mhurhangee/patent-ind-claim-en huggingface dataset:
A non-oriented electrical steel sheet having a chemical composition comprising C: not more than 0.005 mass%, Si: 2.8 to 6.5 mass%, Mn: 0.05 to 2.0 mass%, Al: not more than 3.0 mass%, P: not more than 0.20 mass%, S: not more than 0.005 mass%, N: not more than 0.005 mass%, Ti: not more than 0.003 mass%, V: not more than 0.005 mass%, and Nb: not more than 0.005 mass%, provided that Si, Mn and Al satisfy Si - 2A1 - Mn ≥ 0, optionally at least one group selected from the following groups A to D: Group A: 0.0020 to 0.10 mass% in total of one or two selected from Mo and W; Group B: 0.005 to 0.20 mass% of one or two selected from Sn and Sb; Group C: 0.001 to 0.010 mass% in total of one or two selected from Ca and Mg; Group D: 0.01 to 1.0 mass% in total of one or more selected from Cu, Ni and Cr, and the remainder being Fe and inevitable impurities, characterized in that an average value of magnetostriction λ p-p (L) in a rolling direction and magnetostriction λ p-p (C) in a direction perpendicular to the rolling direction at a frequency of 400 Hz and a magnetic flux density of 1.0 T is not more than 4.5×10 -6 , an area ratio of recrystallized crystal grains at a section in the rolling direction of the steel sheet is 40 to 95%, an average grain size is 10 to 40 μm, a yield stress is not less than 500 MPa, and a sheet thickness t, in mm, and an iron loss W 10/400 , in W/kg, satisfy the following equation : W 10 / 400 ≤ 9 + 62 × t wherein the magnetostriction, the area ratio of recrystallized crystal grains, the average grain size, the yield stress, and the iron loss are determined by the methods set out in the description. Group A: 0.0020 to 0.10 mass% in total of one or two selected from Mo and W; Group B: 0.005 to 0.20 mass% of one or two selected from Sn and Sb; Group C: 0.001 to 0.010 mass% in total of one or two selected from Ca and Mg; Group D: 0.01 to 1.0 mass% in total of one or more selected from Cu, Ni and Cr, an average value of magnetostriction λ p-p (L) in a rolling direction and magnetostriction λ p-p (C) in a direction perpendicular to the rolling direction at a frequency of 400 Hz and a magnetic flux density of 1.0 T is not more than 4.5×10 -6 , an area ratio of recrystallized crystal grains at a section in the rolling direction of the steel sheet is 40 to 95%, an average grain size is 10 to 40 μm, a yield stress is not less than 500 MPa, and a sheet thickness t, in mm, and an iron loss W 10/400 , in W/kg, satisfy the following equation : W 10 / 400 ≤ 9 + 62 × t wherein the magnetostriction, the area ratio of recrystallized crystal grains, the average grain size, the yield stress, and the iron loss are determined by the methods set out in the description.
Infrared reflective and electrically conductive composite film to coat on a substrate , said composite film comprising: at least one metal layer of connected metal nanowires conformably covered by an optically transparent conductive layer that fits closely and adapts to the shape of the at least one metal layer so as to form a flattened surface; at least one infrared reflective layer being a layer of silver nanostructured particles with irregular shape or disk shape conformably covered by another optically transparent conductive layer that fits closely and adapts to the shape of the at least one infrared reflective layer so as to form a flattened surface. at least one metal layer of connected metal nanowires conformably covered by an optically transparent conductive layer that fits closely and adapts to the shape of the at least one metal layer so as to form a flattened surface; at least one infrared reflective layer being a layer of silver nanostructured particles with irregular shape or disk shape conformably covered by another optically transparent conductive layer that fits closely and adapts to the shape of the at least one infrared reflective layer so as to form a flattened surface.
A method of manufacturing support elements for lighting devices, the method including: - providing an elongated, electrically non-conductive substrate with opposed surfaces, said substrate having an electrically-conductive layer extending along one of said opposed surfaces, - etching said electrically-conductive layer to provide a set of electrically-conductive tracks extending along said non-conductive substrate with at least one portion of said electrically non-conductive substrate left free by said set of electrically-conductive tracks , - forming at said at least one portion of said electrically non-conductive substrate left free by said set of electrically-conductive tracks a network of electrically-conductive lines coupleable with at least one electrically-powered light radiation source (L), wherein said forming includes printing electrically-conductive material onto said non-conductive substrate , - electrically coupling said set of electrically-conductive tracks and said network of electrically-conductive lines , wherein the method comprises: - providing said at least one portion of said electrically non-conductive substrate left free by said set of electrically-conductive tracks at said one of said opposed surfaces along which said etched, electrically-conductive layer extends, - electrically coupling said set of electrically-conductive tracks and said network of electrically-conductive lines by means of electrically-conductive elements mounted at said one of said opposed surfaces of the non-conductive substrate wherein said electrically-conductive elements include zero ohm SMD components. - providing an elongated, electrically non-conductive substrate with opposed surfaces, said substrate having an electrically-conductive layer extending along one of said opposed surfaces, - etching said electrically-conductive layer to provide a set of electrically-conductive tracks extending along said non-conductive substrate with at least one portion of said electrically non-conductive substrate left free by said set of electrically-conductive tracks , - forming at said at least one portion of said electrically non-conductive substrate left free by said set of electrically-conductive tracks a network of electrically-conductive lines coupleable with at least one electrically-powered light radiation source (L), wherein said forming includes printing electrically-conductive material onto said non-conductive substrate , - electrically coupling said set of electrically-conductive tracks and said network of electrically-conductive lines , - providing said at least one portion of said electrically non-conductive substrate left free by said set of electrically-conductive tracks at said one of said opposed surfaces along which said etched, electrically-conductive layer extends, - electrically coupling said set of electrically-conductive tracks and said network of electrically-conductive lines by means of electrically-conductive elements mounted at said one of said opposed surfaces of the non-conductive substrate wherein said electrically-conductive elements include zero ohm SMD components.
A straddled electric vehicle comprising: a front wheel ; a rear wheel ; at least one first exterior cover provided at an upside of the rear wheel with regard to upward and downward directions of the vehicle and extending in forward and backward directions (F, B) of the vehicle in a side view; at least one second exterior cover provided at a downside of the first exterior cover with regard to upward and downward directions of the vehicle and extending in the forward and backward directions (F, B) of the vehicle in the side view; and a virtual surface (Vs) defined as a surface connecting an exterior surface of the first exterior cover and an exterior surface of the second exterior cover , wherein the second exterior cover is placed to form a gap (G) extending in the forward and backward directions (F, B) of the vehicle between a first end extending in the forward and backward directions (F, B) of the first exterior cover and a second end extending in the forward and backward directions (F, B) of the second exterior cover and facing the first end and inside of the virtual surface (Vs), and at least one hole (H, H1, H2) is formed in a part of the second end , and a part of the hole (H, H1, H2) is exposed to outside of the vehicle in the side view. a front wheel ; a rear wheel ; at least one first exterior cover provided at an upside of the rear wheel with regard to upward and downward directions of the vehicle and extending in forward and backward directions (F, B) of the vehicle in a side view; at least one second exterior cover provided at a downside of the first exterior cover with regard to upward and downward directions of the vehicle and extending in the forward and backward directions (F, B) of the vehicle in the side view; and a virtual surface (Vs) defined as a surface connecting an exterior surface of the first exterior cover and an exterior surface of the second exterior cover , wherein the second exterior cover is placed to form a gap (G) extending in the forward and backward directions (F, B) of the vehicle between a first end extending in the forward and backward directions (F, B) of the first exterior cover and a second end extending in the forward and backward directions (F, B) of the second exterior cover and facing the first end and inside of the virtual surface (Vs), and at least one hole (H, H1, H2) is formed in a part of the second end , and a part of the hole (H, H1, H2) is exposed to outside of the vehicle in the side view.
A data conversion device comprising: a layerdata division section configured to generate layerdata (D3) by dividing a target object into layers each having a thickness capable of being shaped by an inkjet method based on three-dimensional data of the target object to be subjected to lamination shaping; a grid data generation section configured to generate grid data (D5) by defining the layer data (D3) by grid regions arranged in a matrix, each indicating a position to which a droplet is to be ejected by the inkjet method; and an ejection position change section configured to change the grid data (D5), characterized by an impact diameter determination section configured to determine an impact diameter (R1) when the droplet is ejected, wherein in a case (Figs. 12, 13) wherein the grid regions form a rectangular shape and are arranged along a first direction and a second direction perpendicularto the first direction and the size (R1) of the impact diameter is 2N times the size (L1) of the grid region , N being a natural number, the ejection position change section sets the N number of the grid regions from the edge portion along the first direction as non-ejection regions , to each of which the droplet is not to be ejected, and deviates grid regions other than the non-ejection regions , toward the non-ejection regions along the second direction by a distance obtained by multiplying a length (L1) of one side in the grid region along the second direction by a number obtained by subtracting a half from the number N. a layerdata division section configured to generate layerdata (D3) by dividing a target object into layers each having a thickness capable of being shaped by an inkjet method based on three-dimensional data of the target object to be subjected to lamination shaping; a grid data generation section configured to generate grid data (D5) by defining the layer data (D3) by grid regions arranged in a matrix, each indicating a position to which a droplet is to be ejected by the inkjet method; and an ejection position change section configured to change the grid data (D5), characterized by an impact diameter determination section configured to determine an impact diameter (R1) when the droplet is ejected, wherein in a case (Figs. 12, 13) wherein the grid regions form a rectangular shape and are arranged along a first direction and a second direction perpendicularto the first direction and the size (R1) of the impact diameter is 2N times the size (L1) of the grid region , N being a natural number, the ejection position change section sets the N number of the grid regions from the edge portion along the first direction as non-ejection regions , to each of which the droplet is not to be ejected, and deviates grid regions other than the non-ejection regions , toward the non-ejection regions along the second direction by a distance obtained by multiplying a length (L1) of one side in the grid region along the second direction by a number obtained by subtracting a half from the number N.
An apparatus for supporting an object , the apparatus comprising: a support surface; a first retainer and a second retainer , the first retainer being for coupling at least in part by the support surface to the second retainer, or being coupled at least in part by the support surface to the second retainer, wherein at least one of the first and second retainers comprises a stop ; a fastener , comprising: an outer part including an internal surface that comprises a threaded portion wherein the internal surface of the outer part is an internal surface of a through hole extending through the outer part; and an inner part including an external thread arranged to enable the outer part to threadably rotate around the inner part, and at least one slot having a non-circular cross section in a plane perpendicular to the screw axis of the external thread, the at least one slot being shaped to receive the first and second retainers, such that the first and second retainers are rotatably fixed relative to the at least one slot and the stop prevents the retainers from exiting the at least one slot in a direction co-incident with or parallel to the screw axis. a support surface; a first retainer and a second retainer , the first retainer being for coupling at least in part by the support surface to the second retainer, or being coupled at least in part by the support surface to the second retainer, wherein at least one of the first and second retainers comprises a stop ; a fastener , comprising: an outer part including an internal surface that comprises a threaded portion wherein the internal surface of the outer part is an internal surface of a through hole extending through the outer part; and an inner part including an external thread arranged to enable the outer part to threadably rotate around the inner part, and at least one slot having a non-circular cross section in a plane perpendicular to the screw axis of the external thread, the at least one slot being shaped to receive the first and second retainers, such that the first and second retainers are rotatably fixed relative to the at least one slot and the stop prevents the retainers from exiting the at least one slot in a direction co-incident with or parallel to the screw axis. an outer part including an internal surface that comprises a threaded portion wherein the internal surface of the outer part is an internal surface of a through hole extending through the outer part; and an inner part including an external thread arranged to enable the outer part to threadably rotate around the inner part, and at least one slot having a non-circular cross section in a plane perpendicular to the screw axis of the external thread, the at least one slot being shaped to receive the first and second retainers, such that the first and second retainers are rotatably fixed relative to the at least one slot and the stop prevents the retainers from exiting the at least one slot in a direction co-incident with or parallel to the screw axis.
A spunbond nonwoven fabric comprising a plurality of continuous bicomponent fibers having a sheath/core configuration, wherein the sheath/core configuration consists of two polymers, wherein the first polymer is an ionomer of ethylene/(meth)acrylic acid copolymer that forms the sheath and the second polymer is a polyamide that forms the core.
A walker apparatus (40, 40.1, 40.2, 40.3, 40.4, 40.5, 40.6, 40.7, 40.10, 40.11, 40.12, 40.13, 40.14) comprising: a pair of spaced-apart, upright frame members (42, 44, 42.1, 44.1, 42.2, 44.2, 42.3, 44.3, 42.4, 44.4, 42.5, 44.5, 42.6, 44.6, 42.7, 44.7, 42.9, 44.9, 42.10, 44.10, 42.11, 44.11, 42.12, 44.12, 42.13, 44.13, 42.14, 44.14); and a seat (64, 64.1, 64.2, 64.3, 64.4, 64.5, 64.6, 64.7, 64.10, 64.11, 64.12, 64.13, 64.14) operatively connected to the upright frame members; and characterized in that the walker apparatus further includes a backrest (102, 102.1, 102.2, 102.3, 102.4, 102.5, 102.6, 102.7, 102.10, 102.11, 102.12, 102.13, 102.14) cantilevered from the frame members, the backrest having at least one opening (136, 136.1, 136.2, 136.3, 136.4, 136.5, 136.6, 136.7, 136.10, 136.11, 136.12, 136.13, 136.14) extending therethrough for permitting a user's vision past the backrest when the user grips the upright frame members; wherein the backrest (102, 102.1, 102.2, 102.3, 102.4, 102.5, 102.6, 102.7, 102.10, 102.11, 102.12, 102.13, 102.14) is flexible and arcuate, and includes a pair of spaced-apart arcuate elongate members (104, 106, 104.1, 106.1, 104.2, 106.2, 104.3, 106.3, 104.4, 106.4, 104.5, 106.5, 104.6, 106.6, 104.7, 106.7, 104.10, 106.10,104.11, 106.11, 104.12, 106.12, 104.13, 106.13) that connect together at common ends (108, 110, 108.1, 110.1, 108.2, 110.2, 108.3, 110.3, 108.4, 110.4, 108.5, 110.5, 108.6, 110.6, 108.7, 110.7, 108.10, 110.10, 108.11, 110.11, 108.12, 110.12, 108.13, 110.13). a pair of spaced-apart, upright frame members (42, 44, 42.1, 44.1, 42.2, 44.2, 42.3, 44.3, 42.4, 44.4, 42.5, 44.5, 42.6, 44.6, 42.7, 44.7, 42.9, 44.9, 42.10, 44.10, 42.11, 44.11, 42.12, 44.12, 42.13, 44.13, 42.14, 44.14); and a seat (64, 64.1, 64.2, 64.3, 64.4, 64.5, 64.6, 64.7, 64.10, 64.11, 64.12, 64.13, 64.14) operatively connected to the upright frame members; and characterized in that the walker apparatus further includes a backrest (102, 102.1, 102.2, 102.3, 102.4, 102.5, 102.6, 102.7, 102.10, 102.11, 102.12, 102.13, 102.14) cantilevered from the frame members, the backrest having at least one opening (136, 136.1, 136.2, 136.3, 136.4, 136.5, 136.6, 136.7, 136.10, 136.11, 136.12, 136.13, 136.14) extending therethrough for permitting a user's vision past the backrest when the user grips the upright frame members; wherein the backrest (102, 102.1, 102.2, 102.3, 102.4, 102.5, 102.6, 102.7, 102.10, 102.11, 102.12, 102.13, 102.14) is flexible and arcuate, and includes a pair of spaced-apart arcuate elongate members (104, 106, 104.1, 106.1, 104.2, 106.2, 104.3, 106.3, 104.4, 106.4, 104.5, 106.5, 104.6, 106.6, 104.7, 106.7, 104.10, 106.10,104.11, 106.11, 104.12, 106.12, 104.13, 106.13) that connect together at common ends (108, 110, 108.1, 110.1, 108.2, 110.2, 108.3, 110.3, 108.4, 110.4, 108.5, 110.5, 108.6, 110.6, 108.7, 110.7, 108.10, 110.10, 108.11, 110.11, 108.12, 110.12, 108.13, 110.13).
Sulfonyl hydroxamic acid compounds of general formula I wherein ring A and B is aryl or heteroaryl or cycloalkyl group R 1 , R 2 , R 3 , R 4 , R 5 , R 6 is hydrogen, alkoxy, aryloxy, hydroxy, ester, amide, amino, alkyl, aryl, heteroaryl, halogen, hydroxy, alkoxy, aryloxy, nitro, cyano, ester, aldehyde and X is O. ring A and B is aryl or heteroaryl or cycloalkyl group R 1 , R 2 , R 3 , R 4 , R 5 , R 6 is hydrogen, alkoxy, aryloxy, hydroxy, ester, amide, amino, alkyl, aryl, heteroaryl, halogen, hydroxy, alkoxy, aryloxy, nitro, cyano, ester, aldehyde and X is O.
A cooking oven comprising: an oven cavity ; an oven door (30; 14) having a viewing window ; a door handle (36; 16) mounted at the exterior side of the over door (30; 14); and a camera assembly which is attached to the door handle (36; 16) for monitoring the oven cavity , the camera assembly comprising: a camera having mounting means for mounting the camera at the door handle (36; 16); and a reflection shield for the camera comprising: a shield element for covering a portion of the oven door (30; 14), a viewing window for the camera ; and at least one clamp for clamping the reflection shield between the oven door and the door handle (36; 16). an oven cavity ; an oven door (30; 14) having a viewing window ; a door handle (36; 16) mounted at the exterior side of the over door (30; 14); and a camera assembly which is attached to the door handle (36; 16) for monitoring the oven cavity , the camera assembly comprising: a camera having mounting means for mounting the camera at the door handle (36; 16); and a reflection shield for the camera comprising: a shield element for covering a portion of the oven door (30; 14), a viewing window for the camera ; and at least one clamp for clamping the reflection shield between the oven door and the door handle (36; 16). a camera having mounting means for mounting the camera at the door handle (36; 16); and a reflection shield for the camera comprising: a shield element for covering a portion of the oven door (30; 14), a viewing window for the camera ; and at least one clamp for clamping the reflection shield between the oven door and the door handle (36; 16). a shield element for covering a portion of the oven door (30; 14), a viewing window for the camera ; and at least one clamp for clamping the reflection shield between the oven door and the door handle (36; 16).
A vehicle seat core for forming a vehicle seat pad by integration with a cushion , comprising a foamed resin molded body obtained by filling a cavity of a mold with a plurality of foamed resin particles and performing in-mold foam molding, wherein at least a partial region of a surface of the foamed resin molded body to which the cushion is bonded when forming the vehicle seat pad has a surface expansion rate of 40% to 85%, the surface expansion rate being a proportion of an area of a surface on a virtual plane corresponding to the mold of the foamed resin molded body with respect to an area of the virtual plane within the region , and wherein the foamed resin molded body has a first fusion rate of 95% or more, the first fusion rate being a proportion of an area of foamed resin particles that appear on a cross-section obtained when cutting the foamed resin molded body with respect to an area of the cross-section. a foamed resin molded body obtained by filling a cavity of a mold with a plurality of foamed resin particles and performing in-mold foam molding, wherein at least a partial region of a surface of the foamed resin molded body to which the cushion is bonded when forming the vehicle seat pad has a surface expansion rate of 40% to 85%, the surface expansion rate being a proportion of an area of a surface on a virtual plane corresponding to the mold of the foamed resin molded body with respect to an area of the virtual plane within the region , and wherein the foamed resin molded body has a first fusion rate of 95% or more, the first fusion rate being a proportion of an area of foamed resin particles that appear on a cross-section obtained when cutting the foamed resin molded body with respect to an area of the cross-section.
Valve arrangement for controlling the air suspension level of a rail vehicle, comprising a proportional directional control valve, a sensor means for continuously detecting a distance variable representing the distance between a car body and a chassis or bogie of the rail vehicle, and a digital control device, characterized in that the control device is programmed to determine a control deviation on the basis of the actual distance detected by the sensor means and a comparison with a specifiable target distance, and to continuously generate manipulated variables as a linear function of the determined control deviation and the car body travel speed.