mhurhangee/patent-ind-claim-en huggingface dataset:
Busbar connection system for mating with a power distribution system , the power distribution system including a busbar and a link module , the busbar connection system enabling both a power and a data connection with the power distribution system to be established in a single mating movement, the busbar connection system comprising: a busbar connector for receiving at least two conductors of the busbar and for electrically contacting each of the at least two conductors ; and a signal connector for receiving the link module with a plurality of contact pads (221-230) and for electrically contacting each of the plurality of contact pads (221-230); wherein: the busbar connector has at least two, spaced apart, openings defined by an open cross-section along a mating direction, the at least two openings enable the busbar connector to partially surround, on opposite sides, each of the at least two conductors of the busbar , and the signal connector has an opening defined by a closed cross-section along the mating direction, the opening enables the signal connector to guide the link module into a contacting position for electrically contacting the plurality of contact pads (221-230), the at least two openings of the busbar connector and the opening of the signal connector being positioned at least partially on the front-face of the busbar connection system, so that the single mating movement with the power distribution system becomes possible. a busbar connector for receiving at least two conductors of the busbar and for electrically contacting each of the at least two conductors ; and a signal connector for receiving the link module with a plurality of contact pads (221-230) and for electrically contacting each of the plurality of contact pads (221-230); wherein: the busbar connector has at least two, spaced apart, openings defined by an open cross-section along a mating direction, the at least two openings enable the busbar connector to partially surround, on opposite sides, each of the at least two conductors of the busbar , and the signal connector has an opening defined by a closed cross-section along the mating direction, the opening enables the signal connector to guide the link module into a contacting position for electrically contacting the plurality of contact pads (221-230), the busbar connector has at least two, spaced apart, openings defined by an open cross-section along a mating direction, the at least two openings enable the busbar connector to partially surround, on opposite sides, each of the at least two conductors of the busbar , and the signal connector has an opening defined by a closed cross-section along the mating direction, the opening enables the signal connector to guide the link module into a contacting position for electrically contacting the plurality of contact pads (221-230), the at least two openings of the busbar connector and the opening of the signal connector being positioned at least partially on the front-face of the busbar connection system, so that the single mating movement with the power distribution system becomes possible.
Structural element for thermal insulation between two structural components, especially between a building (B) and a projecting exterior part (A), the structural element consisting of an insulator body to be arranged between the two structural components and of reinforcing elements in the form of at least tensile reinforcing elements which in the installed state of the structural element pass through the insulator body substantially horizontally and transversely with respect to the substantially horizontal longitudinal extent of the insulator body and which each project in the horizontal direction relative to the insulator body and are connectible to at least one (B) of the two structural components, which consist of concrete, wherein the tensile reinforcing elements have an anchoring element which surrounds them in the region of the at least one structural component (B) on their radial outer side, characterised in that the anchoring element at least consists of an anchoring sleeve made of concrete material, and the anchoring element has outwardly projecting, especially radially projecting, profiling provided on the radial outer side of the anchoring sleeve.
Device for monitoring a blade bearing of a wind turbine, which is pivotably mounted about a pivot angle (β) about a pivot axis on a hub , said hub being rotatable about a rotation axis and connected to a rotor, wherein the device comprises - a component pivotable about the pivot axis during operation and a fixed component - a measuring system with - a sensor , which is arranged on one of the two components , - a measuring surface associated with the sensor , which is arranged on the other component of the two components or on the same component , - a control unit, which is set up to repeatedly initiate an automated measurement by means of the sensor during operation of the wind turbine, - an evaluation unit for evaluating the measurement, wherein the sensor is designed for a contactless measurement of the distance (A) between the sensor and the measuring surface and the evaluation unit is set up to check, on the basis of the measurement, whether the blade bearing has any damage. - a component pivotable about the pivot axis during operation and a fixed component - a measuring system with - a sensor , which is arranged on one of the two components , - a measuring surface associated with the sensor , which is arranged on the other component of the two components or on the same component , - a control unit, which is set up to repeatedly initiate an automated measurement by means of the sensor during operation of the wind turbine, - an evaluation unit for evaluating the measurement, wherein the sensor is designed for a contactless measurement of the distance (A) between the sensor and the measuring surface and the evaluation unit is set up to check, on the basis of the measurement, whether the blade bearing has any damage.
An optical component comprising a metasurface , wherein the metasurface comprises a repeating pattern of unit cells, wherein each unit cell comprises at least two different scattering structures , wherein first scattering structures are at least partially contacting a first substance having a first refractive index ( ñ 1 ) and second scattering structures are at least partially contacting a second substance , which differs from the first substance , wherein the second substance provides a refractive index ( ñ 2 ) which is variable depending on an electrical control signal, wherein a plurality of pairs of first scattering structures contacting the first substance and second scattering structures contacting the second substance are arranged in an aligned manner on electrodes , wherein neighboring electrodes supporting aligned pairs of first and second scattering structures are electrically separated from each other characterized in that the electrical control signal applied to a defined number of electrodes supporting aligned pairs of first and second scattering structures is identical, wherein a number of electrodes between two electrodes to which the identical electrical control signal is applied correlates to a defined first order diffraction angle (θ) for incoming light in a direction orthogonal to the direction of the alignment of the pairs of first and second scattering structures .
An emitter comprising a nanowire , wherein the nanowire is made of a hafnium carbide, HfC, single crystal , at least an end of the nanowire, through which electrons are to be emitted, is coated with hafnium oxycarbide HfC 1-x O x 0 < x ≤ 0.5 , a thickness of the hafnium oxycarbide is in a range of 1 nm or more and 20 nm or less, a field electron emission pattern of the end obtained by a field emission microscope (FEM) is a single spot, the end of the nanowire has a tapered shape with a tip of the end, and a radius of curvature r of the tip of the end is in a range of 20% or more and 45% or less of a length d of the nanowire in a lateral direction. wherein the nanowire is made of a hafnium carbide, HfC, single crystal , at least an end of the nanowire, through which electrons are to be emitted, is coated with hafnium oxycarbide HfC 1-x O x 0 < x ≤ 0.5 , a thickness of the hafnium oxycarbide is in a range of 1 nm or more and 20 nm or less, a field electron emission pattern of the end obtained by a field emission microscope (FEM) is a single spot, the end of the nanowire has a tapered shape with a tip of the end, and a radius of curvature r of the tip of the end is in a range of 20% or more and 45% or less of a length d of the nanowire in a lateral direction.
A method performed by a User Equipment, UE, for determining an integrity level of an estimated position of the UE in a radio communications network , the method comprising: obtaining information from a network node operating in the radio communications network , which information is about service levels of positioning assistance information provided in the radio communications network , which service levels are related to any one or more out of Integrity, I, Availability, A, and Continuity, C, (I-A-C), obtaining from the network node , positioning assistance information relating to the established service levels, determining a positioning strategy based on the information about the service levels, estimating the position of the UE according to the determined positioning strategy, and based on the obtained positioning assistance information, and determining an integrity level of the estimated position of the UE . obtaining information from a network node operating in the radio communications network , which information is about service levels of positioning assistance information provided in the radio communications network , which service levels are related to any one or more out of Integrity, I, Availability, A, and Continuity, C, (I-A-C), obtaining from the network node , positioning assistance information relating to the established service levels, determining a positioning strategy based on the information about the service levels, estimating the position of the UE according to the determined positioning strategy, and based on the obtained positioning assistance information, and determining an integrity level of the estimated position of the UE .
A computer-readable information storage medium having stored thereon a program for controlling a computer connected to an operation input device, which receives an operation input of a user, to function as: input value obtaining means for obtaining, at a predetermined interval, an input value (I) indicating specifics of the operation input received by the operation input device; and output value calculating means for calculating an output value of a parameter to be operated, based on a plurality of input values obtained by the input value obtaining means , wherein the output value calculating means calculates as the output value (Po) a value obtained by changing a reference value (Pr) by a change amount (Pd), the reference value (Pr) being determined by one of the plurality of input values obtained by the input value obtaining means , the change amount (Pd) being determined by each of the plurality of input values which are obtained by the input value obtaining means at predetermined intervals, characterized in that the reference value (Pr) is a value determined by an input value (I) that the input value obtaining means has obtained last time. input value obtaining means for obtaining, at a predetermined interval, an input value (I) indicating specifics of the operation input received by the operation input device; and output value calculating means for calculating an output value of a parameter to be operated, based on a plurality of input values obtained by the input value obtaining means , wherein the output value calculating means calculates as the output value (Po) a value obtained by changing a reference value (Pr) by a change amount (Pd), the reference value (Pr) being determined by one of the plurality of input values obtained by the input value obtaining means , the change amount (Pd) being determined by each of the plurality of input values which are obtained by the input value obtaining means at predetermined intervals, characterized in that the reference value (Pr) is a value determined by an input value (I) that the input value obtaining means has obtained last time.
An imaging module comprising: a substrate on which an imaging element is mounted and in which a through-hole is formed; a holding section that has a support pin inserted into the through-hole in such a manner as to penetrate the through-hole , and that holds an optical system forming a subject image on the imaging element ; and an adhesive that is provided in the through-hole and that fixes the substrate to the support pin , wherein at least a tip end portion of the support pin is of a tapered shape from a root side of the support pin toward a tip end of the support pin , characterised in that the tip end of the support pin penetrates the adhesive so that it is not covered by the adhesive . a substrate on which an imaging element is mounted and in which a through-hole is formed; a holding section that has a support pin inserted into the through-hole in such a manner as to penetrate the through-hole , and that holds an optical system forming a subject image on the imaging element ; and an adhesive that is provided in the through-hole and that fixes the substrate to the support pin , wherein at least a tip end portion of the support pin is of a tapered shape from a root side of the support pin toward a tip end of the support pin , characterised in that the tip end of the support pin penetrates the adhesive so that it is not covered by the adhesive .
An agricultural harvester comprising: - a chassis ; - a feederhouse pivotally mounted to the chassis; - a header for attachment to a front side of the feederhouse; - a pair of wheel assemblies ; - characterised in that first and second pairs of wheel assembly attachment means are provided on the feederhouse and the header respectively allowing selective attachment of the wheel assemblies to one of the feederhouse and header. - a chassis ; - a feederhouse pivotally mounted to the chassis; - a header for attachment to a front side of the feederhouse; - a pair of wheel assemblies ; - characterised in that first and second pairs of wheel assembly attachment means are provided on the feederhouse and the header respectively allowing selective attachment of the wheel assemblies to one of the feederhouse and header.
A surgical system , comprising: a sensor configured to detect a property of airborne particles in a fluid within a patient's abdominal cavity, wherein the property comprises a particle concentration; a surgical device comprising a smoke evacuator configured to implement a surgical function, wherein the smoke evacuator comprises a filtering system; and a control circuit comprising a processor and a memory storing instructions executable by the processor to: receive an input signal from the sensor indicative of the property of airborne particles in the fluid; and in response to the input signal, provide an output signal to the surgical device indicative of an adjustment to the surgical function, characterized in that the adjustment to the surgical function comprises adjusting a flow path through the filtering system of the smoke evacuator. a sensor configured to detect a property of airborne particles in a fluid within a patient's abdominal cavity, wherein the property comprises a particle concentration; a surgical device comprising a smoke evacuator configured to implement a surgical function, wherein the smoke evacuator comprises a filtering system; and a control circuit comprising a processor and a memory storing instructions executable by the processor to: receive an input signal from the sensor indicative of the property of airborne particles in the fluid; and in response to the input signal, provide an output signal to the surgical device indicative of an adjustment to the surgical function, characterized in that the adjustment to the surgical function comprises adjusting a flow path through the filtering system of the smoke evacuator. receive an input signal from the sensor indicative of the property of airborne particles in the fluid; and in response to the input signal, provide an output signal to the surgical device indicative of an adjustment to the surgical function, characterized in that the adjustment to the surgical function comprises adjusting a flow path through the filtering system of the smoke evacuator.
A wireless headset comprising a receiver assembly , the receiver assembly comprising: a headset memory operable to store a unique identifier to uniquely identify the wireless headset; and a processor communicatively coupled to the headset memory, wherein the processor is configured to: read the unique identifier from the headset memory; and transmit a signal representing the unique identifier of the wireless headset to a wireless device such that a screen on the wireless device identifies the wireless headset with the unique identifier, wherein: at least a portion of the unique identifier is associated with the wireless headset and the wireless headset being charecterised in that the receiver assembly is operable to dynamically change the unique identifier based on a user of the wireless headset. a headset memory operable to store a unique identifier to uniquely identify the wireless headset; and a processor communicatively coupled to the headset memory, wherein the processor is configured to: read the unique identifier from the headset memory; and transmit a signal representing the unique identifier of the wireless headset to a wireless device such that a screen on the wireless device identifies the wireless headset with the unique identifier, wherein: at least a portion of the unique identifier is associated with the wireless headset and the wireless headset being charecterised in that the receiver assembly is operable to dynamically change the unique identifier based on a user of the wireless headset. read the unique identifier from the headset memory; and transmit a signal representing the unique identifier of the wireless headset to a wireless device such that a screen on the wireless device identifies the wireless headset with the unique identifier, wherein: at least a portion of the unique identifier is associated with the wireless headset and the wireless headset being charecterised in that the receiver assembly is operable to dynamically change the unique identifier based on a user of the wireless headset. at least a portion of the unique identifier is associated with the wireless headset and the wireless headset being charecterised in that the receiver assembly is operable to dynamically change the unique identifier based on a user of the wireless headset.
A method of manufacturing a magnetoresistive device that includes a magnetoresistive stack, comprising the sequential steps: etching a first portion of the magnetoresistive stack through a layer of dielectric material that forms a tunnel barrier of the magnetoresistive stack to produce an etched first portion of the magnetoresistive stack having sidewalls; after etching the first portion of the magnetoresistive stack , oxidizing the sidewalls of the etched first portion of the magnetoresistive stack to form directly an oxide layer on the sidewalls of the first portion of the magnetoresistive stack; and after oxidizing the sidewalls of the etched first portion of the magnetoresistive stack, etching a second portion of the magnetoresistive stack to produce an etched second portion of the magnetoresistive stack, wherein the first portion of the magnetoresistive stack is over the second portion of the magnetoresistive stack, and wherein etching the second portion of the magnetoresistive stack includes etching the second portion using a mixture of at least one noble gas and at least one corrosive gas. etching a first portion of the magnetoresistive stack through a layer of dielectric material that forms a tunnel barrier of the magnetoresistive stack to produce an etched first portion of the magnetoresistive stack having sidewalls; after etching the first portion of the magnetoresistive stack , oxidizing the sidewalls of the etched first portion of the magnetoresistive stack to form directly an oxide layer on the sidewalls of the first portion of the magnetoresistive stack; and after oxidizing the sidewalls of the etched first portion of the magnetoresistive stack, etching a second portion of the magnetoresistive stack to produce an etched second portion of the magnetoresistive stack, wherein the first portion of the magnetoresistive stack is over the second portion of the magnetoresistive stack, and wherein etching the second portion of the magnetoresistive stack includes etching the second portion using a mixture of at least one noble gas and at least one corrosive gas.
Container for packing products, in particular food products, the container comprising a bottom , side walls ending at the top with a peripheral edge having a perimetral extension, and an adhesive layer, the container being characterized in that said peripheral edge has a step having a perimetral extension formed upwards on the upper surface thereof and said adhesive layer is applied on said step .
A method for avoiding a runaway condition of an internal combustion engine comprising a cylinder , comprising detecting (S1, S2) an operational characteristic of the engine , presumed to be caused by an unrequested introduction of hydrocarbon into the cylinder , derating (S3) the engine in dependence of the detection, and performing while the engine is derated a test procedure (S6) to detect an unrequested introduction of hydrocarbon into the cylinder , the engine comprising an inlet guide for guiding air to the cylinder , and the cylinder comprising a piston connected to a crankshaft, the engine further comprising a crankcase for housing the crankshaft, characterized in that the engine comprises a crankcase ventilation system which is arranged to assume an open condition in which a fluid in the crankcase is guided to the atmosphere, and a closed condition in which a fluid in the crankcase is guided to the inlet guide , wherein the test procedure (S6) comprises - determining (S602) a first value (n1) of an operating parameter while the engine is operated in a first predetermined operating condition with the crankcase ventilation system in the closed condition, - determining (S604) a second value (n2) of the operating parameter while the engine is operated in the first predetermined operating condition with the crankcase ventilation system in the open condition, and - determining (S605), based at least partly on the first and second operating parameter values (n1, n2), whether or not there is an unrequested introduction of hydrocarbon into the cylinder . - determining (S602) a first value (n1) of an operating parameter while the engine is operated in a first predetermined operating condition with the crankcase ventilation system in the closed condition, - determining (S604) a second value (n2) of the operating parameter while the engine is operated in the first predetermined operating condition with the crankcase ventilation system in the open condition, and - determining (S605), based at least partly on the first and second operating parameter values (n1, n2), whether or not there is an unrequested introduction of hydrocarbon into the cylinder .