mhurhangee/patent-ind-claim-en huggingface dataset:
A steering device (3a-f) for an outboard motor supported by a hull rotatably around a steering axis, comprising: a chiller handle attached to the outboard motor ; an actuator (33a-f) configured to rotate the chiller handle about the steering axis; and a link member movably disposed at a connection position for transmitting a driving force from the actuator (33a-f) to the chiller handle , and at a blocking position for blocking transmission of the driving force from the actuator (33a-f) to the chiller handle . a chiller handle attached to the outboard motor ; an actuator (33a-f) configured to rotate the chiller handle about the steering axis; and a link member movably disposed at a connection position for transmitting a driving force from the actuator (33a-f) to the chiller handle , and at a blocking position for blocking transmission of the driving force from the actuator (33a-f) to the chiller handle .
A method performed by a user equipment, UE, comprising: receiving a physical cell identifier information element, IE, from an evolved node B, eNB, wherein the physical cell identifier IE is associated with a secondary cell, SCell, that is on an unlicensed Long-Term Evolution, LTE, carrier frequency; determining a physical-layer cell identity, PCI, of the SCell based on the physical cell identifier IE; and applying the PCI as a parameter for physical channels or signals on the SCell; wherein primary synchronization signal, PSS, and secondary synchronization signal, SSS, in a primary cell, PCell, are received every 5 milliseconds, and the PSS and the SSS in the SCell are received only at allowable occasions. receiving a physical cell identifier information element, IE, from an evolved node B, eNB, wherein the physical cell identifier IE is associated with a secondary cell, SCell, that is on an unlicensed Long-Term Evolution, LTE, carrier frequency; determining a physical-layer cell identity, PCI, of the SCell based on the physical cell identifier IE; and applying the PCI as a parameter for physical channels or signals on the SCell; wherein primary synchronization signal, PSS, and secondary synchronization signal, SSS, in a primary cell, PCell, are received every 5 milliseconds, and the PSS and the SSS in the SCell are received only at allowable occasions.
A method for controlling distributed energy resources supplying electrical power to an AC power system through a point of common coupling , the method comprising droop controlling an output voltage of at least one of the distributed energy resources to vary inversely with a voltage measured at the point of common coupling without consideration of reactive power, and controlling output voltage of at least two of the distributed energy resources in accordance with a respective established relationship between the voltage measured at the point of common coupling and a respective controlled output voltage for the respective distributed energy resource, wherein the relationship is different for the at least two distributed energy resources, and wherein the voltage measured at the point of common coupling and the respective controlled output voltage vary inversely.
A microfluidic chip for microfluidic flow analysis of a particulate containing fluid , the microfluidic chip comprising: at least two layers ; a microfluidic channel comprising a fluid inlet for receipt of a stream of particulate containing fluid ; and a detection zone comprising at least one pair of electrodes in electrical communication with the microfluidic channel, wherein the at least one pair of electrodes comprise an excitation electrode coupled to an AC signal source and a detection electrode configured to detect AC impedance changes in the microfluidic channel between the electrodes resulting from particles passing between the electrodes in the microfluidic channel, characterised in that the microfluidic channel is a straight channel that extends through the at least two layers of the chip at an angle of 60° to 90° to a plane of the layers of the chip, wherein the straight channel comprises the detection zone. at least two layers ; a microfluidic channel comprising a fluid inlet for receipt of a stream of particulate containing fluid ; and a detection zone comprising at least one pair of electrodes in electrical communication with the microfluidic channel, wherein the at least one pair of electrodes comprise an excitation electrode coupled to an AC signal source and a detection electrode configured to detect AC impedance changes in the microfluidic channel between the electrodes resulting from particles passing between the electrodes in the microfluidic channel, characterised in that the microfluidic channel is a straight channel that extends through the at least two layers of the chip at an angle of 60° to 90° to a plane of the layers of the chip, wherein the straight channel comprises the detection zone.
Hybrid vehicle having a tank device, wherein the hybrid vehicle comprises an electric drive with an energy storage device for the electric drive, and an internal combustion engine , wherein the tank device comprises a tank for storing the fuel for the internal combustion engine , wherein the hybrid vehicle comprises a cooling circuit with a circulating cooling medium, wherein the cooling circuit is designed in such a way that the energy storage device can be cooled by the cooling medium in the cooling circuit , wherein the cooling circuit runs through the tank , thus enabling the fuel in the tank to be cooled by the cooling medium in the cooling circuit, characterized in that the hybrid vehicle comprises a control unit, wherein the control unit selectively passes the cooling medium through the cooling circuit in the tank or not, with the result that the fuel in the tank is cooled or not by the cooling medium in the cooling circuit , wherein a temperature sensor and/or a pressure sensor is arranged in the tank , and the control unit is configured to pass the cooling medium through the cooling circuit in the tank if the temperature at the temperature sensor and/or the pressure at the pressure sensor in each case exceed/s predetermined limit values, wherein the cooling medium in the cooling circuit is cooled by a refrigerant circuit of an air-conditioning system, wherein the refrigerant circuit comprises a refrigerant compressor, wherein the refrigerant compressor can also be operated when the internal combustion engine is not in operation.
A nozzle-receiving assembly comprising: - a housing including a fuel inlet that is configured to receive a first nozzle of a fuel dispenser in order to dispense fuel into a fuel fill pipe coupled to the fuel inlet ; - a door moveably secured to the housing , wherein the door is configured to be moved between an open position and a closed position; and - an additive inlet extending from the door , wherein the additive inlet is configured to receive a second nozzle of an additive dispenser to dispense additive into an additive conduit coupled to the additive inlet , characterized in that the additive conduit connects to an additive fill line when the door is in the open position, and wherein the additive conduit is disconnected from the additive fill line when the door is in the closed position. - a housing including a fuel inlet that is configured to receive a first nozzle of a fuel dispenser in order to dispense fuel into a fuel fill pipe coupled to the fuel inlet ; - a door moveably secured to the housing , wherein the door is configured to be moved between an open position and a closed position; and - an additive inlet extending from the door , wherein the additive inlet is configured to receive a second nozzle of an additive dispenser to dispense additive into an additive conduit coupled to the additive inlet , characterized in that the additive conduit connects to an additive fill line when the door is in the open position, and wherein the additive conduit is disconnected from the additive fill line when the door is in the closed position.
A process for the preparation of polypropylene having - a molecular weight (Mw) of 450,000-950,000, - a molecular weight distribution of 3-6, - a melt flow in the range of 7-14 dg/min measured with a load of 21.6 kg at 230 °C or 0.05-2 dg/min measured with a load of 2.16 kg at 230 °C and - a xylene soluble content of 2-6 wt% by converting propylene into the polypropylene without pre-polymerization in the presence of a polymerization catalyst under a condition where the volume ratio of H 2 to propylene is at most 0.0020, wherein the catalyst comprises a catalyst component and a co-catalyst, wherein the catalyst component is obtained by a process wherein a compound with formula Mg(OAlk) x Cl y wherein x is larger than 0 and smaller than 2, y equals 2-x and each Alk, independently, represents an alkyl group, is contacted with a titanium tetraalkoxide and/or an alcohol in the presence of an inert dispersant to give an intermediate reaction product and wherein the intermediate reaction product is contacted with titanium tetrachloride in the presence of an internal donor. - a molecular weight (Mw) of 450,000-950,000, - a molecular weight distribution of 3-6, - a melt flow in the range of 7-14 dg/min measured with a load of 21.6 kg at 230 °C or 0.05-2 dg/min measured with a load of 2.16 kg at 230 °C and - a xylene soluble content of 2-6 wt%
An automatic analyzer, comprising: a linear movement unit configured to access to an access point by a linear movement; a rotational movement unit configured to access to the access point by a rotational movement; and a control unit configured to control an operation of the linear movement unit and the rotational movement unit so that the linear movement unit and the rotational movement unit do not interfere with each other by setting a movement speed of the rotational movement unit to be larger than a movement speed of the linear movement unit , wherein the control unit is further configured to return the linear movement unit to a first origin , and to return the rotational movement unit to a second origin different from the first origin , wherein the movement speed of the linear movement unit is a speed at which the linear movement unit returns to the first origin , the movement speed of the rotational movement unit is a speed in a circumferential direction at which a tip end portion of the rotational movement unit returns to the second origin , and the linear movement unit linearly moves only in a direction of a straight line connecting the first origin and the access point . a linear movement unit configured to access to an access point by a linear movement; a rotational movement unit configured to access to the access point by a rotational movement; and a control unit configured to control an operation of the linear movement unit and the rotational movement unit so that the linear movement unit and the rotational movement unit do not interfere with each other by setting a movement speed of the rotational movement unit to be larger than a movement speed of the linear movement unit , wherein the control unit is further configured to return the linear movement unit to a first origin , and to return the rotational movement unit to a second origin different from the first origin , wherein the movement speed of the linear movement unit is a speed at which the linear movement unit returns to the first origin , the movement speed of the rotational movement unit is a speed in a circumferential direction at which a tip end portion of the rotational movement unit returns to the second origin , and the linear movement unit linearly moves only in a direction of a straight line connecting the first origin and the access point .
A method for information transmission, comprising: receiving , by a terminal device, identification information from a network access device; and determining , by the terminal device, whether the identification information is to be used in a non-public network based on an environment in which the identification information is received, wherein the identification information comprises a Globally Unique Temporary Identifier GUTI, characterized in that , when the terminal device receives the GUTI in a current non-public network where the terminal device is residing, the GUTI is only used when accessing the current non-public network, wherein the non-public network comprises a Standalone Non-Public Network SNPN. receiving , by a terminal device, identification information from a network access device; and determining , by the terminal device, whether the identification information is to be used in a non-public network based on an environment in which the identification information is received, wherein the identification information comprises a Globally Unique Temporary Identifier GUTI, characterized in that , when the terminal device receives the GUTI in a current non-public network where the terminal device is residing, the GUTI is only used when accessing the current non-public network, wherein the non-public network comprises a Standalone Non-Public Network SNPN.
A heat transfer structure comprising: - a plurality of heat pipes , each heat pipe from the plurality of heat pipes comprising a condenser section , an evaporator section , a working fluid and a wick structure ; - a cooling chamber confined within a housing and connected to a first fluid conduit ; wherein: respective evaporator sections of each one of the plurality of the heat pipes are configured to be thermally coupled to a respective heat source ; each one of the plurality of heat pipes is configured to transfer heat from the respective evaporator section , to the cooling chamber , through its respective condenser section ; the first fluid conduit is configured to allow passage of a fluid into the cooling chamber ; and the heat transfer structure is configured to allow passage of the fluid out of the cooling chamber; characterized in that the heat transfer structure further comprises a fluid mover configured to move the fluid into and out of the cooling chamber by forcing the movement of the fluid, the fluid mover being located inside the fluid chamber and comprising a plurality of blades , each blade of the plurality of lades having a first end and a second end wherein respective first ends of the plurality of blades are collectively joined to a first neck and respective second ends of the plurality of blades are collectively joined to a second neck , thereby collectively defining a multi-blade body. - a plurality of heat pipes , each heat pipe from the plurality of heat pipes comprising a condenser section , an evaporator section , a working fluid and a wick structure ; - a cooling chamber confined within a housing and connected to a first fluid conduit ; wherein: respective evaporator sections of each one of the plurality of the heat pipes are configured to be thermally coupled to a respective heat source ; each one of the plurality of heat pipes is configured to transfer heat from the respective evaporator section , to the cooling chamber , through its respective condenser section ; the first fluid conduit is configured to allow passage of a fluid into the cooling chamber ; and the heat transfer structure is configured to allow passage of the fluid out of the cooling chamber; characterized in that respective evaporator sections of each one of the plurality of the heat pipes are configured to be thermally coupled to a respective heat source ; each one of the plurality of heat pipes is configured to transfer heat from the respective evaporator section , to the cooling chamber , through its respective condenser section ; the first fluid conduit is configured to allow passage of a fluid into the cooling chamber ; and the heat transfer structure is configured to allow passage of the fluid out of the cooling chamber; characterized in that
A management server capable of being communicatively coupled to one or more 3D printing devices over a communications network, wherein the management server is configured to: receive, over the communications network, a print request from one or more user devices or the one or more 3D printing devices to print a digital file, transmit, over the communications network, the digital file to a selected one of the one or more 3D printing devices, and transmit, over the communications network, commands to lock and unlock a locking mechanism of the one or more 3D printing devices, wherein the command to lock the locking mechanism is configured to cause the locking mechanism to secure a moveable panel in a closed position to cover an opening through which a user may access a 3-dimensional printing region of the 3D printing device thereby preventing the user from accessing the printing region through the opening; wherein the management server is configured to transmit the command to lock the locking mechanism of the selected one or more 3D printing devices prior to printing of the digital file, and to transmit the command to unlock the locking mechanism of the selected one or more 3D printing devices at a time after the digital file has completed printing. receive, over the communications network, a print request from one or more user devices or the one or more 3D printing devices to print a digital file, transmit, over the communications network, the digital file to a selected one of the one or more 3D printing devices, and transmit, over the communications network, commands to lock and unlock a locking mechanism of the one or more 3D printing devices, wherein the command to lock the locking mechanism is configured to cause the locking mechanism to secure a moveable panel in a closed position to cover an opening through which a user may access a 3-dimensional printing region of the 3D printing device thereby preventing the user from accessing the printing region through the opening;
A luminaire, comprising a circular symmetric optical element , a light source and a wavelength converting element , said circular symmetric optical element for redirecting light, the light being emitted by the light source through the wavelength converting element, wherein the light emitted from the wavelength converting element have an average color c A and a wavelength distribution depending on an emission angle from the wavelength converting element, wherein light having the average color c A have an emission angle t A , the optical element comprising: a first optical portion configured to receive and redirect light having emission angles from said wavelength converting element lower than t A ; and a second optical portion configured to receive and redirect light having emission angles from said wavelength converting element higher than t A ; wherein the first and second optical portions are individually configured such that for light of each selected out-coupling angle of the optical element, there is light received and redirected by the first optical portion to the selected out-coupling angle of the optical element, and corresponding light received and redirected by the second optical portion to the selected out-coupling angle from said optical element such that the total light beam emitted from said optical element as seen in the far field have a homogeneous color, and wherein said homogeneous color corresponds to the average color c A . a first optical portion configured to receive and redirect light having emission angles from said wavelength converting element lower than t A ; and a second optical portion configured to receive and redirect light having emission angles from said wavelength converting element higher than t A ; wherein the first and second optical portions are individually configured such that for light of each selected out-coupling angle of the optical element, there is light received and redirected by the first optical portion to the selected out-coupling angle of the optical element, and corresponding light received and redirected by the second optical portion to the selected out-coupling angle from said optical element such that the total light beam emitted from said optical element as seen in the far field have a homogeneous color, and wherein said homogeneous color corresponds to the average color c A .
A method for generating a plurality of constellation block sequences from a codeword generated based on a quasi-cyclic low-density parity-check coding scheme including a repeat-accumulate quasi-cyclic low-density parity-check coding scheme, the codeword consisting of N quasi-cyclic blocks, the quasi-cyclic blocks each consisting of Q bits, the method comprising the steps of: applying, by a bit interleaver, a bit permutation to the bits of the codeword; dividing the permuted bits of the codeword into a plurality of constellation blocks each consisting of G×M bits; applying, by a constellation block interleaver, a constellation block permutation to the constellation blocks; modulating, by a modulator, the permuted constellation blocks using orthogonal frequency-division multiplexing (OFDM); and transmitting the modulated permuted constellation blocks; characterized in that the codeword is divided into N/M sections each consisting of M quasi-cyclic blocks, the constellation blocks are each associated with one of the sections, the bit permutation is adapted such that the constellation blocks each consist of GxM bits from M different quasi-cyclic blocks of the associated section, and the constellation block permutation is equivalent to writing the constellation blocks row by row into a matrix with R rows and (Q/(kxG)) columns and reading out the constellation blocks column by column from the matrix, where R is kx(N/M), and k is a positive integer. applying, by a bit interleaver, a bit permutation to the bits of the codeword; dividing the permuted bits of the codeword into a plurality of constellation blocks each consisting of G×M bits; applying, by a constellation block interleaver, a constellation block permutation to the constellation blocks; modulating, by a modulator, the permuted constellation blocks using orthogonal frequency-division multiplexing (OFDM); and transmitting the modulated permuted constellation blocks; characterized in that the codeword is divided into N/M sections each consisting of M quasi-cyclic blocks, the constellation blocks are each associated with one of the sections, the bit permutation is adapted such that the constellation blocks each consist of GxM bits from M different quasi-cyclic blocks of the associated section, and the constellation block permutation is equivalent to writing the constellation blocks row by row into a matrix with R rows and (Q/(kxG)) columns and reading out the constellation blocks column by column from the matrix, where R is kx(N/M), and k is a positive integer.
A method of manufacturing a laminate of rigid substrate members comprising: a) providing a stack of rigid substrate members on a base portion of a lamination apparatus; b) providing a first force to a cover portion of the lamination apparatus to sealedly contact the cover portion with a gasket on the base portion to create a sealed chamber between the base portion and the cover portion ; c) applying a vacuum to the sealed chamber to evacuate air from the chamber; and d) providing a second force to the cover portion of the apparatus to compress the gasket and stack of substrates to produce a laminated product that is substantially free of air bubbles or voids. a) providing a stack of rigid substrate members on a base portion of a lamination apparatus; b) providing a first force to a cover portion of the lamination apparatus to sealedly contact the cover portion with a gasket on the base portion to create a sealed chamber between the base portion and the cover portion ; c) applying a vacuum to the sealed chamber to evacuate air from the chamber; and d) providing a second force to the cover portion of the apparatus to compress the gasket and stack of substrates to produce a laminated product that is substantially free of air bubbles or voids.