mhurhangee/ep-ind-claims huggingface dataset:
A projection system for displaying projected images, comprising a projection device configured to project one or more images onto a receiver surface; a viewing device spaced apart from the projection device and configured to be worn by a user and comprising a frame holding a screen and a focusing lens wherein: the screen comprises the receiver surface and a viewing surface disposed opposite the receiver surface, wherein the screen is configured to permit transmission of the projected one or more images through the screen from the receiver surface to the viewing surface such that the projected one or more images are viewable on the viewing surface; and the focusing lens is configured to focus the projected one or more images viewable on the viewing surface for the user when wearing the viewing device; and a tracking system configured to determine a location and orientation of the receiver surface of the viewing device, wherein the projection device is configured to adjust image properties of the projected one or more images based at least in part on the determined location and orientation of the receiver surface, characterized in that when the user is wearing the viewing device, the viewing surface faces the user and the receiver surface faces outward with respect to the user. a projection device configured to project one or more images onto a receiver surface; a viewing device spaced apart from the projection device and configured to be worn by a user and comprising a frame holding a screen and a focusing lens wherein: the screen comprises the receiver surface and a viewing surface disposed opposite the receiver surface, wherein the screen is configured to permit transmission of the projected one or more images through the screen from the receiver surface to the viewing surface such that the projected one or more images are viewable on the viewing surface; and the focusing lens is configured to focus the projected one or more images viewable on the viewing surface for the user when wearing the viewing device; and the screen comprises the receiver surface and a viewing surface disposed opposite the receiver surface, wherein the screen is configured to permit transmission of the projected one or more images through the screen from the receiver surface to the viewing surface such that the projected one or more images are viewable on the viewing surface; and the focusing lens is configured to focus the projected one or more images viewable on the viewing surface for the user when wearing the viewing device; and a tracking system configured to determine a location and orientation of the receiver surface of the viewing device, wherein the projection device is configured to adjust image properties of the projected one or more images based at least in part on the determined location and orientation of the receiver surface,
Gearbox assembly, in particular for an agricultural working vehicle comprising a parallel-shift gearbox with a plurality of gear stages and an input shaft, starting from which drive power can be distributed respectively via a first and a second switching element (541, 542) to respective layshafts (561, 562), and an output shaft, wherein the drive power can be transmitted as necessary to the output shaft from each of the layshafts (561, 562), a group-shift gearbox having a plurality of shifting groups (821, 822,...) and an output shaft, wherein the drive from the shifting groups (821, 822,...) can be connected to the output shaft of the parallel-shift gearbox, in order to conduct the drive power to the output shaft of the group-shift gearbox, characterized by a coupling transmission stage, with which the drive power can be conducted from one of the layshafts (561, 562) to the output shaft of the group-shift gearbox while bypassing the switching groups (821, 822,...) of the group-shift gearbox.
A shaped sheet metal part which is joined in a parts composite with at least one other component, wherein the shaped sheet metal part is formed from a steel sheet material with a metallic anti-corrosion coating, applied at least on one side, made of zinc or a zinc compound, and is produced with the following steps: - providing a blank made of a heat-treatable steel sheet material, on which the metallic anti-corrosion coating is applied at least on one side; - deforming this blank to form a shaped sheet metal part; - performing a heat treatment on the shaped sheet metal part with a press-hardening operation for changing the material properties of the steel sheet material, wherein during the heat treatment an oxide layer forms on the metallic anti-corrosion coating in defined manner and at least in regions; characterised in that the oxide layer formed on the metallic anti-corrosion coating remains permanently on the shaped sheet metal part, and in that the shaped sheet metal part with this oxide layer is joined with a component by a material-formed bond. - providing a blank made of a heat-treatable steel sheet material, on which the metallic anti-corrosion coating is applied at least on one side; - deforming this blank to form a shaped sheet metal part; - performing a heat treatment on the shaped sheet metal part with a press-hardening operation for changing the material properties of the steel sheet material, wherein during the heat treatment an oxide layer forms on the metallic anti-corrosion coating in defined manner and at least in regions;
A detection device, comprising: at least one fluidic channel configured to receive a plurality of molecules to be detected; the detection device being characterized by a plurality of temperature sensors; and an insulating material encapsulating the plurality of temperature sensors and for providing a barrier between the plurality of temperature sensors and contents of the at least one fluidic channel, wherein: a surface of the insulating material within the fluidic channel provides a plurality of sites for binding the plurality of molecules to be detected, the plurality of sites being located among the plurality of temperature sensors, and each of the plurality of temperature sensors is configured to detect, in presence of an alternating magnetic field, a temperature change indicating presence or absence of one or more magnetic nanoparticles (MNPs) coupled to at least one of the plurality of molecules to be detected at a respective subset of the plurality of sites. at least one fluidic channel configured to receive a plurality of molecules to be detected; the detection device being characterized by a plurality of temperature sensors; and an insulating material encapsulating the plurality of temperature sensors and for providing a barrier between the plurality of temperature sensors and contents of the at least one fluidic channel, wherein: a surface of the insulating material within the fluidic channel provides a plurality of sites for binding the plurality of molecules to be detected, the plurality of sites being located among the plurality of temperature sensors, and each of the plurality of temperature sensors is configured to detect, in presence of an alternating magnetic field, a temperature change indicating presence or absence of one or more magnetic nanoparticles (MNPs) coupled to at least one of the plurality of molecules to be detected at a respective subset of the plurality of sites. a surface of the insulating material within the fluidic channel provides a plurality of sites for binding the plurality of molecules to be detected, the plurality of sites being located among the plurality of temperature sensors, and each of the plurality of temperature sensors is configured to detect, in presence of an alternating magnetic field, a temperature change indicating presence or absence of one or more magnetic nanoparticles (MNPs) coupled to at least one of the plurality of molecules to be detected at a respective subset of the plurality of sites.
A system, comprising: a vehicle; and a laser air data sensor mounted to a first portion of the vehicle, wherein the laser air data sensor includes a laser transceiver and collection optics, wherein the laser transceiver is configured to transmit one or more laser light beams, wherein a window of the laser transceiver is fixed and oriented to transmit the one or more laser light beams toward a second portion of the vehicle, wherein the laser air data sensor is configured to measure an airflow undisturbed by the vehicle in a selected measurement region outside the vehicle, wherein the selected measurement region is positioned between the window of the laser transceiver and the second portion of the vehicle. a vehicle; and a laser air data sensor mounted to a first portion of the vehicle, wherein the laser air data sensor includes a laser transceiver and collection optics, wherein the laser transceiver is configured to transmit one or more laser light beams, wherein a window of the laser transceiver is fixed and oriented to transmit the one or more laser light beams toward a second portion of the vehicle, wherein the laser air data sensor is configured to measure an airflow undisturbed by the vehicle in a selected measurement region outside the vehicle, wherein the selected measurement region is positioned between the window of the laser transceiver and the second portion of the vehicle.
A radio terminal comprising a controller configured to control a random access procedure, wherein the random access procedure includes first processing of transmitting a random access preamble to a base station, second processing of receiving a random access response from the base station, and third processing of performing uplink transmission to the base station based on the random access response, and the controller is configured to notify, in the third processing, the base station of an amount of uplink data in a transmission buffer of the radio terminal by transmitting to the base station a first report indicating amount of uplink data, the controller is further configured to notify, at a timing other than the random access procedure, the base station of an amount of uplink data in a transmission buffer of the radio terminal by transmitting to the base station a second report indicating amount of uplink data, wherein a precision of information indicating the data amount indicated by the first report is lower than a precision of information indicating the data amount indicated by the second report.
A load-bearing wall structure, which is formed of wall elements (2, 2') comprising an outer face, an inner face and a core layer made of thermal insulation material between the face layers, the thermal insulation material having a compressive strength of at least 50 kPa, and the wall structure comprises wall elements (2, 2') placed next to each other, wherein their vertical side edges (8a, 8b), placed against each other, are shaped to form a space for casting a beam (6, 6', 6") at the joint between the wall elements; and the wall structure comprises a load-bearing beam (6, 6', 6") formed at the joint between the wall elements by supplying casting compound in the space at the joint, wherein the beam (6, 6', 6") extends substantially in the height direction of the entire wall structure, characterized in that the outer face and the inner face of the wall elements comprise a structural layer which covers substantially the whole core layer on the outer face and the inner face of the wall element and comprises a mixture of casting compound and crushed foam insulation material, the mixture comprising 1 to 10 weight percent of crushed foam insulation material, calculated from the total mass of the mixture and a thickness of said structural layer is 1 - 50 mm.
A control diaphragm for controlling a fuel feed in a diaphragm carburetor of an internal combustion engine, comprising a central, substantially flat sensing zone, a functional zone extending concentrically around the sensing zone and a peripheral fastening border for fastening the control diaphragm in the diaphragm carburetor; wherein the control diaphragm closes in the installed state a control chamber of the diaphragm carburetor in a sealing manner and the central sensing zone of the control diaphragm is operatively connected to a controlling lever of the diaphragm carburetor, which is arranged in the control chamber and senses the axial deflection of the sensing zone in dependence on an operational pressure change in the control chamber; characterized in that the control diaphragm consists of a thermally stable and fuel-resistant, non-elastomeric plastic film with uniform thickness, in which a plurality of concentric corrugations forming the functional zone are formed such that the axial deflection of the sensing zone in dependence on the operational pressure change in the control chamber progresses in accordance with a predefined displacement/pressure characteristic.
Device for recognizing wear of a brake pad of a disk brake, comprising a holder which can be inserted in a pad carrier plate of the brake pad and which serves for holding a contact conductor, which holder has a contact arm which has a receptacle for the contact conductor and which in a functional position bears against the pad carrier plate, to which contact arm there is connected a clamping element with two clamping arms which can be moved elastically towards one another and which in a functional position bear with angled contact faces against that side of the pad carrier plate which is situated opposite the contact arm, characterized in that the transition regions between the clamping element and the contact arm are rounded in the spreading direction of the clamping arms, wherein each rounding is formed by a channel-shaped groove which has an arcuate contour and which in the direction of the clamping element adjoins a contact face of the contact arm.
Device for monitoring access to a storage area of a plurality of storage areas for goods, the device comprising: measurement signal generation means comprising a signal source and a conductor loop arrangement, the conductor loop arrangement being arranged to generate a magnetic field on account of an electrical AC signal, each of the storage areas having at least one conductor loop of the conductor loop arrangement associated with it, and the signal source being configured to supply a characteristic electrical AC signal to each conductor loop of the conductor loop arrangement; detection means for detecting the generated magnetic field and for providing a measurement signal on the basis of the detected magnetic field; and evaluation means for evaluating the measurement signal provided by the detection means, the evaluation means being configured to determine an instance of access to one of the storage areas on the basis of the measurement signal, to compare a determined instance of access with a target access instance, and to output a display signal on the basis of the comparison. measurement signal generation means comprising a signal source and a conductor loop arrangement, the conductor loop arrangement being arranged to generate a magnetic field on account of an electrical AC signal, each of the storage areas having at least one conductor loop of the conductor loop arrangement associated with it, and the signal source being configured to supply a characteristic electrical AC signal to each conductor loop of the conductor loop arrangement; detection means for detecting the generated magnetic field and for providing a measurement signal on the basis of the detected magnetic field; and evaluation means for evaluating the measurement signal provided by the detection means, the evaluation means being configured to determine an instance of access to one of the storage areas on the basis of the measurement signal, to compare a determined instance of access with a target access instance, and to output a display signal on the basis of the comparison.
An electrically heated smoking article comprising: a filter rod; an aerosol medium rod stacked at a lower end of the filter rod and including an aerosol medium generating an aerosol by heating and a moisture absorbent accommodating or absorbing the aerosol medium; and a wrapping portion (51, 53, 55) surrounding and wrapping the filter rod and the aerosol medium rod to maintain a stack structure, wherein the aerosol medium, including glycerin and a thickener, is maintained in a semi-solid or solid state in a first temperature range including room temperature and is in a liquefied state in a second temperature range higher than the first temperature range, wherein glycerin vaporizes in a third temperature range higher than the second temperature range to generate an aerosol, and the thickener does not vaporize in the third temperature range but remains in the moisture absorbent. a filter rod; an aerosol medium rod stacked at a lower end of the filter rod and including an aerosol medium generating an aerosol by heating and a moisture absorbent accommodating or absorbing the aerosol medium; and a wrapping portion (51, 53, 55) surrounding and wrapping the filter rod and the aerosol medium rod to maintain a stack structure, wherein the aerosol medium, including glycerin and a thickener, is maintained in a semi-solid or solid state in a first temperature range including room temperature and is in a liquefied state in a second temperature range higher than the first temperature range, wherein glycerin vaporizes in a third temperature range higher than the second temperature range to generate an aerosol, and the thickener does not vaporize in the third temperature range but remains in the moisture absorbent.
Heating surface arrangement of a steam generator or a heat exchanger with multiple heating surfaces (110, 112, 310, 312) and/or multiple heating surface banks (110a, 112a, 210, 212, 310a, 312a, 410, 412), which are configured from multiple heating surface pipes (114, 214a, 214b, 214c, 214d, 214e, 314a, 314b, 314c, 314d, 314e, 314f, 314g, 314h, 314i, 314j, 414a, 414b, 414c, 414d, 414e, 414f, 414g, 414h, 414i, 414j), which run substantially parallel to one another and have horizontally configured regions (116, 216, 316, 416) and a respective deflection region (118, 218, 318, 418) between two horizontally configured regions (116, 216, 316, 416), wherein in the horizontally configured regions (116, 216, 316, 416) the heating surface pipes (114, 214a, 214b, 214c, 214d, 214e, 314a, 314b, 314c, 314d, 314e, 314f, 314g, 314h, 314i, 314j, 414a, 414b, 414c, 414d, 414e, 414f, 414g, 414h, 414i, 414j) are arranged in bundles to form heating surface passages (120,122, 220, 222, 320, 322, 420, 422), wherein two heating surface passages (120,122, 220, 222, 320, 322, 420, 422) arranged to adjoin one another respectively configure a heating surface needle (124, 224, 324, 424), characterised in that a heating surface passage (120a, 320a) is formed fanned out, wherein n heating surface pipes (134, 334) of this fanned-out heating surface passage (120a, 320a) are associated with a first heating surface (110, 310) of the multiple heating surfaces (110, 112, 310, 312), which is located above the fanned-out heating surface passage (120a, 320a), or with a first heating surface needle (124, 324) of the multiple heating surface needles (124, 224, 324, 424) and m heating pipes (136, 336) of the same heating surface passage (120a, 320a) are associated with a second heating surface (112, 312) of the multiple heating surfaces (110, 112, 310, 312), which is located below the fanned-out heating surface passage (120a, 320a), or with a second heating surface needle (124, 324) of the multiple heating surface needles (124, 224, 324, 424), and/or that at least the two heating surface pipes (214a, 214b, 314a, 314b) located on the inside in a deflection region are offset in relation to one another on both sides and/or at least the two heating surface pipes (414a, 414b, 414c, 414d) located on the inside in a deflection region are offset in relation to one another on one side, wherein the respective heating surface pipes (214c, 214d, 214e, 314c, 314d, 314e, 314f, 314g, 314h, 314i, 314j, 414e, 414f, 414g, 414h, 414i, 414j) located on the outside in the deflection region (218, 318, 418) are arranged in a row one above the other, and at least one heating surface pipe (214c, 214d, 214e, 314c, 314d, 314e, 314f, 314g, 314h, 314i, 314j, 414e, 414f, 414g, 414h, 414i, 414j) located on the outside in the deflection region (218, 318, 418) encompasses the heating surface pipes (214a, 214b, 314a, 314b), which are located on the inside and are offset in relation to one another on both sides, or the heating surface pipes (414a, 414b, 414c, 414d), which are located on the inside and are offset in relation to one another on one side.
A closure for sealing bottles containing liquids, comprising a substantially cylindrical cork-based part and a circular diaphragm applied coaxially to that face of the cork-based part intended to lie inside the bottle and face the beverage contained therein, the diaphragm being of plastic material suitable for contact with foods and having a diameter less than the maximum diameter of the cork-based part, but greater than the inner diameter of the relative neck part of the bottle, characterised in that the diaphragm comprises: a coaxial circular first portion of diameter just greater than the inner diameter of the relative neck part of the bottle for which the closure is intended, such that the first portion interferes with the interior of the neck of the bottle to provide a first seal; and, to provide a second seal, a more external annular second portion forming a single piece with the first portion and coaxial thereto, the second portion having a thickness decidedly less than that of the first portion at least with regard to that zone of this latter closest to the second portion.
A laser device (1, 2) comprising: a light source configured to output pulsed light to be amplified; a pumping unit; an amplifier configured to amplify the pulsed light to be amplified with an amplification medium pumped by the pumping unit; a monitor unit configured to monitor an intensity of light output from the amplifier toward the pulsed light source, the monitor unit being provided between the light source and the amplifier; and a light source controller configured to control the light source, characterized in that, when the light input to the monitor unit has an intensity equal to or higher than a predetermined intensity while a light pulse to be amplified is not input to the amplifier, the light source controller forces the pulsed light source to output a light pulse to be amplified. a light source configured to output pulsed light to be amplified; a pumping unit; an amplifier configured to amplify the pulsed light to be amplified with an amplification medium pumped by the pumping unit; a monitor unit configured to monitor an intensity of light output from the amplifier toward the pulsed light source, the monitor unit being provided between the light source and the amplifier; and a light source controller configured to control the light source, characterized in that, when the light input to the monitor unit has an intensity equal to or higher than a predetermined intensity while a light pulse to be amplified is not input to the amplifier, the light source controller forces the pulsed light source to output a light pulse to be amplified.