mhurhangee/patent-ind-claim-en huggingface dataset:
An optical member comprising: a substrate ; and a film containing a plurality of chain particles and having a refractive index of 1.20 or more and 1.27 or less at a wavelength of 550 nm, on the substrate , wherein the film includes an alcohol having an ether bond or an ester bond and having a branched structure having 4 to 7 carbon atoms, characterized in that the alcohol is present in the film in an amount within a range of 1.0 mg/cm 3 or more and 2.8 mg/cm 3 or less. a substrate ; and a film containing a plurality of chain particles and having a refractive index of 1.20 or more and 1.27 or less at a wavelength of 550 nm, on the substrate , wherein the film includes an alcohol having an ether bond or an ester bond and having a branched structure having 4 to 7 carbon atoms, characterized in that the alcohol is present in the film in an amount within a range of 1.0 mg/cm 3 or more and 2.8 mg/cm 3 or less.
A blade part for a hair removal device , the blade part comprising: a fixed blade ; and a movable blade that reciprocatingly slides with respect to the fixed blade , the blade part being adapted to cut hair with the fixed blade and the movable blade , wherein the fixed blade has a plurality of fixed blade bars arranged side by side in a reciprocating sliding direction (W) of the movable blade with respect to the fixed blade , and a plurality of fixed blade grooves arranged side by side in the reciprocating sliding direction (W), the movable blade has a plurality of movable blade bars arranged side by side in the reciprocating sliding direction (W), and a plurality of movable blade grooves arranged side by side in the reciprocating sliding direction (W), and each of the fixed blade bars is formed to have a bar width (W3) in the reciprocating sliding direction (W) to be larger than a groove width (W2) of each of the movable blade grooves in the reciprocating sliding direction (W), characterized in that each of the movable blade bars is formed to have a bar width (W1) in the reciprocating sliding direction (W) to be larger than a groove width (W4) of each of the fixed blade grooves in the reciprocating sliding direction (W), and each of the fixed blade grooves and each of the movable blade grooves are formed to have a blade groove angle at least on an opening side to be a positive angle with an intersection positioned on a depth side . a fixed blade ; and a movable blade that reciprocatingly slides with respect to the fixed blade , the blade part being adapted to cut hair with the fixed blade and the movable blade , wherein the fixed blade has a plurality of fixed blade bars arranged side by side in a reciprocating sliding direction (W) of the movable blade with respect to the fixed blade , and a plurality of fixed blade grooves arranged side by side in the reciprocating sliding direction (W), the movable blade has a plurality of movable blade bars arranged side by side in the reciprocating sliding direction (W), and a plurality of movable blade grooves arranged side by side in the reciprocating sliding direction (W), and each of the fixed blade bars is formed to have a bar width (W3) in the reciprocating sliding direction (W) to be larger than a groove width (W2) of each of the movable blade grooves in the reciprocating sliding direction (W), characterized in that each of the movable blade bars is formed to have a bar width (W1) in the reciprocating sliding direction (W) to be larger than a groove width (W4) of each of the fixed blade grooves in the reciprocating sliding direction (W), and each of the fixed blade grooves and each of the movable blade grooves are formed to have a blade groove angle at least on an opening side to be a positive angle with an intersection positioned on a depth side .
Mechanism for seating furniture, in particular for an office chair, - with a number of mechanism components, comprising at least a base support , a seat carrier arranged on the base carrier and movable relative to the base carrier and a backrest support coupled to the seat support , wherein a swivelling of the backrest support causes a movement of the seat support relative to the base support , - and with a spring system for biasing the seat support against the movement of the backrest support , wherein the spring system comprises two spring arrangements connected in series, characterised in that at least one of the two spring arrangements has a spring element which is designed as an elastically deformable element which is integrated in one piece into one of the mechanical components and which serves as an energy storage element. - with a number of mechanism components, comprising at least a base support , a seat carrier arranged on the base carrier and movable relative to the base carrier and a backrest support coupled to the seat support , wherein a swivelling of the backrest support causes a movement of the seat support relative to the base support , a base support , a seat carrier arranged on the base carrier and movable relative to the base carrier and a backrest support coupled to the seat support , wherein a swivelling of the backrest support causes a movement of the seat support relative to the base support , - and with a spring system for biasing the seat support against the movement of the backrest support , wherein the spring system comprises two spring arrangements connected in series, characterised in that at least one of the two spring arrangements has a spring element which is designed as an elastically deformable element which is integrated in one piece into one of the mechanical components and which serves as an energy storage element.
Procedure to safely limit the consumption of electrical power (P e ) at an electrical module of a field device , wherein the module consumes the electrical power (P e ) from a higher-level unit via an electrical input path , wherein - the consumption of electrical power (P e ) is controlled in that the input path is separated from the higher-level unit by a security circuit at a predefined clock cycle, wherein the clock cycle is controlled by a control signal (s c ) at the security circuit , characterized in that - the electrical input path is permanently separated from the higher-level unit by the security circuit both in the absence of a control signal (s c ) and in the presence of a constant control signal (s c ) in the form of a direct current, and - in the event of an incorrect control signal (s c ), the electrical power (P e ) is limited by the security circuit in that the input path is separated from the higher-level unit by the security circuit at least during a predefined minimum switch-off period (t off,min ), wherein the control signal (s c ) is incorrect if it exceeds a predefined maximum clock frequency (f t,max ) and/or a predefined maximum switch-on duration (t on,max ). - the consumption of electrical power (P e ) is controlled in that the input path is separated from the higher-level unit by a security circuit at a predefined clock cycle, wherein the clock cycle is controlled by a control signal (s c ) at the security circuit , - the electrical input path is permanently separated from the higher-level unit by the security circuit both in the absence of a control signal (s c ) and in the presence of a constant control signal (s c ) in the form of a direct current, and - in the event of an incorrect control signal (s c ), the electrical power (P e ) is limited by the security circuit in that the input path is separated from the higher-level unit by the security circuit at least during a predefined minimum switch-off period (t off,min ), wherein the control signal (s c ) is incorrect if it exceeds a predefined maximum clock frequency (f t,max ) and/or a predefined maximum switch-on duration (t on,max ).
An active cardiac electrical lead, comprising a tip housing having a lumen , a soft tip plug and a marker band , the tip housing comprising a body and an extension extending from a distal end of the body , the body having an outer diameter greater than an outer diameter of the extension , the soft tip plug fitting over the extension and engaging the extension , the marker band attached to an outer surface of the body or to an inner surface of the lumen , characterized in that : the extension defines projection(s) at a distal end thereof and an annular groove at a proximal end thereof, the soft tip plug defines a radial groove at a distal end thereof and an edge portion at a proximal end thereof, the projection(s) is disposed in the radial groove defined in the soft tip plug , and the edge portion extends inward into the annular groove defined in the extension .
A method of operating a mobile telecommunication system comprising a control node and a user equipment , wherein the method comprises: sending , by the control node , control data to the user equipment in a data transmission , wherein the data transmission has a first control data region and has a second control data region , wherein the second control data region is located in a data region of the data transmission , wherein the first control data region is located in a control region in the data transmission preceding the data region , wherein the first control data region comprises common control data for different user equipments, and wherein the second control data region comprises user equipment specific control data for said user equipment ; performing, by the user equipment , a blind decoding of transmission elements within the data transmission in order to detect the control data in the control region and in the data region in the data transmission , wherein said user equipment is configured with one or more user equipment specific search spaces in the first control data region and with at least one user equipment specific search space in the second control data region ; and wherein said performing the blind decoding comprises if monitoring at least one user equipment specific search space in the second control data region , not monitoring the one or more user equipment specific search spaces in the first control data region . sending , by the control node , control data to the user equipment in a data transmission , wherein the data transmission has a first control data region and has a second control data region , wherein the second control data region is located in a data region of the data transmission , wherein the first control data region is located in a control region in the data transmission preceding the data region , wherein the first control data region comprises common control data for different user equipments, and wherein the second control data region comprises user equipment specific control data for said user equipment ; performing, by the user equipment , a blind decoding of transmission elements within the data transmission in order to detect the control data in the control region and in the data region in the data transmission , wherein said user equipment is configured with one or more user equipment specific search spaces in the first control data region and with at least one user equipment specific search space in the second control data region ; and wherein said performing the blind decoding comprises if monitoring at least one user equipment specific search space in the second control data region , not monitoring the one or more user equipment specific search spaces in the first control data region .
A power flow control system insertable into a power transmission line for bypassing electrical disturbances in a power transmission line, comprising: a plurality of impedance injection units IIUs (8a-8e); and a filter network comprising: a first terminal and a second terminal that are series connectable to the power transmission line; a first circuit configured for bypassing high frequency disturbances, and comprising a first end connected to the first terminal and an opposed second end connected to the second terminal , wherein the first circuit further comprises an RC network having at least one resistor series connected with at least one capacitor , wherein the RC network is further connected in parallel with a surge arrestor and wherein the surge arrestor is connected across the first terminal and the second terminal; and a second circuit configured for carrying low frequency power, comprising a first end connected to the first terminal and an opposed second end connected to the second terminal , wherein the second circuit further comprises a first plurality of inductors series-connecting the first and second terminals and the plurality of IIUs (8a-8e). a plurality of impedance injection units IIUs (8a-8e); and a filter network comprising: a first terminal and a second terminal that are series connectable to the power transmission line; a first circuit configured for bypassing high frequency disturbances, and comprising a first end connected to the first terminal and an opposed second end connected to the second terminal , wherein the first circuit further comprises an RC network having at least one resistor series connected with at least one capacitor , wherein the RC network is further connected in parallel with a surge arrestor and wherein the surge arrestor is connected across the first terminal and the second terminal; and a second circuit configured for carrying low frequency power, comprising a first end connected to the first terminal and an opposed second end connected to the second terminal , wherein the second circuit further comprises a first plurality of inductors series-connecting the first and second terminals and the plurality of IIUs (8a-8e).
Method for sending a request for coupling an electronic device and a remote control with an input interface for inputting a control command for controlling the electronic device on a radio channel , wherein the remote control is arranged to control the electronic device via the radio channel or an infrared channel , comprising: - receiving the control command from the input interface , - generating the request for coupling, and - Transmission of the received control command together with the generated request for coupling via the infrared channel , wherein - the control command is transmitted together with the request for coupling via the infrared channel if the remote control is not connected to the electronic device via the radio channel and wherein the control command is otherwise transmitted solely via the radio channel . - receiving the control command from the input interface , - generating the request for coupling, and - Transmission of the received control command together with the generated request for coupling via the infrared channel , wherein - the control command is transmitted together with the request for coupling via the infrared channel if the remote control is not connected to the electronic device via the radio channel and wherein the control command is otherwise transmitted solely via the radio channel .
A method for producing a variant α-amylase polypeptide having altered binding to starch bundles, in which individual starch polymers are aligned, as compared to a parental α-amylase polypeptide, comprising: introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove that binds to starch bundles, wherein the mutation alters the binding of starch bundles to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide; wherein the starch-binding groove is formed by amino acid residues in the α-helix preceding the first β-stand in the A domain, the loop between the sixth α-helix and the seventh β-strand in the A domain, the loop between the seventh α-helix and the eighth β-strand in the A domain, and the loop connecting the A domain and the C domain; the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering, amino acid residues 1-6, 37, 39, 92-98, 227-229, 252-260, 281-285, 312-323, 357-362, 391, and 395-402, referring to SEQ ID NO: 3 for numbering, or amino acid residues 1-4, 36, 38, 91-97, 226-228, 251-259, 280-284, 311-322, 356-361, 363, 391, and 395-402, referring to SEQ ID NO: 4 for numbering; and wherein the parent has at least 60% amino acid sequence identity to SEQ ID NO: 1, 2, 3, 4, or 5. introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove that binds to starch bundles, wherein the mutation alters the binding of starch bundles to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide; wherein the starch-binding groove is formed by amino acid residues in the α-helix preceding the first β-stand in the A domain, the loop between the sixth α-helix and the seventh β-strand in the A domain, the loop between the seventh α-helix and the eighth β-strand in the A domain, and the loop connecting the A domain and the C domain; the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering, amino acid residues 1-6, 37, 39, 92-98, 227-229, 252-260, 281-285, 312-323, 357-362, 391, and 395-402, referring to SEQ ID NO: 3 for numbering, or amino acid residues 1-4, 36, 38, 91-97, 226-228, 251-259, 280-284, 311-322, 356-361, 363, 391, and 395-402, referring to SEQ ID NO: 4 for numbering; and wherein the parent has at least 60% amino acid sequence identity to SEQ ID NO: 1, 2, 3, 4, or 5.
A particulate material for powder bed fusion, wherein the particulate material comprises, based on the total weight of the particulate material, 98 to 100 weight percent of a semicrystalline thermoplastic selected from the group consisting of semicrystalline polycarbonates and semicrystalline polyetherimides; wherein the particulate material comprises particles characterized by a volume-based distribution of equivalent spherical diameters determined by laser diffraction according to ISO 13320:2009, and the distribution exhibits a Dv50 value in a range of 35 to 85 micrometers, wherein Dv50 is defined as the median equivalent spherical diameter, a Dv01 value greater than 2 micrometers, wherein Dv01 is defined as the equivalent spherical diameter corresponding to 1 percent of the cumulative undersize distribution, a Dv99 value less than 115 micrometers, wherein Dv99 is defined as the equivalent spherical diameter corresponding to 99 percent of the cumulative undersize distribution. wherein the particulate material comprises, based on the total weight of the particulate material, 98 to 100 weight percent of a semicrystalline thermoplastic selected from the group consisting of semicrystalline polycarbonates and semicrystalline polyetherimides; wherein the particulate material comprises particles characterized by a volume-based distribution of equivalent spherical diameters determined by laser diffraction according to ISO 13320:2009, and the distribution exhibits a Dv50 value in a range of 35 to 85 micrometers, wherein Dv50 is defined as the median equivalent spherical diameter, a Dv01 value greater than 2 micrometers, wherein Dv01 is defined as the equivalent spherical diameter corresponding to 1 percent of the cumulative undersize distribution, a Dv99 value less than 115 micrometers, wherein Dv99 is defined as the equivalent spherical diameter corresponding to 99 percent of the cumulative undersize distribution. a Dv50 value in a range of 35 to 85 micrometers, wherein Dv50 is defined as the median equivalent spherical diameter, a Dv01 value greater than 2 micrometers, wherein Dv01 is defined as the equivalent spherical diameter corresponding to 1 percent of the cumulative undersize distribution, a Dv99 value less than 115 micrometers, wherein Dv99 is defined as the equivalent spherical diameter corresponding to 99 percent of the cumulative undersize distribution.
Hydraulic supply system for at least one vehicle, in particular a rail vehicle, with at least one drive motor , with at least one flange , with at least one hydraulic pump and with at least one control plate for receiving and/or controlling further electrical and/or hydraulic components of the hydraulic supply system , wherein, in the mounted state, the flange is fastened to the drive motor and to the hydraulic pump to their mutual mechanical coupling, and wherein the flange is fastened to the control plate , wherein the flange also has at least one connector for coupling the hydraulic pump to the control plate , and wherein the flange has at least one electrical coupling element for electrically coupling the drive motor to the control plate , wherein the electrical coupling element is formed as at least one flange cable feedthrough and/or at least one flange cable duct, and the flange is designed such that cables in the flange cable feedthrough and/or the flange cable duct do not come into contact with the hydraulic fluid, wherein the flange has at least one flange housing in which the electrical coupling element or the electrical coupling element and the connector are integrated.
An electrical steel sheet, comprising: a steel strip for an electrical steel sheet; and an insulating film formed at a surface of the steel strip and containing metal phosphate and organic resin, wherein 20 mass% or more of the metal phosphate is crystallized, and the crystal structure of the portion is at least one among a cubic system, a tetragonal system, a hexagonal system, and an orthorhombic system, and the organic resin contains at least one kind selected from a group consisting of an acryl-based resin, an epoxy-based resin, and a polyester resin having a carboxyl group or a hydroxyl group at a surface of an emulsion particle for one part by mass to 50 parts by mass relative to 100 parts by mass of the metal phosphate. a steel strip for an electrical steel sheet; and an insulating film formed at a surface of the steel strip and containing metal phosphate and organic resin, wherein 20 mass% or more of the metal phosphate is crystallized, and the crystal structure of the portion is at least one among a cubic system, a tetragonal system, a hexagonal system, and an orthorhombic system, and the organic resin contains at least one kind selected from a group consisting of an acryl-based resin, an epoxy-based resin, and a polyester resin having a carboxyl group or a hydroxyl group at a surface of an emulsion particle for one part by mass to 50 parts by mass relative to 100 parts by mass of the metal phosphate.
A bicistronic expression vector for silencing a gene in astrocytes and neurons comprising two expression cassettes, wherein a first cassette comprises "astrocyte specific promoter-posttranscriptional regulatory element-the first silencer sequence-polyA tail" and a second cassette comprises "neuron specific promoter- posttranscriptional regulatory element -the second silencer sequence -polyA tail".
A kit for treating a treatment area in a vasculature, comprising: a first, pre-dilatation catheter having a first shaft including a first distal portion adapted for positioning at the treatment area and a first proximal portion including a first marking at a first location; and a second, dilatation catheter having a second shaft including a second distal portion adapted for positioning at the treatment area and a second proximal portion including a second marking at a second location substantially matching the first location of the first marking , wherein the first and second markings include hash lines forming a ruler with gradations identified by numbers. a first, pre-dilatation catheter having a first shaft including a first distal portion adapted for positioning at the treatment area and a first proximal portion including a first marking at a first location; and a second, dilatation catheter having a second shaft including a second distal portion adapted for positioning at the treatment area and a second proximal portion including a second marking at a second location substantially matching the first location of the first marking , wherein the first and second markings include hash lines forming a ruler with gradations identified by numbers.