mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving data at a user equipment in a mobile communication system, the method comprising: receiving first information and second information about resource allocation for the data, wherein the first information indicates a resource block, RB, set, and the second information includes a bitmap indicating allocation of one or more RBs in the RB set; and identifying the one or more allocated RBs from the first information and the second information; and receiving the data through the one or more RBs allocated by the first and second information, characterised by the receiving method is specifically adapted for where: the RB set comprises a plurality of resource block groups, RBGs, in which neighboring RBGs are inconsecutive in frequency domain; and an RBG is consecutive RBs. receiving first information and second information about resource allocation for the data, wherein the first information indicates a resource block, RB, set, and the second information includes a bitmap indicating allocation of one or more RBs in the RB set; and identifying the one or more allocated RBs from the first information and the second information; and receiving the data through the one or more RBs allocated by the first and second information, the RB set comprises a plurality of resource block groups, RBGs, in which neighboring RBGs are inconsecutive in frequency domain; and an RBG is consecutive RBs.
Method for controlling the emission frequency of a laser, wherein the method comprises the following steps: a) recording a first spectrum by passing a laser light emitted by the laser through a sample onto a detector, the detector being connected to a multichannel analyzer which assigns pulses detected by the detector to a channel, b) determining a first channel to which the maximum of a first signal in the first spectrum has been assigned, c) determining a second channel to which the maximum of a second signal in the first spectrum has been assigned, d) recording a second spectrum in the same way as the first spectrum, e) determining whether the maximum of the first signal in the second spectrum was assigned to the first channel and whether the maximum of the second signal in the second spectrum was assigned to the second channel, f) adaptation of a working temperature of the laser with deviations determined in step e) such that the maximum of the first signal in the second spectrum is assigned to the first channel and/or that the maximum of the second signal in the second spectrum is assigned to the second channel. a) recording a first spectrum by passing a laser light emitted by the laser through a sample onto a detector, the detector being connected to a multichannel analyzer which assigns pulses detected by the detector to a channel, b) determining a first channel to which the maximum of a first signal in the first spectrum has been assigned, c) determining a second channel to which the maximum of a second signal in the first spectrum has been assigned, d) recording a second spectrum in the same way as the first spectrum, e) determining whether the maximum of the first signal in the second spectrum was assigned to the first channel and whether the maximum of the second signal in the second spectrum was assigned to the second channel, f) adaptation of a working temperature of the laser with deviations determined in step e) such that the maximum of the first signal in the second spectrum is assigned to the first channel and/or that the maximum of the second signal in the second spectrum is assigned to the second channel.
Method for configuring a coffee machine, according to which data is generated and transferred to the coffee machine by means of a remote control facility for remotely controlling the coffee machine, wherein the data is taken into consideration by the coffee machine when filling a container with a coffee product prepared by the coffee machine, characterised in that the data generated by means of the remote control facility is information relating to a geometric design and size of the container.
Method for non-intrusive determination of the electrical power consumed by a subscriber installation, in which periodic sampling of the values of supply voltage and of electric current intensity delivered to said installation is undertaken in order to obtain a consumption signal, characterized in that the latter consists at least, based on the sampled values of the consumption signal, of: - grouping said values sampled in successive observation time windows; - discriminating in each successive current observation time window the set of poles ( S i) and of residues ( R i) of the consumption signal by the Pencil method, said set of poles and residues being representative, in the current observation window, of a combination of signatures of separate electrical loads ( C i) including at least defined poles ( S i) and residues ( R i) associated with at least one singular value ( SG i) obtained by the Pencil method in operation in said installation; - calculating, for at least the duration of said current observation window, at least the active power consumed by at least one subset of the electrical loads in operation in the installation, expressed as the sum of the active powers consumed by each separate electrical load of said subset complying with a consumed power function linking said poles and residues. - grouping said values sampled in successive observation time windows; - discriminating in each successive current observation time window the set of poles ( S i) and of residues ( R i) of the consumption signal by the Pencil method, said set of poles and residues being representative, in the current observation window, of a combination of signatures of separate electrical loads ( C i) including at least defined poles ( S i) and residues ( R i) associated with at least one singular value ( SG i) obtained by the Pencil method in operation in said installation; - calculating, for at least the duration of said current observation window, at least the active power consumed by at least one subset of the electrical loads in operation in the installation, expressed as the sum of the active powers consumed by each separate electrical load of said subset complying with a consumed power function linking said poles and residues.
A method for the inactivation of enzymes with a composition comprising a sulfonated peroxycarboxylic acid according to formula 1. wherein: R 1 is hydrogen, or a substituted or unsubstituted C m alkyl group; R 2 is a substituted or unsubstituted C n alkyl group; X is a hydrogen atom, a cationic group, or an ester forming moiety; Y is a hydrogen atom, a cationic group, or an ester forming moiety; n is 1 to 10; m is 1 to 10; and n + m is less than or equal to 18, wherein the composition is contacted with the enzyme.
A blunt-ended double-stranded RNA (dsRNA) construct comprising a sense strand having a 5'-end and a 3'-end, wherein the sense strand is 25, 26, 27, 28, 29 or 30 nucleotides in length, and an antisense strand having a 5'-end and a 3'-end, wherein the antisense strand is 25, 26, 27, 28, 29 or 30 nucleotides in length, for inhibiting expression of a SOD1 gene, wherein the 5'-end 12 nucleotides and the 3'-end 10 nucleotides of the sense strand are 2'-modified ribose sugars, wherein the antisense strand is unmodified, wherein the antisense strand hybridizes to the sense strand and to mRNA of the SOD1 gene, and wherein the dsRNA inhibits expression of the SOD1 gene in a sequence-dependent manner.
A pharmaceutical composition comprising Ramalin represented by a following Chemical Formula I as an active ingredient for use in the treatment or prevention of Alzheimer's disease:
A transmitter for transmitting data through a plurality of transmit antennas in a wireless communication system including the transmitter and a receiver for receiving the data through a plurality of receive antennas, the transmitter characterized by comprising: a constellation-rotating precoder comprising a first accumulation module for generating p m th -order sub-input vectors x i, i = 1,..., p, each having m symbols, by grouping the symbols of an L th -order input vector x having L symbols modulated in at least one modulation scheme, and outputting the p m th -order sub-input vectors x i in parallel, and a plurality of constellation rotators for generating p m th -order sub-rotated vectors r i by multiplying the p m th -order sub-input vectors x i by a constellation-rotating matrix Θ; an accumulator comprising a plurality of extraction modules for extracting signals r i,j included in each of the p m th -order sub-rotated vectors r i, received from the constellation-rotating precoder, and a second accumulation module for generating m p th -order sub-vectors u i, i = 1,..., p, by grouping the extracted signals r i,j; and a space-time block coder for generating m T 0 x n codeword matrices A i ( u i) by performing space-time block coding on each of the m p th -order sub-vectors u i, and transmitting the n columns of each codeword matrix A i ( u i) through n different transmit antennas in the same T 0 symbol periods while transmitting the columns of different codeword matrices A i ( u i) through different transmit antennas and in different symbol periods, where m is an integer larger than or equal to 1(m≥1), and n is an integer larger than or equal to 2 (n≥2). a constellation-rotating precoder comprising a first accumulation module for generating p m th -order sub-input vectors x i, i = 1,..., p, each having m symbols, by grouping the symbols of an L th -order input vector x having L symbols modulated in at least one modulation scheme, and outputting the p m th -order sub-input vectors x i in parallel, and a plurality of constellation rotators for generating p m th -order sub-rotated vectors r i by multiplying the p m th -order sub-input vectors x i by a constellation-rotating matrix Θ; an accumulator comprising a plurality of extraction modules for extracting signals r i,j included in each of the p m th -order sub-rotated vectors r i, received from the constellation-rotating precoder, and a second accumulation module for generating m p th -order sub-vectors u i, i = 1,..., p, by grouping the extracted signals r i,j; and a space-time block coder for generating m T 0 x n codeword matrices A i ( u i) by performing space-time block coding on each of the m p th -order sub-vectors u i, and transmitting the n columns of each codeword matrix A i ( u i) through n different transmit antennas in the same T 0 symbol periods while transmitting the columns of different codeword matrices A i ( u i) through different transmit antennas and in different symbol periods, where m is an integer larger than or equal to 1(m≥1), and n is an integer larger than or equal to 2 (n≥2).
A portable blower comprising: a casing having an air inlet and outlet; a fan within the casing and having a motor and an impeller fixed to the motor; an air intake grille coupled to the air inlet; said portable blower being characterized by comprising a fragrance cartridge within the impeller and in that the air intake grille contains an insert channel that extends into the casing. a casing having an air inlet and outlet; a fan within the casing and having a motor and an impeller fixed to the motor; an air intake grille coupled to the air inlet; said portable blower being characterized by comprising a fragrance cartridge within the impeller and in that the air intake grille contains an insert channel that extends into the casing.
A table rotation device (1, 1A, 1B, 1C, 1D, 1E) comprising: a bearing assembly comprising: a fixing ring; a movable ring being rotatable about a rotation axis relative to the fixing ring; and a rolling element provided between the fixing ring and the movable ring; a table support member fixed to the movable ring and supporting a table; a support block fixed to the fixing ring and supporting the table support member rotatably about the rotation axis; and a cooling block fixed to the fixing ring or the support block such that the cooling block is in contact with the fixing ring; and characterized in that the cooling block defines at least a part of a cooling passage through which a coolant is passable and in that the cooling block is also in contact with the support block. a bearing assembly comprising: a fixing ring; a movable ring being rotatable about a rotation axis relative to the fixing ring; and a rolling element provided between the fixing ring and the movable ring; a fixing ring; a movable ring being rotatable about a rotation axis relative to the fixing ring; and a rolling element provided between the fixing ring and the movable ring; a table support member fixed to the movable ring and supporting a table; a support block fixed to the fixing ring and supporting the table support member rotatably about the rotation axis; and a cooling block fixed to the fixing ring or the support block such that the cooling block is in contact with the fixing ring; and characterized in that the cooling block defines at least a part of a cooling passage through which a coolant is passable and in that the cooling block is also in contact with the support block.
A method of operating a wireless communication device including a first radio frequency, RF, transceiver (140A-D) configured to transmit/receive RF signals in a first frequency band and a second RF transceiver (140A-D) configured to transmit/receive RF signals in a second frequency band that is different from the first frequency band, the method comprising: determining, at the wireless communication device, one or more frequencies of the first frequency band that are affected by interference due to transmissions by the second RF transceiver (140A-D) in the second frequency band; characterized in that the method further comprises: sending a message from the first RF transceiver (140A-D) to an evolved NodeB, eNodeB, base station, the message comprising the one or more frequencies affected by the interference, wherein the sent message further informs the eNodeB base station which frequencies to use or not to use. determining, at the wireless communication device, one or more frequencies of the first frequency band that are affected by interference due to transmissions by the second RF transceiver (140A-D) in the second frequency band; characterized in that the method further comprises: sending a message from the first RF transceiver (140A-D) to an evolved NodeB, eNodeB, base station, the message comprising the one or more frequencies affected by the interference, wherein the sent message further informs the eNodeB base station which frequencies to use or not to use.
A sprinkler comprising: a body having a proximal portion defining an opening and a distal portion defining an outlet, the body defining an internal passageway having an inlet and an outlet spaced apart along a longitudinal axis A-A, the distal portion including an annular wall having an outer surface and an inner surface to further define a chamber distal of the outlet to house an internal component of the sprinkler; a cover plate assembly having a thermally responsive surface exposed to the chamber to actuate the sprinkler; and characterised in that the sprinkler further comprises a means providing a plurality of apertures radially disposed about the longitudinal axis A-A between the annular wall and the cover plate assembly, the apertures being configured to provide communication between the chamber and an environment external to the body such that the surface of the cover plate assembly is exposed to the external environment. a body having a proximal portion defining an opening and a distal portion defining an outlet, the body defining an internal passageway having an inlet and an outlet spaced apart along a longitudinal axis A-A, the distal portion including an annular wall having an outer surface and an inner surface to further define a chamber distal of the outlet to house an internal component of the sprinkler; a cover plate assembly having a thermally responsive surface exposed to the chamber to actuate the sprinkler; and characterised in that the sprinkler further comprises a means providing a plurality of apertures radially disposed about the longitudinal axis A-A between the annular wall and the cover plate assembly, the apertures being configured to provide communication between the chamber and an environment external to the body such that the surface of the cover plate assembly is exposed to the external environment.
Thermoelectric arrangement, in particular thermoelectric sensor arrangement, having: at least one printed circuit board; at least one thermoelectric component having a cold side and a warm side, which component is in electrical contact with the at least one printed circuit board; a housing having a cover, wherein the printed circuit board and the at least one thermoelectric component are arranged in the housing; and wherein the at least one thermoelectric component is connected to a heat-dissipating structure on the cold side and is connected to a side of the housing facing away from the cover on the warm side by means of a thermal conductor device (21, 22, 23, 24); characterized in that the at least one printed circuit board is arranged in the housing in a free-standing manner as far as possible by means of the thermal conductor device (21, 22, 23, 24). at least one printed circuit board; at least one thermoelectric component having a cold side and a warm side, which component is in electrical contact with the at least one printed circuit board; a housing having a cover, wherein the printed circuit board and the at least one thermoelectric component are arranged in the housing; and wherein the at least one thermoelectric component is connected to a heat-dissipating structure on the cold side and is connected to a side of the housing facing away from the cover on the warm side by means of a thermal conductor device (21, 22, 23, 24); characterized in that the at least one printed circuit board is arranged in the housing in a free-standing manner as far as possible by means of the thermal conductor device (21, 22, 23, 24).
A cochlear lead comprising: a thermoformed circuit (400, 702-1, 900, 1002) comprising: a substrate (300, 700, 935, 1030); electrodes (305, 310, 705, 706, 810, 905, 1015) formed on the substrate, wherein the electrodes are shaped to curve around a longitudinal axis of the cochlear lead; traces (330, 725, 925, 1025) formed on the substrate and connected to the electrodes; and intermediate sections (365, 370, 385) between the electrodes, characterized in that at least a portion of the intermediate sections are arched intermediate sections which are curved, when the longitudinal axis of the cochlear lead is in a straight configuration, around a straight axis that is orthogonal to the longitudinal axis. a thermoformed circuit (400, 702-1, 900, 1002) comprising: a substrate (300, 700, 935, 1030); electrodes (305, 310, 705, 706, 810, 905, 1015) formed on the substrate, wherein the electrodes are shaped to curve around a longitudinal axis of the cochlear lead; traces (330, 725, 925, 1025) formed on the substrate and connected to the electrodes; and intermediate sections (365, 370, 385) between the electrodes, a substrate (300, 700, 935, 1030); electrodes (305, 310, 705, 706, 810, 905, 1015) formed on the substrate, wherein the electrodes are shaped to curve around a longitudinal axis of the cochlear lead; traces (330, 725, 925, 1025) formed on the substrate and connected to the electrodes; and intermediate sections (365, 370, 385) between the electrodes, characterized in that at least a portion of the intermediate sections are arched intermediate sections which are curved, when the longitudinal axis of the cochlear lead is in a straight configuration, around a straight axis that is orthogonal to the longitudinal axis.
A method comprising: training and testing a set of classifiers (416a-f) with k-fold cross validation on a first dataset (110, 410) comprising vectors (114, 520A-C) representing software components (104, 232) and labels, wherein each label indicates whether a respective one of the software components has a vulnerability or flaw, wherein a set of probability values generated for each of the vectors by the set of classifiers from the testing is stored; training a logistic regression model with the stored sets of probability values and the labels; and combining the trained set of classifiers and the trained logistic regression model to generate an ensemble (118, 220, 434) that indicates whether a software component of said software components has a vulnerability or flaw. training and testing a set of classifiers (416a-f) with k-fold cross validation on a first dataset (110, 410) comprising vectors (114, 520A-C) representing software components (104, 232) and labels, wherein each label indicates whether a respective one of the software components has a vulnerability or flaw, wherein a set of probability values generated for each of the vectors by the set of classifiers from the testing is stored; wherein each label indicates whether a respective one of the software components has a vulnerability or flaw, wherein a set of probability values generated for each of the vectors by the set of classifiers from the testing is stored; training a logistic regression model with the stored sets of probability values and the labels; and combining the trained set of classifiers and the trained logistic regression model to generate an ensemble (118, 220, 434) that indicates whether a software component of said software components has a vulnerability or flaw.
Method which comprises: providing a vibrator arrangement which is held on a carrying device which is designed to penetrate the ground and which has a vibrator motor; inserting the vibrator arrangement into the ground to a predetermined depth; determining a ground profile of the ground when the vibrator arrangement is inserted, wherein the determination of the ground profile comprises measuring at least one operating parameter of the vibrator arrangement when the latter is inserted into the ground, and wherein the ground profile in each case comprises a ground parameter for at least two different ground depths. providing a vibrator arrangement which is held on a carrying device which is designed to penetrate the ground and which has a vibrator motor; inserting the vibrator arrangement into the ground to a predetermined depth; determining a ground profile of the ground when the vibrator arrangement is inserted, wherein the determination of the ground profile comprises measuring at least one operating parameter of the vibrator arrangement when the latter is inserted into the ground, and wherein the ground profile in each case comprises a ground parameter for at least two different ground depths.