mhurhangee/patent-ind-claim-en huggingface dataset:
A control panel for a motor vehicle comprising a support ; a printed circuit board which is fixed on the support ; a facade element which is mounted on the support and which covers the printed circuit board ; the facade element comprising at least one operable control button which is integrally formed with a fixed portion of the facade element and which extends above an area of the printed circuit board ; the control button including a junction end with the fixed portion of the facade element and a movable free end ; characterized in that the control button includes at its junction end a first protrusion bearing against the support and/or against the printed circuit board , and includes at its free end a bearing area provided to be touched by an operator in order to operate the control button ; and in that the control button also includes a second protrusion arranged between the first protrusion and the bearing area , said second protrusion being of smaller height than the first protrusion and including at its free end opposite the printed circuit board a bearing surface intended to come into contact with a sensor arranged oppositely on the printed circuit board when the control button is operated.
Universal slider for cleaning floors, having at least one slider blade and a handle which both are disposed on an elongate fastening element , wherein the universal slider has a first slider blade and a second slider blade , wherein the first slider blade has a fastening portion and a cleaning lip that projects beyond the fastening element , and wherein the fastening element has a bending which extends along the direction of longitudinal extent of said fastening element and by way of which an offset of a first face in relation to a second face of the fastening element is achieved, wherein the first face is part of a counter-fastening portion of the fastening element for the fastening portion of the first slider blade , characterized in that the second slider blade has a second fastening portion and a second cleaning lip that projects beyond the fastening element , and in that the fastening element has a second bending which extends along the direction of longitudinal extent of said fastening element and by way of which a second offset of a third face in relation to a second face of the fastening element is achieved, wherein the third face is part of a second counter-fastening portion of the fastening element for the second fastening portion of the second slider blade .
A hopper for diverting excess slack away from a mixture of product and slack, the hopper comprising a first gate moveable between open and closed positions and a retaining wall , wherein the first gate is configured such that: when the first gate is in the open position a first path is provided for contents of the hopper, comprising a mixture of product and slack, to exit the hopper; and when the first gate is in the closed position the first path is closed by the first gate so that product is retained in the hopper and a second path, different from the first path, is provided for slack to exit the hopper; and wherein there is a lateral offset between where contents of the hopper exit the hopper via the first path and where slack exits the hopper via the second path; characterized by the hopper being further configured such that, when the first gate is in the closed position, the first gate and the retaining wall slope towards one another, with the retaining wall stopping short of the first gate to form a gap and the first gate extending beyond where the first gate and the retaining wall would otherwise intersect such that a distal end of the first gate is laterally offset from the lower end of the retaining wall. when the first gate is in the open position a first path is provided for contents of the hopper, comprising a mixture of product and slack, to exit the hopper; and when the first gate is in the closed position the first path is closed by the first gate so that product is retained in the hopper and a second path, different from the first path, is provided for slack to exit the hopper; and wherein there is a lateral offset between where contents of the hopper exit the hopper via the first path and where slack exits the hopper via the second path; characterized by the hopper being further configured such that, when the first gate is in the closed position, the first gate and the retaining wall slope towards one another, with the retaining wall stopping short of the first gate to form a gap and the first gate extending beyond where the first gate and the retaining wall would otherwise intersect such that a distal end of the first gate is laterally offset from the lower end of the retaining wall.
A freeze-dried composition comprising i) an amphiphilic material comprising a phospholipid and ii) a freeze-drying protecting component which, upon reconstitution with a pharmaceutically acceptable solution in the presence of a biocompatible gas, provides a suspension of calibrated gas-filled microvesicles, wherein said freeze-drying protecting component has a concentration between 10 and 25% (w/v%) and is a mixture of at least two freeze-drying protecting components comprising a polyethylene glycol and a polyol or a saccharide and wherein said reconstituted suspension of calibrated gas-filled microvesicles have a geometric standard deviation (GSD) lower than 1.2.
A prosthetic valve assembly comprising: a braided tubular mesh support structure having an elongated configuration and a folded configuration; a wireform defining a plurality of commissural points separated by arcuate portions ; and, a valve attached to said wireform ; wherein in the elongated configuration, said arcuate portions of said wireform are connected to said braided tubular mesh support structure such that said wireform is longitudinally adjacent to said tubular mesh support structure ; and, wherein in the folded configuration, said braided tubular mesh support structure folds inwardly such that said wireform is at least partly contained within an interior of said tubular mesh support structure . a braided tubular mesh support structure having an elongated configuration and a folded configuration; a wireform defining a plurality of commissural points separated by arcuate portions ; and, a valve attached to said wireform ; wherein in the elongated configuration, said arcuate portions of said wireform are connected to said braided tubular mesh support structure such that said wireform is longitudinally adjacent to said tubular mesh support structure ; and, wherein in the folded configuration, said braided tubular mesh support structure folds inwardly such that said wireform is at least partly contained within an interior of said tubular mesh support structure .
Method for the production of an elastic laminate with at least a first top layer and an elastic film , wherein a) the first top layer is fed into a first stretching device as the first material sheet along a direction of production, b) the first top layer is subsequently stretched using the first stretching device transversely to the direction of production and thereby folded, and either c) the first top layer laid in folds is subsequently connected to an extrusion sheet intended for the formation of the elastic films in such a way that the top layer is connected to the extrusion sheet on its side facing the extrusion sheet only at sections , or d) the folded first top layer is subsequently connected to a prefabricated elastic film by at least melting the elastic film on its side facing the first top layer , that the first top layer is pressed against the at least melted side of the elastic film only at sections and that the first top layer is at least partially embedded in a polymer matrix of the elastic film . a) the first top layer is fed into a first stretching device as the first material sheet along a direction of production, b) the first top layer is subsequently stretched using the first stretching device transversely to the direction of production and thereby folded, and either c) the first top layer laid in folds is subsequently connected to an extrusion sheet intended for the formation of the elastic films in such a way that the top layer is connected to the extrusion sheet on its side facing the extrusion sheet only at sections , or d) the folded first top layer is subsequently connected to a prefabricated elastic film by at least melting the elastic film on its side facing the first top layer , that the first top layer is pressed against the at least melted side of the elastic film only at sections and that the first top layer is at least partially embedded in a polymer matrix of the elastic film .
An article of manufacture including a tangible, non-transitory computer-readable storage medium having instructions stored thereon for detecting a fault in an aircraft gas turbine engine that, in response to execution by a controller , cause the controller to perform operations comprising: receiving, by the controller, a first data output from a first flight data source , the first flight data source comprising a first sensor or an avionics unit configured to detect a first operating condition of the gas turbine engine, wherein the first data output correlates to the first operating condition of the gas turbine engine; receiving, by the controller, a second data output from a second flight data source , the second flight data source comprising at least one of a second sensor or an avionics unit configured to detect a second operating condition of the gas turbine engine, wherein the second data output correlates to the second operating condition of the gas turbine engine; characterised by determining, by the controller, a first flight realm of the first data output based on whether a variance of the second data output is at least one of above or below a predetermined variance threshold; identifying, by the controller, a fault threshold for the first data output in the first flight realm, wherein the flight realm defines at least one of an engine steady state or an engine transient state, and wherein the fault threshold comprises a first value in the engine steady state and a second value in the engine transient state; and comparing, by the controller, the first data output to the fault threshold. receiving, by the controller, a first data output from a first flight data source , the first flight data source comprising a first sensor or an avionics unit configured to detect a first operating condition of the gas turbine engine, wherein the first data output correlates to the first operating condition of the gas turbine engine; receiving, by the controller, a second data output from a second flight data source , the second flight data source comprising at least one of a second sensor or an avionics unit configured to detect a second operating condition of the gas turbine engine, wherein the second data output correlates to the second operating condition of the gas turbine engine; characterised by determining, by the controller, a first flight realm of the first data output based on whether a variance of the second data output is at least one of above or below a predetermined variance threshold; identifying, by the controller, a fault threshold for the first data output in the first flight realm, wherein the flight realm defines at least one of an engine steady state or an engine transient state, and wherein the fault threshold comprises a first value in the engine steady state and a second value in the engine transient state; and comparing, by the controller, the first data output to the fault threshold.
Use of a burner for inner surface treatment of a medical glass container having an internal space with a first diameter, an opening with a second diameter and a bottom , the burner comprising: a burner body having a first flow path through which a fuel is circulated; a nozzle having a straw-like long and narrow nozzle portion that can be inserted into the internal space of said medical glass container to treat an inner surface of the medical glass container, the nozzle portion being formed of ceramic and defining a second flow path connected to the first flow path of the burner body , wherein said fuel is circulated from the first flow path to the second flow path , and is burnt at the top end of the nozzle to form a flame, wherein the nozzle portion is inserted into the internal space of the medical glass container in which the second diameter of the opening is smaller than the first diameter of the internal space . a burner body having a first flow path through which a fuel is circulated; a nozzle having a straw-like long and narrow nozzle portion that can be inserted into the internal space of said medical glass container to treat an inner surface of the medical glass container, the nozzle portion being formed of ceramic and defining a second flow path connected to the first flow path of the burner body , wherein said fuel is circulated from the first flow path to the second flow path , and is burnt at the top end of the nozzle to form a flame, wherein the nozzle portion is inserted into the internal space of the medical glass container in which the second diameter of the opening is smaller than the first diameter of the internal space .
A compound wheel assembling apparatus, comprising a tensioning and fixing component arranged to extend into a center hole of a flange to tension and fix a flange; the tensioning and fixing component comprises a base plate , a flange plate , springs , expanding petals and an expanding core ; the flange plate is used for placing the flange and is fixed on the base plate ; through holes are formed in the middle of the flange plate and in the middle of the base plate ; a plurality of T-shaped sliding chutes uniformly distributed in a circumference are formed in inner cavities of the flange plate and the base plate ; the number of the expanding petals is equal to the number of the T-shaped sliding chutes; the bottom surface of the expanding petal is of an T-shaped structure matched with the T-shaped sliding chute; the expanding petals is capable of sliding in the T-shaped sliding chutes; side walls, facing a center axis of the flange , of the expanding petals are slopes; the springs are arranged between the expanding petals and the flange plate ; when the expanding petals move along the T-shaped sliding chutes to the inner side wall of the center hole of the flange , the springs are compressed by the expanding petals ; the expanding core has slopes, which are consistent in inclination angle and suitable for the expanding petals , on the side surfaces; the expanding core is capable of moving up and down; the slopes of the expanding core are matched with the side walls of the expanding petals ; the movement of the expanding core pushes the expanding petals to move toward the inner side wall of the center hole of the flange, and the expanding petals compress the springs and press the inner side wall of the center hole of the flange to fix the position of the flange, characterized in that a locating ring is mounted on the base plate around the base plate , and has a center axis overlapping a center axis of the base plate , wherein the coaxiality of the locating ring and the expanding core is less than 0.05 mm; the locating ring has a circle of circular-ring-shaped protrusion on its outer side; and the circular-ring-shaped protrusion is used for mounting a wheel rim of a wheel or a connection piece of the wheel rim of the wheel.
Apparatus for endoscopic 3D data capture, comprising light-generation means for generating at least one modulated measurement radiation, light-transmission means configured to carry the measurement radiation to at least one portion of a surface of a body-internal cavity, which light-transmission means are at least partially disposed in an elongate shaft that can be used in endoscopic fashion, an observation optical unit disposed in a distal end region of the shaft, which observation optical unit is configured to record signal radiation from at least the portion of the surface of the cavity, a time-of-flight (TOF) image sensor , an image carrier disposed at least partially within the shaft , which image carrier is configured to carry the signal radiation from the distal to a proximal end region of the shaft for reception by the TOF image sensor , and control and evaluation means configured to actuate the light-generation means to generate the measurement radiation, to actuate the TOF image sensor and to evaluate spatially resolved distance or depth data of measurement points on the surface of the cavity, supplied by the TOF image sensor, to generate 3D data, wherein the apparatus comprises position and orientation sensor means, which are configured to capture information items about a position and an orientation of the shaft and wherein the control and evaluation means are embodied to calculate 3D data on the basis of the information items, captured with the aid of the position and orientation sensor means, from the data supplied by the TOF image sensor , said 3D data representing the surface of the cavity in three dimensions in relation to an absolute extracorporeal reference coordinate system that is independent of the position of the shaft, characterized in that the position and orientation sensor means are embodied as an electromagnetic position and orientation sensor comprising at least two coils , wherein the TOF image sensor , which records an image in the infrared spectral range for the purposes of ascertaining the distance data, is detachably connectable via a flexible image conductor to the proximal end region of the image carrier and wherein, disposed in the distal end region of the shaft , there is a distal beam splitter and a further image sensor configured to capture a further image of the portion of the surface of the cavity, said image being a visual image.
A computer-implemented method for a node (i) of a blockchain network, said node having a plurality of interfaces (a,b,c,d,e) connected to peer nodes, the computer-implemented method comprising: determining a bandwidth, B , capacity of the said node (i) based on a maximum data, D , amount processable by the node (i) over a time period, T ; monitoring the data, d , comprising input data, d i , and output data, d o , passing through interfaces of the node (i), to and from peer nodes, and determining a profile factor, k , of the node from the difference between the input data, d i and the output data, d o ; over a plurality of time periods, T , monitoring said data, d ; and setting a minimum number of peer node connections, m min , and a maximum number of peer node connections, m max , connectable to the node (i) according to said monitored data,d, and the maximum number of peers, P , connectable to the node (i), wherein over at least one time period, T , the monitored data, d , the bandwidth capacity and the profile factor are used to determine a ratio and setting the minimum number of peer nodes, m min , and a maximum number of peer nodes, m max , connectable to the node (i) is determined using said ratio. determining a bandwidth, B , capacity of the said node (i) based on a maximum data, D , amount processable by the node (i) over a time period, T ; monitoring the data, d , comprising input data, d i , and output data, d o , passing through interfaces of the node (i), to and from peer nodes, and determining a profile factor, k , of the node from the difference between the input data, d i and the output data, d o ; over a plurality of time periods, T , monitoring said data, d ; and setting a minimum number of peer node connections, m min , and a maximum number of peer node connections, m max , connectable to the node (i) according to said monitored data,d, and the maximum number of peers, P , connectable to the node (i),
Method of manufacturing a test probe for the non-destructive testing of a given workpiece by means of ultrasonic sound, wherein the test probe comprises a single element ultrasonic transducer and a delay line body , and wherein the test probe is provided for angularly intromitting ultrasonic sound into the workpiece, with the following steps: a. Calculating a geometry of both the single element ultrasonic transducer and the delay line body under the constraint of providing a test probe configured to provide an ultrasonic field, which is rotationally symmetric to its central beam after coupling into the workpiece; b. Providing a single element ultrasonic transducer with said geometry; c. Providing a delay line body with said geometry, comprising a first surface area for attaching the ultrasonic transducer and a second surface area for attaching the delay line body to the workpiece, wherein the first surface area is non-planar; d. Attaching the ultrasonic transducer to the first surface area of the delay line body to provide an acoustic coupling between the ultrasonic transducer and the delay line body . a. Calculating a geometry of both the single element ultrasonic transducer and the delay line body under the constraint of providing a test probe configured to provide an ultrasonic field, which is rotationally symmetric to its central beam after coupling into the workpiece; b. Providing a single element ultrasonic transducer with said geometry; c. Providing a delay line body with said geometry, comprising a first surface area for attaching the ultrasonic transducer and a second surface area for attaching the delay line body to the workpiece, wherein the first surface area is non-planar; d. Attaching the ultrasonic transducer to the first surface area of the delay line body to provide an acoustic coupling between the ultrasonic transducer and the delay line body .
A polishing article manufacturing system with a polishing article, comprising: a feed section and a take-up section, the take-up section comprising a take-up roll having the polishing article disposed thereon for a chemical mechanical polishing process, wherein the polishing article comprises a composite pad body, comprising: a plurality of polishing features formed from a first material ; and one or more base features formed from a second material , wherein the one or more base features are elastic features and the plurality of polishing features are hard features, the one or more base features and the plurality of polishing features being discrete features that are joined together at boundaries to form the composite pad body , the plurality of polishing features extending from the one or more base features to form a polishing surface, and wherein the first material has a hardness greater than a hardness of the second material; a print section comprising a plurality of printheads disposed between the feed section and the take-up section; and a curing section disposed between the feed section and the take-up section and downstream the print section, the take-up section being disposed downstream of the curing section, the curing section comprising one or both of a thermal curing device and an electromagnetic curing device. a plurality of polishing features formed from a first material ; and one or more base features formed from a second material , wherein the one or more base features are elastic features and the plurality of polishing features are hard features, the one or more base features and the plurality of polishing features being discrete features that are joined together at boundaries to form the composite pad body , the plurality of polishing features extending from the one or more base features to form a polishing surface, and wherein the first material has a hardness greater than a hardness of the second material; a print section comprising a plurality of printheads disposed between the feed section and the take-up section; and a curing section disposed between the feed section and the take-up section and downstream the print section, the take-up section being disposed downstream of the curing section, the curing section comprising one or both of a thermal curing device and an electromagnetic curing device.