mhurhangee/ep-ind-claims huggingface dataset:
A separable blade for a wind turbine having a divided structure, the separable blade being divided into a plurality of divided blade portions, the separable blade comprising: at least one Joining member (6, 7) made of metal for joining the plurality of divided blade portions (4R, 4T) so as to structure the separable blade; a metal plate placed between two divided blade portions (4R, 4T) located next to each other among the plurality of divided blade portions (4R, 4T) and electrically connected to one of the at least one joining member (6, 7); and an in-blade electrical conduction wire, characterized in that the in-blade electrical conduction wire is arranged to extend from the metal plate through a blade root part of an inner most divided blade portion among the plurality of divided blade portions (4R, 4T) to outside of the separable blade, and the In-blade electrical conduction wire is electrically connected to the metal plate. at least one Joining member (6, 7) made of metal for joining the plurality of divided blade portions (4R, 4T) so as to structure the separable blade; a metal plate placed between two divided blade portions (4R, 4T) located next to each other among the plurality of divided blade portions (4R, 4T) and electrically connected to one of the at least one joining member (6, 7); and an in-blade electrical conduction wire, characterized in that the in-blade electrical conduction wire is arranged to extend from the metal plate through a blade root part of an inner most divided blade portion among the plurality of divided blade portions (4R, 4T) to outside of the separable blade, and the In-blade electrical conduction wire is electrically connected to the metal plate.
A method for decoding a downmix matrix for mapping a plurality of input channels of audio content to a plurality of output channels, the input and output channels (300, 302) being associated with respective speakers at predetermined positions relative to a listener position, wherein the downmix matrix is encoded by exploiting the symmetry of speaker pairs (S 1 -S 9) of the plurality of input channels and the symmetry of speaker pairs (S 10 -S 11) of the plurality of output channels, the method comprising: receiving encoded information representing the encoded downmix matrix from an encoder; and decoding the encoded information for obtaining the decoded downmix matrix, wherein respective pairs (S 1 -S 11) of input and output channels (300, 302) in the downmix matrix have associated respective mixing gains for adapting a level by which a given input channel contributes to a given output channel, and wherein the method further comprises: decoding from the information representing the downmix matrix encoded significance values, wherein respective significance values are assigned to pairs (S 1 -S 11) of symmetric speaker groups of the input channels and symmetric speaker groups of the output channels, the significance value indicating if a mixing gain for one or more of the input channels is zero or not; and decoding from the information representing the downmix matrix encoded mixing gains. receiving encoded information representing the encoded downmix matrix from an encoder; and decoding the encoded information for obtaining the decoded downmix matrix, wherein respective pairs (S 1 -S 11) of input and output channels (300, 302) in the downmix matrix have associated respective mixing gains for adapting a level by which a given input channel contributes to a given output channel, and wherein the method further comprises: decoding from the information representing the downmix matrix encoded significance values, wherein respective significance values are assigned to pairs (S 1 -S 11) of symmetric speaker groups of the input channels and symmetric speaker groups of the output channels, the significance value indicating if a mixing gain for one or more of the input channels is zero or not; and decoding from the information representing the downmix matrix encoded mixing gains. decoding from the information representing the downmix matrix encoded significance values, wherein respective significance values are assigned to pairs (S 1 -S 11) of symmetric speaker groups of the input channels and symmetric speaker groups of the output channels, the significance value indicating if a mixing gain for one or more of the input channels is zero or not; and decoding from the information representing the downmix matrix encoded mixing gains.
A lubricating oil composition containing a lubricating oil additive containing at least one acrylic block copolymer having a weight-average molecular weight of 10,000 to 1,000,000 and a molecular weight distribution of 1.3 or below, the molecular weight distribution being ratio Mw/Mn of a weight-average molecular weight Mw to a number-average molecular weight Mn, wherein the block copolymer has at least one kind of a structure selected from among the structures represented by the general expressions (A-B) a, (A-B) b -A, and (B-A) c -B, wherein in the expressions, A represents a polymer block comprising a (meth)acrylic acid alkyl ester unit having a C 1-3 alkyl group, B represents a polymer block comprising a (meth)acrylic acid alkyl ester unit having a C 4-30 alkyl group, and a, b, and c represent integers of 1 to 10, which may take either an identical value or different values.
A holographic display apparatus comprising: a coherent light source; a spatial light modulator configured to modulate coherent light from the coherent light source according to an image to be displayed on an object plane; and a processor configured to: receive object amplitude data of an image to be displayed at the object plane; calculate object phase data of the image to be displayed at the object plane, such that reference phase data of a computer generated hologram, "CGH," applied to the spatial light modulator is substantially equal to zero, by repeatedly changing the object phase value and searching for a value via which the phase value of hologram data to be displayed on a reference plane of the spatial light modulator becomes zero; generate the CGH comprising the reference phase data; and apply a light modulation signal based on the CGH to the spatial light modulator; wherein the spatial light modulator comprises an amplitude modulation spatial light modulator. a coherent light source; a spatial light modulator configured to modulate coherent light from the coherent light source according to an image to be displayed on an object plane; and a processor configured to: receive object amplitude data of an image to be displayed at the object plane; calculate object phase data of the image to be displayed at the object plane, such that reference phase data of a computer generated hologram, "CGH," applied to the spatial light modulator is substantially equal to zero, by repeatedly changing the object phase value and searching for a value via which the phase value of hologram data to be displayed on a reference plane of the spatial light modulator becomes zero; generate the CGH comprising the reference phase data; and apply a light modulation signal based on the CGH to the spatial light modulator; receive object amplitude data of an image to be displayed at the object plane; calculate object phase data of the image to be displayed at the object plane, such that reference phase data of a computer generated hologram, "CGH," applied to the spatial light modulator is substantially equal to zero, by repeatedly changing the object phase value and searching for a value via which the phase value of hologram data to be displayed on a reference plane of the spatial light modulator becomes zero; generate the CGH comprising the reference phase data; and apply a light modulation signal based on the CGH to the spatial light modulator; wherein the spatial light modulator comprises an amplitude modulation spatial light modulator.
A regenerative cryocooler, characterized by comprising a cryogenic regenerator material comprising a silver oxide, the molar ratio of silver atoms to oxygen atoms contained in the cryogenic regenerator material: Ag/O is 1.0 or more and 4.0 or less.
A heat-insulating material, in particular in the form of a solid foam, formed from mineral particles, other than aerogels, of submicron porosity, this material incorporating two different ranges of porosities, including a first range consisting of macropores with diameters of between 10 microns and 3 mm, and a second range consisting of submicron pores with diameters greater than 4 nm and less than 1 μm, the pore volume of said submicron pores being at least 0.5 cm 3 /g and the mass per unit volume of said insulating material being less than 300 kg/m 3.
A method for transmitting a Physical Uplink Shared Channel, PUSCH, by a User Equipment (2510, 2520), UE, in a wireless communication system, the method comprising: transmitting, to a base station (2510, 2520), capability information, wherein the capability information indicates a subset of Transmitted Precoding Matrix Indicators, TPMIs, the subset of TPMIs consisting of one or more precoding matrices which deliver full transmission power; receiving, from the base station, configuration information for the PUSCH via Radio Remote Control, RRC, signaling; receiving, from the base station, Downlink Control Information, DCI, for scheduling a PUSCH transmission, wherein the DCI includes a field for precoding information and number of layers; and transmitting, to the base station, the PUSCH based on a TPMI given by the field, wherein based on the TPMI given by the field being one of the one or more precoding matrices included in the subset of TPMIs, a power scaling factor for the PUSCH transmission is equal to '1', and wherein a transmission power for the PUSCH transmission is equally split across antenna ports on which the PUSCH is transmitted with non-zero power. transmitting, to a base station (2510, 2520), capability information, wherein the capability information indicates a subset of Transmitted Precoding Matrix Indicators, TPMIs, the subset of TPMIs consisting of one or more precoding matrices which deliver full transmission power; receiving, from the base station, configuration information for the PUSCH via Radio Remote Control, RRC, signaling; receiving, from the base station, Downlink Control Information, DCI, for scheduling a PUSCH transmission, wherein the DCI includes a field for precoding information and number of layers; and transmitting, to the base station, the PUSCH based on a TPMI given by the field, wherein based on the TPMI given by the field being one of the one or more precoding matrices included in the subset of TPMIs, a power scaling factor for the PUSCH transmission is equal to '1', and wherein a transmission power for the PUSCH transmission is equally split across antenna ports on which the PUSCH is transmitted with non-zero power.
A method for providing feedback for communications, the method comprising: simultaneously receiving a first communication using a first radio access technology and a second communication using a second radio access technology; and characterized in, by using only the first radio access technology, transmitting first hybrid automatic repeat request (HARQ) feedback information for the first communication and second HARQ feedback information for the second communication to a network device that performed the first communication, wherein the second feedback information is communicated from the network device to another network entity that performed the second communication, and the transmission of the first HARQ feedback information and the second HARQ feedback information keeps transmission timing scheduled in the first radio access technology and the second radio access technology, respectively.
An animal tracking system, comprising: a first device including a receiver to acquire global positioning system data corresponding to an animal; and a second device to receive the GPS data of the first device and to acquire GPS data corresponding to a user, the second device including a controller to calculate location information of both the animal and the user, and a display unit to display a graphical representation indicating the historical location points of the user and the animal and a current direction of movement of the animal relative to the user based on the calculated location information; characterized in that, the display unit is configured to display an incremented scale that automatically adjusts in real time if the animal goes outside the incremented scale and zooms to a level where the graphical representation is visible on the display unit. a first device including a receiver to acquire global positioning system data corresponding to an animal; and a second device to receive the GPS data of the first device and to acquire GPS data corresponding to a user, the second device including a controller to calculate location information of both the animal and the user, and a display unit to display a graphical representation indicating the historical location points of the user and the animal and a current direction of movement of the animal relative to the user based on the calculated location information; characterized in that, the display unit is configured to display an incremented scale that automatically adjusts in real time if the animal goes outside the incremented scale and zooms to a level where the graphical representation is visible on the display unit.
A container assembly for storing a cell or biological sample, said assembly comprising: a container (152; 252) having a side (158; 258), an open top end (162; 260), and an internal dimension to contain a volume of a reagent sufficient to treat a biological sample; a cap (154; 254) for coupling to and closing said open top end of said container; and a sample holder (156; 256) having a closure member (208; 282) and an internal cavity with a dimension for receiving a biological sample, said sample holder having a plurality of fluid openings into said cavity to enable free flow of said reagent into said cavity, said sample holder having a dimension to fit in said container below said closure and to immerse said cavity in said reagent, characterized in that said sample holder (156; 256) being a separate component from said cap (154; 254) and further comprising a bottom and a side, an open top end, and at least one stabilizing member (200; 298) extending from said side of said sample holder a distance to cooperate with said side of said container to position said sample holder in a selected location in said container, and said closure member being hingedly attached to said sample holder. a container (152; 252) having a side (158; 258), an open top end (162; 260), and an internal dimension to contain a volume of a reagent sufficient to treat a biological sample; a cap (154; 254) for coupling to and closing said open top end of said container; and a sample holder (156; 256) having a closure member (208; 282) and an internal cavity with a dimension for receiving a biological sample, said sample holder having a plurality of fluid openings into said cavity to enable free flow of said reagent into said cavity, said sample holder having a dimension to fit in said container below said closure and to immerse said cavity in said reagent,
A process for the preparation of a macrocyclic tetramer compound of Formula, the process comprising: (i) forming a reaction mixture comprising a stoichiometric amount of (a) an aziridine of Formula, (b) a Brønsted acid, a Lewis acid, or a combination of a Brønsted acid and a Lewis acid, and (c) a solvent; and, (ii) reacting the contents of the reaction mixture to form the compound of Formula by cyclotetramerization of the aziridine of Formula, according to the following reaction: wherein: each R 1 is independently selected from the group consisting of C 1-10 hydrocarbyl. (i) forming a reaction mixture comprising a stoichiometric amount of (a) an aziridine of Formula, (b) a Brønsted acid, a Lewis acid, or a combination of a Brønsted acid and a Lewis acid, and (c) a solvent; and, (ii) reacting the contents of the reaction mixture to form the compound of Formula by cyclotetramerization of the aziridine of Formula, according to the following reaction: wherein: each R 1 is independently selected from the group consisting of C 1-10 hydrocarbyl. each R 1 is independently selected from the group consisting of C 1-10 hydrocarbyl.
A solar junction box, comprising: a box cover and a terminal plate; wherein the terminal plate includes a plurality of terminals arranged side by side and a plurality of diode units for connecting adjacent terminals, the plurality of terminals and the plurality of diode units are integrally packaged with plastic, and two outermost terminals are respectively used to connect to cables; the terminal plate serving as a back plate of the box cover is fixedly connected to the box cover in a detachable manner; and a cavity for filling silica gel is formed between the box cover and the terminal plate; characterized in that an edge of a package portion of the terminal plate is provided with a semi-circular notch, the box cover is provided with a semi-circular concave groove matching with a position and a shape of the semi-circular notch, and the semi-circular notch and the semi-circular concave groove constitute a gel filling channel; each of the plurality of terminals is provided with a bus bar fixing portion extending out from the package portion of the terminal plate; the cavity is divided into a first cavity and a second cavity; the package portion of the terminal plate is located in the first cavity; the bus bar fixing portion is located in the second cavity; the box cover is provided with an opening connected to the second cavity; and the opening is provided with a cover plate.
A method for a mobile telecommunications system comprising a user equipment, UE, and a serving cell or a serving base station, the method comprising: obtaining, by the user equipment, UE, neighboring cell list information indicating neighboring cells; obtaining, by the UE, classification information of cells included in the neighboring cell list information; obtaining, by the UE, a mobility state of the user equipment; obtaining threshold information including at least one threshold being associated with a mobility state of a user equipment; and selecting, by the UE, at least one candidate cell to be measured based on the neighboring cell list information, the classification information, the mobility state of the user equipment, and the threshold information, wherein the classification information includes first type classification information and second type classification information, wherein the first type classification information is associated with cells being deployed locally or dynamically and the second type classification information is associated with stationary macro cells, and wherein an update frequency of the first type classification information differs from an update frequency of the second type classification information. obtaining, by the user equipment, UE, neighboring cell list information indicating neighboring cells; obtaining, by the UE, classification information of cells included in the neighboring cell list information; obtaining, by the UE, a mobility state of the user equipment; obtaining threshold information including at least one threshold being associated with a mobility state of a user equipment; and selecting, by the UE, at least one candidate cell to be measured based on the neighboring cell list information, the classification information, the mobility state of the user equipment, and the threshold information, wherein the classification information includes first type classification information and second type classification information, wherein the first type classification information is associated with cells being deployed locally or dynamically and the second type classification information is associated with stationary macro cells, and wherein an update frequency of the first type classification information differs from an update frequency of the second type classification information.
Vehicle tyre having side walls and a tread and having at least one contrasting structure area on an outer surface (2, 3), in particular on one of the side walls and/or the tread, wherein a contrasting structure with hatching ribs (6, 7) each having a ridge (8, 9) and oppositely situated flanks is formed on the contrasting structure area, characterized in that the contrasting structure has crossing regions, wherein a crossing region is precisely the region in which a second hatching rib of the hatching ribs (6, 7) is arranged straddling and crossing a first hatching rib of the hatching ribs (6, 7) in such a way that the ridge of the second hatching rib and the ridge of the first hatching rib cross in a plan view and that a contour of the second hatching rib has a local maximum within the crossing region.
A biomass grinding and roasting reactor comprising: - a chamber interiorly delimited with internal walls; - grinding means laid out inside the chamber, including a rotary central shaft rotatably mounted in the chamber and grinding elements present on said rotary central shaft for grinding biomass, preferably ligno-cellulosic biomass, against the internal walls, present inside the chamber; - heating means (16, 160, 161, 1600, 17) for heating and maintaining by thermal conduction via said grinding means the biomass present inside the chamber, at a predetermined so-called roasting temperature, comprised between 200°C and 350°C, in order to simultaneously achieve grinding and roasting of the biomass in the chamber. - a chamber interiorly delimited with internal walls; - grinding means laid out inside the chamber, including a rotary central shaft rotatably mounted in the chamber and grinding elements present on said rotary central shaft for grinding biomass, preferably ligno-cellulosic biomass, against the internal walls, present inside the chamber; - heating means (16, 160, 161, 1600, 17) for heating and maintaining by thermal conduction via said grinding means the biomass present inside the chamber, at a predetermined so-called roasting temperature, comprised between 200°C and 350°C, in order to simultaneously achieve grinding and roasting of the biomass in the chamber.
A method for constructing an inner layer within a stent, the method comprising: positioning a mandrel within a lumen of the stent, the stent including a plurality of filaments and a plurality of openings extending between stent filaments, the plurality of openings extending through a wall of the stent, and wherein the mandrel includes a recessed portion; applying a material on the stent and through the openings of the stent such that the material is deposited along the recessed portion of the mandrel and extends radially inward beyond an inner surface of the stent; and removing the mandrel. positioning a mandrel within a lumen of the stent, the stent including a plurality of filaments and a plurality of openings extending between stent filaments, the plurality of openings extending through a wall of the stent, and wherein the mandrel includes a recessed portion; applying a material on the stent and through the openings of the stent such that the material is deposited along the recessed portion of the mandrel and extends radially inward beyond an inner surface of the stent; and removing the mandrel.