mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an apparatus comprised in a network element, the method comprising maintaining a table including a plurality of entries, each of said plurality of entries being assigned to a respective one of a plurality of neighboring cells, and utilizing said table for assessment of a suitability of each of said plurality of said neighboring cells for an inter-cell capability, wherein each of said plurality of entries comprises overlapping amount information in relation to a source cell and said respective one of said plurality of neighboring cells and overlapping location information in relation to said source cell and said respective one of said plurality of neighboring cells, wherein in relation to said utilizing, said method further comprises ranking said plurality of neighboring cells based on at least one of said respective overlapping amount information and said respective overlapping location information. maintaining a table including a plurality of entries, each of said plurality of entries being assigned to a respective one of a plurality of neighboring cells, and utilizing said table for assessment of a suitability of each of said plurality of said neighboring cells for an inter-cell capability, wherein each of said plurality of entries comprises overlapping amount information in relation to a source cell and said respective one of said plurality of neighboring cells and overlapping location information in relation to said source cell and said respective one of said plurality of neighboring cells, wherein in relation to said utilizing, said method further comprises ranking said plurality of neighboring cells based on at least one of said respective overlapping amount information and said respective overlapping location information.
A ball game racquet (10; 110; 210; 310) with a handle portion and a head portion connected with the handle portion, wherein the head portion comprises a frame and at least one core, wherein the core at least partially defines two striking surfaces and at least one, preferably circumferentially extending, edge which connects the striking surfaces at least partially, wherein at least one first tube (24; 124) extends at least partially through the frame along at least a portion of the edge of the core, characterized in that the first tube (24; 124) is partially covered with a composite material in such a way that at least one portion of an outer side of the first tube (24; 124) facing the edge of the core is free of composite material. wherein the head portion comprises a frame and at least one core, wherein the core at least partially defines two striking surfaces and at least one, preferably circumferentially extending, edge which connects the striking surfaces at least partially, wherein at least one first tube (24; 124) extends at least partially through the frame along at least a portion of the edge of the core, characterized in that the first tube (24; 124) is partially covered with a composite material in such a way that at least one portion of an outer side of the first tube (24; 124) facing the edge of the core is free of composite material.
Image-generation device for a head-up display of a motor vehicle driving assistance device, comprising: - a light source, - a light modulator suitable for spatially modulating the light emitted by the light source, and - a computer suitable for driving the light source and the light modulator in such a way that they generate an image, characterized in that the light source is formed by a printed circuit which comprises a support plate and, on one face of this support plate, an array of light-emitting diodes forming several distinct light elements, and in that the computer is suitable for modulating the light intensity emitted by each light element independently of the light intensities emitted by the other light elements such that only the parts of the light modulator that have to display information are lit by the light elements of the light source, the other light elements being left off so that the parts of the light modulator that do not have to display any information are not lit, and in which an optical assembly is provided which is interposed between the light source and the light modulator and which contains the light emitted by each light element towards a corresponding effective zone of the light modulator, the optical assembly comprising an array of convergent lenses, each situated in front of one of the light-emitting diodes. - a light source, - a light modulator suitable for spatially modulating the light emitted by the light source, and - a computer suitable for driving the light source and the light modulator in such a way that they generate an image, characterized in that the light source is formed by a printed circuit which comprises a support plate and, on one face of this support plate, an array of light-emitting diodes forming several distinct light elements, and in that the computer is suitable for modulating the light intensity emitted by each light element independently of the light intensities emitted by the other light elements such that only the parts of the light modulator that have to display information are lit by the light elements of the light source, the other light elements being left off so that the parts of the light modulator that do not have to display any information are not lit, and in which an optical assembly is provided which is interposed between the light source and the light modulator and which contains the light emitted by each light element towards a corresponding effective zone of the light modulator, the optical assembly comprising an array of convergent lenses, each situated in front of one of the light-emitting diodes.
A quantum dot comprising: a nano-seed particle made of group II-VI semiconductor material containing ZnOS, the nano-seed particle having a crystal plane exposed; and a first epitaxial layer formed on the crystal plane of the nano-seed particle and made of In x (Al m Ga n) 1-x N (0.15 ≤ x ≤ 1.0, m + n = 1.0) and having a crystal plane corresponding to the crystal plane of the nano-seed particle. a nano-seed particle made of group II-VI semiconductor material containing ZnOS, the nano-seed particle having a crystal plane exposed; and a first epitaxial layer formed on the crystal plane of the nano-seed particle and made of In x (Al m Ga n) 1-x N (0.15 ≤ x ≤ 1.0, m + n = 1.0) and having a crystal plane corresponding to the crystal plane of the nano-seed particle.
A method for determining and/or adjusting phases of at least two electrical signals, comprising the following steps: - setting a first frequency and/or a first power level for a first signal at a first signal generator; - setting a second frequency and/or a second power level for a second signal at a second signal generator; - forwarding the first signal to a first splitter unit having at least two output channels (30, 32); - forwarding the second signal to a second splitter unit having at least two output channels (30, 32) - superposing the first signal and the second signal by means of a combiner unit, thereby obtaining a superposed signal; - determining a power parameter of the superposed signal via a power measurement unit for several different phase offsets of the first signal and/or of the second signal; and - determining and/or setting a relative phase between the first signal and the second signal based on the determined power parameters, wherein the combiner unit is connected to a first output channel of the first splitter unit and to a first output channel of the second splitter unit, wherein the combiner unit is connected to the power measurement unit, and wherein the second output channels of the first splitter unit and of the second splitter unit are configured to be connected to a device under test or a phase measurement block. - setting a first frequency and/or a first power level for a first signal at a first signal generator; - setting a second frequency and/or a second power level for a second signal at a second signal generator; - forwarding the first signal to a first splitter unit having at least two output channels (30, 32); - forwarding the second signal to a second splitter unit having at least two output channels (30, 32) - superposing the first signal and the second signal by means of a combiner unit, thereby obtaining a superposed signal; - determining a power parameter of the superposed signal via a power measurement unit for several different phase offsets of the first signal and/or of the second signal; and - determining and/or setting a relative phase between the first signal and the second signal based on the determined power parameters, wherein the combiner unit is connected to a first output channel of the first splitter unit and to a first output channel of the second splitter unit, wherein the combiner unit is connected to the power measurement unit, and wherein the second output channels of the first splitter unit and of the second splitter unit are configured to be connected to a device under test or a phase measurement block.
A method for a full-duplex call transfer into a half-duplex call, comprising: establishing said first full-duplex call between a first communication device and a second communication device already engaged in said half-duplex call with at least one third communication device; communicating a REFER request messages from the first communication device to the second communication device, said REFER request message including contact information for redirecting the first communication device to a hybrid application server and token information useful for patching the full-duplex call into the half-duplex call; in response to the REFER request message, performing operations by the second communication device to terminate the first full-duplex call and establish a second full-duplex call with the hybrid application server; and performing operations by the hybrid application server (324, 326) to patch the second full-duplex call into the half-duplex call using said token information. establishing said first full-duplex call between a first communication device and a second communication device already engaged in said half-duplex call with at least one third communication device; communicating a REFER request messages from the first communication device to the second communication device, said REFER request message including contact information for redirecting the first communication device to a hybrid application server and token information useful for patching the full-duplex call into the half-duplex call; in response to the REFER request message, performing operations by the second communication device to terminate the first full-duplex call and establish a second full-duplex call with the hybrid application server; and performing operations by the hybrid application server (324, 326) to patch the second full-duplex call into the half-duplex call using said token information.
A bone cement composition comprising titanium dioxide particles having a median diameter of 1.5 to 7.0 μm as measured by a laser diffraction/scattering type particle size distribution analyzer and a BET specific surface area of 0.5 to 5.0 m 2 /g as measured by a nitrogen adsorption method, and a base-forming component comprising a (meth)acrylate polymer and a (meth)acrylate monomer, wherein the content of the titanium dioxide particles is 5 to 25% by mass based on the total mass of the composition.
A test stand for testing a first gear unit, having a drive, having an electric motor and the first gear unit which can be driven by the electric motor, wherein an output shaft of the first gear unit is connected non-rotatably to a first shaft by means of a coupling, in particular rigid shaft coupling, wherein the first shaft is borne by means of an, in particular single, axial bearing which can be subjected to a time-dependent periodic force by at least one controllable first linear actuator, characterised in that the first gear unit is connected to an equalising reservoir such that the interior region of the first gear unit is filled in particular completely with oil and thermally caused expansions of the oil are accommodated in the interior region of the equalising reservoir, with the equalising reservoir having an interior region which is formed of two partial regions separated from each other by a membrane, with a first one of the partial regions being connected to the interior region of the first gear unit with an oil line, and with the second one of the partial regions being connected to the surroundings. wherein an output shaft of the first gear unit is connected non-rotatably to a first shaft by means of a coupling, in particular rigid shaft coupling, wherein the first shaft is borne by means of an, in particular single, axial bearing which can be subjected to a time-dependent periodic force by at least one controllable first linear actuator, characterised in that the first gear unit is connected to an equalising reservoir such that the interior region of the first gear unit is filled in particular completely with oil and thermally caused expansions of the oil are accommodated in the interior region of the equalising reservoir, with the equalising reservoir having an interior region which is formed of two partial regions separated from each other by a membrane, with a first one of the partial regions being connected to the interior region of the first gear unit with an oil line, and with the second one of the partial regions being connected to the surroundings.
90% Aqueous lactic acid solution containing methanol at a concentration of not more than 50 ppm, pyruvic acid at a concentration of not more than 500 ppm, furfural at a concentration of not more than 15 ppm, 5-hydroxymethylfurfural at a concentration of not more than 15 ppm, methyl lactate at a concentration of not more than 600 ppm, acetic acid at a concentration of not more than 500 ppm and 2-hydroxybutyric acid at a concentration of not more than 500 ppm, wherein optical purity of said lactic acid is not less than 99.9%.
An object recognition method comprising: acquiring an input image from an image sensor; extracting a road region from the input image using a scene segmentation algorithm; calculating a ratio of an area of the extracted road region to a size of the input image; determining what number of object candidate regions is to be used to detect an object of interest by applying the ratio to a default number of object candidate regions; in a faster region-based convolutional neural network, R-CNN, comprising a convolutional neural network, a region proposal network, RPN, and a detection network: extracting in the convolutional neural network, a feature from the input image and generating a feature map based on the extracted feature; determining, in the RPN, positions of object candidate regions on the feature map, based on the determined number of object candidate regions; and recognizing, in the detection network, the object of interest from only the extracted road region, based on the determined positions of the object candidate regions. acquiring an input image from an image sensor; extracting a road region from the input image using a scene segmentation algorithm; calculating a ratio of an area of the extracted road region to a size of the input image; determining what number of object candidate regions is to be used to detect an object of interest by applying the ratio to a default number of object candidate regions; in a faster region-based convolutional neural network, R-CNN, comprising a convolutional neural network, a region proposal network, RPN, and a detection network: extracting in the convolutional neural network, a feature from the input image and generating a feature map based on the extracted feature; determining, in the RPN, positions of object candidate regions on the feature map, based on the determined number of object candidate regions; and recognizing, in the detection network, the object of interest from only the extracted road region, based on the determined positions of the object candidate regions. extracting in the convolutional neural network, a feature from the input image and generating a feature map based on the extracted feature; determining, in the RPN, positions of object candidate regions on the feature map, based on the determined number of object candidate regions; and recognizing, in the detection network, the object of interest from only the extracted road region, based on the determined positions of the object candidate regions.
Use of an ester of levulinic acid with a fatty alcohol having 8 to 22, preferably 8 to 18, C-atoms as solubilizing agent for oil soluble organic UV filters wherein the oil soluble organic UV filters are selected from benzophenone derivatives, hydroxyphenyl triazine derivatives; and trianilino-s-triazine derivatives. benzophenone derivatives, hydroxyphenyl triazine derivatives; and trianilino-s-triazine derivatives.
A mixing wagon for preparing and distributing fodder mixtures, comprising: - a supporting structure equipped with wheels (120, 130), - a mixing container for mixing a fodder product, the container having an outlet opening for the passage of the mixed fodder product, - a loading device for loading fodder product into the mixing container, connected to the supporting structure in such a way that it can be lowered towards a fodder product collection area, the loading device comprising a collecting element and an arm extending towards a front part of the wagon; - a first conveying member which is placed adjacent to the outlet opening and extends away from the outlet opening, parallel to a direction of longitudinal extension of the supporting structure; and a second conveying member which is transverse to the first and is supported on the supporting structure at the front part; characterized in that the second conveying member is supported movably on the supporting structure, and in that it comprises a movement device for moving the second conveying member between an operating configuration, in which it receives the fodder product from the first conveying member in order to distribute the product and in which it interferes with the lowering of the arm of the loading device towards the fodder product collection area, and an inoperative configuration, in which it is placed in a position nearer to the supporting structure than in the working configuration, thereby allowing the arm to be lowered. - a supporting structure equipped with wheels (120, 130), - a mixing container for mixing a fodder product, the container having an outlet opening for the passage of the mixed fodder product, - a loading device for loading fodder product into the mixing container, connected to the supporting structure in such a way that it can be lowered towards a fodder product collection area, the loading device comprising a collecting element and an arm extending towards a front part of the wagon; - a first conveying member which is placed adjacent to the outlet opening and extends away from the outlet opening, parallel to a direction of longitudinal extension of the supporting structure; and a second conveying member which is transverse to the first and is supported on the supporting structure at the front part;
An endoscope including an image sensor provided in a distal portion of an insert section to be inserted into a body cavity, the image sensor being disposed such that an imaging surface of the image sensor is parallel with a direction of insertion of the insert section, the endoscope comprising: a heat dissipation substrate (57, 75) attached to the image sensor such that the heat dissipation substrate is parallel with the imaging surface, the heat dissipation substrate transmitting heat from the image sensor; a multi-core cable composed of signal lines for transmitting signals to and from the image sensor, first shield members covering the respective signal lines, and a second shield member for covering and holding the signal lines together, characterized in that the second shield member includes an electrically conductive layer (34C2); and a connection member for connecting the heat dissipation substrate (57, 75) and the electrically conductive layer (34C2), the connection member transmitting the heat, from the image sensor, from the heat dissipation substrate (57, 75) to the electrically conductive layer (34C2). a heat dissipation substrate (57, 75) attached to the image sensor such that the heat dissipation substrate is parallel with the imaging surface, the heat dissipation substrate transmitting heat from the image sensor; a multi-core cable composed of signal lines for transmitting signals to and from the image sensor, first shield members covering the respective signal lines, and a second shield member for covering and holding the signal lines together, characterized in that the second shield member includes an electrically conductive layer (34C2); and a connection member for connecting the heat dissipation substrate (57, 75) and the electrically conductive layer (34C2), the connection member transmitting the heat, from the image sensor, from the heat dissipation substrate (57, 75) to the electrically conductive layer (34C2).
A method for imaging a disease or condition in a mammal which comprises the steps of: (a) administering to the mammal a therapeutically effective amount of a T-type calcium channel inhibitor that inhibits proliferation of eukaryotic cells by inhibiting cell cycle progression through the checkpoint between the G1 and S phase; (b) stopping administration of the T-type calcium channel inhibitor for a period of time to allow cells that have accumulated at the G1/S checkpoint to enter the S phase of the cell cycle; (c) subsequently administering an imaging marker to the mammal; and (d) imaging the mammal with an imager. (a) administering to the mammal a therapeutically effective amount of a T-type calcium channel inhibitor that inhibits proliferation of eukaryotic cells by inhibiting cell cycle progression through the checkpoint between the G1 and S phase; (b) stopping administration of the T-type calcium channel inhibitor for a period of time to allow cells that have accumulated at the G1/S checkpoint to enter the S phase of the cell cycle; (c) subsequently administering an imaging marker to the mammal; and (d) imaging the mammal with an imager.