mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for localizing a target sound source from a plurality of sound sources , wherein a multi-channel recording signal of the plurality of sound sources comprises a plurality of microphone channel signals , the apparatus comprising: - a converting unit adapted to convert each microphone channel signal into a respective channel spectrogram (205, 214, V p ) in a time-frequency domain, - a blind source separation unit adapted to blindly separate the channel spectrograms to obtain a plurality of separated source signals , - an identification unit adapted to identify, among the plurality of separated source signals , the separated source signal (211, ψ, 411, 412) that best matches a target source model , - an estimation unit adapted to estimate, based on the identified separated source signal (211, ψ, 411, 412), a binary mask (213, V') reflecting where the target sound source is active in the channel spectrograms (214, V p ) in terms of time and frequency, - a masking unit adapted to apply the binary mask (213, V') on the channel spectrograms (214, V p ) to obtain masked channel spectrograms (221, V' p ), and - a localization unit adapted to localize the target sound source from the plurality of sound sources based on the masked channel spectrograms (221, V' p ). - a converting unit adapted to convert each microphone channel signal into a respective channel spectrogram (205, 214, V p ) in a time-frequency domain, - a blind source separation unit adapted to blindly separate the channel spectrograms to obtain a plurality of separated source signals , - an identification unit adapted to identify, among the plurality of separated source signals , the separated source signal (211, ψ, 411, 412) that best matches a target source model , - an estimation unit adapted to estimate, based on the identified separated source signal (211, ψ, 411, 412), a binary mask (213, V') reflecting where the target sound source is active in the channel spectrograms (214, V p ) in terms of time and frequency, - a masking unit adapted to apply the binary mask (213, V') on the channel spectrograms (214, V p ) to obtain masked channel spectrograms (221, V' p ), and - a localization unit adapted to localize the target sound source from the plurality of sound sources based on the masked channel spectrograms (221, V' p ).
A method comprising: at a first electronic device with one or more processors, a communication interface, and memory, wherein the first electronic device is in communication with a display: receiving a first input corresponding to an affordance to start a task in an application executing on the one or more processors; in response to receiving the first input, starting the task; while the task is ongoing, recording visual output of the application as application task data; after the task has ceased, causing to be displayed on the display a first affordance for sharing the application task data; while the first affordance is displayed, receiving a second input corresponding to selection of the first affordance; in response to receiving the second input, displaying at least one affordance configured to, when selected via user input, share the application task data with devices within a close proximity to the first electronic device, wherein the close proximity is a distance that enables the first electronic device to connect to the respective devices via short-range communications, wherein the devices include a second electronic device, and wherein the at least one affordance includes a second affordance corresponding to the second electronic device; while the second affordance is displayed, receiving third input including input corresponding to selection of the second affordance; and in response to receiving the third input, transmitting the application task data to the second electronic device over the communication interface. receiving a first input corresponding to an affordance to start a task in an application executing on the one or more processors; in response to receiving the first input, starting the task; while the task is ongoing, recording visual output of the application as application task data; after the task has ceased, causing to be displayed on the display a first affordance for sharing the application task data; while the first affordance is displayed, receiving a second input corresponding to selection of the first affordance; in response to receiving the second input, displaying at least one affordance configured to, when selected via user input, share the application task data with devices within a close proximity to the first electronic device, wherein the close proximity is a distance that enables the first electronic device to connect to the respective devices via short-range communications, wherein the devices include a second electronic device, and wherein the at least one affordance includes a second affordance corresponding to the second electronic device; while the second affordance is displayed, receiving third input including input corresponding to selection of the second affordance; and in response to receiving the third input, transmitting the application task data to the second electronic device over the communication interface.
A method for collecting, from a cut panel for obtaining predetermined articles, the articles and scraps generated by the cutting of the panel comprising following steps: a) making available a cut panel (P) in which predetermined articles (A) and scraps (S) are defined; b) having available an electronic processor; c) having available at least a cutting file in which the dimensions, positioning and orientation of the articles (A) and scraps (S) are defined; d) memorising the cutting file in the electronic processor; e) positioning the cut panel (P) on a support of a first station ; characterised in that it further comprises following steps: f) removing, in accordance with the indications of the cutting file, at least one scrap (S) at a time from the cut panel (P) by separating the adjacent cut articles (A) and/or scraps (S), without altering the orientation and mutual positioning of the cut articles (A) of the panel arranged on the support of the first station and the scraps (S) not removed from the support, transferring the at least a scrap (S) into a scrap collecting station ; g) collecting, actuated as a function of the removal of the preceding step f), the articles (A) from the cut panel (P), with a following transfer of the articles (A), without changing orientation and mutual positioning thereof, into a second station so as to define a layer of a series of stacks, each stack being constituted by identical and superposed articles (A). a) making available a cut panel (P) in which predetermined articles (A) and scraps (S) are defined; b) having available an electronic processor; c) having available at least a cutting file in which the dimensions, positioning and orientation of the articles (A) and scraps (S) are defined; d) memorising the cutting file in the electronic processor; e) positioning the cut panel (P) on a support of a first station ; f) removing, in accordance with the indications of the cutting file, at least one scrap (S) at a time from the cut panel (P) by separating the adjacent cut articles (A) and/or scraps (S), without altering the orientation and mutual positioning of the cut articles (A) of the panel arranged on the support of the first station and the scraps (S) not removed from the support, transferring the at least a scrap (S) into a scrap collecting station ; g) collecting, actuated as a function of the removal of the preceding step f), the articles (A) from the cut panel (P), with a following transfer of the articles (A), without changing orientation and mutual positioning thereof, into a second station so as to define a layer of a series of stacks, each stack being constituted by identical and superposed articles (A).
Awning with a cloth hanging , two lateral guide rails and two lateral posts , which support the guide rails , wherein the cloth hanging can be wound up on a winding shaft and has a water-permeable region , through which precipitation falling on the cloth hanging can flow off, characterised in that below the water-permeable region at least one drainage channel is provided, which has a lateral outlet, wherein the drainage channel runs parallel to a lower cloth end of the cloth hanging and is supported on the two posts and/or on the two guide rails .
A current mirror circuit, comprising: an input current leg including: a first bipolar junction transistor BJT having a collector terminal configured to receive an input current sourced at a current node ; and a first metal oxide semiconductor field effect transistor MOSFET adjacent to the first BJT and having a gate terminal coupled to the current node and a source terminal coupled to a base terminal of the first BJT; and a first output current leg including: a second BJT having a collector terminal configured to supply an output current; and a second MOSFET adjacent to the second BJT and having a gate terminal coupled to the current node and a source terminal coupled to a base terminal of the second BJT. an input current leg including: a first bipolar junction transistor BJT having a collector terminal configured to receive an input current sourced at a current node ; and a first metal oxide semiconductor field effect transistor MOSFET adjacent to the first BJT and having a gate terminal coupled to the current node and a source terminal coupled to a base terminal of the first BJT; and a first bipolar junction transistor BJT having a collector terminal configured to receive an input current sourced at a current node ; and a first metal oxide semiconductor field effect transistor MOSFET adjacent to the first BJT and having a gate terminal coupled to the current node and a source terminal coupled to a base terminal of the first BJT; and a first output current leg including: a second BJT having a collector terminal configured to supply an output current; and a second MOSFET adjacent to the second BJT and having a gate terminal coupled to the current node and a source terminal coupled to a base terminal of the second BJT. a second BJT having a collector terminal configured to supply an output current; and a second MOSFET adjacent to the second BJT and having a gate terminal coupled to the current node and a source terminal coupled to a base terminal of the second BJT.
A semiconductor interferometer filter , comprising: an input coupler to receive incident light and produce split light comprising multiple beams; an output coupler to combine the multiple beams to produce interfered light; a first waveguide that couples one of the multiple beams from the input coupler to the output coupler, the first waveguide having a length ; a second waveguide that couples another of the multiple beams from the input coupler to the output coupler, the second waveguide having an elongated length that is longer than the length of the first waveguide due to a delay path section of the second waveguide; and a heater that overlaps the delay path section of the second waveguide to heat the delay path section to a higher temperature than an ambient temperature , wherein the first waveguide and a remaining portion of the second waveguide that is not in the delay path section of the second waveguide are at the ambient temperature, wherein the length of the delay path section is equal to the difference in lengths between the first waveguide and second waveguide. an input coupler to receive incident light and produce split light comprising multiple beams; an output coupler to combine the multiple beams to produce interfered light; a first waveguide that couples one of the multiple beams from the input coupler to the output coupler, the first waveguide having a length ; a second waveguide that couples another of the multiple beams from the input coupler to the output coupler, the second waveguide having an elongated length that is longer than the length of the first waveguide due to a delay path section of the second waveguide; and a heater that overlaps the delay path section of the second waveguide to heat the delay path section to a higher temperature than an ambient temperature , wherein the first waveguide and a remaining portion of the second waveguide that is not in the delay path section of the second waveguide are at the ambient temperature, wherein the length of the delay path section is equal to the difference in lengths between the first waveguide and second waveguide.
A machine for producing paper beverage stirring spoons or sticks, comprising: - - a paper feeding station , - - a processing station to die-cut the paper arriving from the feeding station and to make the spoons or sticks, - - a station for removing spoons or sticks , to remove and separate the spoons or sticks cut at the processing station from the scrap, - - a station for extracting the paper scrap , to eliminate the residual scrap generated by the processing station , wherein the machine comprises also: - - a treatment station , to apply a viscous liquid material based on silicon and hydroxy groups to the spoons or sticks, following the removal of the scrap , to evenly coat the spoons or sticks, and - - an oven to dry and crystallize the viscous liquid material and to realize the spoons or sticks. - - a paper feeding station , - - a processing station to die-cut the paper arriving from the feeding station and to make the spoons or sticks, - - a station for removing spoons or sticks , to remove and separate the spoons or sticks cut at the processing station from the scrap, - - a station for extracting the paper scrap , to eliminate the residual scrap generated by the processing station , - - a treatment station , to apply a viscous liquid material based on silicon and hydroxy groups to the spoons or sticks, following the removal of the scrap , to evenly coat the spoons or sticks, and - - an oven to dry and crystallize the viscous liquid material and to realize the spoons or sticks.
A control device configured to independently control a steered angle of each of a left steered wheel disposed on the left with respect to a traveling direction of a vehicle and a right steered wheel disposed on the right with respect to the traveling direction of the vehicle, the control device comprising a processor configured to perform: a steered angle determination process for determining, based on a steering command value (S1) indicating a steering direction of the vehicle, a left turning command value (θ L1 ) indicating the steered angle of the left steered wheel and a right turning command value (θ R1 ) indicating the steered angle of the right steered wheel; and a route acquisition process for acquiring route information indicating a target route of the vehicle, characterized in that the processor is further configured to perform: a behavior optimization process for correcting, based on at least one of a plurality of state quantities (Q) indicating a behavior of the vehicle during traveling, each of the left turning command value and the right turning command value such that the behavior of the vehicle becomes a target behavior; and a locus stabilization process for correcting, based on at least one of the state quantities indicating the behavior of the vehicle during traveling, the steering command value (S1) such that the vehicle travels on the target route. a steered angle determination process for determining, based on a steering command value (S1) indicating a steering direction of the vehicle, a left turning command value (θ L1 ) indicating the steered angle of the left steered wheel and a right turning command value (θ R1 ) indicating the steered angle of the right steered wheel; and a route acquisition process for acquiring route information indicating a target route of the vehicle, characterized in that the processor is further configured to perform: a behavior optimization process for correcting, based on at least one of a plurality of state quantities (Q) indicating a behavior of the vehicle during traveling, each of the left turning command value and the right turning command value such that the behavior of the vehicle becomes a target behavior; and a locus stabilization process for correcting, based on at least one of the state quantities indicating the behavior of the vehicle during traveling, the steering command value (S1) such that the vehicle travels on the target route. a behavior optimization process for correcting, based on at least one of a plurality of state quantities (Q) indicating a behavior of the vehicle during traveling, each of the left turning command value and the right turning command value such that the behavior of the vehicle becomes a target behavior; and a locus stabilization process for correcting, based on at least one of the state quantities indicating the behavior of the vehicle during traveling, the steering command value (S1) such that the vehicle travels on the target route.
A film comprising: an organic polymeric substrate having a first major surface and a second major surface; an optional acrylic hardcoat layer disposed on the first major surface of the substrate; a siliceous primer layer disposed on the organic polymeric substrate or on the optional acrylic hardcoat layer, wherein the siliceous primer layer comprises silica nanoparticles modified by an organic silane, a metal silicate, and a polyvalent metal cation salt; and a superhydrophilic surface layer disposed on the siliceous primer layer, wherein the superhydrophilic surface layer comprises hydrophilic-functional groups. an organic polymeric substrate having a first major surface and a second major surface; an optional acrylic hardcoat layer disposed on the first major surface of the substrate; a siliceous primer layer disposed on the organic polymeric substrate or on the optional acrylic hardcoat layer, wherein the siliceous primer layer comprises silica nanoparticles modified by an organic silane, a metal silicate, and a polyvalent metal cation salt; and a superhydrophilic surface layer disposed on the siliceous primer layer, wherein the superhydrophilic surface layer comprises hydrophilic-functional groups.
A lubricant composition comprising: not less than 14% and not more than 50% by weight of a fraction having a boiling point of 500°C to 550°C; and not less than 5% and not more than 20% by weight of a fraction having a boiling point of higher than 550°C; wherein the amounts of the fraction having a boiling point of 500 to 550 °C and of a fraction having a boiling point of higher than 550°C are measured by distillation gas chromatography performed in accordance with JIS K2254 "Petroleum Products - Determination of Distillation Characteristics", except that an external standard method was employed in place of the total area method. not less than 14% and not more than 50% by weight of a fraction having a boiling point of 500°C to 550°C; and not less than 5% and not more than 20% by weight of a fraction having a boiling point of higher than 550°C;
Door for a motor vehicle, in particular for a pick-up, comprising a first structure comprising connection elements in the lower part which are designed for fitting of the door on a motor vehicle, characterized in that the door comprises a second structure which is fitted such as to be movable vertically relative to the first structure of the door, the second structure being in the form of a wall, which can occupy a first, low position, in which it is substantially totally superimposed on the first structure , in order to close an opening, and can occupy a second, high position, in which it opens up at least partly a space at the level of the first structure , in order to open the door at least partly.
A printing form precursor comprising: a photopolymerizable layer comprising a first binder, a monomer, and a photoinitiator; an infrared ablation layer that is ablatable by infrared radiation and opaque to non-infrared actinic radiation, the infrared ablation layer comprising: (i) at least one infrared absorbing material; (ii) a radiation opaque material, wherein (i) and (ii) can be the same or different; and (iii) at least one second binder; and a printed microcell pattern layer that is disposed between the photopolymerizable layer and the infrared ablation layer , and comprises a plurality of features in which each feature has an area between 5 to 750 μm 2 (square microns) and is composed of an ink that is opaque to actinic radiation and transparent to infrared radiation. a photopolymerizable layer comprising a first binder, a monomer, and a photoinitiator; an infrared ablation layer that is ablatable by infrared radiation and opaque to non-infrared actinic radiation, the infrared ablation layer comprising: (i) at least one infrared absorbing material; (ii) a radiation opaque material, wherein (i) and (ii) can be the same or different; and (iii) at least one second binder; and (i) at least one infrared absorbing material; (ii) a radiation opaque material, wherein (i) and (ii) can be the same or different; and (iii) at least one second binder; and a printed microcell pattern layer that is disposed between the photopolymerizable layer and the infrared ablation layer , and comprises a plurality of features in which each feature has an area between 5 to 750 μm 2 (square microns) and is composed of an ink that is opaque to actinic radiation and transparent to infrared radiation.
A method of supplying at least one component (56-72) of a wind turbine with energy by an energy supply device , wherein the energy is taken by the energy supply device in operation of the wind turbine from the energy generated with the generator of the wind turbine and supplied to the component (56-72) of the wind turbine , wherein the voltage of the energy generated with the generator is rectified with a rectifier and put into intermediate storage in a dc voltage intermediate circuit , wherein the energy for supplying the component (56-72) is taken from the dc voltage intermediate circuit by the energy supply device , wherein the voltage of the energy taken from the dc voltage intermediate circuit is converted with a transformer of the energy supply device into a voltage suited for the component (56-72), in particular 400 V, wherein the transformer , in particular on its primary side, obtains the energy from the dc voltage intermediate circuit and, in particular at the secondary side, at the output provides the energy for the components (56-72), characterized in that the transformer can additionally be connected at its secondary side to a supply grid in order to provide energy from the supply grid for supplying the components (56-72) or the exciter circuit . the voltage of the energy generated with the generator is rectified with a rectifier and put into intermediate storage in a dc voltage intermediate circuit , wherein the energy for supplying the component (56-72) is taken from the dc voltage intermediate circuit by the energy supply device , wherein the voltage of the energy taken from the dc voltage intermediate circuit is converted with a transformer of the energy supply device into a voltage suited for the component (56-72), in particular 400 V, wherein the transformer , in particular on its primary side, obtains the energy from the dc voltage intermediate circuit and, in particular at the secondary side, at the output provides the energy for the components (56-72), characterized in that the transformer can additionally be connected at its secondary side to a supply grid in order to provide energy from the supply grid for supplying the components (56-72) or the exciter circuit .