mhurhangee/patent-ind-claim-en huggingface dataset:
Structural tailgate panel of a vehicle , which panel is intended to be mounted so as to be rotatably movable by means of one or more hinges on a roof segment which forms part of the body of said vehicle , said tailgate structural panel comprising at least one lateral upright to which a rear window is attached, the lateral upright constituting a profile having an open cross section in the general shape of a U which forms a concavity that is open toward the rear of the vehicle and which comprises a first wall and a second wall meeting at a base arranged such that, in any given sectional plane (S) defining a cross section of said upright , there is at least one directrix line DD' in said sectional plane (S) and arranged such that, at any point of the first wall, a straight line in said sectional plane (S) and tangent to said first wall forms a first angle (a 1 ) with a median line (aa') defined by the section of said sectional plane (S) with a median plane (Y0) of the vehicle, which first angle is oriented toward the outer transverse part (YY') of the vehicle and is between a non-zero value and a value less than the value of a second angle (a 2 ) which is oriented toward the outer transverse part (YY') of the vehicle, and formed between the median line (aa') and said directrix line (DD'), and at any point of the second wall , a straight line in said sectional plane and tangent to said second wall forms a third angle (a 3 ) with the median line (aa'), which third angle is oriented toward the outer transverse part (YY') of the vehicle, and the value of which is between the value of the second angle (a 2 ) and 90°, characterized in that an insert is arranged at the rear end of the second wall in a groove defined between an inner rib and the wall of the second wall , said insert comprising a foot inserted in said groove and an adhesive track intended to receive the rear window , and in that the adhesive track extends transversely toward the interior of the vehicle in the opening between the two walls .
Lithium complex hybrid grease, containing (A) 60 to 15 % by weight of an ester or of an ester mixture, selected from the group consisting of trimellitic acid esters, which as an alkoxy group comprise linear or branched alkyl groups, which contain 6 to 18 carbon atoms, preferably 8 to 14 carbon atoms, wherein the alkoxy groups can be the same or different, pyromellitic acid esters, hydrogenated or unhydrogenated dimer acids, estolides, (B) 0.5 to 20 % by weight of non-hydrogenated, hydrogenated, or fully hydrogenated polyisobutylene or mixtures thereof, (C) 1 to 18 % by weight of lithium complex soaps, and (D) 15 to 40 % by weight of perfluoropolyether (PFPE) (A) 60 to 15 % by weight of an ester or of an ester mixture, selected from the group consisting of trimellitic acid esters, which as an alkoxy group comprise linear or branched alkyl groups, which contain 6 to 18 carbon atoms, preferably 8 to 14 carbon atoms, wherein the alkoxy groups can be the same or different, pyromellitic acid esters, hydrogenated or unhydrogenated dimer acids, estolides, (B) 0.5 to 20 % by weight of non-hydrogenated, hydrogenated, or fully hydrogenated polyisobutylene or mixtures thereof, (C) 1 to 18 % by weight of lithium complex soaps, and (D) 15 to 40 % by weight of perfluoropolyether (PFPE)
A system for autonomous stabilization of quantum states comprising: - a quantum harmonic oscillator configured to carry information encoded in states of the oscillator having a predetermined parity of a number of bosons comprised in the harmonic oscillator , - an auxiliary device configured to be in a ground state |g> or in an excited state |f> among a plurality of excited states, the device being dispersively coupled to the oscillator , so that a frequency difference between the ground state |g> and the excited state |f> depends linearly on a frequency shift χ and on the number of bosons, - a dissipator configured to switch from an excited state |1> to a ground state |0>, - an exciter configured to generate first and second frequency combs, intended to be sent to at least one of the quantum harmonic oscillator , the auxiliary device and the dissipator so as to add a boson in the harmonic oscillator if the number of bosons does not have the predetermined parity, characterized in that a first frequency difference separating two successive lines of the first frequency comb is equal to twice the frequency shift χ and is equal to twice a second frequency difference separating two successive lines of the second comb , wherein the first and second combs have peaks in the time domain, the peaks of the first comb being time-shifted relative to the peaks of the second comb. - a quantum harmonic oscillator configured to carry information encoded in states of the oscillator having a predetermined parity of a number of bosons comprised in the harmonic oscillator , - an auxiliary device configured to be in a ground state |g> or in an excited state |f> among a plurality of excited states, the device being dispersively coupled to the oscillator , so that a frequency difference between the ground state |g> and the excited state |f> depends linearly on a frequency shift χ and on the number of bosons, - a dissipator configured to switch from an excited state |1> to a ground state |0>, - an exciter configured to generate first and second frequency combs, intended to be sent to at least one of the quantum harmonic oscillator , the auxiliary device and the dissipator so as to add a boson in the harmonic oscillator if the number of bosons does not have the predetermined parity, characterized in that a first frequency difference separating two successive lines of the first frequency comb is equal to twice the frequency shift χ and is equal to twice a second frequency difference separating two successive lines of the second comb , wherein the first and second combs have peaks in the time domain, the peaks of the first comb being time-shifted relative to the peaks of the second comb.
Automatic coffee machine comprising a control circuit , a dispensing head comprising at least one coffee outlet and an infusion device , said infusion device comprising an infusion chamber equipped with an upper opening intended to receive the coffee grounds and a pressing piston movable between a high removal position wherein it is located above the infusion chamber and a low compaction position wherein it penetrates into the infusion chamber through the upper opening , said infusion chamber being supplied with hot water by an electric pump and being fluidly connected to the at least one coffee outlet by a coffee discharge conduit passing through the pressing piston , automatic coffee machine wherein a vent conduit is connected to the discharge conduit at a joining zone arranged in the proximity of the pressing piston and wherein the vent conduit comprises a solenoid valve , the control circuit controlling the solenoid valve to make it pass from a closing position of the vent conduit to an opening position of the vent conduit wherein the joining zone is connected to the ambient air present around the automatic coffee machine, just after having stopped the electric pump at the end of the infusion of a coffee, such that the coffee present in the discharge conduit after the stopping of the electric pump flows through gravity, continuously following the coffee already dispensed.
A polar decoder configured to: receive at least two successive encoded blocks having a block size of N that varies from block to block at run time, where N is a power of two, each encoded block comprising N soft bits; and for each encoded block, output one or more recovered information bits; wherein the polar decoder is configured to decompose a polar code graph into a number of columns by distributing n = log 2 (N) stages of the polar code graph amongst the number of columns , wherein the polar decoder is configured to select the number of columns and the number of stages in each column dependent on the block size N. a maximum number of stages accommodated in an outer column s 0 and a maximum number of stages accommodated in each inner column s i , where the outer column designates a left-most column in the polar code graph representing the polar code generator matrix F ⊗n , while the other columns are referred to as inner columns and wherein the polar decoder comprises memory located at an interface between each consecutive pair of the number of columns , where the memory is configured to store bits and soft bits and wherein the polar decoder does not comprise any memory at an interface between each consecutive pair of stages within a column . receive at least two successive encoded blocks having a block size of N that varies from block to block at run time, where N is a power of two, each encoded block comprising N soft bits; and for each encoded block, output one or more recovered information bits; wherein the polar decoder is configured to decompose a polar code graph into a number of columns by distributing n = log 2 (N) stages of the polar code graph amongst the number of columns , wherein the polar decoder is configured to select the number of columns and the number of stages in each column dependent on the block size N. a maximum number of stages accommodated in an outer column s 0 and a maximum number of stages accommodated in each inner column s i , where the outer column designates a left-most column in the polar code graph representing the polar code generator matrix F ⊗n , while the other columns are referred to as inner columns and wherein the polar decoder comprises memory located at an interface between each consecutive pair of the number of columns , where the memory is configured to store bits and soft bits and wherein the polar decoder does not comprise any memory at an interface between each consecutive pair of stages within a column .
An apparatus for determining a type of support structure for a three-dimensional object formed by additive manufacturing, the apparatus comprising a processor and a memory storing executable instructions that in response to execution by the processor cause the apparatus to at least: receive solid model of the three-dimensional object; perform a geometric analysis of the solid model to identify a region of the three-dimensional object requiring a support structure; perform stress and warping analyses of the solid model at the region so identified, the stress and warping analyses including one or more heuristic algorithms applied to the solid model, and excluding finite element analysis of a corresponding finite element model of the three-dimensional object; select a type of support structure to place at the region so identified, the type of support structure being selected from a plurality of types of support structure based on the stress and warping analyses so performed; and generate a shell of the three-dimensional object based on the solid model, and including the support structure at the region so identified and of the type so selected. receive solid model of the three-dimensional object; perform a geometric analysis of the solid model to identify a region of the three-dimensional object requiring a support structure; perform stress and warping analyses of the solid model at the region so identified, the stress and warping analyses including one or more heuristic algorithms applied to the solid model, and excluding finite element analysis of a corresponding finite element model of the three-dimensional object; select a type of support structure to place at the region so identified, the type of support structure being selected from a plurality of types of support structure based on the stress and warping analyses so performed; and generate a shell of the three-dimensional object based on the solid model, and including the support structure at the region so identified and of the type so selected.
An evaluation function generation program in which a computer comprising an Ising device performs processing of: acquiring (S1) problem information representing a discrete optimization problem that have a constraint condition that has to be satisfied for a solution of the discrete optimization problem to be valid; generating (S3), by subtracting a conserved value function having a certain value when a solution satisfies the constraint condition from a first cost function, or by adding the conserved value function to the first cost function, a second evaluation function including a second cost function that has a second absolute value smaller than a first absolute value of the first cost function of a first evaluation function, wherein the second cost function is represented by the subtraction of the conserved value function from the first cost function or by the addition of the conserved value function to the first cost function, the first evaluation function being represented based on the problem information , and being represented by a linear sum of the first cost function and a penalty function that becomes 0 when the constraint condition is satisfied and becomes a value other than 0 when the constraint condition is not satisfied; and outputting (S4) information regarding the generated second evaluation function to the Ising device that searches for an optimum solution of the discrete optimization problem by performing a simulated annealing method wherein, the Ising device searches for the optimum solution of the discrete optimization problem based on the information regarding the generated second evaluation function. acquiring (S1) problem information representing a discrete optimization problem that have a constraint condition that has to be satisfied for a solution of the discrete optimization problem to be valid; generating (S3), by subtracting a conserved value function having a certain value when a solution satisfies the constraint condition from a first cost function, or by adding the conserved value function to the first cost function, a second evaluation function including a second cost function that has a second absolute value smaller than a first absolute value of the first cost function of a first evaluation function, wherein the second cost function is represented by the subtraction of the conserved value function from the first cost function or by the addition of the conserved value function to the first cost function, the first evaluation function being represented based on the problem information , and being represented by a linear sum of the first cost function and a penalty function that becomes 0 when the constraint condition is satisfied and becomes a value other than 0 when the constraint condition is not satisfied; and outputting (S4) information regarding the generated second evaluation function to the Ising device that searches for an optimum solution of the discrete optimization problem by performing a simulated annealing method wherein, the Ising device searches for the optimum solution of the discrete optimization problem based on the information regarding the generated second evaluation function.
A cooktop appliance apparatus having a cooking surface for use in cooking, the apparatus including: a heating subsystem associated with the cooking surface; a controller for controlling operation of the heating subsystem; a hardware-implemented safety module comprising two or more electronic safety circuits , each safety circuit having: a temperature sensor for sensing a temperature associated with the heating subsystem, and a comparator adapted to compare the sensed temperature with a threshold safety temperature, and an electronic switch for activating operation of the heating sub-system; wherein temperature sensors of the respective safety circuits are located beneath a sensor cap that is biased into a raised position above the cooking surface; wherein electronic switches of the respective safety circuits together effect operation of the heating sub-system only when at least two safety circuits determine that the sensed temperature is below a predetermined threshold safety temperature. a heating subsystem associated with the cooking surface; a controller for controlling operation of the heating subsystem; a hardware-implemented safety module comprising two or more electronic safety circuits , each safety circuit having: a temperature sensor for sensing a temperature associated with the heating subsystem, and a comparator adapted to compare the sensed temperature with a threshold safety temperature, and a temperature sensor for sensing a temperature associated with the heating subsystem, and a comparator adapted to compare the sensed temperature with a threshold safety temperature, and an electronic switch for activating operation of the heating sub-system; wherein temperature sensors of the respective safety circuits are located beneath a sensor cap that is biased into a raised position above the cooking surface; wherein electronic switches of the respective safety circuits together effect operation of the heating sub-system only when at least two safety circuits determine that the sensed temperature is below a predetermined threshold safety temperature.
A catheter assembly comprising: a housing having spaced apart walls ; a catheter hub located within the housing ; a catheter tube coupled to the catheter hub , the catheter tube defining a catheter axis; a needle projecting through the catheter tube ; and a catheter activation device comprising a first push tag having a surface for pushing to move the catheter hub relative to the housing and a second push tag having a surface for pushing to move the catheter hub relative to the housing , characterized in that the first and second push tags are movable with one another to move the catheter hub from a first position to a second position within the housing and the first and second push tags are movable relative to one another for moving the catheter hub from the second position to a third position; and and in that the first and second push tags are spaced from one another a first distance in the first position and are spaced from one another a second distance in the second position, which is less than the first distance. a housing having spaced apart walls ; a catheter hub located within the housing ; a catheter tube coupled to the catheter hub , the catheter tube defining a catheter axis; a needle projecting through the catheter tube ; and a catheter activation device comprising a first push tag having a surface for pushing to move the catheter hub relative to the housing and a second push tag having a surface for pushing to move the catheter hub relative to the housing , characterized in that the first and second push tags are movable with one another to move the catheter hub from a first position to a second position within the housing and the first and second push tags are movable relative to one another for moving the catheter hub from the second position to a third position; and and in that the first and second push tags are spaced from one another a first distance in the first position and are spaced from one another a second distance in the second position, which is less than the first distance.
A tire comprising: a bead core ; a bead filler which extends to an outer side in a tire-radial direction of the bead core ; a carcass ply which extends from the bead core to another bead core , and is folded back around the bead core ; a rubber sheet which covers an end of the carcass ply which has been folded back; and an electronic component provided between the bead filler and the rubber sheet , wherein the bead filler is formed in an annular shape, wherein the rubber sheet is formed in an annular shape by one end side and another end side of a long sheet being joined at a joint part , and wherein the electronic component is disposed between the bead filler and the rubber sheet at the joint part . a rubber sheet which covers an end of the carcass ply which has been folded back; and an electronic component provided between the bead filler and the rubber sheet , wherein the bead filler is formed in an annular shape, wherein the rubber sheet is formed in an annular shape by one end side and another end side of a long sheet being joined at a joint part , and wherein the electronic component is disposed between the bead filler and the rubber sheet at the joint part .
An access point comprising: a processor which, in operation, is adapted to generate a trigger frame including a common information field and a user information field , the common information field including a trigger type subfield that identifies a trigger type of the trigger frame , and a transmitter which, in operation, is adapted to transmit the generated trigger frame to a wireless station characterized in that several trigger types allow allocation of resource units, RUs, for uplink Orthogonal Frequency-Division Multiple Access, OFDMA, random access, UORA, and the user information field including an association identification, AID, subfield, wherein the AID subfield with a certain value indicates that the user information field allocates one or more RUs for UORA. a processor which, in operation, is adapted to generate a trigger frame including a common information field and a user information field , the common information field including a trigger type subfield that identifies a trigger type of the trigger frame , and a transmitter which, in operation, is adapted to transmit the generated trigger frame to a wireless station characterized in that several trigger types allow allocation of resource units, RUs, for uplink Orthogonal Frequency-Division Multiple Access, OFDMA, random access, UORA, and the user information field including an association identification, AID, subfield, wherein the AID subfield with a certain value indicates that the user information field allocates one or more RUs for UORA.
A method of wireless communication performed by an apparatus, comprising: identifying uplink control information, UCI, for a plurality of component carriers, CCs, of a carrier aggregation, CA, configuration, the UCI having a payload size, wherein the UCI comprises a combination of at least two of an acknowledgement/negative acknowledgement, ACK/NAK, a scheduling request, SR, and channel quality indicator CSI information, and wherein the payload size is based on the combination of the ACK/NAK, the SR, and the channel quality indicator CSI information, jointly coded; identifying, based at least in part on the combination of ACK/NAK, SR, and CSI information comprised in the UCI, a threshold payload size; determining to include cyclic redundancy check, CRC, information in a transmission of the UCI based at least in part on a comparison of the payload size of the UCI to the threshold payload size; and transmitting an uplink channel comprising the UCI and the CRC information according to the determining. identifying uplink control information, UCI, for a plurality of component carriers, CCs, of a carrier aggregation, CA, configuration, the UCI having a payload size, wherein the UCI comprises a combination of at least two of an acknowledgement/negative acknowledgement, ACK/NAK, a scheduling request, SR, and channel quality indicator CSI information, and wherein the payload size is based on the combination of the ACK/NAK, the SR, and the channel quality indicator CSI information, jointly coded; identifying, based at least in part on the combination of ACK/NAK, SR, and CSI information comprised in the UCI, a threshold payload size; determining to include cyclic redundancy check, CRC, information in a transmission of the UCI based at least in part on a comparison of the payload size of the UCI to the threshold payload size; and transmitting an uplink channel comprising the UCI and the CRC information according to the determining.