mhurhangee/patent-ind-claim-en huggingface dataset:
A blade outer air seal (BOAS) of a gas turbine engine, comprising: a bore which defines a bore portion and a bore anti-liberation portion along an axis; and a plug assembly received in said bore , said plug assembly comprising: a cup (70;70') which defines a cup portion and a cup anti-liberation portion along an axis, wherein said cup includes an axial slit extending at least partially along the length of the cup; and a wedge (72;72';72") mountable within said cup portion to at least partially radially expand said cup anti-liberation portion , wherein said wedge is mountable within said cup portion to engage said cup anti-liberation portion with said bore anti-liberation portion , wherein said cup anti-liberation portion includes a first reduced diameter portion and a second reduced diameter portion which each defines a diameter smaller than a diameter defined by said cup portion , said first reduced diameter portion defines a closed end section of said cup , and wherein said first reduced diameter portion defines a diameter greater than a diameter of said second reduced diameter portion , and said bore anti-liberation portion defines a radially inward directed shoulder , said second reduced diameter portion axially aligned with said radially inward directed shoulder . a bore which defines a bore portion and a bore anti-liberation portion along an axis; and a plug assembly received in said bore , said plug assembly comprising: a cup (70;70') which defines a cup portion and a cup anti-liberation portion along an axis, wherein said cup includes an axial slit extending at least partially along the length of the cup; and a wedge (72;72';72") mountable within said cup portion to at least partially radially expand said cup anti-liberation portion , wherein said wedge is mountable within said cup portion to engage said cup anti-liberation portion with said bore anti-liberation portion , wherein a cup (70;70') which defines a cup portion and a cup anti-liberation portion along an axis, wherein said cup includes an axial slit extending at least partially along the length of the cup; and a wedge (72;72';72") mountable within said cup portion to at least partially radially expand said cup anti-liberation portion , wherein said wedge is mountable within said cup portion to engage said cup anti-liberation portion with said bore anti-liberation portion , wherein said cup anti-liberation portion includes a first reduced diameter portion and a second reduced diameter portion which each defines a diameter smaller than a diameter defined by said cup portion , said first reduced diameter portion defines a closed end section of said cup , and wherein said first reduced diameter portion defines a diameter greater than a diameter of said second reduced diameter portion , and said bore anti-liberation portion defines a radially inward directed shoulder , said second reduced diameter portion axially aligned with said radially inward directed shoulder .
A method of forming a graphene layer, the method comprising: forming a first graphene on a first region of an underlayer at a first temperature using a first source gas; and forming a second graphene on a second region adjacent to the first region of the underlayer at a second temperature using a second source gas one of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound containing nitrogen (N); wherein one of the first graphene and the second graphene is a P-type graphene, the other one of the first graphene and the second graphene is an N-type graphene formed from the source gas comprising a hydrocarbon compound containing nitrogen (N), and the first graphene and the second graphene together form a P-N junction, wherein: the first source gas and the second source gas are the same as each other, and the first temperature and the second temperature are different from each other; or the first source gas and the second source gas are different from each other, the other of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound not containing nitrogen (N) . forming a first graphene on a first region of an underlayer at a first temperature using a first source gas; and forming a second graphene on a second region adjacent to the first region of the underlayer at a second temperature using a second source gas one of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound containing nitrogen (N); wherein one of the first graphene and the second graphene is a P-type graphene, the other one of the first graphene and the second graphene is an N-type graphene formed from the source gas comprising a hydrocarbon compound containing nitrogen (N), and the first graphene and the second graphene together form a P-N junction, wherein: the first source gas and the second source gas are the same as each other, and the first temperature and the second temperature are different from each other; or the first source gas and the second source gas are different from each other, the other of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound not containing nitrogen (N) . the first source gas and the second source gas are the same as each other, and the first temperature and the second temperature are different from each other; or the first source gas and the second source gas are different from each other, the other of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound not containing nitrogen (N) .
A device for inductively charging an electronic accessory, the device comprising: a first portion (324; FIG. 4) including a first transmission coil (316-1; FIG. 4) in a first plane, the first transmission coil configured to generate a first magnetic field (332-1; FIG. 5-1); a second portion (326; FIG. 4) including a second transmission coil (316-2; FIG. 4) in a second plane, the second transmission coil configured to generate a second magnetic field (332-2; FIG. 5-2); and a spacer (318; FIG. 4) positioned between the first transmission coil and the second transmission coil and between the first plane and the second plane, the spacer material magnetically insulating the second transmission coil from the first magnetic field, characterised in that the first portion (324; FIG. 3) and second portion (326; FIG. 3) are connected by a flexible connector (328; FIG. 5-2), and the first transmission coil and the second transmission coil are each part of a flexible printed circuit. a first portion (324; FIG. 4) including a first transmission coil (316-1; FIG. 4) in a first plane, the first transmission coil configured to generate a first magnetic field (332-1; FIG. 5-1); a second portion (326; FIG. 4) including a second transmission coil (316-2; FIG. 4) in a second plane, the second transmission coil configured to generate a second magnetic field (332-2; FIG. 5-2); and a spacer (318; FIG. 4) positioned between the first transmission coil and the second transmission coil and between the first plane and the second plane, the spacer material magnetically insulating the second transmission coil from the first magnetic field, characterised in that the first portion (324; FIG. 3) and second portion (326; FIG. 3) are connected by a flexible connector (328; FIG. 5-2), and the first transmission coil and the second transmission coil are each part of a flexible printed circuit.
Tapping unit for tapping a beverage (B) with foam (F), in particular beer (B) with foam (F), said tapping unit comprising: - a first line (L1), having an inlet (L11) for receiving a quantity of beverage (B) and an outlet (L12), - a second line (L2), different from said first line (L1), having an inlet (L21) for receiving a quantity of beverage (B) and an outlet (L22), - a first valve (V1), arranged on said first line (L1), - a second valve (V2), arranged on said second line (L2), - a logic control unit (U), connected to said first valve (V1) and to said second valve (V2), and configured to: ∘ send a first control signal for opening said first valve (V1) so that at least a quantity of beverage (B) is present at the outlet (L12) of said first line (L1), and ∘ send at least a second control signal for opening said second valve (V2) so that at least a quantity of foam (F) is present at the outlet (L22) of said second line (L2). characterized in that at least said second valve (V2) is a proportional valve, and said logic control unit (U) is configured to modulate said second control signal sent to the second valve (V2) to adjust the opening of said second valve (V2), so that a predetermined quantity of foam (F) is present at the outlet (L22) of the second line (L2). - a first line (L1), having an inlet (L11) for receiving a quantity of beverage (B) and an outlet (L12), - a second line (L2), different from said first line (L1), having an inlet (L21) for receiving a quantity of beverage (B) and an outlet (L22), - a first valve (V1), arranged on said first line (L1), - a second valve (V2), arranged on said second line (L2), - a logic control unit (U), connected to said first valve (V1) and to said second valve (V2), and configured to: ∘ send a first control signal for opening said first valve (V1) so that at least a quantity of beverage (B) is present at the outlet (L12) of said first line (L1), and ∘ send at least a second control signal for opening said second valve (V2) so that at least a quantity of foam (F) is present at the outlet (L22) of said second line (L2). ∘ send a first control signal for opening said first valve (V1) so that at least a quantity of beverage (B) is present at the outlet (L12) of said first line (L1), and ∘ send at least a second control signal for opening said second valve (V2) so that at least a quantity of foam (F) is present at the outlet (L22) of said second line (L2). at least said second valve (V2) is a proportional valve, and said logic control unit (U) is configured to modulate said second control signal sent to the second valve (V2) to adjust the opening of said second valve (V2), so that a predetermined quantity of foam (F) is present at the outlet (L22) of the second line (L2).
An image processing apparatus for generating an up-scaled output image comprising: a signal receiver configured to receive an input image; an image processor configured to process the input image and generate an output image; a storage configured to store a plurality of patches respectively corresponding to a plurality of pixel values; and a controller configured to control the image processor to generate the output image by identifying a first patch from the plurality of patches based on a first pixel value of a first pixel of the input image, and applying the first patch to the first pixel, wherein a plurality of pixels in the first patch respectively has arbitrary value obtained by a random number algorithm. a signal receiver configured to receive an input image; an image processor configured to process the input image and generate an output image; a storage configured to store a plurality of patches respectively corresponding to a plurality of pixel values; and a controller configured to control the image processor to generate the output image by identifying a first patch from the plurality of patches based on a first pixel value of a first pixel of the input image, and applying the first patch to the first pixel, wherein a plurality of pixels in the first patch respectively has arbitrary value obtained by a random number algorithm.
A pin for coupling between a wear element and a support of an earth-moving machine, with: - An elongated body with two curved surfaces , a concave upper surface and a convex lower surface, the upper surface having an upper orifice for access to a cavity inside the body, - An elastic block arranged inside the cavity of the body with an upper surface , and characterised in that it comprises: - A latch partially housed in the cavity of the body , said latch having: ∘ A curved outer surface , ∘ An upper surface and a lower surface , connected by the curved outer surface , the lower surface being in contact with the upper surface of the elastic block , ∘ A partially curved intermediate surface opposite the outer surface and after the upper surface , ∘ Two flat side surfaces , and ∘ A cylinder by way of rotation shaft of the latch , arranged between the intermediate surface and the lower surface , the ends thereof extending beyond the flat side surfaces of the latch . - An elongated body with two curved surfaces , a concave upper surface and a convex lower surface, the upper surface having an upper orifice for access to a cavity inside the body, - An elastic block arranged inside the cavity of the body with an upper surface , and - A latch partially housed in the cavity of the body , said latch having: ∘ A curved outer surface , ∘ An upper surface and a lower surface , connected by the curved outer surface , the lower surface being in contact with the upper surface of the elastic block , ∘ A partially curved intermediate surface opposite the outer surface and after the upper surface , ∘ Two flat side surfaces , and ∘ A cylinder by way of rotation shaft of the latch , arranged between the intermediate surface and the lower surface , the ends thereof extending beyond the flat side surfaces of the latch . ∘ A curved outer surface , ∘ An upper surface and a lower surface , connected by the curved outer surface , the lower surface being in contact with the upper surface of the elastic block , ∘ A partially curved intermediate surface opposite the outer surface and after the upper surface , ∘ Two flat side surfaces , and ∘ A cylinder by way of rotation shaft of the latch , arranged between the intermediate surface and the lower surface , the ends thereof extending beyond the flat side surfaces of the latch .
A device , comprising: a carrier sense unit configured to perform carrier sense for predetermined radio resources among radio resources of a frequency band shared by a cellular system and a wireless local area network, LAN, wherein the cellular system is a LTE-Advanced system; and a first control unit configured to control wireless communication of a base station of the cellular system in the frequency band in a manner that no signal is transmitted through the predetermined radio resources among the radio resources of the frequency band, and a signal is transmitted through radio resources other than the predetermined radio resources, when the result of the carrier sense indicates that no signal is transmitted from other nodes through the predetermined radio resource for a predetermined time; characterized in that the frequency band is a channel of the wireless LAN, the predetermined radio resources are radio resources of a partial band which is a part of the frequency band, and the other radio resources include radio resources of another partial band which is part of the frequency band. a carrier sense unit configured to perform carrier sense for predetermined radio resources among radio resources of a frequency band shared by a cellular system and a wireless local area network, LAN, wherein the cellular system is a LTE-Advanced system; and a first control unit configured to control wireless communication of a base station of the cellular system in the frequency band in a manner that no signal is transmitted through the predetermined radio resources among the radio resources of the frequency band, and a signal is transmitted through radio resources other than the predetermined radio resources, when the result of the carrier sense indicates that no signal is transmitted from other nodes through the predetermined radio resource for a predetermined time; characterized in that the frequency band is a channel of the wireless LAN, the predetermined radio resources are radio resources of a partial band which is a part of the frequency band, and the other radio resources include radio resources of another partial band which is part of the frequency band.
A pulse frequency measurement device comprising: a hardware counter configured to perform a counting operation on an input pulse sequence to output a counting result; and a processing unit configured to obtain number of pulses from the counting result and measure a first time period which the obtained number of pulses occupy, wherein the processing unit comprises a frequency calculation module configured to calculate a frequency of the input pulse sequence based on the obtained number of pulses and the first time period, wherein the frequency calculation module is further configured to calculate the frequency of the input pulse sequence based on a time period of a single pulse measured by the processing unit if the processing unit determines that number of times that the hardware counter reaches its full-scale counting number obtained from the counting result within a predetermined sampling time period is smaller than a first predetermined threshold or determines that the number of pulses obtained from the counting result within the predetermined sampling time period is smaller than a second predetermined threshold. a hardware counter configured to perform a counting operation on an input pulse sequence to output a counting result; and a processing unit configured to obtain number of pulses from the counting result and measure a first time period which the obtained number of pulses occupy, wherein the processing unit comprises a frequency calculation module configured to calculate a frequency of the input pulse sequence based on the obtained number of pulses and the first time period, wherein the frequency calculation module is further configured to calculate the frequency of the input pulse sequence based on a time period of a single pulse measured by the processing unit if the processing unit determines that number of times that the hardware counter reaches its full-scale counting number obtained from the counting result within a predetermined sampling time period is smaller than a first predetermined threshold or determines that the number of pulses obtained from the counting result within the predetermined sampling time period is smaller than a second predetermined threshold.
An active antenna comprising an antenna dipole array , a transceiver array , a digital processing unit, DPU , and a transceiving calibration unit, wherein: the antenna dipole array comprises an antenna dipole configured to perform conversion between an electromagnetic wave signal and a radio frequency, RF, signal; the transceiver array comprises a transceiver configured to: during signal reception, demodulate the RF signal of the antenna dipole into an IQ analog signal through down-conversion, and output the IQ analog signal to the DPU; during signal transmission, modulate the IQ analog signal of the DPU into an RF signal through up-conversion, and output the RF signal to the antenna dipole; and the DPU is configured to: during signal reception, convert the down-converted IQ analog signal into an IQ digital signal, and perform digital beam forming ,DBF, on the IQ digital signal according to the transceiving calibration unit; during signal transmission, convert a signal of a base band unit ,BBU, into an IQ digital signal through serial/parallel ,S/P, conversion, perform crest factor reduction ,CFR, on the serial/parallel converted IQ digital signal, and perform DBF on the IQ digital signal that undergoes the CFR processing according to the transceiving calibration unit; wherein the transceiver connects to the antenna dipole, the transceiver being integrated with the antenna dipole. the antenna dipole array comprises an antenna dipole configured to perform conversion between an electromagnetic wave signal and a radio frequency, RF, signal; the transceiver array comprises a transceiver configured to: during signal reception, demodulate the RF signal of the antenna dipole into an IQ analog signal through down-conversion, and output the IQ analog signal to the DPU; during signal transmission, modulate the IQ analog signal of the DPU into an RF signal through up-conversion, and output the RF signal to the antenna dipole; and the DPU is configured to: during signal reception, convert the down-converted IQ analog signal into an IQ digital signal, and perform digital beam forming ,DBF, on the IQ digital signal according to the transceiving calibration unit; during signal transmission, convert a signal of a base band unit ,BBU, into an IQ digital signal through serial/parallel ,S/P, conversion, perform crest factor reduction ,CFR, on the serial/parallel converted IQ digital signal, and perform DBF on the IQ digital signal that undergoes the CFR processing according to the transceiving calibration unit; wherein the transceiver connects to the antenna dipole, the transceiver being integrated with the antenna dipole.
Microtome having a knife holding device for a cutting blade and having an object holding device for an object to be cut thinly, wherein the object holding device has a first drive device for carrying out a cutting movement , and the object holding device or the knife holding device has a second drive device for carrying out a feed movement , wherein a electronic control system and an operating device for the first and the second drive device is allocated to the first and the second drive device , wherein the operating device allocated to the electronic control system for the first and the second drive device has an operating element , characterised in that the microtome has only one operating element forming the operating device, said operating element being actuatable in different modes in order to enable a one-handed operation, the operating element forms a so-called universal operating element being actuatable in the different modes in order to control both the vertical cutting movement of the object holding device and the horizontal feed movement of the object holding device or the knife holding device, and the operating element - is actuatable in a shifting/tilting and rotation mode, or - is actuatable in a rotation and pushing mode, or - is actuatable in a shifting/tilting and pressing mode, or - is actuatable in a shifting/tilting, rotation and pressing mode. - is actuatable in a shifting/tilting and rotation mode, or - is actuatable in a rotation and pushing mode, or - is actuatable in a shifting/tilting and pressing mode, or - is actuatable in a shifting/tilting, rotation and pressing mode.
A press pad for use in a laminate press comprising a woven fabric of heat resistant strands wherein at least the weft comprises a core made up of a plurality of strands within a sheath of an elastomeric material, the strands making up the core lying parallel to one another and to the longitudinal axis of the core , and the warp comprises metal wire, and characterized in that the metal wire of the warp comprises a plurality of metal strands that lie parallel to one another.
A bearing arrangement for a submersible pump in accordance with any one of the claims 1 to 6, comprising - a bearing cover and a bearing flange ; - one or more bearing elements each having an inner bearing ring , an outer bearing ring , and a roller element , wherein the bearing element is arranged at the bearing flange such that the bearing cover tensions each outer bearing ring in a longitudinal axial direction characterized in that a peripheral gap having a predefinable axial width is formed in a radial direction between the outer bearing ring and the bearing cover , and between the outer bearing ring and the bearing flange , wherein the gap is formed as a spark gap for explosion protection, and wherein a radial width of the gap running around in the radial direction is smaller than or equal to 0.2 mm. - a bearing cover and a bearing flange ; - one or more bearing elements each having an inner bearing ring , an outer bearing ring , and a roller element ,