mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: collecting user information for a user of a data processing device, including collecting machine-based statistics associated with the user and personal information associated with the user, including collecting one or more performance metrics for various stages of a graphics processing pipeline of a graphics processor of the data processing device, wherein depending upon workload characteristics some parts of the graphics processing pipeline are more active than other parts; generating a user profile for the user of the data processing device from the user information; categorizing the user into one of a plurality of power consumption categories based on the user profile; setting a power profile of the graphics processor in the data processing device using the user profile and the categorization of the user in combination with feedback from a machine learning algorithm, including individually adjusting frequency of the stages of the graphics processing pipeline of the graphics processor based at least in part on the user profile and the one or more collected performance metrics. collecting user information for a user of a data processing device, including collecting machine-based statistics associated with the user and personal information associated with the user, including collecting one or more performance metrics for various stages of a graphics processing pipeline of a graphics processor of the data processing device, wherein depending upon workload characteristics some parts of the graphics processing pipeline are more active than other parts; generating a user profile for the user of the data processing device from the user information; categorizing the user into one of a plurality of power consumption categories based on the user profile; setting a power profile of the graphics processor in the data processing device using the user profile and the categorization of the user in combination with feedback from a machine learning algorithm, including individually adjusting frequency of the stages of the graphics processing pipeline of the graphics processor based at least in part on the user profile and the one or more collected performance metrics.
An IL-33 axis binding antagonist for use in treating a patient suffering from asthma, wherein the genotype of the patient has been determined to comprise two or more of the following: a G allele at polymorphism rs4988956 (SEQ ID NO: 1); an A allele at polymorphism rs10204137 (SEQ ID NO: 2); a C allele at polymorphism rs10192036 (SEQ ID NO: 3); a C allele at polymorphism rs10192157 (SEQ ID NO: 4); and/or a T allele at polymorphism rs10206753 (SEQ ID NO: 5); wherein the IL-33 axis binding antagonist is an IL-33 binding antagonist, an ST2 binding antagonist, or an IL-1RAcP binding antagonist.
A method of operation of a navigation system to coordinate navigation between multiple users, the method comprising: determining, by one or more processors, that a first user intends to navigate to a shared destination from a first location, at a first time; determining, by the one or more processors, that a second user intends to navigate to the shared destination from a second location, at a second time within a threshold interval of the first time; applying a machine learning model to first data related to the first user and second data related to the second user to generate a confidence score indicative of a probability that the first user and the second user will choose to coordinate navigation to the shared destination; in response to determining that the confidence score is above a certain threshold value, notifying, by the one or more processors, the first user using an electronic notification that the second user intends to navigate to the shared destination; receiving, from the first user, an electronic request to coordinate navigation to the shared destination with the second user; and in response to receiving the electronic request, providing, during navigation, navigation directions to the shared destination to a device associated with the first user in view of a progress of the second user toward the shared destination. determining, by one or more processors, that a first user intends to navigate to a shared destination from a first location, at a first time; determining, by the one or more processors, that a second user intends to navigate to the shared destination from a second location, at a second time within a threshold interval of the first time; applying a machine learning model to first data related to the first user and second data related to the second user to generate a confidence score indicative of a probability that the first user and the second user will choose to coordinate navigation to the shared destination; in response to determining that the confidence score is above a certain threshold value, notifying, by the one or more processors, the first user using an electronic notification that the second user intends to navigate to the shared destination; receiving, from the first user, an electronic request to coordinate navigation to the shared destination with the second user; and in response to receiving the electronic request, providing, during navigation, navigation directions to the shared destination to a device associated with the first user in view of a progress of the second user toward the shared destination.
A brewing module for preparing a brewed drink from a portion capsule, comprising: • a housing ; • a first brewing module part and a second brewing module part , which is movable relative to the housing between a first brewing module part position and a second brewing module part position, wherein a brewing chamber is formed in the second brewing module part position, said brewing chamber at least partly surrounding the portion capsule being located in the brewing position with the brewing procedure, wherein the brewing module is configured to brew a brewed drink by way of introducing a brewing fluid into the first capsule and to discharge this out of the portion capsule; • an operating element , which can be brought manually from a first into a second operating element position, • a transmission mechanism for transmitting a movement of the operating element into a movement of the second brewing module part relative to the housing, wherein the transmission mechanism comprises a cam disc which mounted on the housing , in a manner being rotatable by the operating element , the cam disc having a first guide surface , wherein the second brewing module part, by way of the first guide surface, is displaceable along a displacement stretch being fixed with respect to the housing, from the first brewing module part position into the second brewing module part position by way of the cam disc being rotated, characterized in that the first guide surface defines a transmission ratio which is variable along the first guide surface. • a housing ; • a first brewing module part and a second brewing module part , which is movable relative to the housing between a first brewing module part position and a second brewing module part position, wherein a brewing chamber is formed in the second brewing module part position, said brewing chamber at least partly surrounding the portion capsule being located in the brewing position with the brewing procedure, wherein the brewing module is configured to brew a brewed drink by way of introducing a brewing fluid into the first capsule and to discharge this out of the portion capsule; • an operating element , which can be brought manually from a first into a second operating element position, • a transmission mechanism for transmitting a movement of the operating element into a movement of the second brewing module part relative to the housing,
A tube coupling to receive and hold a tube (T), the coupling comprising: a coupling body having a throughway open at one end to receive a portion of the tube (T); a collet comprising an annular portion received in an open end of the coupling body and having an outwardly projecting annular flange to allow insertion of the tube (T) into the collet and having a plurality of legs with outer surfaces that engage with a tapered surface in the coupling body which urges the legs inwardly to resist withdrawal of the tube (T) and a biasing member which provides a biasing force without the tube inserted to urge the legs axially onto the tapered surface ; characterised in that the tube coupling further comprises a tubular insert receivable in the end of the tube (T), the tubular insert having a first portion insertable into the portion of the tube (T) and a second portion receivable in the coupling body , the first portion having a seal to seal with an inner diameter of the tube when the first portion is inserted into the portion of the tube (T), and the second portion having a seal to seal with the coupling body . a coupling body having a throughway open at one end to receive a portion of the tube (T); a collet comprising an annular portion received in an open end of the coupling body and having an outwardly projecting annular flange to allow insertion of the tube (T) into the collet and having a plurality of legs with outer surfaces that engage with a tapered surface in the coupling body which urges the legs inwardly to resist withdrawal of the tube (T) and a biasing member which provides a biasing force without the tube inserted to urge the legs axially onto the tapered surface ; characterised in that the tube coupling further comprises a tubular insert receivable in the end of the tube (T), the tubular insert having a first portion insertable into the portion of the tube (T) and a second portion receivable in the coupling body , the first portion having a seal to seal with an inner diameter of the tube when the first portion is inserted into the portion of the tube (T), and the second portion having a seal to seal with the coupling body .
A method of handling persimmons comprising, exposing the persimmons to an atmosphere that contains a cyclopropene compound, wherein the persimmons are in a modified-atmosphere package during exposure to the cyclopropene compound and the persimmons remain in the modified atmosphere package after the exposure for at least two hours and further wherein the modified-atmosphere package is constructed so that the transmission rate of oxygen for the entire package is from 200 to 40,000 cubic centimeters per day per kilogram of persimmons and the cyclopropene compound during the exposure is at a concentration between 10 ppb and 5 ppm by volume of the atmosphere.
A signal processing device comprising: a noise detection unit comprising a microphone array configured to detect control area internal noise generated in a control area formed by the microphone array ; a speaker array ; an adaptive filter unit configured to generate a signal for an output sound to be output by the speaker array on a basis of a signal obtained by sound collection using the microphone array and a filter coefficient; and a control unit configured to control update of the filter coefficient of the adaptive filter, on a basis of a detection result of the control area internal noise in order to reduce external noise to a noise canceling area formed by the speaker array , wherein the microphone array comprises a reference microphone array and an error microphone array ; wherein the reference microphone array is arranged linear side by side in a rectangular frame shape and the error microphone array is arranged linear side by side in a rectangular frame shape, wherein the speaker array comprises a rectangular frame shaped speaker array including four linear speaker arrays arranged in an area surrounded by the rectangular frame-shaped reference microphone array ; and wherein the rectangular frame-shaped error microphone array is arranged in an area surrounded by the rectangular frame-shaped speaker array . a noise detection unit comprising a microphone array configured to detect control area internal noise generated in a control area formed by the microphone array ; a speaker array ; an adaptive filter unit configured to generate a signal for an output sound to be output by the speaker array on a basis of a signal obtained by sound collection using the microphone array and a filter coefficient; and a control unit configured to control update of the filter coefficient of the adaptive filter, on a basis of a detection result of the control area internal noise in order to reduce external noise to a noise canceling area formed by the speaker array , wherein the microphone array comprises a reference microphone array and an error microphone array ; wherein the reference microphone array is arranged linear side by side in a rectangular frame shape and the error microphone array is arranged linear side by side in a rectangular frame shape, wherein the speaker array comprises a rectangular frame shaped speaker array including four linear speaker arrays arranged in an area surrounded by the rectangular frame-shaped reference microphone array ; and wherein the rectangular frame-shaped error microphone array is arranged in an area surrounded by the rectangular frame-shaped speaker array .
An airbag apparatus equipped in a vehicle seat having a seat cushion that forms a seating surface and a seat back that forms a backrest, comprising: an inflator that generates inflation gas; and an airbag housed within at least the seat back and deployed by inflation gas released from the inflator; wherein: the airbag includes a pair of left and right side chambers that deploy towards the front from a side portion of the seat back ; the airbag is rolled in a direction that intersects the longitudinal direction from a flat unfolded state prior to being housed or folded to be compressed into a long bar shape; characterized in that the airbag includes an upper chamber that deploys above the head of a passenger, and a folded portion is formed by folding at least a location corresponding to the upper chamber of the long bar shaped airbag to house the folded portion above the seat back , and the folded portion deploys so as to get over the headrest of the vehicle seat and cover the upper portion of the head of a passenger. an inflator that generates inflation gas; and an airbag housed within at least the seat back and deployed by inflation gas released from the inflator; wherein: the airbag includes a pair of left and right side chambers that deploy towards the front from a side portion of the seat back ; the airbag is rolled in a direction that intersects the longitudinal direction from a flat unfolded state prior to being housed or folded to be compressed into a long bar shape; the airbag includes a pair of left and right side chambers that deploy towards the front from a side portion of the seat back ; the airbag is rolled in a direction that intersects the longitudinal direction from a flat unfolded state prior to being housed or folded to be compressed into a long bar shape;
A method for manufacturing a bonded wafer comprising: an ion implantation step of ion implantation into a bond wafer from a surface of the bond wafer to form an ion implanted layer using a batch processing ion implanter, the batch processing ion implanter comprising a rotor and a plurality of wafer holders that are provided to the rotor and have substrates arranged thereon and implanting ions into the plurality of substrates that are arranged on the wafer holders and revolve; a bonding step of bonding the ion implanted surface of the bond wafer to a surface of a base wafer directly or through an insulator film; and a delamination step of delaminating the bond wafer at the ion implanted layer, thereby manufacturing a bonded wafer having a thin film on the base wafer, wherein the ion implantation into the bond wafer is performed in the ion implantation step by irradiating the surface of the bond wafer with a beam of a light element ion without forming an insulator film on the surface of the bond wafer or through an insulator film having a thickness of 50 nm or less formed on the surface of the bond wafer at an implantation angle inclined from a crystal axis of the bond wafer; and the entire surface of the bond wafer is irradiated with the beam of a light element ion in such a way that the center of the beam of a light element ion shines at a position on the surface of the bond wafer shifted from the center of the bond wafer in a parallel direction with a direction to the center of the rotor by a predetermined amount. an ion implantation step of ion implantation into a bond wafer from a surface of the bond wafer to form an ion implanted layer using a batch processing ion implanter, the batch processing ion implanter comprising a rotor and a plurality of wafer holders that are provided to the rotor and have substrates arranged thereon and implanting ions into the plurality of substrates that are arranged on the wafer holders and revolve; a bonding step of bonding the ion implanted surface of the bond wafer to a surface of a base wafer directly or through an insulator film; and a delamination step of delaminating the bond wafer at the ion implanted layer, thereby manufacturing a bonded wafer having a thin film on the base wafer, wherein the ion implantation into the bond wafer is performed in the ion implantation step by irradiating the surface of the bond wafer with a beam of a light element ion without forming an insulator film on the surface of the bond wafer or through an insulator film having a thickness of 50 nm or less formed on the surface of the bond wafer at an implantation angle inclined from a crystal axis of the bond wafer; and the entire surface of the bond wafer is irradiated with the beam of a light element ion in such a way that the center of the beam of a light element ion shines at a position on the surface of the bond wafer shifted from the center of the bond wafer in a parallel direction with a direction to the center of the rotor by a predetermined amount.
A radio test system for testing a device under test , comprising: - a signal generation unit configured to generate a downlink signal to be transmitted to the device under test for over-the-air testing, - at least one antenna configured to transmit the downlink signal via an over-the-air transmission channel to the device under test , - a receiver configured to receive a response signal via the over-the-air transmission channel from the device under test so that the over-the-air transmission channel established between the device under test and the radio test system is measured over-the-air, - a control and analyzing unit configured to determine the over-the-air transmission channel being mathematically defined by a channel matrix, and wherein the control and analyzing unit has access to the signals transmitted and received in order to retrieve input data being necessary for determining the channel matrix, - at least one over-the-air adapter that is connected to the signal generation unit , wherein the over-the-air adapter is configured to adapt the downlink signal to be transmitted by using the channel matrix such that the over-the-air transmission channel is equalized, and - a simulation unit configured to simulate an application and/or testing environment of the device under test , wherein the radio test system comprises an antenna array having several antennas , including the at least one antenna , wherein the control and analyzing unit is configured to control the several antennas to act as transmission antennas and/or receiving antennas , wherein, besides the at least one antenna , additional antennas are switched on for testing such that the number of active antennas at least simplifies a determination of a left inverse of the channel matrix. - a signal generation unit configured to generate a downlink signal to be transmitted to the device under test for over-the-air testing, - at least one antenna configured to transmit the downlink signal via an over-the-air transmission channel to the device under test , - a receiver configured to receive a response signal via the over-the-air transmission channel from the device under test so that the over-the-air transmission channel established between the device under test and the radio test system is measured over-the-air, - a control and analyzing unit configured to determine the over-the-air transmission channel being mathematically defined by a channel matrix, and wherein the control and analyzing unit has access to the signals transmitted and received in order to retrieve input data being necessary for determining the channel matrix, - at least one over-the-air adapter that is connected to the signal generation unit , wherein the over-the-air adapter is configured to adapt the downlink signal to be transmitted by using the channel matrix such that the over-the-air transmission channel is equalized, and - a simulation unit configured to simulate an application and/or testing environment of the device under test , wherein
A receiving apparatus comprising means arranged to detect transmission bursts in an unlicensed band, the means_configured to determine at least one control resource set having transmission properties, monitor for transmission of a reference signal for transmission burst detection associated with the at least one control resource set, wherein the reference signal associated with the at least one control resource set is transmitted via the entire at least one control resource set, and detect the reference signal for transmission burst detection based on at least one transmission property of the at least one associated control resource set and at least one additional transmission property, wherein the at least one transmission property of the at least one associated control resource set comprises at least one of sequence precoding, resource element group bundle size, demodulation reference signal sequence, and quasi-collocation properties and the at least one additional transmission property comprises time and/or frequency domain resource element allocation of the reference signal. determine at least one control resource set having transmission properties, monitor for transmission of a reference signal for transmission burst detection associated with the at least one control resource set, wherein the reference signal associated with the at least one control resource set is transmitted via the entire at least one control resource set, and detect the reference signal for transmission burst detection based on at least one transmission property of the at least one associated control resource set and at least one additional transmission property, wherein the at least one transmission property of the at least one associated control resource set comprises at least one of sequence precoding, resource element group bundle size, demodulation reference signal sequence, and quasi-collocation properties and the at least one additional transmission property comprises time and/or frequency domain resource element allocation of the reference signal.