mhurhangee/patent-ind-claim-en huggingface dataset:
A motorcycle comprising: a first frame member having a first opening ; a plurality of wires ; a joint member coupled to the first frame member and at least a second frame member , said joint member comprising a second opening therethrough; and a fuel tank having a first portion on a first side of the first frame member, a second portion on a second side of the first frame member and a third portion over the first frame member, said first portion, said second portion, and said third portion defining a fuel tank tunnel ; said plurality of wires extending into the first opening through the first frame member and through the second opening of the joint member, the first opening being rsadjacent to the fuel tank within the fuel tank tunnel ; characterized by further comprising a wire guide disposed beneath the first frame member within the fuel tank tunnel to guide the plurality of wires out of the first opening. a first frame member having a first opening ; a plurality of wires ; a joint member coupled to the first frame member and at least a second frame member , said joint member comprising a second opening therethrough; and a fuel tank having a first portion on a first side of the first frame member, a second portion on a second side of the first frame member and a third portion over the first frame member, said first portion, said second portion, and said third portion defining a fuel tank tunnel ; said plurality of wires extending into the first opening through the first frame member and through the second opening of the joint member, the first opening being rsadjacent to the fuel tank within the fuel tank tunnel ; characterized by further comprising a wire guide disposed beneath the first frame member within the fuel tank tunnel to guide the plurality of wires out of the first opening.
A method of manufacturing a semiconductor device, the method comprising: providing a semiconductor substrate comprising a high-doped semiconductor substrate layer having a doping density which is equal to or greater than 1×10 18 cm -3 , a high-doped semiconductor device layer , wherein a doping density of the high-doped semiconductor device layer is equal to or greater than 10 17 cm -3 , or 10 18 cm -3 , or 5×10 18 cm -3 , and a low-doped semiconductor etch stop layer of silicon arranged between the high-doped semiconductor substrate layer and the high-doped semiconductor device layer , wherein a doping density of the low-doped semiconductor etch stop layer is less than 10 17 cm -3 , or 10 16 cm -3 , or 10 15 cm -3 , the low-doped semiconductor etch stop layer has a thickness between 1 μm and 12 μm and the low-doped semiconductor etch stop layer borders the high-doped semiconductor device layer ; removing the high-doped semiconductor substrate layer , the removing comprises dopant selective chemical etching stopping at the low-doped semiconductor etch stop layer ; and thinning the low-doped semiconductor etch stop layer to generate an exposed surface of the high-doped semiconductor device layer . providing a semiconductor substrate comprising a high-doped semiconductor substrate layer having a doping density which is equal to or greater than 1×10 18 cm -3 , a high-doped semiconductor device layer , wherein a doping density of the high-doped semiconductor device layer is equal to or greater than 10 17 cm -3 , or 10 18 cm -3 , or 5×10 18 cm -3 , and a low-doped semiconductor etch stop layer of silicon arranged between the high-doped semiconductor substrate layer and the high-doped semiconductor device layer , wherein a doping density of the low-doped semiconductor etch stop layer is less than 10 17 cm -3 , or 10 16 cm -3 , or 10 15 cm -3 , the low-doped semiconductor etch stop layer has a thickness between 1 μm and 12 μm and the low-doped semiconductor etch stop layer borders the high-doped semiconductor device layer ; a high-doped semiconductor substrate layer having a doping density which is equal to or greater than 1×10 18 cm -3 , a high-doped semiconductor device layer , wherein a doping density of the high-doped semiconductor device layer is equal to or greater than 10 17 cm -3 , or 10 18 cm -3 , or 5×10 18 cm -3 , and a low-doped semiconductor etch stop layer of silicon arranged between the high-doped semiconductor substrate layer and the high-doped semiconductor device layer , wherein a doping density of the low-doped semiconductor etch stop layer is less than 10 17 cm -3 , or 10 16 cm -3 , or 10 15 cm -3 , the low-doped semiconductor etch stop layer has a thickness between 1 μm and 12 μm and the low-doped semiconductor etch stop layer borders the high-doped semiconductor device layer ; removing the high-doped semiconductor substrate layer , the removing comprises dopant selective chemical etching stopping at the low-doped semiconductor etch stop layer ; and thinning the low-doped semiconductor etch stop layer to generate an exposed surface of the high-doped semiconductor device layer .
A high-strength hot-dip galvanized steel sheet comprising a steel sheet having a composition consisting of 0.100% to 0.200% C, 0.01% or more and 0.50% or less Si, 0.10% or more and 0.60% or less Mn, 0.003% or more and 0.100% or less P, 0.0100% or less S, 0.010% to 0.100% Al, and 0.0100% or less N on a mass basis, optionally further at least one selected from the group consisting of 0.05% to 0.80% Cr, 0.005% to 0.100% V, 0.005% to 0.500% Mo, 0.01% to 0.10% Cu, 0.01% to 0.10% Ni, 0.0003% to 0.2000% B, 0.001% to 0.005% Ca and 0.001% to 0.005% of an REM on a mass basis, the remainder being Fe and inevitable impurities, the steel sheet having a microstructure consisting of a ferrite phase having an area fraction of 60% to 79%, a pearlite phase having an area fraction of 20% to 30%, a bainite phase having an area fraction of 1% to 5%, and an area fraction of a cementite phase present in a grain of the ferrite phase of 5% or less, optionally containing a retained austenite phase having an area fraction of 1% or less, and wherein the steel sheet has a tensile strength of 440 MPa to 490 MPa.
A fork assembly for a forked material-handling vehicle, the fork assembly comprising: a discrete elongate body ; a discrete load wheel module ; a first interlocking mechanism detachably connecting the elongate body to the load wheel module ; a discrete fork tip ; and a second interlocking mechanism detachably connecting the load wheel module to the fork tip ; wherein the first interlocking mechanism includes a first end cap that is attached to the elongate body and includes a first sheer-resistant body feature that is mated to a first sheer-resistant module feature of the load wheel module ; and/or wherein the second interlocking mechanism includes a second end cap that is attached to the fork tip and includes a second sheer-resistant attachment feature that is mated to a second sheer-resistant module feature of the load wheel module . a discrete elongate body ; a discrete load wheel module ; a first interlocking mechanism detachably connecting the elongate body to the load wheel module ; a discrete fork tip ; and a second interlocking mechanism detachably connecting the load wheel module to the fork tip ; wherein the first interlocking mechanism includes a first end cap that is attached to the elongate body and includes a first sheer-resistant body feature that is mated to a first sheer-resistant module feature of the load wheel module ; and/or wherein the second interlocking mechanism includes a second end cap that is attached to the fork tip and includes a second sheer-resistant attachment feature that is mated to a second sheer-resistant module feature of the load wheel module .
Variable displacement lubricant pump for providing pressurized lubricant for a motor vehicle, comprising - a pump rotor rotating about a rotor axis , comprising • a pump rotor shaft , • a rotor body provided with vane slits , and • pump vanes being provided radially slidable in the vane slits , and - a shiftable control ring being actuated to set the eccentricity of the control ring and defining the volumetric pump performance, the control ring defining a pump chamber separated by the pump vanes into pumping compartments wherein the control ring is provided with a radial inlet opening and/or a radial outlet opening , characterized in that the control ring comprises a control ring main body and at least two separate bushing rings at the radial inside of the control ring main body , and in that the radial inlet opening and/or the radial outlet opening is/are arranged axially between the two bushing rings . - a pump rotor rotating about a rotor axis , comprising • a pump rotor shaft , • a rotor body provided with vane slits , and • pump vanes being provided radially slidable in the vane slits , and • a pump rotor shaft , • a rotor body provided with vane slits , and • pump vanes being provided radially slidable in the vane slits , and - a shiftable control ring being actuated to set the eccentricity of the control ring and defining the volumetric pump performance, the control ring defining a pump chamber separated by the pump vanes into pumping compartments wherein the control ring is provided with a radial inlet opening and/or a radial outlet opening , characterized in that the control ring comprises a control ring main body and at least two separate bushing rings at the radial inside of the control ring main body , and in that the radial inlet opening and/or the radial outlet opening is/are arranged axially between the two bushing rings .
An exoskeleton comprising: - a foot structure comprising a support plane on which a foot of a leg of a person wearing the exoskeleton can bear when the foot is flat, the support plane comprising: - a front platform and a rear platform , and - a foot pivot connection connecting the front platform to the rear platform, the foot pivot connection being located in a quadrant delimited by a median sagittal section of the person wearing the exoskeleton and a frontal section passing through a leg , the exoskeleton being characterised in that the rear platform is closer to the median sagittal section than the front platform , so that a median longitudinal axis of the support plane has an angle between 15° and 35° relative to the median sagittal section when the exoskeleton is in a resting position. - a foot structure comprising a support plane on which a foot of a leg of a person wearing the exoskeleton can bear when the foot is flat, the support plane comprising: - a front platform and a rear platform , and - a foot pivot connection connecting the front platform to the rear platform,
Belt retractor comprising - a belt shaft which is rotatably mounted in a housing and onto which a seat belt can be wound, it being possible for the housing to be fastened to the vehicle, and - an electric motor for driving the belt shaft to move rotationally, and - a gearing mechanism transmitting the rotational movement of the electric motor to the belt shaft , characterized in that - a first blocking device is provided which, when at least one of the parts of the gearing mechanism is activated, blocks and thereby activates the gearing mechanism , and - the first blocking device can be activated by a signal-controlled actuator , - the actuator in a second function activating a second blocking device when a predetermined pull-out acceleration of the seat belt is exceeded or when a predetermined vehicle deceleration is exceeded. - a belt shaft which is rotatably mounted in a housing and onto which a seat belt can be wound, it being possible for the housing to be fastened to the vehicle, and - an electric motor for driving the belt shaft to move rotationally, and - a gearing mechanism transmitting the rotational movement of the electric motor to the belt shaft , characterized in that - a first blocking device is provided which, when at least one of the parts of the gearing mechanism is activated, blocks and thereby activates the gearing mechanism , and - the first blocking device can be activated by a signal-controlled actuator , - the actuator in a second function activating a second blocking device when a predetermined pull-out acceleration of the seat belt is exceeded or when a predetermined vehicle deceleration is exceeded.
Component of an air conditioning assembly, which includes a device for influencing a flow of air in the component of the air conditioning assembly, wherein the device comprises a surface element with at least one inflow-side edge and at least one outflow-side edge , and wherein the surface element is arranged in a fixed position in the component , wherein at least one edge , namely at least one outflow-side edge exhibits an outer contour provided with forward-pointing projections and indentations located between them, wherein the projections exhibit at least one edge , in particular at least one outflow-side edge , and a uniform absolute alignment, characterised in that the device is configured as a lamellar element, namely a fixed lamellar element, of a passage opening, in particular a swirl diffuser opening .
A method for obtaining characteristic information encoded on an electrochemical test strip having two electrodes disposed within a sample space, wherein the characteristic information is encoded on the test strip prior to introduction of sample, the method comprising the steps of: (a) introducing sample to the sample space so that the sample is in contact with two electrodes within the sample space; (b) determining a value that is representative of the double layer capacitance or the equivalent capacitance of the test strip; characterised in the further steps of (c) translating the value determined in step (b) into information reflecting a characteristic of the test strip prior to introduction of sample; and (d) performing an action based upon the characteristic information obtained in step (c) wherein the characteristic information encoded on the strip is selected from calibration information, regional or country coding, product identification, customer identification, assay type, and date of manufacture, thereby obtaining information encoded on the electrochemical test strip. (a) introducing sample to the sample space so that the sample is in contact with two electrodes within the sample space; (b) determining a value that is representative of the double layer capacitance or the equivalent capacitance of the test strip; characterised in the further steps of (c) translating the value determined in step (b) into information reflecting a characteristic of the test strip prior to introduction of sample; and (d) performing an action based upon the characteristic information obtained in step (c)
A kit for quantitatively determining a bile acid in a biological sample, comprising: a compound represented by General Formula (I) in a dry state; a fluorescent particle that has a first binding substance capable of binding to the bile acid; and a substrate that has a detection region having a second binding substance capable of binding to any one of the bile acid and the first binding substance, in the formula, R represents -NH-C 6 H 5 , -NH 2 , or -NH-CH 2 -CH 2 -NH 2 . a compound represented by General Formula (I) in a dry state; a fluorescent particle that has a first binding substance capable of binding to the bile acid; and a substrate that has a detection region having a second binding substance capable of binding to any one of the bile acid and the first binding substance, in the formula, R represents -NH-C 6 H 5 , -NH 2 , or -NH-CH 2 -CH 2 -NH 2 .
Mounting assembly comprising an engine block , an exhaust manifold , and a connecting flange element attached to the engine block by an engine side flange surface and attached to the exhaust manifold by an exhaust manifold side flange surface , wherein the connecting flange element comprises a plurality of through openings which extend from the engine-side flange surface to the exhaust-manifold-side flange surface and each radially define an exhaust passage , wherein a heat protection sleeve (110; 112) is arranged in at least one through opening and extends axially from the engine-side flange surface to the exhaust-manifold-side flange surface , wherein the heat protection sleeve (110; 112) is arranged with its outer circumferential surface radially spaced from a circumferential surface of the through opening , wherein the heat protection sleeve (110; 112) defines with the circumferential surface of the through opening an air gap (118; 120) which is separated in a fluid-tight manner from the exhaust passage . an engine block , an exhaust manifold , and a connecting flange element attached to the engine block by an engine side flange surface and attached to the exhaust manifold by an exhaust manifold side flange surface , wherein the connecting flange element comprises a plurality of through openings which extend from the engine-side flange surface to the exhaust-manifold-side flange surface and each radially define an exhaust passage , wherein a heat protection sleeve (110; 112) is arranged in at least one through opening and extends axially from the engine-side flange surface to the exhaust-manifold-side flange surface , wherein the heat protection sleeve (110; 112) is arranged with its outer circumferential surface radially spaced from a circumferential surface of the through opening , wherein the heat protection sleeve (110; 112) defines with the circumferential surface of the through opening an air gap (118; 120) which is separated in a fluid-tight manner from the exhaust passage .
A lighting device comprising: a microwave generator for generating microwaves into a volume , wherein the microwaves are for disinfecting the volume; a lighting load for emitting light for illuminating external objects; and a housing , wherein the housing encloses the volume and is configured to prevent the microwaves from passing through the housing and to pass through the light, characterized in that the lighting device further comprises a presence sensor for detecting a presence in a space, wherein upon detection of a presence, the microwave generator is activated. a microwave generator for generating microwaves into a volume , wherein the microwaves are for disinfecting the volume; a lighting load for emitting light for illuminating external objects; and a housing , wherein the housing encloses the volume and is configured to prevent the microwaves from passing through the housing and to pass through the light, characterized in that the lighting device further comprises a presence sensor for detecting a presence in a space, wherein upon detection of a presence, the microwave generator is activated.
Crystalline -Tetrahydrofuran-3-yl -4-isopropyl-1,4,6,7-tetrahydro-5H-imidazo[4,5-c]pyridine-5-carboxylate mesylate salt having the space group P2 2 2 , and unit cell dimensions substantially as follows: a 8.75780 Å α 90° b 9.70830 Å, β 90°, c 20.6736 Å, γ 90°,
An elongated plate-form piezoelectric body, which comprises an optically active helical chiral polymer (A) having a weight-average molecular weight of from 50,000 to 1,000,000 and has an elongated plate shape having a thickness of from 0.001 mm to 0.2 mm, a width of from 0.1 mm to 30 mm and a width-to-thickness ratio of 2 or higher, wherein: a crystallinity measured by a DSC method is from 20% to 80%, birefringence is from 0.01 to 0.03, characterized in that the length-to-width ratio is 20 or higher, and a lengthwise direction and a main orientation direction of the helical chiral polymer (A) are substantially parallel to each other, and "substantially parallel" meaning that the angle is from 0° to less than 30°. a crystallinity measured by a DSC method is from 20% to 80%, birefringence is from 0.01 to 0.03, characterized in that the length-to-width ratio is 20 or higher, and a lengthwise direction and a main orientation direction of the helical chiral polymer (A) are substantially parallel to each other, and "substantially parallel" meaning that the angle is from 0° to less than 30°.
A harvester with a reciprocating drive balancing system , the harvester comprising: a crop material separating member movably supported for reciprocal movement; a drive operably coupled to the crop material separating member to reciprocate the crop material separating member , the drive comprising a drive crank operably coupled to the crop material separating member ; a shaft operably coupled to the drive crank ; a belt drive ; a driven pulley ; and a belt wrapped about the belt drive and the driven pulley ; characterized by a gear reduction mechanism operably coupled between the driven pulley and the shaft . a crop material separating member movably supported for reciprocal movement; a drive operably coupled to the crop material separating member to reciprocate the crop material separating member , the drive comprising a drive crank operably coupled to the crop material separating member ; a shaft operably coupled to the drive crank ; a belt drive ; a driven pulley ; and a belt wrapped about the belt drive and the driven pulley ; characterized by a gear reduction mechanism operably coupled between the driven pulley and the shaft .
A cooling assembly for a data center rack , comprising: a chassis having an upper end and a lower end spaced apart from one another in a vertical direction; at least one heat exchanger connected to the chassis, the at least one heat exchanger being disposed vertically at least in part between the upper and lower ends of the chassis, each of the at least one heat exchanger comprising: a cooling coil for circulating a cooling fluid therethrough; and a plurality of fins connected to the cooling coil, the fins being spaced from one another to allow air flow therebetween; the cooling assembly being characterized in that it further comprises: at least one lower bracket connected to a lower end portion of the chassis, each of the at least one lower bracket being a single piece of sheet metal bent into shape and comprising a supporting wall extending frontward from the lower end portion of the chassis, the supporting wall being configured to receive at least in part a lower end of the data center rack thereon such that, in use, the supporting wall is disposed between the lower end of the data center rack and a support surface . a chassis having an upper end and a lower end spaced apart from one another in a vertical direction; at least one heat exchanger connected to the chassis, the at least one heat exchanger being disposed vertically at least in part between the upper and lower ends of the chassis, each of the at least one heat exchanger comprising: a cooling coil for circulating a cooling fluid therethrough; and a plurality of fins connected to the cooling coil, the fins being spaced from one another to allow air flow therebetween; a cooling coil for circulating a cooling fluid therethrough; and a plurality of fins connected to the cooling coil, the fins being spaced from one another to allow air flow therebetween; the cooling assembly being characterized in that it further comprises: at least one lower bracket connected to a lower end portion of the chassis, each of the at least one lower bracket being a single piece of sheet metal bent into shape and comprising a supporting wall extending frontward from the lower end portion of the chassis, the supporting wall being configured to receive at least in part a lower end of the data center rack thereon such that, in use, the supporting wall is disposed between the lower end of the data center rack and a support surface .