mhurhangee/ep-ind-claims huggingface dataset:
A method for supporting a secondary cell, SCell, addition by a user equipment, UE, the method being performed by the UE and comprising: receiving, Scell information, from a primary cell, PCell, of a first timing advanced group, TAG, wherein the SCell information includes a cell identifier of a SCell of a second TAG and random access channel, RACH, information, and performing a random access procedure with the SCell based on the SCell information in order to add the SCell to the first TAG; and transmitting, to the PCell, a message reporting whether the random access procedure at the SCell has succeeded or not, wherein the RACH information is transmitted from the SCell to the PCell, and the UE receives the RACH information from the PCell, and wherein the RACH information includes information related to a resource region of the SCell which the random access procedure will be performed and information required to generate RACH preamble, and wherein a timing advanced value of the first TAG is different from a timing advanced value of the second TAG. receiving, Scell information, from a primary cell, PCell, of a first timing advanced group, TAG, wherein the SCell information includes a cell identifier of a SCell of a second TAG and random access channel, RACH, information, and performing a random access procedure with the SCell based on the SCell information in order to add the SCell to the first TAG; and transmitting, to the PCell, a message reporting whether the random access procedure at the SCell has succeeded or not, wherein the RACH information is transmitted from the SCell to the PCell, and the UE receives the RACH information from the PCell, and wherein the RACH information includes information related to a resource region of the SCell which the random access procedure will be performed and information required to generate RACH preamble, and wherein a timing advanced value of the first TAG is different from a timing advanced value of the second TAG.
A ceramic-matrix composite airfoil for use in a gas turbine engine, suitable to form a vane assembly for a gas turbine engine, the assembly comprising an inner platform and an outer platform spaced apart from the inner platform to define a gas path therebetween, whereby the ceramic-matrix composite airfoil extends from the inner platform to the outer platform across the gas path, the airfoil characterized in that a core having an inner wrap and a ribbon that extends back and forth within an interior space formed by the inner wrap to form a plurality of radially spaced ribs that interconnect a pressure side with a suction side of the airfoil, and an overwrap that wraps around the core to form the pressure side and the suction side of the airfoil, wherein the ribbon comprises a first portion as well as a second portion, and the second portion of the ribbon extends across the interior of the inner wrap at a variable distance from the inner platform, wherein the ribbon includes at least one ply of ceramic containing reinforcement.
Furniture fitting for a moveable furniture part, in particular for driving a flap, a door or a drawer, wherein the furniture fitting has a first support arm and a second support arm, each of which is mountable on one side pivotably about first and second carcass-side pivot axes (21, 22) on a furniture carcass of a piece of furniture or on a fitting part which can be secured to a furniture carcass and on the other side pivotably about first and second furniture part-side pivot axes (24, 25) on the movable furniture part or on a holding part which can be secured to the movable furniture part, wherein three additional connecting hinges (29, 30, 40) are located on the two support arms (19, 20), so that as a whole a seven-hinge arrangement is formed, which has several hinge arms hinged to one another and pivotable relative to one another and which comprises the two support arms (19, 20) and the holding part, wherein the seven-hinge arrangement is designed such that, if the furniture fitting is mounted on the piece of furniture, at least two of the three connecting hinges (29, 30) are in a closed position of the movable furniture part in the furniture carcass and are pivoted out of the furniture carcass if the movable furniture part is opened, so that they are outside the furniture carcass in an open position of the movable furniture part, and with a second power-operated mechanism, which can be located on the furniture carcass and is connected via a lever mechanism to the seven-hinge arrangement for introducing a force in the closing direction and, after passing a dead point, for introducing a force in the opening direction of the movable furniture part, characterised by a self-tightening device with a first power-operated mechanism for introducing a closing force in the closing direction and after, passing a dead point, for introducing an opening force in the opening direction of the movable furniture part, wherein the first power-operated mechanism is integrated into the seven-hinge arrangement by being operatively interposed between two of the hinge arms which are pivotable relative to each other, and wherein the lever mechanism has a power deflection lever, which is pivotably mounted about a carcass-side power deflection lever pivot axis and subjected to a force in a first pivoting direction by the second power-operated mechanism, and a push rod, which is pivotably connected on one side to the power deflection lever at a distance from the power deflection lever pivot axis by means of a first push rod hinge and on the other side to one of the two support arms (19, 20) of the seven-hinge arrangement by means of a second push rod hinge.
A device for measuring the imaging properties of an optical imaging system, comprising a collimator with a graticule, an image sensor and a processing unit, wherein - the collimator and the optical imaging system are arranged relative to each other such that the optical imaging system can be illuminated by the collimator which images a test pattern of the graticule at a defined distance, wherein the image sensor is arranged in a sharpness plane of the optical imaging system, and characterized in that - the test pattern has at least one longitudinal direction (L, L1, L2), wherein this longitudinal direction (L, L1, L2) encloses an angle (α), which does not equal 90°, with an optical axis of the collimator, wherein due to its angled arrangement, the test pattern lies partially in front of and partially behind an object plane which is sharply imaged in the image plane by the optical imaging system. - the processing unit is set up to perform a multi-frequency MFT analysis in a plurality of areas (B1, B2) of an image of the test pattern detected by the image sensor which are different from each other and shifted relative to each other in the longitudinal direction (L, L1, L2). - the collimator and the optical imaging system are arranged relative to each other such that the optical imaging system can be illuminated by the collimator which images a test pattern of the graticule at a defined distance, wherein the image sensor is arranged in a sharpness plane of the optical imaging system, and characterized in that - the test pattern has at least one longitudinal direction (L, L1, L2), wherein this longitudinal direction (L, L1, L2) encloses an angle (α), which does not equal 90°, with an optical axis of the collimator, wherein due to its angled arrangement, the test pattern lies partially in front of and partially behind an object plane which is sharply imaged in the image plane by the optical imaging system. - the processing unit is set up to perform a multi-frequency MFT analysis in a plurality of areas (B1, B2) of an image of the test pattern detected by the image sensor which are different from each other and shifted relative to each other in the longitudinal direction (L, L1, L2).
A transmitter comprising: a digital-to-analog converter configured to convert a digital baseband signal into an analog baseband signal; a baseband filter configured to filter the analog baseband signal; an upconverter configured to modulate the analog baseband signal to provide a radio-frequency signal; a variable gain amplifier configured to amplify the radio-frequency signal; a digital pre-distortion module configured to pre-distort the digital baseband signal with the opposite phase of a C-IM3 distortion term such that the pre-distortion and C-IM3 distortion cancel each other out; and a digital pre-emphasis filter configured to condition the pre-distorted digital signal in order to provide a flat amplitude response of a composite filter comprising the baseband filter and a digital half-band filter, and to provide a linear phase response for the composite filter. a digital-to-analog converter configured to convert a digital baseband signal into an analog baseband signal; a baseband filter configured to filter the analog baseband signal; an upconverter configured to modulate the analog baseband signal to provide a radio-frequency signal; a variable gain amplifier configured to amplify the radio-frequency signal; a digital pre-distortion module configured to pre-distort the digital baseband signal with the opposite phase of a C-IM3 distortion term such that the pre-distortion and C-IM3 distortion cancel each other out; and a digital pre-emphasis filter configured to condition the pre-distorted digital signal in order to provide a flat amplitude response of a composite filter comprising the baseband filter and a digital half-band filter, and to provide a linear phase response for the composite filter.
Compounds corresponding to the general formula: M 1 -L-M 2 in which M 1 and M 2, which may be identical or different, each represent, independently of one another, a monomer unit M and L represents a linker group which links M 1 and M 2 covalently, characterized in that said monomer unit corresponds to the general formula M which follows: in which: - the asterisk * indicates the site of linkage between the monomer and the linker L, said linkage site of each monomer unit M 1 and M 2 being located on one of the substituents R or R 2, - R represents a hydrogen atom (in which case the site of linkage of L with M is located on R 2) or a group -CONH*, - R 1 represents a hydrogen atom or a linear (C l -C 3)alkyl group, - R 2 represents a group -CONH 2 (in which case the site of linkage of L with M is located on R) or -CONH*, - R 3 represents a group -CO 2 R 4, where R 4 represents a hydrogen atom or a linear (C 1 -C 4)alkyl group, - X is a halogen atom chosen from fluorine, chlorine and bromine atoms, - L represents the following PEG radicals: in which - the asterisk * indicates the atom for linkage of L with the monomer unit M on the substituent R* or R2*; - n represents an integer from 2 to 6, in the form of a base or of an addition salt with an acid or with a base. - the asterisk * indicates the site of linkage between the monomer and the linker L, said linkage site of each monomer unit M 1 and M 2 being located on one of the substituents R or R 2, - R represents a hydrogen atom (in which case the site of linkage of L with M is located on R 2) or a group -CONH*, - R 1 represents a hydrogen atom or a linear (C l -C 3)alkyl group, - R 2 represents a group -CONH 2 (in which case the site of linkage of L with M is located on R) or -CONH*, - R 3 represents a group -CO 2 R 4, where R 4 represents a hydrogen atom or a linear (C 1 -C 4)alkyl group, - X is a halogen atom chosen from fluorine, chlorine and bromine atoms, - L represents the following PEG radicals: in which - the asterisk * indicates the atom for linkage of L with the monomer unit M on the substituent R* or R2*; - n represents an integer from 2 to 6, - the asterisk * indicates the atom for linkage of L with the monomer unit M on the substituent R* or R2*; - n represents an integer from 2 to 6,
A method of determining extracellular concentrations of an analyte, the method comprising: for each of a plurality of times, receiving sensor data from at least one array of ligand-functionalized plasmonic nanostructures of a localized surface plasmon resonance imaging (LSPRi) chip, the array being in contact with a fluid containing at least one living cell; determining intensity data for the nanostructures, based on the sensor data for each of the plurality of times; and determining fractional occupancy data for the nanostructures based on the intensity data for each of the plurality of times, wherein the fractional occupancy data is a fraction of active surface ligands bound to the analyte; and characterized in that the method further includes a step of determining extracellular concentration data of the analyte based on the fractional occupancy data; and the sensor data is received from the at least one sensor array by a charge coupled device, and the fractional occupancy data for the nanostructures is determined as a linear function of normalized intensity data I N (t) which corresponds to: I N t = I t − I 0 I f − I 0 wherein I ( t) is the mean intensity at time t of each array and I 0 and I f are the initial and saturated array intensity values, respectively. for each of a plurality of times, receiving sensor data from at least one array of ligand-functionalized plasmonic nanostructures of a localized surface plasmon resonance imaging (LSPRi) chip, the array being in contact with a fluid containing at least one living cell; determining intensity data for the nanostructures, based on the sensor data for each of the plurality of times; and determining fractional occupancy data for the nanostructures based on the intensity data for each of the plurality of times, wherein the fractional occupancy data is a fraction of active surface ligands bound to the analyte; and characterized in that the method further includes a step of determining extracellular concentration data of the analyte based on the fractional occupancy data; and the sensor data is received from the at least one sensor array by a charge coupled device, and the fractional occupancy data for the nanostructures is determined as a linear function of normalized intensity data I N (t) which corresponds to: I N t = I t − I 0 I f − I 0 wherein I ( t) is the mean intensity at time t of each array and I 0 and I f are the initial and saturated array intensity values, respectively.
An air freshener comprising: a body case forming a filter installation opening in one side thereof; a filter housing disposed in the body case; a drawer comprising a frame forming therein a drawer opening, through which air passes, and a filter cover coupled to the frame for covering the filter installation opening; and a filter module (500, 350) separably located on the frame for filtering the air that has passed through the drawer opening, wherein the drawer is configured to be withdrawn from an inner space of the filter housing through the filter installation opening, wherein the filter housing comprises a pair of drawer guides disposed at opposite sides thereof for guiding withdrawal and introduction of the frame, the drawer comprises a pair of sliders disposed at opposite sides of the frame, the sliders being configured to move along the drawer guides, characterized in that the air freshener further comprises a mesh filter configured to be withdrawn from the inner space of the filter housing independent of the drawer, and the filter housing further comprises a mesh filter guide for guiding withdrawal and introduction of the mesh filter, the mesh filter guide being disposed between the drawer guides in the filter housing so as to be lower than the drawer guides. a body case forming a filter installation opening in one side thereof; a filter housing disposed in the body case; a drawer comprising a frame forming therein a drawer opening, through which air passes, and a filter cover coupled to the frame for covering the filter installation opening; and a filter module (500, 350) separably located on the frame for filtering the air that has passed through the drawer opening, wherein the drawer is configured to be withdrawn from an inner space of the filter housing through the filter installation opening, wherein the filter housing comprises a pair of drawer guides disposed at opposite sides thereof for guiding withdrawal and introduction of the frame, the drawer comprises a pair of sliders disposed at opposite sides of the frame, the sliders being configured to move along the drawer guides, characterized in that the air freshener further comprises a mesh filter configured to be withdrawn from the inner space of the filter housing independent of the drawer, and the filter housing further comprises a mesh filter guide for guiding withdrawal and introduction of the mesh filter, the mesh filter guide being disposed between the drawer guides in the filter housing so as to be lower than the drawer guides.
A method for wireless RF one-way communication of audio data, wherein the method comprising - providing (P_PPx) a plurality of portable part devices each being configured to transmit audio data represented in frames each containing a plurality of time slots in a wireless RF signal according to a DECT compatible protocol, - providing (P_FP) a fixed part device configured to receive said wireless RF signals from the plurality of portable part devices and to regenerate the respective audio data represented therein, characterized in that the method further comprises - broadcasting (B_CI) in each DECT compatible frame, by the fixed part device, a multiplex of control information to the plurality of portable part devices, wherein the control information contains information to allow the portable part devices to transmit their audio data in different predetermined time slots of each frame, - receiving (R_CI) the multiplex of control information, by each of the portable part devices, and - extracting (E_CI) control information intended for each individual portable part device from the multiplex of control information. - providing (P_PPx) a plurality of portable part devices each being configured to transmit audio data represented in frames each containing a plurality of time slots in a wireless RF signal according to a DECT compatible protocol, - providing (P_FP) a fixed part device configured to receive said wireless RF signals from the plurality of portable part devices and to regenerate the respective audio data represented therein, characterized in that the method further comprises - broadcasting (B_CI) in each DECT compatible frame, by the fixed part device, a multiplex of control information to the plurality of portable part devices, wherein the control information contains information to allow the portable part devices to transmit their audio data in different predetermined time slots of each frame, - receiving (R_CI) the multiplex of control information, by each of the portable part devices, and - extracting (E_CI) control information intended for each individual portable part device from the multiplex of control information.
Connection device for a synthetic material pipe having a connection nipple receiving the synthetic material pipe and forming an external cone which widens towards the free nipple end, between which cone and an axial stop a circlip, which can be pushed onto the external cone, is provided with outwardly protruding retaining claws, which circlip can be supported on the axial stop of the connection nipple, and having a sleeve which engages in a tight connection on a stop flange of the connection nipple and surrounds the synthetic material pipe which has been pushed onto the connection nipple, characterised in that, on its outer circumference, the circlip forms an external cone which widens towards the stop, on which cone a holding ring bearing holding claws can be displaced out of a receiving position, through radial outwards displacement of the holding claws, into a holding position, wherein the circlip and holding ring are latched with a lug in the holding position.
Interdental cleaner with a rod-like support, which has a cleaning device in an axial end area, wherein the cleaning device comprises a cover of the support, which said cover consists of a flexible plastic, and wherein a structuring is formed on the outer side of the support, which said structuring has a plurality of fingers projecting with a radial component from the support and which consist of the same material as the cover and are connected with this in one piece, characterized in that the structuring additionally has a bristle border with a plurality of bristle bundles and/or individual bristles, which project with a radial component from the cover and are formed each by thin prefabricated sections of a monofilament or multifilament consisting of a plastic, which have a maximum diameter of 0,25mm, wherein the support consists of a plastic and the bristle bundles and/or individual bristles pass through the cover and are held on the support and are embedded in the support.
Winding apparatus comprising: - a frame; - first crank means rotated by a first motorized axis (h) carried by said frame; - second crank means rotated by a second motorized axis (j) carried by said first crank means; - a core on which to wind material, said core being rotated by a third motorized axis (k) carried by said second crank means. - a frame; - first crank means rotated by a first motorized axis (h) carried by said frame; - second crank means rotated by a second motorized axis (j) carried by said first crank means; - a core on which to wind material, said core being rotated by a third motorized axis (k) carried by said second crank means.