mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal energy balancing device connected to a thermal energy circuit comprising a hot conduit configured to allow a district heat transfer liquid of a first temperature to flow therethrough, and a cold conduit configured to allow district heat transfer liquid of a second temperature to flow therethrough, the second temperature being lower than the first temperature, the thermal energy balancing device comprising: a warm well ; a cold well ; a heat exchanger comprising a primary side and a secondary side ; a primary side valve arrangement connecting the primary side of the heat exchanger to the cold conduit and to the hot conduit ; and a secondary side valve arrangement connecting the secondary side of the heat exchanger to the cold well and to the warm well ; wherein the thermal energy balancing device is configured to be selectively set in a heat exhale mode and in a heat inhale mode, wherein when the thermal balancing device is set into the heat exhale mode, the primary side valve arrangement is configured to direct district heat transfer liquid to flow from the hot conduit via the primary side of the heat exchanger to the cold conduit , and the secondary side valve arrangement is configured to direct heat transfer geothermal liquid to flow from the cold well via the secondary side of the heat exchanger to the warm well ; and wherein when the thermal balancing device is set into the heat inhale mode, the primary side valve arrangement is configured to direct district heat transfer liquid to flow from the cold conduit via the primary side of the heat exchanger to the hot conduit , and the secondary side valve arrangement is configured to direct heat transfer geothermal liquid to flow from the warm well via the secondary side of the heat exchanger to the cold well . a warm well ; a cold well ; a heat exchanger comprising a primary side and a secondary side ; a primary side valve arrangement connecting the primary side of the heat exchanger to the cold conduit and to the hot conduit ; and a secondary side valve arrangement connecting the secondary side of the heat exchanger to the cold well and to the warm well ; wherein the thermal energy balancing device is configured to be selectively set in a heat exhale mode and in a heat inhale mode, wherein when the thermal balancing device is set into the heat exhale mode, the primary side valve arrangement is configured to direct district heat transfer liquid to flow from the hot conduit via the primary side of the heat exchanger to the cold conduit , and the secondary side valve arrangement is configured to direct heat transfer geothermal liquid to flow from the cold well via the secondary side of the heat exchanger to the warm well ; and wherein when the thermal balancing device is set into the heat inhale mode, the primary side valve arrangement is configured to direct district heat transfer liquid to flow from the cold conduit via the primary side of the heat exchanger to the hot conduit , and the secondary side valve arrangement is configured to direct heat transfer geothermal liquid to flow from the warm well via the secondary side of the heat exchanger to the cold well .
An evolved NodeB, eNB, comprising: a processor ; and memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: perform a channel sensing on a Licensed-Assisted Access, LAA, secondary cell, SCell, for a transmission; manage a counter based on whether or not the channel is sensed to be idle; determine if the channel is sensed to be idle and the counter reaches zero, whether or not the eNB performs the transmission; and (i) in a case where it is determined that the eNB performs the transmission, perform the transmission and (ii) in a case where it is determined that the eNB does not perform the transmission, defer the transmission and perform an additional channel sensing for the transmission. a processor ; and memory in electronic communication with the processor, wherein instructions stored in the memory are executable to: perform a channel sensing on a Licensed-Assisted Access, LAA, secondary cell, SCell, for a transmission; manage a counter based on whether or not the channel is sensed to be idle; determine if the channel is sensed to be idle and the counter reaches zero, whether or not the eNB performs the transmission; and (i) in a case where it is determined that the eNB performs the transmission, perform the transmission and (ii) in a case where it is determined that the eNB does not perform the transmission, defer the transmission and perform an additional channel sensing for the transmission. perform a channel sensing on a Licensed-Assisted Access, LAA, secondary cell, SCell, for a transmission; manage a counter based on whether or not the channel is sensed to be idle; determine if the channel is sensed to be idle and the counter reaches zero, whether or not the eNB performs the transmission; and (i) in a case where it is determined that the eNB performs the transmission, perform the transmission and (ii) in a case where it is determined that the eNB does not perform the transmission, defer the transmission and perform an additional channel sensing for the transmission. (i) in a case where it is determined that the eNB performs the transmission, perform the transmission and (ii) in a case where it is determined that the eNB does not perform the transmission, defer the transmission and perform an additional channel sensing for the transmission.
Method of isolating cellulose or chitin nanocrystals from a lignocellulose- or chitin-containing starting material , wherein the starting material is exposed to an oxidative effect of periodate anions in an aqueous suspension, wherein the pH-value of the aqueous suspension is adjusted to higher than pH 7.0, characterized in that the periodate anions are provided in an amount of at least 5 mol per kg of the starting material and that the starting material is exposed to the oxidative effect of the periodate anions for a period of at least one day in the aqueous suspension.
A kitchen sprinkler, comprising a sprinkler body and a sprinkler head provided with a spraying water outlet body and a V-shaped water outlet body, wherein: the sprinkler head is provided with a water separator ; the water separator is provided with an annular flow channel and an inner flow channel respectively in communication with the spraying water outlet body and the V-shaped water outlet body; a lower end of an outer wall of the water separator is circumferentially provided with a plurality of water inlets that are in communication with the annular flow channel ; a lower side of the water inlets is provided with a first sealing ring ; the kitchen sprinkler comprises a converter ; a water outlet port of the sprinkler body is connected to the converter ; the converter is provided with a water separating cavity which is in communication with the water outlet port of the sprinkler body ; a lower end of the water separator is mounted within the water separating cavity and can move up and down; an upper end of an inner wall of the water separating cavity is provided with a convex ring which fits the first sealing ring ; and a bottom surface of the water separating cavity is provided with a sealing gasket which can seal the inner flow channel .
Trampoline with a frame for a jumping mat , a jumping mat which is elastically attached to the frame by a spring device , several feet (4-9) and with a step with a jumping surface which is arranged above the jumping mat and is elastically attached to a frame section by means of a second spring device , characterized in that no frame part is present at least in sections on a front edge of the jumping surface pointing in the direction of the jumping mat , so that the jumping surface of the step is freely accessible to a user from the front.
A method of operating a fuel injection system on a fuel injection system test bench to test components of a fuel injection system, said fuel injection system including an electrically controlled high pressure pump adapted to provide high pressure fuel to said fuel injection system component under test, and where said fuel pump is driven by an electrical motor ; where the testing being implemented by running said high pressure fuel pump to provide fluid under pressure to said fuel injection system or components, where the pump flow is controlled via an Inlet Metering Valve associated therewith, including the step of : a) determining the power from the voltage across and/or current through the electrical motor. b) controlling the IMV current or voltage, dependent on the power to the fuel pump. a) determining the power from the voltage across and/or current through the electrical motor. b) controlling the IMV current or voltage, dependent on the power to the fuel pump.
A dispenser for dispensing a sanitizing gel into toilet bowls, which dispenser comprises an applicator with a cylinder , and a piston which is adapted to slide within said cylinder , the cylinder containing a single dose of sanitizing gel which can be dispensed from the applicator by actuating said piston , said cylinder being provided in a downward region with a narrower region with a collar , said cylinder being coupled to said applicator whereby the narrower region and the corresponding collar engage said applicator , said applicator being provided in a downward region with a removable protective plug characterized in that a removable closure plug (6; 12) is provided in addition to the protective plug at the lower end of said applicator , which closure plug (6; 12) closes the cylinder in a downward region, said applicator being provided with a pair of wings adapted to be gripped by the fingers of a user.
A laminate having a resin layer containing a crystalline alicyclic structure-containing resin and a metal layer in direct contact with the resin layer, wherein an average linear expansion coefficient of the resin layer at 60 to 100°C is 5 to 50 ppm/°C, and a ten-point average roughness (Rz) of the metal layer on an interface between the resin layer and the metal layer is 2.0 μm or less.
A speech analyser comprising: an input module for provision of speech data based on a speech signal; a primary feature extractor for provision of primary feature metrics of the speech data; a secondary feature extractor for provision of secondary feature metrics associated with the speech data; and a speech model module comprising a neural network with model layers including an input layer, one or more intermediate layers including a first intermediate layer, and an output layer for provision of a speaker metric, wherein the speech model module is configured to condition an intermediate layer based on the secondary feature metrics for provision of output from the intermediate layer as input to the model layer after the intermediate layer in the neural network. an input module for provision of speech data based on a speech signal; a primary feature extractor for provision of primary feature metrics of the speech data; a secondary feature extractor for provision of secondary feature metrics associated with the speech data; and a speech model module comprising a neural network with model layers including an input layer, one or more intermediate layers including a first intermediate layer, and an output layer for provision of a speaker metric,
A light emitting diode (LED) with enhanced light extraction, comprising: a conductive first spreader layer on a substrate ; a plurality of micro light emitting diodes (micro-LEDs) separately disposed on a surface of said first spreader layer opposite said substrate , each of said micro-LEDs comprising: a p-type layer ; an n-type layer ; an active layer sandwiched between said p-type and n-type layers , wherein either said p-type or n-type layer is a top layer and the other said layer is the bottom layer, current from said first spreader layer spreading into said bottom layer; and a second spreader layer over said micro-LEDs , current from said second spreader layer spreading into said top layer, a bias applied across said first and second spreader layers causing said micro-LEDs to emit light, characterised in that said second spreader layer is optically reflective and reflects light emitted from said micro-LEDs towards said substrate , such that light from the LED is primarily emitted through said substrate . a conductive first spreader layer on a substrate ; a plurality of micro light emitting diodes (micro-LEDs) separately disposed on a surface of said first spreader layer opposite said substrate , each of said micro-LEDs comprising: a p-type layer ; an n-type layer ; an active layer sandwiched between said p-type and n-type layers , wherein either said p-type or n-type layer is a top layer and the other said layer is the bottom layer, current from said first spreader layer spreading into said bottom layer; and a second spreader layer over said micro-LEDs , current from said second spreader layer spreading into said top layer, a bias applied across said first and second spreader layers causing said micro-LEDs to emit light, characterised in that said second spreader layer is optically reflective and reflects light emitted from said micro-LEDs towards said substrate , such that light from the LED is primarily emitted through said substrate . a p-type layer ; an n-type layer ; an active layer sandwiched between said p-type and n-type layers , wherein either said p-type or n-type layer is a top layer and the other said layer is the bottom layer, current from said first spreader layer spreading into said bottom layer; and a second spreader layer over said micro-LEDs , current from said second spreader layer spreading into said top layer, a bias applied across said first and second spreader layers causing said micro-LEDs to emit light, characterised in that said second spreader layer is optically reflective and reflects light emitted from said micro-LEDs towards said substrate , such that light from the LED is primarily emitted through said substrate .
Method of obstacle detection for a rail vehicle , having the steps: - capturing 3D sensor data (3D-SD) from a surrounding area (U) of the rail vehicle , - generating 3D image data (3D-BD) on the basis of the 3D sensor data (3D-SD), - generating 2D image data (2D-BD) on the basis of the 3D image data (3D-BD), - generating a 2D anomaly mask (2D-AM) by comparing the 2D image data (2D-BD) with reference image data (R-BD) that is free of a collision obstacle (KH), wherein an image region is identified as a mask region in the 2D image data (2D-BD), which differs from a corresponding image region in the reference image data (R-BD), - generating a 3D anomaly mask (3D-AM) in the 3D image data (3D-BD) by fusing the 2D anomaly mask (2D-AM) with the 3D image data (3D-BD), - identifying the 3D image data (3D-BD) incorporated by the 3D anomaly mask (3D-AM) as a possible collision obstacle (KH). - capturing 3D sensor data (3D-SD) from a surrounding area (U) of the rail vehicle , - generating 3D image data (3D-BD) on the basis of the 3D sensor data (3D-SD), - generating 2D image data (2D-BD) on the basis of the 3D image data (3D-BD), - generating a 2D anomaly mask (2D-AM) by comparing the 2D image data (2D-BD) with reference image data (R-BD) that is free of a collision obstacle (KH), wherein an image region is identified as a mask region in the 2D image data (2D-BD), which differs from a corresponding image region in the reference image data (R-BD), - generating a 3D anomaly mask (3D-AM) in the 3D image data (3D-BD) by fusing the 2D anomaly mask (2D-AM) with the 3D image data (3D-BD), - identifying the 3D image data (3D-BD) incorporated by the 3D anomaly mask (3D-AM) as a possible collision obstacle (KH).
A method of multi-factor authentication comprising: receiving a first authentication pattern comprising a first plurality of bits; receiving a second authentication pattern comprising a first digit; and combining the first authentication pattern and the second authentication pattern into a first combined secure pattern by inserting a first spacing state into the first authentication pattern after a bit location in the first authentication pattern corresponding to the value of the first digit of the second authentication pattern , wherein the first combined secure pattern comprises each of the first plurality of bits of the first authentication pattern and the first spacing state, and wherein the first spacing state is a zero state, a one state, a no care state, or a blocking state. receiving a first authentication pattern comprising a first plurality of bits; receiving a second authentication pattern comprising a first digit; and combining the first authentication pattern and the second authentication pattern into a first combined secure pattern by inserting a first spacing state into the first authentication pattern after a bit location in the first authentication pattern corresponding to the value of the first digit of the second authentication pattern , wherein the first combined secure pattern comprises each of the first plurality of bits of the first authentication pattern and the first spacing state, and wherein the first spacing state is a zero state, a one state, a no care state, or a blocking state.
A variable sealing mechanism assembly for an endovascular implant, the assembly comprising: a sealable circumferential collar controllable by a variable sealing device which is operable by an operator, such that said sealable circumferential collar may be expanded or contracted by said operator to achieve a fluid-tight seal between said sealable circumferential collar and the internal walls of a blood vessel, wherein the variable sealing device comprises: a sealing device housing ; a rotatable sealer gear contained in the sealing device housing ; and a sealer belt comprising a sealer belt fixed end attached to said sealing device housing and a sealer belt moveable end operably passing through said housing ; wherein said sealer belt is configured to engage the sealer gear , said sealer gear rotatable in a first direction to cause the sealer belt moveable end to move relative to the sealer belt fixed end to enlarge the length of the sealer belt and to thereby circumferentially expand the sealable circumferential collar and rotatable in a second direction to cause the sealer belt movable end to move relative to the sealer belt fixed end to constrict the length of the sealer belt and to thereby circumferentially contract the sealing collar . a sealing device housing ; a rotatable sealer gear contained in the sealing device housing ; and a sealer belt comprising a sealer belt fixed end attached to said sealing device housing and a sealer belt moveable end operably passing through said housing ; wherein said sealer belt is configured to engage the sealer gear , said sealer gear rotatable in a first direction to cause the sealer belt moveable end to move relative to the sealer belt fixed end to enlarge the length of the sealer belt and to thereby circumferentially expand the sealable circumferential collar and rotatable in a second direction to cause the sealer belt movable end to move relative to the sealer belt fixed end to constrict the length of the sealer belt and to thereby circumferentially contract the sealing collar .
A remote dismantling system for a nuclear power plant, comprising: a robot arm system provided with a cutting robot arm for cutting an object to be cut and a transfer robot arm for transferring cut pieces, which have been cut from the object to be cut, the cutting robot arm and the transfer robot arm being arranged to be movable in a vertical direction, respectively; a transfer system provided with a gantry crane for transferring the object to be cut and a jib crane for receiving and transferring the cut pieces from the transfer robot arm , the gantry crane and the jib crane being arranged to be movable across each other; and a band saw and turntable system provided with a horizontal support frame , a turntable having the object to be cut placed thereon, and installed on the horizontal support frame to be horizontally movable and rotatable, and a band saw for cutting the object to be cut placed on the turntable . a robot arm system provided with a cutting robot arm for cutting an object to be cut and a transfer robot arm for transferring cut pieces, which have been cut from the object to be cut, the cutting robot arm and the transfer robot arm being arranged to be movable in a vertical direction, respectively; a transfer system provided with a gantry crane for transferring the object to be cut and a jib crane for receiving and transferring the cut pieces from the transfer robot arm , the gantry crane and the jib crane being arranged to be movable across each other; and a band saw and turntable system provided with a horizontal support frame , a turntable having the object to be cut placed thereon, and installed on the horizontal support frame to be horizontally movable and rotatable, and a band saw for cutting the object to be cut placed on the turntable .
Method for disassembling a rotor , in particular the front-most rotor, of a gas turbine that comprises a housing and a channel , which channel diverges in a through-flow direction and in which the rotor is arranged, the method comprising the step of: axially displacing an outer sealing ring located radially opposite the rotor , the minimum internal diameter (d 27 ) of which outer sealing ring is smaller than a maximum outer diameter (D 19 ) of the Rotor , counter to the direction of flow; and comprising the subsequent step of: axially displacing the rotor counter to the through-flow direction, in particular out of the housing ; characterized in that the rotor is displaced axially in the through-flow direction prior to the radial displacement of the outer sealing ring parts.