mhurhangee/patent-ind-claim-en huggingface dataset:
A method of a wireless communication device, the method comprising: executing a video player application to play a movie; detecting a reception of a message while playing the movie in the executing video player application; displaying a notification window associated with the received message in response to detecting the reception of the message while continuing to play the movie in the executing video player application; displaying a first portion of content of the received message in the notification window; and in response to detecting a first touch input on the notification window, displaying a second portion of content of the received message in the notification window while continuing to play the movie in the executing video player application; wherein the size of the notification window is fixed; and wherein the second portion of content comprises the first portion of content and another portion of content, or comprises the another portion of content. executing a video player application to play a movie; detecting a reception of a message while playing the movie in the executing video player application; displaying a notification window associated with the received message in response to detecting the reception of the message while continuing to play the movie in the executing video player application; displaying a first portion of content of the received message in the notification window; and in response to detecting a first touch input on the notification window, displaying a second portion of content of the received message in the notification window while continuing to play the movie in the executing video player application; wherein the size of the notification window is fixed; and wherein the second portion of content comprises the first portion of content and another portion of content, or comprises the another portion of content.
A computer-implemented method for the identification of a situation of interest in an industrial process of an industrial plant comprising: activating a set of industrial process fingerprints , wherein the set of industrial process fingerprints comprises hulls representing bounds of a set of reference process variables (X) from a plurality of sensors monitoring the industrial process over a set of reference time periods, wherein the hulls are replaced by smoothed hulls, wherein the reference process variables (X) are smoothed based on a smoothing parameter ρ for creating the smoothed hulls prior to creating the set of industrial process fingerprints , wherein the industrial process data is at least one of discrete data sets, categorical data sets, ordinal data sets or continuous data sets; loading the activated set of industrial process fingerprints into a processor; acquiring industrial process data by a management device from one or more of the plurality of sensors monitoring the industrial process; calculating a smoothed distance between the acquired industrial process data and one or more of the activated set of industrial process fingerprints by replacing the hulls with the smoothed hulls; comparing the calculated distance to a threshold value to determine whether a situation of interest in the industrial process of the industrial plant represented by one or more of the activated set of industrial process fingerprints is present; and initiating an action by a feedback device on detection of the threshold value by the management device based on the industrial process fingerprint . activating a set of industrial process fingerprints , wherein the set of industrial process fingerprints comprises hulls representing bounds of a set of reference process variables (X) from a plurality of sensors monitoring the industrial process over a set of reference time periods, wherein the hulls are replaced by smoothed hulls, wherein the reference process variables (X) are smoothed based on a smoothing parameter ρ for creating the smoothed hulls prior to creating the set of industrial process fingerprints , wherein the industrial process data is at least one of discrete data sets, categorical data sets, ordinal data sets or continuous data sets; loading the activated set of industrial process fingerprints into a processor; acquiring industrial process data by a management device from one or more of the plurality of sensors monitoring the industrial process; calculating a smoothed distance between the acquired industrial process data and one or more of the activated set of industrial process fingerprints by replacing the hulls with the smoothed hulls; comparing the calculated distance to a threshold value to determine whether a situation of interest in the industrial process of the industrial plant represented by one or more of the activated set of industrial process fingerprints is present; and initiating an action by a feedback device on detection of the threshold value by the management device based on the industrial process fingerprint .
Device for filling with liquefied gas comprising a fluid circuit provided with a first pipe for liquid transfer comprising a first end that is intended to be connected to a source of liquefied gas and a second end that is intended to be connected to a tank to be filled, a second pipe for gas transfer comprising a first end that is intended to be connected to the source of liquefied gas and a second end that is intended to be connected to said tank to be filled, the circuit comprising at least one third transfer pipe connecting the first and second transfer pipes, and a vent device connected to the first and second transfer pipes via a set of one or more safety valves, the circuit comprising a set of one or more valves for controlling the streams of fluid in the pipes of the circuit, the device comprising a system for gas flushing of the circuit, characterized in that the flushing system comprises a first source of pressurized gas, and a first set of one or more flushing pipes connecting the first source of pressurized gas in parallel both to the first and second transfer pipes via a set of one or more valves .
Drive device for a vehicle axle of a vehicle, having an electric machine (EM) which outputs to output shafts via a gearbox , which output shafts each lead to a vehicle wheel , wherein a cylindrical stator housing of the electric machine (EM) is elongated in the axial direction by a gearbox housing , wherein at least one screw point (S1) between the stator housing and the gearbox housing has a threaded bolt , which is guided through a non-threaded screw hole of the gearbox housing and is in threaded engagement with an internally threaded bore formed on the stator housing , characterized in that the non-threaded screw hole of the gearbox housing leads into the gearbox-housing interior, so that the bolt head of the threaded bolt is arranged in the gearbox-housing interior in the assembled state. wherein a cylindrical stator housing of the electric machine (EM) is elongated in the axial direction by a gearbox housing , wherein at least one screw point (S1) between the stator housing and the gearbox housing has a threaded bolt , which is guided through a non-threaded screw hole of the gearbox housing and is in threaded engagement with an internally threaded bore formed on the stator housing , characterized in that the non-threaded screw hole of the gearbox housing leads into the gearbox-housing interior, so that the bolt head of the threaded bolt is arranged in the gearbox-housing interior in the assembled state.
A microscope scanner comprising: a detector array for obtaining an image from a sample ; a sample holder adapted to hold the sample when in use, said sample holder being configured to move relative to the detector array ; a controller configured to issue position control signals so as to control the relative position of the sample holder ; and a motor configured to drive the sample holder to move to a plurality of target positions relative to the detector array during an imaging scan in accordance with the position control signals; wherein the sample holder is continuously moved relative to the detector array during the imaging scan; characterised in that the motor is a servomotor, and the plurality of target positions correspond to a target velocity profile stored on a memory accessed by the controller, the detector array configured to capture images at fixed distance intervals on the velocity profile based on the position control signals; wherein the controller controls the motor and the detector array so as to capture images of the sample during acceleration of the sample holder. a detector array for obtaining an image from a sample ; a sample holder adapted to hold the sample when in use, said sample holder being configured to move relative to the detector array ; a controller configured to issue position control signals so as to control the relative position of the sample holder ; and a motor configured to drive the sample holder to move to a plurality of target positions relative to the detector array during an imaging scan in accordance with the position control signals; wherein the sample holder is continuously moved relative to the detector array during the imaging scan; characterised in that the motor is a servomotor, and the plurality of target positions correspond to a target velocity profile stored on a memory accessed by the controller, the detector array configured to capture images at fixed distance intervals on the velocity profile based on the position control signals; wherein the controller controls the motor and the detector array so as to capture images of the sample during acceleration of the sample holder.
Thermally expandable composition, comprising (a) at least one epoxy-functional polymer EP, (b) optionally at least one thermoplastic polymer P, (c) at least one chemical blowing agent B, (d) at least one activator for said chemical blowing agent A, wherein said epoxy-functional polymer EP is present in the composition before expansion with an amount of between 30 and 75 wt.-%, based on the total composition, and said epoxy-functional polymer EP comprises at least 400 mmol epoxy groups per kg polymer EP, wherein the amount (in mmol) of epoxy groups per kg polymer is determined by ASTM D1652 or DIN 16945 standard methods or is calculated from the weight percentage of epoxy group-containing monomers in the case of a copolymer, and wherein said chemical blowing agent B is able to form at least one reaction product with at least two amino groups upon thermal decomposition and is selected from azo compounds, nitroso compounds, and carbamates, and said chemical blowing agent B is present in the composition before expansion with an amount of between 7 and 25 wt.-%, based on the total composition. (a) at least one epoxy-functional polymer EP, (b) optionally at least one thermoplastic polymer P, (c) at least one chemical blowing agent B, (d) at least one activator for said chemical blowing agent A, wherein said epoxy-functional polymer EP is present in the composition before expansion with an amount of between 30 and 75 wt.-%, based on the total composition, and said epoxy-functional polymer EP comprises at least 400 mmol epoxy groups per kg polymer EP, wherein the amount (in mmol) of epoxy groups per kg polymer is determined by ASTM D1652 or DIN 16945 standard methods or is calculated from the weight percentage of epoxy group-containing monomers in the case of a copolymer, and wherein said chemical blowing agent B is able to form at least one reaction product with at least two amino groups upon thermal decomposition and is selected from azo compounds, nitroso compounds, and carbamates, and said chemical blowing agent B is present in the composition before expansion with an amount of between 7 and 25 wt.-%, based on the total composition.
A method for memory allocation, the method comprising: determining a first amount of use for a first memory page and a second amount of use for a second memory page, wherein the first memory page is mapped to a first page group of a first group level and the second memory page is mapped to a second page group of the first group level, and the first memory page and the second memory page are mapped to a third page group of a second group level, wherein a group level refers to the number of consecutive pages within a page group; and selecting based an allocation request to allocate a number of one or more consecutive pages, one or more memory pages for allocation by searching a data structure comprising a tree , each node of said tree associated with a respective free list and an amount of use level, each free list including entries for one or more free memory pages at each said group level, said memory pages having the amount of use associated with their corresponding node, wherein the tree is searched by searching for a node having a specific amount of use , by progressively searching the group levels of the free list associated with said searched node and by selecting for allocation one or more memory pages of the free list based on the requested number of consecutive pages. determining a first amount of use for a first memory page and a second amount of use for a second memory page, wherein the first memory page is mapped to a first page group of a first group level and the second memory page is mapped to a second page group of the first group level, and the first memory page and the second memory page are mapped to a third page group of a second group level, wherein a group level refers to the number of consecutive pages within a page group; and selecting based an allocation request to allocate a number of one or more consecutive pages, one or more memory pages for allocation by searching a data structure comprising a tree , each node of said tree associated with a respective free list and an amount of use level, each free list including entries for one or more free memory pages at each said group level, said memory pages having the amount of use associated with their corresponding node, wherein the tree is searched by searching for a node having a specific amount of use , by progressively searching the group levels of the free list associated with said searched node and by selecting for allocation one or more memory pages of the free list based on the requested number of consecutive pages.
An infrared absorbing composition for forming an infrared cut filter for a solid image pickup element having the infrared cut filter, the infrared absorbing composition comprising: at least one infrared absorber having an absorption maximum at a wavelength of 650 nm or longer which is selected from a squarylium colorants; and a fluorine surfactant, wherein the squarylium colorants are represented by the following Formula , in Formula , A 1 and A 2 each independently represent an aryl group, a heterocyclic group, or a group represented by the following Formula , in Formula , Z 1 represents a non-metal atomic group for forming a nitrogen-containing heterocycle, R 2 represents an alkyl group, an alkenyl group, or an aralkyl group, d represents 0 or 1, and a wave line represents a direct bond to Formula , and the fluorine content in the fluorine surfactant is 3 to 40 mass%. at least one infrared absorber having an absorption maximum at a wavelength of 650 nm or longer which is selected from a squarylium colorants; and a fluorine surfactant, wherein the squarylium colorants are represented by the following Formula , in Formula , A 1 and A 2 each independently represent an aryl group, a heterocyclic group, or a group represented by the following Formula , in Formula , Z 1 represents a non-metal atomic group for forming a nitrogen-containing heterocycle, R 2 represents an alkyl group, an alkenyl group, or an aralkyl group, d represents 0 or 1, and a wave line represents a direct bond to Formula , and the fluorine content in the fluorine surfactant is 3 to 40 mass%.
A method for identifying damage on a compressor having an intake side and a discharge side, comprising the steps: (i) acquiring measurement data of the measurement variables intake pressure (p1) and intake temperature (T1) on the intake side and end pressure (p2) and end temperature (T2) on the discharge side; (ii) determining a calculated end temperature (T2b), a calculated intake temperature (T1b), a calculated end pressure (p2b) or a calculated intake pressure (p1b) as a target variable which represents a good state of the compressor, as a function of the measurement data of a maximum of three of the measurement variables (p1, T1, p2, T2) ; (iii) determining a comparison variable from at least one of the measurement variables (p1, T1, p2, T2) not used in step (ii); (iv) comparing the comparison variable and the target variable as a measure of damage on the compressor; characterized in that the target variable determined in step (ii) is determined according to an isentropic compression model including the isentropic exponent (κ) of the gas to be compressed and a correction factor (η), and the correction factor (η) is adjusted on the basis of measurement data. (i) acquiring measurement data of the measurement variables intake pressure (p1) and intake temperature (T1) on the intake side and end pressure (p2) and end temperature (T2) on the discharge side; (ii) determining a calculated end temperature (T2b), a calculated intake temperature (T1b), a calculated end pressure (p2b) or a calculated intake pressure (p1b) as a target variable which represents a good state of the compressor, as a function of the measurement data of a maximum of three of the measurement variables (p1, T1, p2, T2) ; (iii) determining a comparison variable from at least one of the measurement variables (p1, T1, p2, T2) not used in step (ii); (iv) comparing the comparison variable and the target variable as a measure of damage on the compressor;
Method for manufacturing an implant using a composite powder having microstructured particles, wherein the composite powder is initially obtained by joining large particles to small particles, wherein - the large particles have an average particle diameter in the range of 10 μm to 10 mm, - the large particles comprise at least one polymer, - the small particles are arranged on the surface of the large particles and/or distributed non-homogeneously within the large particles, - the small particles comprise a calcium salt, - the small particles have an average particle size in the range of 0.01 μm to 1.0 mm, and wherein the implant is then formed by selective laser sintering of a composition comprising the composite powder, characterised in that the particles of the composite powder have an average particle size d 50 in the range of 10 μm to less than 200 μm and the fine-grain proportion of the composite powder is less than 50% by volume. - the large particles have an average particle diameter in the range of 10 μm to 10 mm, - the large particles comprise at least one polymer, - the small particles are arranged on the surface of the large particles and/or distributed non-homogeneously within the large particles, - the small particles comprise a calcium salt, - the small particles have an average particle size in the range of 0.01 μm to 1.0 mm, and wherein the implant is then formed by selective laser sintering of a composition comprising the composite powder, characterised in that the particles of the composite powder have an average particle size d 50 in the range of 10 μm to less than 200 μm and the fine-grain proportion of the composite powder is less than 50% by volume.
LED module for operating based on light sensing, comprising at least two LEDs and a control unit for driving the at least two LEDs , the at least two LEDs comprising: • at least one emitting LED for emitting light, and • at least one sensing LED for sensing light and transferring a sensed signal to the control unit , wherein the control unit is configured to control the light output of the at least one emitting LED based on the sensed signal obtained by the at least one sensing LED , characterized in that the at least one emitting LED is a white LED, the at least one sensing LED is a second white LED, the second white LED comprising a blue LED and one or more color conversion material(s), and the control unit is configured to control the at least one emitting LED to emit light while obtaining the sensed signal by the at least one sensing LED , wherein the at least one sensing LED is configured to be only used for sensing, and wherein the at least one emitting LED is configured to be only used to emit light. at least two LEDs and a control unit for driving the at least two LEDs , the at least two LEDs comprising: • at least one emitting LED for emitting light, and • at least one sensing LED for sensing light and transferring a sensed signal to the control unit , • at least one emitting LED for emitting light, and • at least one sensing LED for sensing light and transferring a sensed signal to the control unit , wherein the control unit is configured to control the light output of the at least one emitting LED based on the sensed signal obtained by the at least one sensing LED , characterized in that the at least one emitting LED is a white LED, the at least one sensing LED is a second white LED, the second white LED comprising a blue LED and one or more color conversion material(s), and the control unit is configured to control the at least one emitting LED to emit light while obtaining the sensed signal by the at least one sensing LED , wherein the at least one sensing LED is configured to be only used for sensing, and wherein the at least one emitting LED is configured to be only used to emit light.
A method of a network node of a cellular communication system for configuring a first cell of the cellular communication system in relation to a second cell of the cellular communication system, wherein a coverage area of the first cell and a coverage area of the second cell at least partly overlap, wherein the first cell is to be provided by a first base station of the cellular communication system and has a first bandwidth, and wherein the second cell is provided by a second base station of the cellular communication system and has a second bandwidth which is larger than the first bandwidth, characterized by comprising: selecting an offset between a first carrier frequency of the first cell and a second carrier frequency of the second cell, wherein a first spectrum range defined by the first carrier frequency and the first bandwidth is comprised within a second spectrum range defined by the second carrier frequency and the second bandwidth, and wherein the offset is selected such that placement of resource elements of control signaling of the second cell is coordinated with placement of resource elements of control signaling of the first cell to reduce collision between the control signaling of the first cell and the control signaling of the second cell; and configuring the first base station to provide the first cell based on the first carrier frequency. selecting an offset between a first carrier frequency of the first cell and a second carrier frequency of the second cell, wherein a first spectrum range defined by the first carrier frequency and the first bandwidth is comprised within a second spectrum range defined by the second carrier frequency and the second bandwidth, and wherein the offset is selected such that placement of resource elements of control signaling of the second cell is coordinated with placement of resource elements of control signaling of the first cell to reduce collision between the control signaling of the first cell and the control signaling of the second cell; and configuring the first base station to provide the first cell based on the first carrier frequency.