mhurhangee/patent-ind-claim-en huggingface dataset:
An access network element of an access network, the access network element comprising: a radio interface component configured to communicate with a plurality of devices over an air interface; a pattern database configured to store a sharing pattern that maps radio resources on a physical layer of the air interface between Machine-Type Communications, MTC, radio resources and non-MTC radio resources; and a scheduling mechanism configured to identify a resource sharing window having an MTC-On interval where MTC transmissions are allowed, and having an MTC-Off interval where MTC transmissions are prohibited and between a threshold time, defined within the MTC-Off interval, and an end of the MTC-Off interval, the scheduling mechanism is operable to select an adjusted Modulation and Coding Scheme, MCS, for a legacy device of the plurality of devices that is lower than a standard MCS for the legacy device selected based on channel quality information for the legacy device, to allocate a set of the MTC radio resources to the legacy device based on the sharing pattern, and to schedule a non-MTC transmission for the legacy device on the set of the MTC radio resources based on the adjusted MCS. a radio interface component configured to communicate with a plurality of devices over an air interface; a pattern database configured to store a sharing pattern that maps radio resources on a physical layer of the air interface between Machine-Type Communications, MTC, radio resources and non-MTC radio resources; and a scheduling mechanism configured to identify a resource sharing window having an MTC-On interval where MTC transmissions are allowed, and having an MTC-Off interval where MTC transmissions are prohibited and between a threshold time, defined within the MTC-Off interval, and an end of the MTC-Off interval, the scheduling mechanism is operable to select an adjusted Modulation and Coding Scheme, MCS, for a legacy device of the plurality of devices that is lower than a standard MCS for the legacy device selected based on channel quality information for the legacy device, to allocate a set of the MTC radio resources to the legacy device based on the sharing pattern, and to schedule a non-MTC transmission for the legacy device on the set of the MTC radio resources based on the adjusted MCS.
A method of processing a service in a digital device for switching between a radio frequency, RF, mode and a charged broadcasting service mode executed by a set-top box, STB, application, the method comprising: displaying a first service including a real-time content in the RF mode, wherein the real-time content in the RF mode is received via a physical set top box or an antenna; downloading and installing at least one STB application in a memory from a corresponding server via a wired or wireless network, wherein the at least one STB application is configured to process a charged service in the charged broadcasting service mode; receiving a user input for displaying a list of an external input and displaying the list of the external input in response to the received user input; receiving a selection signal selecting the at least one STB application included in the displayed list of the external input; switching the RF mode into the charged broadcasting service mode in response to the selection signal; providing a charged broadcasting service in the charged broadcasting service mode, wherein the charged broadcasting service mode is executed by the at least one STB application downloaded in the memory, wherein the at least one STB application includes the functions of a physical set top box and wherein the charged broadcasting service mode is an IPTV mode. displaying a first service including a real-time content in the RF mode, wherein the real-time content in the RF mode is received via a physical set top box or an antenna; downloading and installing at least one STB application in a memory from a corresponding server via a wired or wireless network, wherein the at least one STB application is configured to process a charged service in the charged broadcasting service mode; receiving a user input for displaying a list of an external input and displaying the list of the external input in response to the received user input; receiving a selection signal selecting the at least one STB application included in the displayed list of the external input; switching the RF mode into the charged broadcasting service mode in response to the selection signal; providing a charged broadcasting service in the charged broadcasting service mode, wherein the charged broadcasting service mode is executed by the at least one STB application downloaded in the memory, wherein the at least one STB application includes the functions of a physical set top box and wherein the charged broadcasting service mode is an IPTV mode.
,A method of determining the electrical resistance of an actual harness R H ( θ H ), in an engine system , said harness connecting an Engine Control Unit (ECU) to one or more solenoid operated valves comprising a) providing, in addition to the actual harness, a dummy harness connected at one end to the ECU and at the other end to a terminal connection in the vicinity of the solenoid valve; b) determining an estimated RMS current (I s ) through the actual harness; c) passing a current through the dummy harness (I D ) such that the heat exchange to the environment is substantially the same as that in the actual harness; d) measuring the power consumption in the dummy harness; e) from the results from b) and d) determining the resistance of the actual harness. a) providing, in addition to the actual harness, a dummy harness connected at one end to the ECU and at the other end to a terminal connection in the vicinity of the solenoid valve; b) determining an estimated RMS current (I s ) through the actual harness; c) passing a current through the dummy harness (I D ) such that the heat exchange to the environment is substantially the same as that in the actual harness; d) measuring the power consumption in the dummy harness; e) from the results from b) and d) determining the resistance of the actual harness.
A seal (20; 120; 220) for a clothes dryer adapted to be interposed between a first part and a second part of said dryer , said seal (20; 120; 220) comprising a first portion (30; 130) adapted to be connected to said first part of said dryer and a second portion (40; 140; 240) adapted to be placed in contact with said second part of said dryer , wherein said second portion (40; 140; 240) comprises an at least partially curved stretch (42; 142; 242), characterized in that said at least partially curved stretch (42; 142; 242) comprises a flocked surface layer (42a; 142a) adapted to be placed in contact with said second part of said dryer , in that said flocked surface layer (42a; 142a) comprises fibers oriented perpendicularly to said second portion (40; 140; 240), and in that said fibers are electrostatically applied with the aid of an adhesive on said second portion (40; 140; 240).
An audio encoding device , for encoding N audio signals, from N microphones where N ≥ 3, the audio encoding device comprising: - a delay estimator , configured to estimate angles of incidence of direct sound by estimating for each pair of the N audio signals an angle of incidence of direct sound, - a beam deriver , configured to derive A-format direct sound signals from the estimated angles of incidence by deriving from each estimated angle of incidence an A-format direct sound signal, each A-format direct sound signal being a first-order virtual microphone signal, and - an encoder , configured to encode the A-format direct sound signals in first-order ambisonic B-format direct sound signals by applying a transformation matrix to the A-format direct sound signals. - a delay estimator , configured to estimate angles of incidence of direct sound by estimating for each pair of the N audio signals an angle of incidence of direct sound, - a beam deriver , configured to derive A-format direct sound signals from the estimated angles of incidence by deriving from each estimated angle of incidence an A-format direct sound signal, each A-format direct sound signal being a first-order virtual microphone signal, and - an encoder , configured to encode the A-format direct sound signals in first-order ambisonic B-format direct sound signals by applying a transformation matrix to the A-format direct sound signals.
Use of a compound having a carbazole ring structure represented by the following general formula as a host material for a dopant that emits delayed fluorescence: wherein A 1 and A 2 may be the same or different, and each represents a divalent group that results from the removal of two hydrogen atoms from an aromatic hydrocarbon selected from a benzene, a biphenyl, a naphthalene, a fluorene, or a phenanthrene; A 3 represents a divalent group that results from the removal of two hydrogen atoms from an aromatic hydrocarbon selected from a benzene, a biphenyl, a naphthalene, a fluorene, or a phenanthrene; B represents an aromatic heterocyclic group selected from a pyridyl, a bipyridyl, a terpyridyl, a pyrimidinyl, a pyrazinyl, a triazinyl, a quinolyl, an isoquinolyl, a quinoxalinyl, a quinazolinyl, a naphthyridinyl, a benzimidazolyl, a benzotriazolyl, a benzothiadiazolyl, a pyridopyrrolyl, a pyridoimidazolyl, a pyridotriazolyl, a phenanthrolinyl, or a carbolinyl; and provided that the aromatic hydrocarbon in A 1 , A 2 , or A 3 and the aromatic heterocyclic group in B may be substituted by a deuterium atom, a linear or branched alkyl of 1 to 6 carbon atoms, an alkenyl, an aryloxy, an aromatic hydrocarbon group, or an arylvinyl; and R 1 to R 15 may be the same or different, and each represents a hydrogen atom, a deuterium atom, linear or branched alkyl of 1 to 20 carbon atoms, cycloalkyl of 5 to 10 carbon atoms, linear or branched alkenyl of 2 to 20 carbon atoms, linear or branched alkyloxy of 1 to 20 carbon atoms, cycloalkyloxy of 5 to 10 carbon atoms, an aromatic hydrocarbon group, an aryloxy group, or a disubstituted amino group substituted with an aromatic hydrocarbon group, and may bind to each other via a single bond, a methylene, an oxygen atom, or a sulfur atom, to form a ring.
A fluid collection assembly , comprising: a fluid impermeable barrier including at least one interior surface defining a chamber , the fluid impermeable barrier defining at least one opening and a barrier outlet; at least one wicking material disposed in the chamber; a sample port defining at least one channel extending between at least a port inlet and an attachment port thereof, the attachment port being configured to switch between a closed state and an open state; and a sample container defining a sample compartment and a sample inlet configured to couple with the attachment port, the sample container including a check valve between the sample inlet and the sample compartment; and wherein coupling the sample inlet to the attachment port switches the attachment port from the closed state to the open state thereof, and wherein decoupling the sample inlet from the attachment port switches the attachment port from the open state to the closed state thereof. a fluid impermeable barrier including at least one interior surface defining a chamber , the fluid impermeable barrier defining at least one opening and a barrier outlet; at least one wicking material disposed in the chamber; a sample port defining at least one channel extending between at least a port inlet and an attachment port thereof, the attachment port being configured to switch between a closed state and an open state; and a sample container defining a sample compartment and a sample inlet configured to couple with the attachment port, the sample container including a check valve between the sample inlet and the sample compartment; and wherein coupling the sample inlet to the attachment port switches the attachment port from the closed state to the open state thereof, and wherein decoupling the sample inlet from the attachment port switches the attachment port from the open state to the closed state thereof.
A devulcanizing additive for vulcanized elastomers, in particular sulfur-vulcanized rubbers, consisting of - an acid-base adduct obtained starting from a dicarboxylic organic acid having a number of carbon atoms ranging from 2 to 18 and from urea or mono-, di- or tri-substituted derivatives of urea having the following formula wherein R 1 , R 2 and R 3 , the same as or different from each other, can be hydrogen, linear alkyl chains having from 2 to 18 carbon atoms, preferably from 2 to 10; - a peroxide, said peroxide being possibly mixed and absorbed on an inert inorganic filler, such as silicas, calcium carbonates, kaolins, aluminum silicates and clays, preferably absorbed on silica, calcium carbonate, aluminum silicates, kaolin or relative mixtures, more preferably on silica, calcium carbonate or relative mixtures; and - possibly, a compatibilizer selected from ethylene-vinyl acetate copolymer, zinc dimethylacrylate, NR-g-PDMMMP (grafted copolymer of natural rubber (NR) and poly(dimethyl(methacryloyloxymethyl)phosphonate (PDMMMP)), liquid butadiene-isoprene copolymer rubber, GMA & MAH (grafted polyolefin polymers), epoxidized natural rubber, trans-polyoctenamer (TOR) and mixtures thereof, wherein the acid-base adduct is obtained starting from organic dicarboxylic acid and urea or mono, di or trisubstituted derivatives of urea, in a molar ratio ranging from 1:1 to 1:2. - an acid-base adduct obtained starting from a dicarboxylic organic acid having a number of carbon atoms ranging from 2 to 18 and from urea or mono-, di- or tri-substituted derivatives of urea having the following formula wherein R 1 , R 2 and R 3 , the same as or different from each other, can be hydrogen, linear alkyl chains having from 2 to 18 carbon atoms, preferably from 2 to 10; - a peroxide, said peroxide being possibly mixed and absorbed on an inert inorganic filler, such as silicas, calcium carbonates, kaolins, aluminum silicates and clays, preferably absorbed on silica, calcium carbonate, aluminum silicates, kaolin or relative mixtures, more preferably on silica, calcium carbonate or relative mixtures; and - possibly, a compatibilizer selected from ethylene-vinyl acetate copolymer, zinc dimethylacrylate, NR-g-PDMMMP (grafted copolymer of natural rubber (NR) and poly(dimethyl(methacryloyloxymethyl)phosphonate (PDMMMP)), liquid butadiene-isoprene copolymer rubber, GMA & MAH (grafted polyolefin polymers), epoxidized natural rubber, trans-polyoctenamer (TOR) and mixtures thereof,
A method of object detection in a scene represented by depth data of a range detection sensor and image data of a camera, the method comprising: projecting the depth data onto the image data to generate projected depth data, wherein projecting the depth data onto the image data comprises generating a transformation matrix comprising a rotation and translation portion for transforming a coordinate system of the depth data to a coordinate system of the image data, wherein generating the transformation matrix comprises determining the transformation matrix T maximizing the expression S T = ∑ ƒ = 1 N ∑ i X i ƒ T ⋅ E i ƒ , wherein N denotes a number of images, i denotes the i -th pixel in a depth data point cloud X i ƒ , and E i ƒ denotes the i -th pixel in an edge image E derived from the image data; encoding the projected depth data to multi-channel information to generate encoded projected depth data; and feeding the image data and the encoded projected depth data into one or more convolutional neural networks configured to detect or classify objects in the scene using the image data and the encoded projected depth data. projecting the depth data onto the image data to generate projected depth data, wherein projecting the depth data onto the image data comprises generating a transformation matrix comprising a rotation and translation portion for transforming a coordinate system of the depth data to a coordinate system of the image data, wherein generating the transformation matrix comprises determining the transformation matrix T maximizing the expression S T = ∑ ƒ = 1 N ∑ i X i ƒ T ⋅ E i ƒ , wherein N denotes a number of images, i denotes the i -th pixel in a depth data point cloud X i ƒ , and E i ƒ denotes the i -th pixel in an edge image E derived from the image data; encoding the projected depth data to multi-channel information to generate encoded projected depth data; and feeding the image data and the encoded projected depth data into one or more convolutional neural networks configured to detect or classify objects in the scene using the image data and the encoded projected depth data.
Onboard electrical power supply network in a vehicle comprising a plurality of electrical energy sources , comprising at least two distribution boxes each comprising: - at least one internal distribution bus that can be connected to said electrical energy sources; - at least two output switches each for supplying power to at least one electrical consumer distinct from the vehicle from the internal distribution bus; - a driver processor for driving said output switches so as to distribute a consumption load between the electrical consumers in association with different operating modes of the vehicle, the network comprising a coupling box connected to each electrical energy source and a set of electrical wires (81-86, 91-98) to connect each distribution box (311-313, 511-513) to each coupling box , the network being characterized in that each coupling box comprises: - a selector comprising a plurality of switching paths all connected upstream to the same pole (+) of an energy source , and each connected downstream to an electrical wire exiting the coupling box; - a control processor for controlling the selector in order to control and monitor an on/off state of each path connected to that of the electrical wires to which said same energy source pole is assigned. - at least one internal distribution bus that can be connected to said electrical energy sources; - at least two output switches each for supplying power to at least one electrical consumer distinct from the vehicle from the internal distribution bus; - a driver processor for driving said output switches so as to distribute a consumption load between the electrical consumers in association with different operating modes of the vehicle, the network comprising a coupling box connected to each electrical energy source and a set of electrical wires (81-86, 91-98) to connect each distribution box (311-313, 511-513) to each coupling box , the network being characterized in that each coupling box comprises: - a selector comprising a plurality of switching paths all connected upstream to the same pole (+) of an energy source , and each connected downstream to an electrical wire exiting the coupling box; - a control processor for controlling the selector in order to control and monitor an on/off state of each path connected to that of the electrical wires to which said same energy source pole is assigned. - a selector comprising a plurality of switching paths all connected upstream to the same pole (+) of an energy source , and each connected downstream to an electrical wire exiting the coupling box; - a control processor for controlling the selector in order to control and monitor an on/off state of each path connected to that of the electrical wires to which said same energy source pole is assigned.
A system for processing audio files for radio broadcast, the system comprising: an Internet network interface ; and a first server including: a first port operatively coupled to the Internet network interface , a memory , a processor , and a service application for execution by the processor , wherein the service application is configured to: receive a digital audio file and associated radio broadcast information via the Internet network interface ; obtain an audio file identifier using a segment of the digital audio file; forward the digital audio file to a radio broadcast system according to the radio broadcast information; receive the segment of the digital audio file and associated radio reception information via the internet network interface ; and identify the digital audio file and record the radio reception information for the identified digital audio file. an Internet network interface ; and a first server including: a first port operatively coupled to the Internet network interface , a memory , a processor , and a service application for execution by the processor , wherein the service application is configured to: receive a digital audio file and associated radio broadcast information via the Internet network interface ; obtain an audio file identifier using a segment of the digital audio file; forward the digital audio file to a radio broadcast system according to the radio broadcast information; receive the segment of the digital audio file and associated radio reception information via the internet network interface ; and identify the digital audio file and record the radio reception information for the identified digital audio file. receive a digital audio file and associated radio broadcast information via the Internet network interface ; obtain an audio file identifier using a segment of the digital audio file; forward the digital audio file to a radio broadcast system according to the radio broadcast information; receive the segment of the digital audio file and associated radio reception information via the internet network interface ; and identify the digital audio file and record the radio reception information for the identified digital audio file.
A wide-field fluorescence microscope for observing an object plane in a three-dimensional object medium able to emit fluorescence light in response to illumination light, characterized in that it comprises a first optical channel for the illumination light, a second optical channel for the illumination light and the fluorescence light and a third optical channel for the fluorescence light, wherein the first channel comprises a spatial modulator that limits the field of the wide-field microscope, wherein the second channel extends between the object plane and a beamsplitter , which is dichroic with respect to the illumination light and to the fluorescence light, wherein the third channel extends between the second channel and a camera able to detect the fluorescence light, wherein the microscope comprises an optical means for conjugating the spatial modulator with the object plane for the illumination light and for conjugating the object plane with the camera for the fluorescence light and wherein the third channel comprises an optical element that is dispersive to the fluorescence light.