mhurhangee/ep-ind-claims huggingface dataset:
A user equipment comprising: means for determining a pathloss associated with a received signal; means for receiving a target adjustment; means for adjusting a target level in response to the received target adjustment; means for determining a transmit power level based on, in part, the determined pathloss, a quality of the pathloss and the adjusted target level; wherein the quality of the pathloss is a value in the range of 0 to 1; and means for transmitting a signal at the determined transmit power level. means for determining a pathloss associated with a received signal; means for receiving a target adjustment; means for adjusting a target level in response to the received target adjustment; means for determining a transmit power level based on, in part, the determined pathloss, a quality of the pathloss and the adjusted target level; wherein the quality of the pathloss is a value in the range of 0 to 1; and means for transmitting a signal at the determined transmit power level.
An apparatus for the production of ozone for an internal combustion engine comprising: a non-conductive shell having a first and second opening which allows air to flow therethrough; first and second cylindrical electrodes disposed inside the shell, the first electrode spaced a distance from the second electrode, the first electrode having a smaller diameter than and being aligned axially within the second electrode; and a high voltage source connected to the first and second electrode, the high voltage source capable of producing a voltage differential on the first and second electrodes sufficient to cause the production of ozone; wherein a change from oxygen to ozone occurs in the air flowing through the apparatus, characterized in that the first electrode has an opening extending from one end to the opposite end thereof permitting air to freely flow therethrough without obstruction. a non-conductive shell having a first and second opening which allows air to flow therethrough; first and second cylindrical electrodes disposed inside the shell, the first electrode spaced a distance from the second electrode, the first electrode having a smaller diameter than and being aligned axially within the second electrode; and a high voltage source connected to the first and second electrode, the high voltage source capable of producing a voltage differential on the first and second electrodes sufficient to cause the production of ozone; wherein a change from oxygen to ozone occurs in the air flowing through the apparatus, characterized in that the first electrode has an opening extending from one end to the opposite end thereof permitting air to freely flow therethrough without obstruction.
A method for producing a stable form of sodium chlorite comprising the steps of: a) introducing granular sodium chlorite with one of a metal salt or salts that form hydrates in an amount sufficient so that when fully hydrated the water of hydration is more than 5% of the anhydrous weight of the sodium chlorite into a pelletizing apparatus; b) adding water less than the weight of water required to fully hydrate the salts, but more than 5% of the anhydrous weight of the sodium chlorite; and c) recovering pellets being of a size to pass a three mesh screen. a) introducing granular sodium chlorite with one of a metal salt or salts that form hydrates in an amount sufficient so that when fully hydrated the water of hydration is more than 5% of the anhydrous weight of the sodium chlorite into a pelletizing apparatus; b) adding water less than the weight of water required to fully hydrate the salts, but more than 5% of the anhydrous weight of the sodium chlorite; and c) recovering pellets being of a size to pass a three mesh screen.
A compound selected from a compound of Formula I: and a compound of Formula II: wherein each of AA 1 and AA 2 is an independently selected amino acid; for use in a method of treating Alzheimer's disease in a sub-population of patients carrying two copies of an ApoE4 allele. a compound of Formula I: and a compound of Formula II: wherein each of AA 1 and AA 2 is an independently selected amino acid; for use in a method of treating Alzheimer's disease in a sub-population of patients carrying two copies of an ApoE4 allele.
A method comprising, performed by an apparatus: selecting a reference time identifier from a plurality of defined reference time identifiers, each of the defined reference time identifiers representing either a global navigation satellite system or a space based augmentation system or a quasi-zenith satellite system or a coordinated universal time; assembling a message including said reference time identifier, wherein said message further includes assistance data for a satellite based positioning, and wherein said reference time identifier identifies a reference time used for said assistance data; and providing said message for transmission. selecting a reference time identifier from a plurality of defined reference time identifiers, each of the defined reference time identifiers representing either a global navigation satellite system or a space based augmentation system or a quasi-zenith satellite system or a coordinated universal time; assembling a message including said reference time identifier, wherein said message further includes assistance data for a satellite based positioning, and wherein said reference time identifier identifies a reference time used for said assistance data; and providing said message for transmission.
Inorganic fibers having the following composition: Al 2 O 3 43.2 to 51.2 mol% SiO 2 12.8 to 20.8 mol% CaO 32.0 to 40.0 mol% the total of the components mentioned above is 98 mol% or more.
A video decoding method for motion compensation performed under an inter-frame prediction, the method comprising computer executable steps executed by a processor of a video decoder to implement: retrieving integer samples from a reference picture memory; applying a first fractional sample interpolation on the integer samples retrieved from the reference picture memory, in a first direction to generate a first set of fractional samples; and applying a second fractional sample interpolation on the first set of fractional samples in a second direction to generate a second set of fractional samples, wherein the integer samples are represented with a first bit depth and the first set of fractional samples is represented with a second bit depth which is constant regardless of the first bit depth of the integer samples; wherein the first and second fractional sample interpolations apply an 8-tap FIR filter having at least the following set of coefficients to generate a quarter-pel sample: [-1, 4, -11, 40, 40, -11, 4, -1]; and wherein a bidirectional prediction sample is generated by combining two second sets of fractional samples, the two second sets being different from each other, wherein a value of the bidirectional prediction sample is clipped so as to be represented with the first bit depth of the integer sample. retrieving integer samples from a reference picture memory; applying a first fractional sample interpolation on the integer samples retrieved from the reference picture memory, in a first direction to generate a first set of fractional samples; and applying a second fractional sample interpolation on the first set of fractional samples in a second direction to generate a second set of fractional samples, wherein the integer samples are represented with a first bit depth and the first set of fractional samples is represented with a second bit depth which is constant regardless of the first bit depth of the integer samples; wherein the first and second fractional sample interpolations apply an 8-tap FIR filter having at least the following set of coefficients to generate a quarter-pel sample: [-1, 4, -11, 40, 40, -11, 4, -1]; and wherein a bidirectional prediction sample is generated by combining two second sets of fractional samples, the two second sets being different from each other, wherein a value of the bidirectional prediction sample is clipped so as to be represented with the first bit depth of the integer sample.
A context release method characterized by: determining, by an application layer or Non-Access Stratum, NAS, of a terminal, that the terminal is required to be switched from an inactive state to an idle state; sending, by the terminal, a context release request to a first base station, the context release request being used for indicating a network side to release a related context of the terminal; receiving, by the terminal, a context release response from the first base station; and releasing, by the terminal, the related context of the terminal according to the context release response. determining, by an application layer or Non-Access Stratum, NAS, of a terminal, that the terminal is required to be switched from an inactive state to an idle state; sending, by the terminal, a context release request to a first base station, the context release request being used for indicating a network side to release a related context of the terminal; receiving, by the terminal, a context release response from the first base station; and releasing, by the terminal, the related context of the terminal according to the context release response.
A fastening device for fastening lighting devices to T-shaped profiles of a false ceiling, comprising a shaped flat body of electrically insulating material in which there are embedded conductive tracks having first and second ends (36, 38) that protrude from opposite ends of said flat body, comprising a supporting portion configured for resting on an upper surface of a horizontal wing of a T-shaped profile of a false ceiling and a connecting portion configured for protruding beneath the false ceiling beyond a distal edge of a wing of a T-shaped profile of a false ceiling, wherein said connecting portion comprises an engagement formation configured for engaging a complementary engagement formation formed on one side of a lighting device, and wherein said conductive tracks are configured for establishing an electrical connection between a lighting device located below the false ceiling and a power supply source located above the false ceiling.
Method for operating a modular multilevel converter, MMC, wherein the method comprises controlling a plurality of submodules (SM1,..., SMN) of an arm of the MMC for a plurality of subsequent periods, each of the plurality of submodules (SM1,..., SMN) comprising a respective capacitor, wherein the controlling includes for each of the periods - sampling a value of a reference voltage; - determining an integer number n of submodules of the plurality of submodules (SM1,..., SMN) required to approximate the sampled value; - for each submodule of the subset of n submodules (SM1,..., SMN), determining a temperature characterizing the respective submodule; - inserting all submodules of the subset of n submodules except for one remaining submodule; - determining, depending on the determined temperatures, a duty ratio; - inserting the remaining submodule for a duration given by the duty ratio; and - identifying a minimum temperature of the determined temperatures and determining the remaining submodule and the duty ratio depending on the minimum temperature. - sampling a value of a reference voltage; - determining an integer number n of submodules of the plurality of submodules (SM1,..., SMN) required to approximate the sampled value; - for each submodule of the subset of n submodules (SM1,..., SMN), determining a temperature characterizing the respective submodule; - inserting all submodules of the subset of n submodules except for one remaining submodule; - determining, depending on the determined temperatures, a duty ratio; - inserting the remaining submodule for a duration given by the duty ratio; and - identifying a minimum temperature of the determined temperatures and determining the remaining submodule and the duty ratio depending on the minimum temperature.
Method for deciding about the further transmission of data frames received by a receiver in a vehicle via a WLAN connection, wherein a frame type (16: "2"; "3") indicated in a received data frame is used to decide about that device (22; 23) to which data in the data frame are transmitted and the data can be used to produce a warning signal in the vehicle, characterized in that the data are sent to the receiver by a mobile transmission device of a pedestrian and only one frame type (16: "3") indicated in a received data frame is used to decide about that device (22; 23) to which the data frame is transmitted and the data are forwarded to a security system of the vehicle in order to produce a warning signal and at least the frame type is taken as a basis for deciding whether the data are transferred to a device processing C2X data or to a device processing other data.
A computer-implemented method, comprising: collecting information associated with a user, the information including a dataset associated with the user, wherein the collecting of information associated with the user comprises: determining an access frequency of the user to the dataset during a period of time; and in response to the access frequency being below a predetermined threshold, determining the user as a target user for notification; automatically determining a preference of the user based on the collected information; in response to the dataset being updated, detecting an alert associated with a data change based on the determined preference of the user; and providing a notification associated with the detected alert to the user. collecting information associated with a user, the information including a dataset associated with the user, wherein the collecting of information associated with the user comprises: determining an access frequency of the user to the dataset during a period of time; and in response to the access frequency being below a predetermined threshold, determining the user as a target user for notification; determining an access frequency of the user to the dataset during a period of time; and in response to the access frequency being below a predetermined threshold, determining the user as a target user for notification; automatically determining a preference of the user based on the collected information; in response to the dataset being updated, detecting an alert associated with a data change based on the determined preference of the user; and providing a notification associated with the detected alert to the user.
A method comprising: determining a first set of frequency locations within a frequency range, wherein adjacent frequency locations in the first set of frequency locations are spaced with a first spacing value; determining a second set of frequency locations within the frequency range, wherein adjacent frequency locations in the second set of frequency locations are spaced with a second spacing value; determining a first scalar and a second scalar from a received system information; determining a location of a frequency-domain resource block within the frequency range using the first spacing value and the second spacing value, wherein the location of the frequency-domain resource block is based on the sum of a product of the first scalar and the first spacing value and a product of the second scalar and the second spacing value; and communicating data on the frequency-domain resource block using the determined location of the resource block. determining a first set of frequency locations within a frequency range, wherein adjacent frequency locations in the first set of frequency locations are spaced with a first spacing value; determining a second set of frequency locations within the frequency range, wherein adjacent frequency locations in the second set of frequency locations are spaced with a second spacing value; determining a first scalar and a second scalar from a received system information; determining a location of a frequency-domain resource block within the frequency range using the first spacing value and the second spacing value, wherein the location of the frequency-domain resource block is based on the sum of a product of the first scalar and the first spacing value and a product of the second scalar and the second spacing value; and communicating data on the frequency-domain resource block using the determined location of the resource block.
Floating device (2, 102) for pipes comprising at least two structurally identical to each other floating elements each comprising a substantially semi-tubular body provided with an inner wall, said floating elements being removably associable so as to define a pipe housing seat, the housing seat defining a transversal seat section, wherein the substantially semi-tubular body of the floating elements comprises: i) at least a first protrusion and at least a first slot at a first longitudinal edge thereof; and ii) at least a second protrusion and at least a second slot at a second opposite longitudinal edge thereof; characterised in that said transversal seat section is adjustable with a first adjustment range by moving the floating elements towards or away from each other, and said protrusions (6, 9) are substantially aligned with said slots (7, 10) at opposite parts with respect to a longitudinal centreline plane (π L) of the floating element so as to allow at least a partial interpenetration of the substantially semi-tubular bodies of the floating elements, such that said seat is defined by an intersection of the inner walls of the bodies of the floating elements in said first adjustment range of the transversal section of the pipe housing seat. i) at least a first protrusion and at least a first slot at a first longitudinal edge thereof; and ii) at least a second protrusion and at least a second slot at a second opposite longitudinal edge thereof;
A display device, comprising: a first gate electrode positioned on a substrate; an active layer positioned on the first gate electrode, and including a channel region overlapping at least a part of the first gate electrode; a second gate electrode positioned on the active layer, and overlapping a first area of the channel region; and a capacitor electrode including a first portion positioned on the second gate electrode and overlapping at least a part of the second gate electrode, and a second portion connected to the first portion and overlapping at least a part of a second area except the first area of the channel region. a first gate electrode positioned on a substrate; an active layer positioned on the first gate electrode, and including a channel region overlapping at least a part of the first gate electrode; a second gate electrode positioned on the active layer, and overlapping a first area of the channel region; and a capacitor electrode including a first portion positioned on the second gate electrode and overlapping at least a part of the second gate electrode, and a second portion connected to the first portion and overlapping at least a part of a second area except the first area of the channel region.
A laser scanner comprising: a light source unit for emitting a pulsed laser as a distance measuring light, a light receiving unit for receiving a reflected distance measuring light, a distance measuring unit for performing a distance measurement based on a signal from said light receiving unit, an angle measuring unit for performing an angle measurement based on a detection result of a directional angle detector (13, 14) which detects an emitting direction of said distance measuring light, a telescope unit which includes said light source unit, said light receiving unit, and said distance measuring unit and is capable of rotating in a horizontal direction and a vertical direction, a rotation driving unit (5, 12) for rotating said telescope unit, said directional angle detector for detecting a directional angle of the pulsed laser, and a control arithmetic unit for rotatably irradiating the pulsed laser in a necessary range and for preparing three-dimensional point cloud data based on a distance measurement result and a detection result of the directional angle for each pulsed laser, wherein said light source unit is designed as an MOPA (Master Oscillator Power Amplifier) type laser light source and has an oscillator control circuit, a main oscillator, and an optical amplifier, wherein said oscillator control circuit has a repetition frequency setting component, a pulse peak output setting component and a pulse width setting component characterised in that said oscillator control circuit has an amplification factor calculating component and oscillates said main oscillator by a repetition frequency, a pulse peak output, and a pulse width corresponding to a distance to be measured, and wherein said amplification factor calculating component calculates an amplification factor based on the repetition frequency, the pulse peak output, and the pulse width and amplifies said optical amplifier based on a calculated amplification factor.
A lighting unit for an outdoor lighting fixture, the lighting unit comprising: an anisotropic magnetoresistance sensor module; and a controller coupled to the sensor module, the controller being configured to: use the sensor module to determine a measurement of vehicle traffic within a region defined by a sensing range of the sensor module, and use the sensor module to determine a current orientation of the lighting unit. an anisotropic magnetoresistance sensor module; and a controller coupled to the sensor module, the controller being configured to: use the sensor module to determine a measurement of vehicle traffic within a region defined by a sensing range of the sensor module, and use the sensor module to determine a current orientation of the lighting unit. use the sensor module to determine a measurement of vehicle traffic within a region defined by a sensing range of the sensor module, and use the sensor module to determine a current orientation of the lighting unit.
A pair of solar battery-sealing sheets comprising a light-receiving side-sealing sheet and a backside-sealing sheet for a solar electricity generating element of a solar battery module, wherein a melt peak temperature based on a differential scanning calorimetry of the backside-sealing sheet is higher than a melt peak temperature based on the differential scanning calorimetry of the light-receiving side-sealing sheet, characterized in that the melt peak temperature based on DSC of the light-receiving side-sealing sheet is 75°C or lower, or in a range of substantially no peak observed, and the melt peak temperature based on DSC of the backside-sealing sheet is 90°C or higher, and wherein the backside-sealing sheet comprises: an ethylene-based polymer obtained by modifying an ethylene·α-olefin copolymer having a density of 900 to 940 kg/m 3 as measured in conformity to ASTM D1505 and a melt peak temperature based on DSC of 90 to 125°C with an ethylenic unsaturated silane compound; and a colorant.
A device for actuating outlet valves (2, 3), which are acted on via a valve bridge, of a valve-controlled internal combustion engine for motor vehicles, wherein, in the force flow between the cam of a driving camshaft and one of the outlet valves (2, 3), there is interposed a first, hydraulically charged piston-cylinder unit by means of which, when the outlet valve opens under the action of exhaust-gas counterpressure, play compensation in the valve drive can be produced in order to hold the outlet valve open, and with a second, coaxial piston-cylinder unit which, in interaction with a positionally fixed counter bracket, controls a discharge duct out of the pressure chambers of the two piston-cylinder units (KZE1, KZE2), wherein the piston of the first piston-cylinder unit is preloaded in a readjustment direction by means of a spring, characterized in that the spring acts, without being supported in the valve bridge, on the pistons (15, 16) of both piston-cylinder units (KZE1, KZE12).