mhurhangee/ep-ind-claims huggingface dataset:
Electric fuel pump for conveying fuel in a fuel injection system, which fuel pump has a pump unit and a drive unit, wherein the drive unit comprises a motor with a multiplicity of windings (15, 15', 15'') which can have electrical current applied thereto, in particular in order to generate a rotating magnetic field, wherein the motor can be operated with an alternating current with a high-frequency current component superposed thereon in order to generate heat for heating the fuel to be conveyed, characterized in that the heating power obtained by means of the additional high-frequency component is controllable in a manner dependent on the desired heating power, and the windings of the multiplicity of windings (15, 15', 15'') are fixedly connected to a respective power output stage of a power electronics unit, which is activatable as desired.
A method of receiving and processing Channel State Information, CSI, feedback from a User Equipment, UE, in a wireless communication network, said method comprising: receiving, from said UE, a plurality of non-uniformly spaced digital quantized CSI feedback samples representing the frequency response of a downlink communication channel; demodulating and inverse quantizing the received quantized CSI feedback samples; generating a time domain tap delay channel model from the inverse quantized CSI feedback samples; and frequency-transforming the time domain tap delay channel model to obtain a reconstructed frequency response of the downlink communication channel in the frequency domain. receiving, from said UE, a plurality of non-uniformly spaced digital quantized CSI feedback samples representing the frequency response of a downlink communication channel; demodulating and inverse quantizing the received quantized CSI feedback samples; generating a time domain tap delay channel model from the inverse quantized CSI feedback samples; and frequency-transforming the time domain tap delay channel model to obtain a reconstructed frequency response of the downlink communication channel in the frequency domain.
A system comprising: a support structure (100, 600) having a first support end (102, 602), a second support end (104, 604), a support portion (106, 606) extending between the first support end (102, 602) and the second support end (104, 604), and a plurality of first projections (118, 618) protruding from a portion (107, 607) of a surface (109, 609) of the support structure (100, 600), corresponding to the support portion (106, 606), wherein the support structure (100, 600) is a primary heat sink; and a vapor chamber (120, 620) having a casing (122, 622) and a wick (124, 624) disposed within the casing (122, 622), coupled to the surface of the support structure (100,600); characterized in that the system further comprises a plurality of spring-loaded clamping devices each clamping device to be mounted on a circuit card and being configured to couple with a corresponding first projection (118, 618) so as to clamp the circuit card to the support structure (100, 600). a support structure (100, 600) having a first support end (102, 602), a second support end (104, 604), a support portion (106, 606) extending between the first support end (102, 602) and the second support end (104, 604), and a plurality of first projections (118, 618) protruding from a portion (107, 607) of a surface (109, 609) of the support structure (100, 600), corresponding to the support portion (106, 606), wherein the support structure (100, 600) is a primary heat sink; and a vapor chamber (120, 620) having a casing (122, 622) and a wick (124, 624) disposed within the casing (122, 622), coupled to the surface of the support structure (100,600); characterized in that the system further comprises a plurality of spring-loaded clamping devices each clamping device to be mounted on a circuit card and being configured to couple with a corresponding first projection (118, 618) so as to clamp the circuit card to the support structure (100, 600).
A wireless target system unit for a weapon effect simulation system, comprising a radio transmitter and receiver arranged for communication with a control system, the wireless target system unit further comprising a laser receiver arranged for receiving laser light from an attacking system, characterized in that said wireless target system unit comprises two retro-reflecting prisms (3, 4) arranged to retro-reflect an incident laser light from an attacking system, said laser light has a laser pulse pattern comprising of a first laser lobe, a second laser lobe and a third laser lobe, wherein each reflecting centre (3a, 4a) of said retro-reflecting prisms (3, 4) and a sensor centre of said laser receiver are mounted such that they form an isosceles triangle, and that the distance (D1, D2) between the reflecting centre (3a, 4a) of each said retro-reflecting prism (3, 4) and the sensor centre of said laser receiver are equal, wherein said isosceles triangle form of said reflecting centres (3a, 4a) of said retro-reflecting prisms (3, 4) and said sensor centre of said laser receiver is arranged to correspond with said laser pulse pattern.
An end effector for a surgical instrument, comprising: a first jaw having a cartridge with a plurality of staple cavities configured to seat staples therein, the staple cavities opening on a tissue-facing surface of the cartridge; a second jaw opposing the first jaw and having an anvil with a plurality of staple forming cavities formed on a tissue-facing surface thereof, wherein the first and second jaws are configured to clamp tissue therebetween; a plurality of male features formed on a tissue-facing surface of at least one jaw of the first and second jaws; an adjunct material configured to be releasably retained on the at least one jaw, the adjunct material comprising a plurality of female features, each female feature being configured to encompass a corresponding at least one of the male features in a clearance fit such that the adjunct material is able to move with respect to the jaw on which it is mounted at least in a first plane parallel to the tissue-facing surface; and characterised by at least one attachment feature configured to releasably retain the adjunct material on the at least one jaw, wherein the at least one attachment feature comprises adhesive disposed on at least a portion of a surface of the adjunct material facing the at least one jaw. a first jaw having a cartridge with a plurality of staple cavities configured to seat staples therein, the staple cavities opening on a tissue-facing surface of the cartridge; a second jaw opposing the first jaw and having an anvil with a plurality of staple forming cavities formed on a tissue-facing surface thereof, wherein the first and second jaws are configured to clamp tissue therebetween; a plurality of male features formed on a tissue-facing surface of at least one jaw of the first and second jaws; an adjunct material configured to be releasably retained on the at least one jaw, the adjunct material comprising a plurality of female features, each female feature being configured to encompass a corresponding at least one of the male features in a clearance fit such that the adjunct material is able to move with respect to the jaw on which it is mounted at least in a first plane parallel to the tissue-facing surface; and characterised by at least one attachment feature configured to releasably retain the adjunct material on the at least one jaw, wherein the at least one attachment feature comprises adhesive disposed on at least a portion of a surface of the adjunct material facing the at least one jaw.
A solar cell, comprising: a glass substrate; a first graphene-based conductive layer located, directly or indirectly, on the glass substrate; a first semiconductor layer in contact with the first graphene-based conductive layer; at least one light absorbing layer located, directly or indirectly, on the first semiconductor layer; a second semiconductor layer located, directly or indirectly, on the at least one light absorbing layer; a second graphene-based conductive layer in contact with the second semiconductor layer; and a back contact located, directly or indirectly, on the second-graphene-based conductive layer, wherein the first semiconductor layer is an n- type semiconductor layer and the first graphene-based layer is doped with n-type dopants and wherein the second semiconductor layer is a p-type semiconductor layer and the second graphene-based layer is doped with p-type dopants. a glass substrate; a first graphene-based conductive layer located, directly or indirectly, on the glass substrate; a first semiconductor layer in contact with the first graphene-based conductive layer; at least one light absorbing layer located, directly or indirectly, on the first semiconductor layer; a second semiconductor layer located, directly or indirectly, on the at least one light absorbing layer; a second graphene-based conductive layer in contact with the second semiconductor layer; and a back contact located, directly or indirectly, on the second-graphene-based conductive layer, wherein the first semiconductor layer is an n- type semiconductor layer and the first graphene-based layer is doped with n-type dopants and wherein the second semiconductor layer is a p-type semiconductor layer and the second graphene-based layer is doped with p-type dopants.
An exhaust valve rocker arm assembly operable in a combustion engine mode and an engine braking mode, the exhaust valve rocker arm assembly comprising: a rocker that defines a pressurized oil supply conduit; a rocker arm that receives the rocker shaft and is configured to rotate around the rocker shaft, the rocker arm having an oil supply passage defined therein; a valve bridge that engages a first exhaust valve at a first foot and a second exhaust valve at a second foot; a capsule assembly disposed on the rocker arm having a capsule body that moves between a first capsule position and a second capsule position, wherein in the first capsule position, the capsule body is in a retracted position in the rocker arm offset from the valve bridge, wherein in the second capsule position, the capsule body extends rigidly for cooperative engagement with the valve bridge; a pulling spring that normally biases the capsule body to the retracted position; and a shift assembly disposed in the capsule assembly and having a shift body that moves between first and second shift positions, the first shift position corresponding to the capsule body in the first capsule position, the shift body having a shift body chamber that houses a check ball valve assembly; the shift body configured to move from the first shift position to the second shift position in engine brake mode upon opening of the check ball valve assembly; wherein in the engine braking mode, pressurized oil is communicated through the oil supply passage and against the shift body such that the shift body moves from the first shift position to the second shift position. a rocker that defines a pressurized oil supply conduit; a rocker arm that receives the rocker shaft and is configured to rotate around the rocker shaft, the rocker arm having an oil supply passage defined therein; a valve bridge that engages a first exhaust valve at a first foot and a second exhaust valve at a second foot; a capsule assembly disposed on the rocker arm having a capsule body that moves between a first capsule position and a second capsule position, wherein in the first capsule position, the capsule body is in a retracted position in the rocker arm offset from the valve bridge, wherein in the second capsule position, the capsule body extends rigidly for cooperative engagement with the valve bridge; a pulling spring that normally biases the capsule body to the retracted position; and a shift assembly disposed in the capsule assembly and having a shift body that moves between first and second shift positions, the first shift position corresponding to the capsule body in the first capsule position, the shift body having a shift body chamber that houses a check ball valve assembly; the shift body configured to move from the first shift position to the second shift position in engine brake mode upon opening of the check ball valve assembly; wherein in the engine braking mode, pressurized oil is communicated through the oil supply passage and against the shift body such that the shift body moves from the first shift position to the second shift position.
A virtual machine migration method implemented by a switch, comprising: receiving a message sent by a server, wherein the message is a Virtual Station Interface Discovery and Configuration Protocol, VDP, message, characterized in that a Reason field of a type length value. TLV, information string of the message comprises a flag bit indicating whether a virtual machine is migrating; obtaining the flag bit from the message; determining that the virtual machine is migrating to the server when the flag bit is 1. receiving a message sent by a server, wherein the message is a Virtual Station Interface Discovery and Configuration Protocol, VDP, message, characterized in that a Reason field of a type length value. TLV, information string of the message comprises a flag bit indicating whether a virtual machine is migrating; obtaining the flag bit from the message; determining that the virtual machine is migrating to the server when the flag bit is 1.
A method of correcting a bit failure in a memory array, the method comprising: determining a failure in a first failed bit in a first row stored in a first bank of the memory array; storing a first address of the first failed bit in a first single bit repair, hereinafter termed SBR, array; setting a valid field in the first SBR array for indicating that a value of the first failed bit at the first address is inverted due to the failure, wherein the first address is a full address of the first failed bit, wherein the first SBR array is stored in a second bank of the memory array, and wherein the first bank and the second bank are accessible in parallel; accessing the first row stored in the first bank and the first SBR array stored in the second bank in parallel; and correcting the failure in the first failed bit during a read operation for the first row or a refresh operation by inverting a bit value read out from the first row at the first address, wherein the first row stored in the first bank comprises an upper half or more significant bits of a data word and a second row stored in the second bank comprises a lower half or less significant bits of the data word. determining a failure in a first failed bit in a first row stored in a first bank of the memory array; storing a first address of the first failed bit in a first single bit repair, hereinafter termed SBR, array; setting a valid field in the first SBR array for indicating that a value of the first failed bit at the first address is inverted due to the failure, wherein the first address is a full address of the first failed bit, wherein the first SBR array is stored in a second bank of the memory array, and wherein the first bank and the second bank are accessible in parallel; accessing the first row stored in the first bank and the first SBR array stored in the second bank in parallel; and correcting the failure in the first failed bit during a read operation for the first row or a refresh operation by inverting a bit value read out from the first row at the first address, wherein the first row stored in the first bank comprises an upper half or more significant bits of a data word and a second row stored in the second bank comprises a lower half or less significant bits of the data word.
A composite consisting of a hydrophobic and eosin functionalized silica aerogel core encapsulated by an outer PEG hydrogel layer through surface-initiated photopolymerization.
A device comprising: a first processing means for computing, based on values of a subset of pixels in each frame of a time sequence of video frames, basic quantiles and corresponding cumulative probabilities; a buffer for storing consecutive sets of the basic quantiles and corresponding cumulative probabilities for a sliding time window; a second processing means (300, 400, 500) for: - computing, based on the stored basic quantiles in the sliding time window including the most recent frame, first indicators being bright-quantile indicators numerically characterizing the temporal peak of the basic quantiles in the sliding time window; - computing, based on the stored basic quantiles in the sliding time window, dark-quantile indicators which are distinct from the bright-quantile indicators; and - computing, based on the bright-quantile indicators and the dark-quantile indicators, desired quantiles and corresponding cumulative probabilities; and a corrector (600, 700) for generating a corrected frame by replacing pixel values in the most recent frame with corrected pixel values identified based on the desired quantiles. a first processing means for computing, based on values of a subset of pixels in each frame of a time sequence of video frames, basic quantiles and corresponding cumulative probabilities; a buffer for storing consecutive sets of the basic quantiles and corresponding cumulative probabilities for a sliding time window; a second processing means (300, 400, 500) for: - computing, based on the stored basic quantiles in the sliding time window including the most recent frame, first indicators being bright-quantile indicators numerically characterizing the temporal peak of the basic quantiles in the sliding time window; - computing, based on the stored basic quantiles in the sliding time window, dark-quantile indicators which are distinct from the bright-quantile indicators; and - computing, based on the bright-quantile indicators and the dark-quantile indicators, desired quantiles and corresponding cumulative probabilities; and - computing, based on the stored basic quantiles in the sliding time window including the most recent frame, first indicators being bright-quantile indicators numerically characterizing the temporal peak of the basic quantiles in the sliding time window; - computing, based on the stored basic quantiles in the sliding time window, dark-quantile indicators which are distinct from the bright-quantile indicators; and - computing, based on the bright-quantile indicators and the dark-quantile indicators, desired quantiles and corresponding cumulative probabilities; and a corrector (600, 700) for generating a corrected frame by replacing pixel values in the most recent frame with corrected pixel values identified based on the desired quantiles.
A sensor insertion device configured to insert a biological information sensor into a living body, the sensor insertion device comprising: a housing; a needle member comprising a needle portion configured to be inserted in the living body with the sensor and to be movable in the housing in an insertion direction and a pulling-out direction; a first urging member configured to automatically urge the needle member in the insertion direction to move the needle member to a first position at which the needle portion is located in the living body without contribution of an urging force of a second urging member; characterized in that the second urging member is configured to automatically urge the needle member in the pulling-out direction to move the needle member that has reached the first position to a second position at which the needle portion is located out of the living body without contribution of an urging force of the first urging member; and a switching mechanism located inside the housing and configured to automatically perform selective switching from movement of the needle member by an urging force of the first urging member to movement of the needle member by an urging force of the second urging member when the needle member reaches the first position. a housing; a needle member comprising a needle portion configured to be inserted in the living body with the sensor and to be movable in the housing in an insertion direction and a pulling-out direction; a first urging member configured to automatically urge the needle member in the insertion direction to move the needle member to a first position at which the needle portion is located in the living body without contribution of an urging force of a second urging member; characterized in that the second urging member is configured to automatically urge the needle member in the pulling-out direction to move the needle member that has reached the first position to a second position at which the needle portion is located out of the living body without contribution of an urging force of the first urging member; and a switching mechanism located inside the housing and configured to automatically perform selective switching from movement of the needle member by an urging force of the first urging member to movement of the needle member by an urging force of the second urging member when the needle member reaches the first position.
A photomask manufacturing method, comprising: providing a substrate structure, wherein the substrate structure comprises: an etch material layer; a first sacrificial layer on a portion of the etch material layer; and a photomask layer on an upper surface of the etch material layer, an upper surface of the first sacrificial layer, and a side surface of the first sacrificial layer; forming a second sacrificial layer covering the photomask layer on the etch material layer and the photomask layer on the side surface of the first sacrificial layer; wherein forming the second sacrificial layer comprises: depositing a sacrificial material layer on the substrate structure; and conducting a planarization process on the sacrificial material layer so that an upper surface of the remaining sacrificial material layer is on a substantially same horizontal level with an upper surface of the photomask layer on the first sacrificial layer, the remaining sacrificial material layer being the second sacrificial layer; wherein the photomask manufacturing method further comprises: etching the photomask layer not covered by the second sacrificial layer to expose the first sacrificial layer; removing the first sacrificial layer and the second sacrificial layer; and removing the photomask layer on the etch material layer. providing a substrate structure, wherein the substrate structure comprises: an etch material layer; a first sacrificial layer on a portion of the etch material layer; and a photomask layer on an upper surface of the etch material layer, an upper surface of the first sacrificial layer, and a side surface of the first sacrificial layer; an etch material layer; a first sacrificial layer on a portion of the etch material layer; and a photomask layer on an upper surface of the etch material layer, an upper surface of the first sacrificial layer, and a side surface of the first sacrificial layer; forming a second sacrificial layer covering the photomask layer on the etch material layer and the photomask layer on the side surface of the first sacrificial layer; wherein forming the second sacrificial layer comprises: depositing a sacrificial material layer on the substrate structure; and conducting a planarization process on the sacrificial material layer so that an upper surface of the remaining sacrificial material layer is on a substantially same horizontal level with an upper surface of the photomask layer on the first sacrificial layer, the remaining sacrificial material layer being the second sacrificial layer; wherein the photomask manufacturing method further comprises: etching the photomask layer not covered by the second sacrificial layer to expose the first sacrificial layer; removing the first sacrificial layer and the second sacrificial layer; and removing the photomask layer on the etch material layer. etching the photomask layer not covered by the second sacrificial layer to expose the first sacrificial layer; removing the first sacrificial layer and the second sacrificial layer; and removing the photomask layer on the etch material layer.