt and metal M1 as catalyst metals, and the metal M1 is one of Co, Ni and Fe, a fluorine compound having a C-F bond is supported on at least a part of the surfaces of the catalyst particles, and the supported amount of the fluorine compound is 3 to 20 mass% based on the total mass of the catalyst, and when the catalyst for solid polymer fuel cells is analyzed by X-ray photoelectron spectroscopy after potential holding at 1.2 V (vs. RHE) for 10 minutes in a perchloric acid solution, a ratio of zero-valent Pt to total Pt as measured by the analysis is 75% or more and 95% or less, and the ratio of tetravalent Pt to total Pt is 1.5% or less as measured by the analysis. the catalyst particles comprise Pt and metal M1 as catalyst metals, and the metal M1 is one of Co, Ni and Fe, a fluorine compound having a C-F bond is supported on at least a part of the surfaces of the catalyst particles, and the supported amount of the fluorine compound is 3 to 20 mass% based on the total mass of the catalyst, and when the catalyst for solid polymer fuel cells is analyzed by X-ray photoelectron spectroscopy after potential holding at 1.2 V (vs. RHE) for 10 minutes in a perchloric acid solution, a ratio of zero-valent Pt to total Pt as measured by the analysis is 75% or more and 95% or less, and the ratio of tetravalent Pt to total Pt is 1.5% or less as measured by the analysis.
An apparatus comprising a processor coupled to a memory wherein the processor and the memory are configured to provide a rich execution environment and a trusted execution environment , wherein the memory and processes in the trusted execution environment are protected from access or modification by applications executing within the rich execution environment , and wherein the processor is configured to: install, within the rich execution environment , a first client application , wherein the first client application comprises a signature generated based on a service provider private key; determine that the first client application requires services from a trusted application ; send a request for installation of the trusted application to an outside entity ; receive, within the rich execution environment , one or more messages, wherein the one or more messages comprise a service provider public key corresponding to the service provider private key, and data for installing the trusted application; securely transfer the one or more messages to the trusted execution environment ; configure, within the trusted execution environment a security domain , wherein the security domain is associated with the service provider public key ; install, within the trusted execution environment , the trusted application ; associate the trusted application with the security domain ; and configure an access control list within the security domain , wherein access to the trusted application is controlled by the access control list . install, within the rich execution environment , a first client application , wherein the first client application comprises a signature generated based on a service provider private key; determine that the first client application requires services from a trusted application ; send a request for installation of the trusted application to an outside entity ; receive, within the rich execution environment , one or more messages, wherein the one or more messages comprise a service provider public key corresponding to the service provider private key, and data for installing the trusted application; securely transfer the one or more messages to the trusted execution environment ; configure, within the trusted execution environment a security domain , wherein the security domain is associated with the service provider public key ; install, within the trusted execution environment , the trusted application ; associate the trusted application with the security domain ; and configure an access control list within the security domain , wherein access to the trusted application is controlled by the access control list .
A component mounting device , comprising: a moving body capable of moving in an XY plane in relation to the base; a component mounting head which is supported by the moving body and holds a suction nozzle for picking up a component which is supplied to a component supply position ; and an imaging device which is supported by the moving body and for imaging the component which is supplied to the component supply position , characterized by a non-splicing feeder which is detachably mounted to a base and is capable of continuously feeding a first carrier tape and a second carrier tape to the component supply position without splicing and capable of supplying the first carrier tape to the component supply position with the second carrier tape inserted into feeder and standing by without being supplied by feeder ; identification means (step s110) configured to image a component which is stored in the second carrier tape and is the first component after switching from the first carrier tape to the second carrier tape using the imaging device and identify a center position of the component before picking up the component; and correction control means (step s112) configured to subject the moving body to positional correction based on the identification performed by the identification means (step s110) such that the suction nozzle picks up the component at the center position of the component. a moving body capable of moving in an XY plane in relation to the base; a component mounting head which is supported by the moving body and holds a suction nozzle for picking up a component which is supplied to a component supply position ; and an imaging device which is supported by the moving body and for imaging the component which is supplied to the component supply position , characterized by a non-splicing feeder which is detachably mounted to a base and is capable of continuously feeding a first carrier tape and a second carrier tape to the component supply position without splicing and capable of supplying the first carrier tape to the component supply position with the second carrier tape inserted into feeder and standing by without being supplied by feeder ; identification means (step s110) configured to image a component which is stored in the second carrier tape and is the first component after switching from the first carrier tape to the second carrier tape using the imaging device and identify a center position of the component before picking up the component; and correction control means (step s112) configured to subject the moving body to positional correction based on the identification performed by the identification means (step s110) such that the suction nozzle picks up the component at the center position of the component.
A thermally-bondable multi-layered composite film , which is attached to a fabric substrate to prepare a fabric for outdoor clothing, comprising: a breathable waterproof membrane layer ; a base layer provided in the form of dots on an upper portion of the breathable waterproof membrane layer ; a hot-melt adhesive layer provided in the form of dots at a rate of 10 g/m 2 to 20 g/m 2 on an upper portion of the base layer to form a double dot layer ; a second adhesive layer on a lower portion of the breathable waterproof membrane layer , wherein the second adhesive layer is a solvent-type polyurethane adhesive coated in a range of 10 g/m 2 to 30 g/m 2 ; and a knitted layer on a lower portion of the second adhesive layer , wherein a basis weight of the knitted layer is in a range of 15 g/m 2 to 45 g/m 2 , wherein the double dot layer is formed at a unit density in a range of 30 dots/cm 2 to 220 dots/cm 2 , and a linear density of the double dot layer is in a range of 7 dots to 40 dots/2.54 cm (1 inch). a breathable waterproof membrane layer ; a base layer provided in the form of dots on an upper portion of the breathable waterproof membrane layer ; a hot-melt adhesive layer provided in the form of dots at a rate of 10 g/m 2 to 20 g/m 2 on an upper portion of the base layer to form a double dot layer ; a second adhesive layer on a lower portion of the breathable waterproof membrane layer , wherein the second adhesive layer is a solvent-type polyurethane adhesive coated in a range of 10 g/m 2 to 30 g/m 2 ; and a knitted layer on a lower portion of the second adhesive layer , wherein a basis weight of the knitted layer is in a range of 15 g/m 2 to 45 g/m 2 , wherein the double dot layer is formed at a unit density in a range of 30 dots/cm 2 to 220 dots/cm 2 , and a linear density of the double dot layer is in a range of 7 dots to 40 dots/2.54 cm (1 inch).
Calibration method for machines for the production of segmented extruded products comprising the steps of: - activating an extrusion process according to a plurality of operating parameters suitable for producing a segmented extruded product having at least one segmentation portion between at least two materials; - injecting a marker in correspondence of said at least one segmentation portion during its extrusion; - detecting a plurality of characterizing parameters of the marker and / or of the segmentation portion , said characterizing parameters comprising at least one of spatial distribution of the segmentation portion and at least one axial and / or radial position of the segmentation portion ; - selecting at least one operating parameter according to at least one of the detected characterizing parameters, so as to modify spatial distributions and / or axial and / or radial positions of the at least one segmentation portion - activating an extrusion process according to a plurality of operating parameters suitable for producing a segmented extruded product having at least one segmentation portion between at least two materials; - injecting a marker in correspondence of said at least one segmentation portion during its extrusion; - detecting a plurality of characterizing parameters of the marker and / or of the segmentation portion , said characterizing parameters comprising at least one of spatial distribution of the segmentation portion and at least one axial and / or radial position of the segmentation portion ; - selecting at least one operating parameter according to at least one of the detected characterizing parameters, so as to modify spatial distributions and / or axial and / or radial positions of the at least one segmentation portion
A method of manufacturing an electrode current collector for a secondary battery, the method comprising: preparing a carbon nanotube (CNT) dispersion by dispersing 0.1 wt% to 10 wt% of the CNTs in a dispersion solvent; forming a CNT film on a water surface by spraying the CNT dispersion onto water; forming a CNT coating layer on metal foil by transferring the metal foil in a roll-to-roll manner after being unwound while passing through the water such that one surface of the metal foil is brought into contact with one end of the CNT film formed on the water surface and wherein the metal foil is transferred at a rate of 10 m/min to 50 m/min and at an angle of 20° to 45° with respect to the water surface; and curing the CNT coating layer by heat treatment while rewinding the metal foil with the CNT coating layer formed thereon. preparing a carbon nanotube (CNT) dispersion by dispersing 0.1 wt% to 10 wt% of the CNTs in a dispersion solvent; forming a CNT film on a water surface by spraying the CNT dispersion onto water; forming a CNT coating layer on metal foil by transferring the metal foil in a roll-to-roll manner after being unwound while passing through the water such that one surface of the metal foil is brought into contact with one end of the CNT film formed on the water surface and wherein the metal foil is transferred at a rate of 10 m/min to 50 m/min and at an angle of 20° to 45° with respect to the water surface; and curing the CNT coating layer by heat treatment while rewinding the metal foil with the CNT coating layer formed thereon.