mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: one or more processing elements configured to: track an amount of time elapsed since a most recent time alignment with a cellular network for one or more serving cells; store a configuration for a semi-persistent report of information associated with a wireless channel between the apparatus and the cellular network, wherein the report uses a shared uplink channel; send one or more reports according to the stored configuration using the shared uplink channel; and in response to detecting that a predetermined time interval has elapsed since the most recent time alignment with the cellular network, deactivate all active stored configurations of reports that use the shared uplink channel and correspond to the one or more serving cells. track an amount of time elapsed since a most recent time alignment with a cellular network for one or more serving cells; store a configuration for a semi-persistent report of information associated with a wireless channel between the apparatus and the cellular network, wherein the report uses a shared uplink channel; send one or more reports according to the stored configuration using the shared uplink channel; and in response to detecting that a predetermined time interval has elapsed since the most recent time alignment with the cellular network, deactivate all active stored configurations of reports that use the shared uplink channel and correspond to the one or more serving cells.
A method for creating an output soundfield signal from an input soundfield signal, the method including the steps of: (a) forming at least one delayed soundfield signal from said input soundfield signal, (b) for each of said delayed soundfield signals, creating an acoustically transformed delayed soundfield signal, by an acoustic transformation process, and (c) combining together said acoustically transformed delayed soundfield signals and said input soundfield signal to produce said output soundfield signal. (a) forming at least one delayed soundfield signal from said input soundfield signal, (b) for each of said delayed soundfield signals, creating an acoustically transformed delayed soundfield signal, by an acoustic transformation process, and (c) combining together said acoustically transformed delayed soundfield signals and said input soundfield signal to produce said output soundfield signal.
An image display apparatus (4, 21) including a display unit that displays a series of images taken by imaging a desired subject in time series, characterized in that the image display apparatus includes: a control unit that controls the display unit to display a time scale indicating an imaging period of the series of images, to display a specific image (SP1-5) specifying a desired image selected from the series of images, wherein the control unit is adapted to acquire imaging date and time information of the desired image (SP1-5), to calculate a time elapsed from the imaging start date and time until the desired image (SP1-5) is taken based on the imaging date and time information and the imaging start date and time information, to determine a position on the time scale associated with the desired image (SP1-5), and to control the display unit to display a line connecting the specific image (SP1-5) and the position on the time scale corresponding to an imaging time of the desired image (SP1-5).
Cores for use as cavity spacers in the production of metal and non-metal molded parts from a core material consisting of salt or a mixture of salts as a molding material and optionally additional substances such as fillers, binders, additives and catalysts, characterized in that the core material, after curing, is completely soluble in water and can be removed from the molded parts without leaving any residue when dissolved in water, and in that, after the core shooting process, the cores consisting of salt or salts in non-liquid form and the optionally additional substances can be produced at pressures adapted to the composition of the core material.
A wireless power transmitting device comprising: a power transmission circuit; and a processor, wherein the processor is configured to: control the power transmission circuit to wirelessly transmit power having a first intensity to a first area around the wireless power transmitting device and to wirelessly transmit power having an intensity below a threshold value to a second area associated with the first area, wherein the first intensity is equal to or greater than the threshold value, decrease an intensity of the power being transmitted to the first area from the first intensity to a second intensity less than the first intensity when an obstacle is detected in the second area, decrease an intensity of the power being transmitted to the first area from the second intensity to a third intensity less than the second intensity when it is detected that the obstacle has entered the first area from the second area. a power transmission circuit; and a processor, wherein the processor is configured to: control the power transmission circuit to wirelessly transmit power having a first intensity to a first area around the wireless power transmitting device and to wirelessly transmit power having an intensity below a threshold value to a second area associated with the first area, wherein the first intensity is equal to or greater than the threshold value, decrease an intensity of the power being transmitted to the first area from the first intensity to a second intensity less than the first intensity when an obstacle is detected in the second area, decrease an intensity of the power being transmitted to the first area from the second intensity to a third intensity less than the second intensity when it is detected that the obstacle has entered the first area from the second area.
A system to measure properties in a geophysical formation accessible via a wellbore, the system comprising: one or more nanorobots configured to be disposed in the geophysical formation, each of the one or more nanorobots comprising: a body; a sensor connected to the body and positioned to detect the presence of one or more hydrocarbons within the geophysical formation; a radio frequency transmitter connected to the body, the radio frequency transmitter being configured to transmit data, from a location within the geophysical formation at which the nanorobot is disposed, to one or more fixed receivers located in the wellbore, the data transmitted comprising positional data and hydrocarbon characteristic data for the geophysical formation, the positional data indicating the location of the nanorobot within the geophysical formation and comprising interior surface location data, the interior surface location data defining a sensed three-dimensional location of a point on an interior surface within the geophysical formation; and a power supply connected to the body, the power supply being configured to supply power to the radio frequency transmitter and the sensor, and the power supply being configured to derive energy from a fluid within the geophysical formation. a body; a sensor connected to the body and positioned to detect the presence of one or more hydrocarbons within the geophysical formation; a radio frequency transmitter connected to the body, the radio frequency transmitter being configured to transmit data, from a location within the geophysical formation at which the nanorobot is disposed, to one or more fixed receivers located in the wellbore, the data transmitted comprising positional data and hydrocarbon characteristic data for the geophysical formation, the positional data indicating the location of the nanorobot within the geophysical formation and comprising interior surface location data, the interior surface location data defining a sensed three-dimensional location of a point on an interior surface within the geophysical formation; and a power supply connected to the body, the power supply being configured to supply power to the radio frequency transmitter and the sensor, and the power supply being configured to derive energy from a fluid within the geophysical formation.
A method for wireless communication comprising: transmitting to a Node B a first set of bits indicating at least two frequency bands supported by a User Equipment, UE, for High Speed Downlink Packet Access, HSDPA, wherein the first set of bits are assigned to a carrier combination and a number of supportable downlink carriers according to a table, and wherein the first set of bits further specify a number of downlink adjacent carriers supported by the UE for each of the at least two frequency bands; and receiving from the Node B a configuration of carriers to be supported by the UE and a version number indicating a version of the table used by the Node B. transmitting to a Node B a first set of bits indicating at least two frequency bands supported by a User Equipment, UE, for High Speed Downlink Packet Access, HSDPA, wherein the first set of bits are assigned to a carrier combination and a number of supportable downlink carriers according to a table, and wherein the first set of bits further specify a number of downlink adjacent carriers supported by the UE for each of the at least two frequency bands; and receiving from the Node B a configuration of carriers to be supported by the UE and a version number indicating a version of the table used by the Node B.
A roll assembly for a fibre-web machine comprising at its both ends a bearing assembly with a bearing housing, which bearing housing comprises a flexible and attenuating attachment arrangement, by means of which the roll can be attached in a flexible and attenuating manner on the frame or foundation of the fibre-web machine, and a mass absorber arranged in conjunction with the bearing housing, whereby the damping of the vibration of the roll assembly is arranged by the cooperation of the bearing housing that is attached in a flexible and attenuating manner and the mass absorber in conjunction therewith, characterised in that the ratio of the shell length of the roll to the diameter thereof is at least seven, and that the bearing housing is arranged on the frame or foundation of the fibre-web machine to vibrate at an amplitude of the bearing housing movement which is ≥ 10 % of the amplitude of the movement of the roll centre at the eigenmode corresponding to the lowest bending eigenfrequency of the roll.
A dentifrice composition comprising the following components, and: powder cellulose; a surfactant, and granules having a particle size permitting passage of a 30-mesh (JIS standard) sieve but not permitting passage of a 200-mesh sieve (JIS standard), wherein the powder cellulose is a non-granulated cellulose powder having an average particle size of 10 to 50 μm. powder cellulose; a surfactant, and granules having a particle size permitting passage of a 30-mesh (JIS standard) sieve but not permitting passage of a 200-mesh sieve (JIS standard), wherein the powder cellulose is a non-granulated cellulose powder having an average particle size of 10 to 50 μm.
A system for determining a temperature in an environment, comprising: (a) a semi-conductor optical device which comprises one active component adapted to operate as both a light-emitting device and a light detection device; (b) a photo luminescent material adapted to be disposed within the environment wherein the photo luminescent material has an excitation band that overlaps a portion of the material's emission band which in turn both overlap a portion of the emission band of the semi-conductor optical component; (c) an optical fiber disposed between the semi-conductor optical device and the photo luminescent material for transmitting incident light from the semi-conductor optical device configured as a photo-emitter to the photoluminescent material, and for transmitting photoluminescent light from the photoluminescent material to the same semi-conductor optical device configured as photo-detector; (d) a circuit for driving the optical device including a switch; and (e) a processor operatively connected to the driving circuit and configured to execute a method comprising the steps of driving the optical device to emit a pulse of incident light, thereby producing photoluminescent light from the photoluminescent material, receiving the photoluminescent light with the optical device, and creating signal information associated with a temperature-dependent characteristic of the photoluminescent light, and deriving temperature information from the signal information. (a) a semi-conductor optical device which comprises one active component adapted to operate as both a light-emitting device and a light detection device; (b) a photo luminescent material adapted to be disposed within the environment wherein the photo luminescent material has an excitation band that overlaps a portion of the material's emission band which in turn both overlap a portion of the emission band of the semi-conductor optical component; (c) an optical fiber disposed between the semi-conductor optical device and the photo luminescent material for transmitting incident light from the semi-conductor optical device configured as a photo-emitter to the photoluminescent material, and for transmitting photoluminescent light from the photoluminescent material to the same semi-conductor optical device configured as photo-detector; (d) a circuit for driving the optical device including a switch; and (e) a processor operatively connected to the driving circuit and configured to execute a method comprising the steps of driving the optical device to emit a pulse of incident light, thereby producing photoluminescent light from the photoluminescent material, receiving the photoluminescent light with the optical device, and creating signal information associated with a temperature-dependent characteristic of the photoluminescent light, and deriving temperature information from the signal information.
Method for determining an aggregate of bad weather on a route to be travelled by a user with a locomotion means, wherein a speed model of said locomotion means is constructed, wherein the following steps are carried out by computing means: a) the position of departure and the position of arrival of said locomotion means are determined; b) at least one route to be travelled between said position of departure and said position of arrival is determined; c) a plurality of points on said route are identified, said points of said route being regularly spaced apart; d) with each point of said route a time-variable meteorological parameter is associated, said meteorological parameter being linked to the atmospheric influence forecasts, said meteorological parameter being determined by means of an online weather forecast service; and e) an aggregate of bad weather on said route is determined by the sum of said meteorological parameter at said points of said route, by determining the time of passage at said points by said user by means of said speed model of said locomotion means applied to said route, characterized in that said speed model of said locomotion means estimates the speed of said locomotion means as a function of the type of locomotion means, and in that said speed model is a function of at least one parameter chosen from among the type of road, the inclination of the road, the power developed by said locomotion means, the spacing between the points being determined according to the spatial precision of said online weather forecast service used in the step d). a) the position of departure and the position of arrival of said locomotion means are determined; b) at least one route to be travelled between said position of departure and said position of arrival is determined; c) a plurality of points on said route are identified, said points of said route being regularly spaced apart; d) with each point of said route a time-variable meteorological parameter is associated, said meteorological parameter being linked to the atmospheric influence forecasts, said meteorological parameter being determined by means of an online weather forecast service; and e) an aggregate of bad weather on said route is determined by the sum of said meteorological parameter at said points of said route, by determining the time of passage at said points by said user by means of said speed model of said locomotion means applied to said route,
Modular system consisting of a plurality of stackable, statically self-supporting modules (10; 20; 30; 50; 60; 83), each with a base surface and a top surface parallel thereto, with casing sections (33; 35; 52; 55; 61) spanned between them and flights of stairs arranged thereon to create a stair tower, - with a base module for forming a structural connection to a foundation of the stair tower, - with a number of staircase modules (30; 50; 60; 83) and - with an end module as the upper end of the staircase and the stair tower, characterized in that the statistically self-supporting modules (10; 20; 30; 50; 60; 83) are formed from steel discs and have geometrically corresponding interfaces (42; 44) for constructive coupling to one another. - with a base module for forming a structural connection to a foundation of the stair tower, - with a number of staircase modules (30; 50; 60; 83) and - with an end module as the upper end of the staircase and the stair tower,
A computing system disposed within a remote network management platform and configured to support a managed network, the computing system comprising: a processor; and memory storing program instructions that, upon execution by the processor, cause the processor to perform operations comprising: monitoring respective performance of a plurality of network entities of the managed network, wherein each network entity of the plurality of network entities is associated with a service of the managed network or a computing device of the managed network; for each of the plurality of network entities, issuing an event notification in response to determining that the monitored respective performance is below a respective threshold performance level; predicting a statistical likelihood that an additional event notification will be issued based on analysis of a group of event notifications that includes one or more of the issued event notifications; and reporting a prediction score to indicate the statistical likelihood for the additional event notification in response to the statistical likelihood exceeding a score threshold. a processor; and memory storing program instructions that, upon execution by the processor, cause the processor to perform operations comprising: monitoring respective performance of a plurality of network entities of the managed network, wherein each network entity of the plurality of network entities is associated with a service of the managed network or a computing device of the managed network; for each of the plurality of network entities, issuing an event notification in response to determining that the monitored respective performance is below a respective threshold performance level; predicting a statistical likelihood that an additional event notification will be issued based on analysis of a group of event notifications that includes one or more of the issued event notifications; and reporting a prediction score to indicate the statistical likelihood for the additional event notification in response to the statistical likelihood exceeding a score threshold. monitoring respective performance of a plurality of network entities of the managed network, wherein each network entity of the plurality of network entities is associated with a service of the managed network or a computing device of the managed network; for each of the plurality of network entities, issuing an event notification in response to determining that the monitored respective performance is below a respective threshold performance level; predicting a statistical likelihood that an additional event notification will be issued based on analysis of a group of event notifications that includes one or more of the issued event notifications; and reporting a prediction score to indicate the statistical likelihood for the additional event notification in response to the statistical likelihood exceeding a score threshold.
Luminaire comprising: - a light source for producing light, - a reflector for influencing the light and - a refractive element for further influencing the light, wherein the refractive element is curved in shape and comprises a surface, wherein the luminaire is so designed that the surface forms a light emitting surface of the refractive element for the light, wherein the surface is concavely curved, at least in an initial approximation, wherein a light emitting region of the luminaire is formed by an edge of the reflector, which has a diameter, wherein a plane is defined by the edge of the reflector, characterized in that the surface of the refractive element is provided with a prism structure, wherein the light source comprises a board arranged aligned in a further plane (E'), wherein a normal of the further plane (E') forms an angle (α) between 40° and 80° with the first-mentioned plane, wherein the refractive element is directly adjacent to a reflective inner wall section of the reflector, wherein the refractive element comprises integrally-formed retaining elements which engage in corresponding recesses of the reflector to hold the refractive element on the reflector. - a light source for producing light, - a reflector for influencing the light and - a refractive element for further influencing the light,
Precipitation method of at least one solute, comprising mixing of a liquid phase containing the solute and a second liquid phase containing a reagent causing the solute to precipitate in a vessel (1;3), stirring of the mixture and removal of the precipitate, characterised in that it comprises confinement of the mixture in emulsion in a third, chemically inert, liquid phase, non-miscible with the first liquid phase and the second liquid phase.
A method for manufacturing electrical trigger elements for pyrotechnic objects, characterized in that, in a first stage, a) a lacquer is photolithographically applied to a non-electrically conductive substrate, b) a PVD process is used to apply a conductive material in a layer thickness of 0.02 μm to 8.0 μm and with a specific resistance of 0.1 Ω*mm to 5.0 Ω*mm onto the lacquer and substrate, and c) the lacquer is dissolved from the substrate, and in a second stage, d) a photolithographic process is again executed, in which a precisely defined area of the resistance strip is covered with photoresist, e) the entire substrate surface is coated with a 0.1 μm to 20 μm thick layer of a metal having a specific resistance of 0.01 Ω*mm to 0.1 Ω*mm, wherein the metal is applied in such a way that no metal adheres in areas having blank substrate from the first photolithographic process, and f) the lacquer from the second photolithographic process is again dissolved. a) a lacquer is photolithographically applied to a non-electrically conductive substrate, b) a PVD process is used to apply a conductive material in a layer thickness of 0.02 μm to 8.0 μm and with a specific resistance of 0.1 Ω*mm to 5.0 Ω*mm onto the lacquer and substrate, and c) the lacquer is dissolved from the substrate, and in a second stage, d) a photolithographic process is again executed, in which a precisely defined area of the resistance strip is covered with photoresist, e) the entire substrate surface is coated with a 0.1 μm to 20 μm thick layer of a metal having a specific resistance of 0.01 Ω*mm to 0.1 Ω*mm, wherein the metal is applied in such a way that no metal adheres in areas having blank substrate from the first photolithographic process, and f) the lacquer from the second photolithographic process is again dissolved.