mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing a biometric imaging module , the method comprising: providing a carrier tape ; forming a sensor opening and at least one contact pad opening in the carrier tape, wherein the sensor opening is adjacent to and separate from the contact pad opening; and from a top side of the carrier tape, arranging a biometric sensor on the carrier tape such that a body of the biometric sensor is arranged in the sensor opening and a conductive contact pad of the biometric sensor is aligned with and accessible through the contact pad opening from a backside of the carrier tape, and such that a sensing surface of the biometric sensor is facing in the same direction as the top side of the carrier tape. providing a carrier tape ; forming a sensor opening and at least one contact pad opening in the carrier tape, wherein the sensor opening is adjacent to and separate from the contact pad opening; and from a top side of the carrier tape, arranging a biometric sensor on the carrier tape such that a body of the biometric sensor is arranged in the sensor opening and a conductive contact pad of the biometric sensor is aligned with and accessible through the contact pad opening from a backside of the carrier tape, and such that a sensing surface of the biometric sensor is facing in the same direction as the top side of the carrier tape.
A concentrated dairy liquid comprising: 7 to 9 percent total protein; 9 to 14 percent total fat; less than 1.5 percent lactose; and 0.1 to 1.5 percent added dairy minerals, wherein the concentrated dairy liquid comprises a ratio of protein to fat of 0.4 to 0.75, wherein the concentrated dairy liquid comprises whole milk; and wherein the concentrated dairy liquid has a mineral to protein ratio of at least two of the following: 0.0040 mg to 0.0043 mg potassium per mg protein; 0.0018 mg to 0.0025 mg magnesium per mg protein; 0.0347 mg to 0.0447 mg calcium per mg protein; and 0.0897 mg to 0.1045 mg phosphate per mg protein. 7 to 9 percent total protein; 9 to 14 percent total fat; less than 1.5 percent lactose; and 0.1 to 1.5 percent added dairy minerals, 0.0040 mg to 0.0043 mg potassium per mg protein; 0.0018 mg to 0.0025 mg magnesium per mg protein; 0.0347 mg to 0.0447 mg calcium per mg protein; and 0.0897 mg to 0.1045 mg phosphate per mg protein.
A system for controlling moisture ingress in an aircraft, comprising: a moisture diverter comprising a substantially planar base flange configured to sealingly engage an underlying surface of the aircraft, and a shroud having a moisture impermeable wall extending inboard from the base flange when the flange is engaged to the underlying surface of the aircraft and defining an enclosure therein for enclosing an electrical connector ; further comprising a vertical slot in a downslope portion of the moisture impermeable wall of the shroud ; and wherein the moisture diverter includes a backflow gate spaced apart from the shroud; the backflow gate extending inboard from the base flange and aligned with the vertical slot in a manner such that the backflow gate blocks upslope flow of liquid moisture into the enclosure through the vertical slot . a moisture diverter comprising a substantially planar base flange configured to sealingly engage an underlying surface of the aircraft, and a shroud having a moisture impermeable wall extending inboard from the base flange when the flange is engaged to the underlying surface of the aircraft and defining an enclosure therein for enclosing an electrical connector ; further comprising a vertical slot in a downslope portion of the moisture impermeable wall of the shroud ; and wherein the moisture diverter includes a backflow gate spaced apart from the shroud; the backflow gate extending inboard from the base flange and aligned with the vertical slot in a manner such that the backflow gate blocks upslope flow of liquid moisture into the enclosure through the vertical slot .
A method for enabling active control feedback between a base station and a user equipment, UE, operating in a cellular communications network, the method comprising: allocating, by a network controller, a first time slot within a frame or multiframe for an uplink physical control signal so that the uplink physical control signal is separate from the uplink shared physical channel comprised in said frame or multiframe, wherein the uplink physical control signal is a beacon signal; sending data from the UE to the base station over the uplink shared physical channel in a second different time slot ; sending said uplink physical control signal from the UE to the base station in said first time slot when data is not being sent from the UE to the base station; sending feedback information from the base station to the UE over a physical layer downlink control channel in response to the uplink physical control signal, wherein the feedback information includes power control commands for a plurality of UEs using different bits , the plurality of UEs including said UE. allocating, by a network controller, a first time slot within a frame or multiframe for an uplink physical control signal so that the uplink physical control signal is separate from the uplink shared physical channel comprised in said frame or multiframe, wherein the uplink physical control signal is a beacon signal; sending data from the UE to the base station over the uplink shared physical channel in a second different time slot ; sending said uplink physical control signal from the UE to the base station in said first time slot when data is not being sent from the UE to the base station; sending feedback information from the base station to the UE over a physical layer downlink control channel in response to the uplink physical control signal, wherein the feedback information includes power control commands for a plurality of UEs using different bits , the plurality of UEs including said UE.
An ion detector for a Time of Flight mass spectrometer comprising: a first device arranged and adapted to receive ions and output electrons ; a converter arranged and adapted to receive said electrons and output photons ; an array of photodiodes arranged and adapted to detect said photons output from said converter, each photodiode having an output; and an array of Time to Digital Converters wherein the output from each photodiode is connected to a separate Time to Digital Converter, wherein said first device is a single microchannel plate. a first device arranged and adapted to receive ions and output electrons ; a converter arranged and adapted to receive said electrons and output photons ; an array of photodiodes arranged and adapted to detect said photons output from said converter, each photodiode having an output; and an array of Time to Digital Converters wherein the output from each photodiode is connected to a separate Time to Digital Converter, wherein said first device is a single microchannel plate.
A device for selecting an area (2; 22; 32; 42; 52; 62; 72; 82) of a dental restoration body (1; 71), which is depicted in a 3D representation, comprising a CAD system having a display unit for representing the restoration body (1; 71) and having an input unit by means of which a pointer displayed on the display unit can be controlled, at least parts of the area boundary being in the form of dental-specific lines , characterised in that the device is designed in such a way that the range (2; 22; 32; 42; 52; 62; 72; 82) can be set by selection in the 3D representation of displayed dental-specific points (7.1-7.4) and that, by selection of a dental-specific point (7.1-7.4) for the position of the cusp tip, the area of the relevant cusp can be selected up to the boundaries of its cusp, and that the lower limit of the area is formed by the equator line , the selection being made by clicking on the dental-specific point by means of the input unit via the pointer .
An autoclavable battery pack for use with a surgical instrument and a battery autoclaving system, comprising: a housing ; a battery cell disposed within the housing; and an isolation region disposed between the housing and the battery cell, wherein the isolation region is formed at least in part from at least one of a thermal insulating material, a phase change material, or a combination thereof, wherein the isolation region comprises at least two layers , wherein each layer is formed from at least in part of a phase change material; further comprising at least one temperature sensor configured to sense the temperature of at least one of the housing, the isolation region, or the battery cell. a housing ; a battery cell disposed within the housing; and an isolation region disposed between the housing and the battery cell, wherein the isolation region is formed at least in part from at least one of a thermal insulating material, a phase change material, or a combination thereof, wherein the isolation region comprises at least two layers , wherein each layer is formed from at least in part of a phase change material; further comprising at least one temperature sensor configured to sense the temperature of at least one of the housing, the isolation region, or the battery cell.
A high strength steel plate comprising, by weight: 0.05 to 0.20% of C, 0.15 to 0.55% of Si, 0.9 to 1.75% of Mn, 0.001 to 0.05% of Al, 0.03% or less of P, 0.03% or less of S, 0.05 to 0.3% of Cr, 0.05 to 0.6% of Ni, 0.005 to 0.35% of Cu, 0.05 to 0.2% of Mo, 0.005 to 0.07% of V, 0.005 to 0.04% of Nb, 0.0005 to 0.005% of Ca, 0.005 to 0.025% of Ti, 0.002 to 0.006% of N, less than 0.0005% of B, and a balance of Fe, with inevitable impurities, satisfying relationships of Cu + Ni + Cr + Mo: 1.5% or less, Cr + Mo: 0.4% or less, V + Nb: 0.1% or less, and Ca/S: 1.0 or higher, and comprising a microstructure of 30 to 60 area% of tempered martensite and 40 to 70 area% of tempered bainite, wherein the sum of the tempered martensite and the tempered bainite is 100 area%, wherein a grain aspect ratio as defined herein of the microstructure is 1.1 to 2.5, wherein Charpy impact toughness of the steel plate is 300J or more at -60°C, and wherein the low-temperature impact toughness is evaluated as a Charpy impact energy value obtained by performing a Charpy impact test on a specimen having a V notch at -60°C , and wherein the tensile strength of the steel plate is 600 MPa or more.
A method of fabricating an optics wafer, the method comprising: providing a precursor wafer comprising a core region composed of a glass-reinforced epoxy that is substantially non-transparent for light of a specific spectral range, the precursor wafer further comprising a first resin layer over a top surface of the core region and a second resin layer over a bottom surface of the core region; forming openings in the precursor wafer, the openings extending from a top of the precursor wafer to a bottom of the precursor wafer; substantially filling the openings with a material that, when hardened, is substantially transparent for light of the specific spectral range; hardening the material in the openings to form transparent elements that are substantially transparent for light of the specific spectral range; polishing a top surface of the precursor wafer and a bottom surface of the precursor wafer to obtain a wafer having a thickness within a predetermined range without causing glass fibers of the core region to become exposed; and providing respective optical structures on one or more exposed surfaces of at least some of the transparent elements . providing a precursor wafer comprising a core region composed of a glass-reinforced epoxy that is substantially non-transparent for light of a specific spectral range, the precursor wafer further comprising a first resin layer over a top surface of the core region and a second resin layer over a bottom surface of the core region; forming openings in the precursor wafer, the openings extending from a top of the precursor wafer to a bottom of the precursor wafer; substantially filling the openings with a material that, when hardened, is substantially transparent for light of the specific spectral range; hardening the material in the openings to form transparent elements that are substantially transparent for light of the specific spectral range; polishing a top surface of the precursor wafer and a bottom surface of the precursor wafer to obtain a wafer having a thickness within a predetermined range without causing glass fibers of the core region to become exposed; and providing respective optical structures on one or more exposed surfaces of at least some of the transparent elements .
A neuromodulation device for stimulating peripheral nerves comprising: a memory; a pulse generator ; at least one electrode connected to the pulse generator, the at least one electrode being configured to be attached to a patient's leg in the proximity of the branches of peripheral nerves, wherein the at least one electrode is adapted to stimulate the peripheral nerves by electrical pulses generated by the pulse generator; a control unit connected to the at least one electrode, the control unit being configured for setting at least one generated pulse parameter; a neuromodulation response detector having a sensor , the sensor being configured to detect reflexive movement of the stimulated leg during the stimulation, the detector being connected to the control unit and being configured to send information on the frequency of the reflexive movement of the patient's leg to the control unit; wherein the control unit is configured to automatically set a flow of the current of the generated pulses, depending on the information on the frequency of the reflexive movement obtained either from the detector or from the memory . a memory; a pulse generator ; at least one electrode connected to the pulse generator, the at least one electrode being configured to be attached to a patient's leg in the proximity of the branches of peripheral nerves, wherein the at least one electrode is adapted to stimulate the peripheral nerves by electrical pulses generated by the pulse generator; a control unit connected to the at least one electrode, the control unit being configured for setting at least one generated pulse parameter; a neuromodulation response detector having a sensor , the sensor being configured to detect reflexive movement of the stimulated leg during the stimulation, the detector being connected to the control unit and being configured to send information on the frequency of the reflexive movement of the patient's leg to the control unit; wherein the control unit is configured to automatically set a flow of the current of the generated pulses, depending on the information on the frequency of the reflexive movement obtained either from the detector or from the memory .
A display case door assembly for a temperature-controlled storage device, the display case door assembly comprising: an insulated single glass unit that includes at least first , second, and third panels, wherein the second panel is positioned between the first and third panels, the second panel comprising a transparent LCD panel on which media can be displayed and through which products within the temperature-controlled storage device are visible, wherein the single glass unit has a front surface, a rear surface, and an outside edge, and wherein the single glass unit comprises a thermally insulating medium between the first and third panels, a frame that at least partially surrounds the outside edge of the single glass unit, and electronic components in electrical communication with the LCD panel, the electronic components comprising a media player configured to control the media displayed on the LCD panel, wherein the single glass unit, the frame, and the electronic components are configured to move, as a unit, between a closed position in which the single glass unit provides thermal insulation for the temperature-controlled storage device while displaying media on the transparent LCD panel and an open position in which the products within the temperature-controlled storage device are accessible. an insulated single glass unit that includes at least first , second, and third panels, wherein the second panel is positioned between the first and third panels, the second panel comprising a transparent LCD panel on which media can be displayed and through which products within the temperature-controlled storage device are visible, wherein the single glass unit has a front surface, a rear surface, and an outside edge, and wherein the single glass unit comprises a thermally insulating medium between the first and third panels, a frame that at least partially surrounds the outside edge of the single glass unit, and electronic components in electrical communication with the LCD panel, the electronic components comprising a media player configured to control the media displayed on the LCD panel, wherein the single glass unit, the frame, and the electronic components are configured to move, as a unit, between a closed position in which the single glass unit provides thermal insulation for the temperature-controlled storage device while displaying media on the transparent LCD panel and an open position in which the products within the temperature-controlled storage device are accessible.
Cooking hob, particularly induction hob, comprising a cooking surface and a heating power transferring element, particularly an inductor or induction coil , preferably provided below the cooking surface , wherein at least two sensor elements are provided, preferably spatially distributed in an area covered by the heating power transferring element , the sensor elements being configured to gather information regarding the temperature of a piece of cookware placed on the cooking surface , wherein an electrical circuit is provided which comprises switching means (5.1) for providing a selective electrical coupling of one of said sensor elements with a control entity , wherein said control entity is configured to check plausibility of temperature information provided by the sensor elements and to discard temperature information provided by a sensor element with a failed plausibility check result.
A method for operating a dense phase powder pump in a powder-conveying mode, wherein the dense phase powder pump comprises at least one and preferably exactly one powder conveying chamber having a powder inlet and a powder outlet, wherein a powder inlet valve is allocated to the powder inlet and a powder outlet valve is allocated to the powder outlet, and wherein the powder conveying chamber comprises at least one air exchange opening for alternatingly subjecting the powder conveying chamber to positive pressure or negative pressure, wherein powder, in particular coating powder, is alternatingly suctioned into the powder conveying chamber from a first powder reservoir during an intake phase of the powder-conveying mode of the dense phase powder pump and the powder previously drawn in is discharged into a second powder reservoir arranged downstream of the dense phase powder pump or to a device for spraying powder arranged downstream of the dense phase powder pump during a subsequent discharge phase, wherein during the intake phase, the powder inlet valve is at least temporarily opened and the powder outlet valve at least temporarily closed, while the powder conveying chamber is at least temporarily subjected to negative pressure, wherein during the discharge phase, the powder inlet valve is at least temporarily closed and the powder outlet valve at least temporarily opened, while the powder conveying chamber is at least temporarily subjected to positive pressure, characterized in that at least one of the following conditions exists for a predefinable or definable period of time in at least one discharge phase of a plurality of pump cycles: i) the powder inlet valve is open; ii) the powder outlet valve is closed; and/or iii) the pressurizing of the powder conveying chamber with positive pressure is interrupted. i) the powder inlet valve is open; ii) the powder outlet valve is closed; and/or iii) the pressurizing of the powder conveying chamber with positive pressure is interrupted.
An apparatus for separation of a target product from a liquid phase P comprising the target product, where the apparatus is a cooling disk crystallizer, comprising - at least one cooling disk which has a primary space for a heat transfer medium, - at least one first feed unit and one first removal unit for the heat transfer medium W, - at least one secondary space for the liquid phase P, - at least one second feed unit for the liquid phase P, - at least one crystallization surface which divides the primary space and the secondary space , and - at least one second removal unit for the target product, wherein the apparatus has at least one application unit for a liquid phase P 0 directly to the crystallization surface and/or the surfaces of lines that conduct the heat transfer medium W, where the application unit comprises a pipeline system having nozzles for distributing the liquid phase P 0 over the crystallization surface and/or the surfaces of lines that conduct the heat transfer medium W. - at least one cooling disk which has a primary space for a heat transfer medium, - at least one first feed unit and one first removal unit for the heat transfer medium W, - at least one secondary space for the liquid phase P, - at least one second feed unit for the liquid phase P, - at least one crystallization surface which divides the primary space and the secondary space , and - at least one second removal unit for the target product, wherein the apparatus has at least one application unit for a liquid phase P 0 directly to the crystallization surface and/or the surfaces of lines that conduct the heat transfer medium W, where the application unit comprises a pipeline system having nozzles for distributing the liquid phase P 0 over the crystallization surface and/or the surfaces of lines that conduct the heat transfer medium W.