mhurhangee/patent-ind-claim-en huggingface dataset:
A safety automation system for an occupiable structure , the system comprising: a detection device configured to detect a hazard condition and send an initiate alarm signal to an alert device ; the alert device configured to produce an audible alert as an audible signature, the audible alert being indicative of the hazard condition; a microphone configured to receive the audible signature and output an audible signature signal; wherein the microphone is part of the alert device, the alert device having dual functioning circuitry for producing the audible alert and detecting the audible signature; a computing management system configured to receive the audible signature signal and output a command signal; and an appliance configured to receive the command signal from the computing management system and perform a task in response to the command signal; wherein the computing management system includes a cloud computing network ; and wherein the computing management system is configured to send a wireless signal indicative of the audible signature signal through the cloud computing network , to a user interface device remotely located from the occupiable structure . a detection device configured to detect a hazard condition and send an initiate alarm signal to an alert device ; the alert device configured to produce an audible alert as an audible signature, the audible alert being indicative of the hazard condition; a microphone configured to receive the audible signature and output an audible signature signal; wherein the microphone is part of the alert device, the alert device having dual functioning circuitry for producing the audible alert and detecting the audible signature; a computing management system configured to receive the audible signature signal and output a command signal; and an appliance configured to receive the command signal from the computing management system and perform a task in response to the command signal; wherein the computing management system includes a cloud computing network ; and wherein the computing management system is configured to send a wireless signal indicative of the audible signature signal through the cloud computing network , to a user interface device remotely located from the occupiable structure .
A radar cover for covering a radar unit (R), from a front side of a vehicle, which detects a situation around the vehicle, comprising: a fitting portion which is configured of a base portion which serves as a frame, and a bright layer which is formed directly on a surface of a front side of the base portion and is a discontinuous metal layer having openings (12b1) penetrating therethrough in a layer thickness direction, the surface of the front side of the base portion being formed of the same material as the base portion ; a transparent top coat layer formed on a surface of a front side of the bright layer , parts of the top coat layer being directly in close contact with the surface of the front side of the base portion through the openings (12b1) of the bright layer ; a transparent layer including a recessed portion ; and a support member fixed to the transparent layer and supporting a side of the fitting portion opposite to the transparent layer , wherein the fitting portion has a convex shape to fill the recessed portion and is visible from the outside of the vehicle through the transparent layer , and the fitting portion is disposed such that the top coat layer faces an inner wall surface of the recessed portion , and the support member includes a pedestal portion which contacts the fitting portion . a fitting portion which is configured of a base portion which serves as a frame, and a bright layer which is formed directly on a surface of a front side of the base portion and is a discontinuous metal layer having openings (12b1) penetrating therethrough in a layer thickness direction, the surface of the front side of the base portion being formed of the same material as the base portion ; a transparent top coat layer formed on a surface of a front side of the bright layer , parts of the top coat layer being directly in close contact with the surface of the front side of the base portion through the openings (12b1) of the bright layer ; a transparent layer including a recessed portion ; and a support member fixed to the transparent layer and supporting a side of the fitting portion opposite to the transparent layer , wherein the fitting portion has a convex shape to fill the recessed portion and is visible from the outside of the vehicle through the transparent layer , and the fitting portion is disposed such that the top coat layer faces an inner wall surface of the recessed portion , and the support member includes a pedestal portion which contacts the fitting portion .
A pressing apparatus, for the removal of liquids from material of various kinds, comprising a pressing chamber , provided with at least one intake opening for the material to be pressed and with at least one discharge opening for the pressed material, and at least one rotating screw feeder , which is accommodated in said chamber and comprises a shaft and a helicoid which is stably wound around said shaft , which delimit, together with said chamber , a path with a progressively decreasing cross-section for the forced movement of the material, pushed by the action of said screw feeder from said intake opening toward said discharge opening , said shaft comprising at least one at least partially hollow tubular body which has, along its own lateral surface, a plurality of first passage holes for the liquids extracted by pressing from the material, and at least one additional filtering screen , which is applied externally to at least one fraction of said lateral surface of said body and has a plurality of second passage holes for the liquids extracted by pressing from the material, which have a diameter that is smaller than the diameter of said first holes , said screw feeder comprising an axial stem accommodated coaxially within said tubular body forming, between said body and said stem , at least one interspace which can be crossed by the liquids removed from the material introduced in said chamber , characterized in that said stem has a polygonal transverse cross-section, respective longitudinal crests protruding externally from the lateral edges of said stem and forming respective resting bases for said body .
An audio processing apparatus comprising: an acquisition unit configured to acquire metadata including position information indicative of a position of an audio object and sound image information configured from a vector of three dimensions and representative of an extent of a sound image from the position; a vector calculation unit configured to: determine a three-dimensional vector (p0) representative of the position (p) of the audio object, wherein a start point of the three-dimensional vector (p0) is the origin in a three-dimensional coordinate system whose origin is given by a position of a user; and calculate, based on the three-dimensional vector (p0) and a ratio between a horizontal direction angle and a vertical direction angle of a region representative of the extent of the sound image determined by the sound image information, at least one spread vector (pi, i=1 to 18) indicative of a position in the region, wherein the number of spread vectors is determined in advance; and a gain calculation unit configured to calculate, based on the at least one spread vector, a gain of each of audio signals supplied to two or more sound outputting units positioned in the proximity of the position indicated by the position information. an acquisition unit configured to acquire metadata including position information indicative of a position of an audio object and sound image information configured from a vector of three dimensions and representative of an extent of a sound image from the position; a vector calculation unit configured to: determine a three-dimensional vector (p0) representative of the position (p) of the audio object, wherein a start point of the three-dimensional vector (p0) is the origin in a three-dimensional coordinate system whose origin is given by a position of a user; and calculate, based on the three-dimensional vector (p0) and a ratio between a horizontal direction angle and a vertical direction angle of a region representative of the extent of the sound image determined by the sound image information, at least one spread vector (pi, i=1 to 18) indicative of a position in the region, wherein the number of spread vectors is determined in advance; and determine a three-dimensional vector (p0) representative of the position (p) of the audio object, wherein a start point of the three-dimensional vector (p0) is the origin in a three-dimensional coordinate system whose origin is given by a position of a user; and calculate, based on the three-dimensional vector (p0) and a ratio between a horizontal direction angle and a vertical direction angle of a region representative of the extent of the sound image determined by the sound image information, at least one spread vector (pi, i=1 to 18) indicative of a position in the region, wherein the number of spread vectors is determined in advance; and a gain calculation unit configured to calculate, based on the at least one spread vector, a gain of each of audio signals supplied to two or more sound outputting units positioned in the proximity of the position indicated by the position information.
A method for a computer system to perform radiotherapy treatment planning based on continuous deep learning, wherein the method comprises: obtaining a deep learning engine that is trained to perform a radiotherapy treatment planning task based on first training data associated with a first planning rule; based on input data associated with a particular patient , performing the radiotherapy treatment planning task using the deep learning engine to generate output data associated with the particular patient ; characterized by : obtaining modified output data that includes one or more modifications to the output data generated by the deep learning engine ; based on the modified output data , generating second training data associated with a second planning rule; and generating a modified deep learning engine by re-training the deep learning engine using a combination of the first training data and the second training data . obtaining a deep learning engine that is trained to perform a radiotherapy treatment planning task based on first training data associated with a first planning rule; based on input data associated with a particular patient , performing the radiotherapy treatment planning task using the deep learning engine to generate output data associated with the particular patient ; characterized by : obtaining modified output data that includes one or more modifications to the output data generated by the deep learning engine ; based on the modified output data , generating second training data associated with a second planning rule; and generating a modified deep learning engine by re-training the deep learning engine using a combination of the first training data and the second training data . obtaining modified output data that includes one or more modifications to the output data generated by the deep learning engine ; based on the modified output data , generating second training data associated with a second planning rule; and generating a modified deep learning engine by re-training the deep learning engine using a combination of the first training data and the second training data .
A method for wireless communication at a user equipment, UE, the method comprising: identifying a plurality of control channels, wherein each control channel of the plurality of control channels is configured to include a slot format indication, SFI, for one or more slots; identifying control channels of the plurality of control channels where the SFI is detected and control channels where the SFI is undetected; identifying a set of symbols in a slot to transmit radio resource control, RRC, configured uplink signals to a base station; determining whether the set of symbols in the slot is configured as uplink, flexible, or downlink based at least in part on detected SFIs, undetected SFIs, or a combination thereof, included in control channels of the plurality of control channels; transmitting the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as uplink; and canceling transmission of the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as flexible or downlink. identifying a plurality of control channels, wherein each control channel of the plurality of control channels is configured to include a slot format indication, SFI, for one or more slots; identifying control channels of the plurality of control channels where the SFI is detected and control channels where the SFI is undetected; identifying a set of symbols in a slot to transmit radio resource control, RRC, configured uplink signals to a base station; determining whether the set of symbols in the slot is configured as uplink, flexible, or downlink based at least in part on detected SFIs, undetected SFIs, or a combination thereof, included in control channels of the plurality of control channels; transmitting the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as uplink; and canceling transmission of the RRC configured uplink signals when it is determined that the set of symbols in the slot is configured as flexible or downlink.
A cogeneration system for providing at least heating and electricity to an enclosure , the cogeneration system comprising: a heat engine configured for supplying electricity to the enclosure and for heating the enclosure via a first heat transfer fluid; a heat pump configured for heating of the enclosure via the first heat transfer fluid; a first conduit coupled to the heat engine , wherein the first conduit is filled with the first heat transfer fluid, and the first conduit is constructed and arranged for transferring the first heat transfer fluid from the heat engine to the enclosure , in use, such that thermal energy is transferred from the first heat transfer fluid to the enclosure to provide heating to the enclosure ; a second conduit coupled to the heat pump , wherein the second conduit is filled with the first heat transfer fluid, and the second conduit is constructed and arranged for transferring the first heat transfer fluid from the heat pump to the enclosure , in use, such that thermal energy is transferred from the first heat transfer fluid to the enclosure to provide heating to the enclosure ; characterized in that the first conduit and the second conduit are fluidly coupled and configured to proportion, and/or thermally isolate, the first heat transfer fluid between the first conduit and the second conduit . a heat engine configured for supplying electricity to the enclosure and for heating the enclosure via a first heat transfer fluid; a heat pump configured for heating of the enclosure via the first heat transfer fluid; a first conduit coupled to the heat engine , wherein the first conduit is filled with the first heat transfer fluid, and the first conduit is constructed and arranged for transferring the first heat transfer fluid from the heat engine to the enclosure , in use, such that thermal energy is transferred from the first heat transfer fluid to the enclosure to provide heating to the enclosure ; a second conduit coupled to the heat pump , wherein the second conduit is filled with the first heat transfer fluid, and the second conduit is constructed and arranged for transferring the first heat transfer fluid from the heat pump to the enclosure , in use, such that thermal energy is transferred from the first heat transfer fluid to the enclosure to provide heating to the enclosure ; characterized in that the first conduit and the second conduit are fluidly coupled and configured to proportion, and/or thermally isolate, the first heat transfer fluid between the first conduit and the second conduit .
A magnetic resonance imaging apparatus comprising: a scanning section for performing a first sequence a plurality of number of times, said first sequence being a navigator sequence for generating, using non-selective Radio Frequency, RF, excitation, a first MR signal containing information on body motion from a moving body part in a subject; a coil apparatus having a plurality of coil elements for receiving said first MR signal; a signal analyzing unit for obtaining data, said signal analyzing unit being arranged to determine a feature quantity of a navigator signal containing information on said first MR signal received by each of said plurality of coil elements, and being arranged to obtain data representing a temporal change of said feature quantity for each said coil element; a transforming unit being arranged to transform said data obtained for each said coil element into a frequency spectrum; and a selecting unit being arranged to select a coil element for determining a signal value of a body-motion signal for said subject from among said plurality of coil elements based on said frequency spectrum. a scanning section for performing a first sequence a plurality of number of times, said first sequence being a navigator sequence for generating, using non-selective Radio Frequency, RF, excitation, a first MR signal containing information on body motion from a moving body part in a subject; a coil apparatus having a plurality of coil elements for receiving said first MR signal; a signal analyzing unit for obtaining data, said signal analyzing unit being arranged to determine a feature quantity of a navigator signal containing information on said first MR signal received by each of said plurality of coil elements, and being arranged to obtain data representing a temporal change of said feature quantity for each said coil element; a transforming unit being arranged to transform said data obtained for each said coil element into a frequency spectrum; and a selecting unit being arranged to select a coil element for determining a signal value of a body-motion signal for said subject from among said plurality of coil elements based on said frequency spectrum.
Process for manufacturing polyurethane cast products having a constant section, comprising: - a step of placing and fastening one or more injection molds on a bench that avoid two parts (a, b) from opening during the polyurethane foaming by means of some element that keeps the mold closed, where the mold parts (a, b) are manufactured by extrusion without any further modification or adaptation, the molds thus having open ends, - a step of closing a lower end of the mold by a lower lid , - a step of polyurethane injection through an end of the mold or molds , said mold or molds being arranged in tilted or vertical position on the bench to accumulate the possible formation of holes and cavities provoked by CO 2 bubbles only at a top part of the mold during a polyurethane foaming process, - a step of closing a top end of the mold by a gate-shaped axial pressure element , - a step of waiting for the polyurethane to expand, and - a step of withdrawing the mold from the bench . - a step of placing and fastening one or more injection molds on a bench that avoid two parts (a, b) from opening during the polyurethane foaming by means of some element that keeps the mold closed, where the mold parts (a, b) are manufactured by extrusion without any further modification or adaptation, the molds thus having open ends, - a step of closing a lower end of the mold by a lower lid , - a step of polyurethane injection through an end of the mold or molds , said mold or molds being arranged in tilted or vertical position on the bench to accumulate the possible formation of holes and cavities provoked by CO 2 bubbles only at a top part of the mold during a polyurethane foaming process, - a step of closing a top end of the mold by a gate-shaped axial pressure element , - a step of waiting for the polyurethane to expand, and - a step of withdrawing the mold from the bench .
Process for preparing an anhydride of formula A-C(=O)-O-(O=)C-A, wherein A is a -CH=CH 2 or -C(CH 3 )=CH 2 group, said process comprising: a) a step of reacting an anhydride B-C(=O)-O-(O=)C-B with an acid A-COOH, A being as defined above, this step resulting in the formation of an anhydride A-C(=O)-O-(O=)C-B and of an acid B-COOH, A and B being such that said acid B-COOH is more volatile than said acid A-COOH; and b) a step of reacting said anhydride A-C(=O)-O-(O=)C-B with the acid A-COOH under conditions such that the amount of acid B-COOH is less than the amount of acid A-COOH, resulting in the formation of the anhydride A-C(=O)-O-(O=)C-A, wherein: ∘ said steps (a) and (b) are carried out in the presence of triflic acid in hydrated form ∘ the anhydride A-C(=O)-O-(O=)C-A formed in step (b) is isolated from the reaction medium resulting from step (b) according to the following successive or concomitant separation steps: e1) the compounds, termed heavy compounds, having a volatility of less than or equal to that of the anhydride A-C(=O)-O-(O=)C-A are separated from said reaction medium, typically by fractional distillation, these heavy compounds including the anhydride A-C(=O)-O-(O=)C-A and triflic acid in hydrated form; e2) the anhydride A-C(=O)-O-(O=)C-A is separated from the heavy compounds, by virtue of difference in volatility. a) a step of reacting an anhydride B-C(=O)-O-(O=)C-B with an acid A-COOH, A being as defined above, this step resulting in the formation of an anhydride A-C(=O)-O-(O=)C-B and of an acid B-COOH, A and B being such that said acid B-COOH is more volatile than said acid A-COOH; and b) a step of reacting said anhydride A-C(=O)-O-(O=)C-B with the acid A-COOH under conditions such that the amount of acid B-COOH is less than the amount of acid A-COOH, resulting in the formation of the anhydride A-C(=O)-O-(O=)C-A, ∘ said steps (a) and (b) are carried out in the presence of triflic acid in hydrated form ∘ the anhydride A-C(=O)-O-(O=)C-A formed in step (b) is isolated from the reaction medium resulting from step (b) according to the following successive or concomitant separation steps: e1) the compounds, termed heavy compounds, having a volatility of less than or equal to that of the anhydride A-C(=O)-O-(O=)C-A are separated from said reaction medium, typically by fractional distillation, these heavy compounds including the anhydride A-C(=O)-O-(O=)C-A and triflic acid in hydrated form; e2) the anhydride A-C(=O)-O-(O=)C-A is separated from the heavy compounds, by virtue of difference in volatility. e1) the compounds, termed heavy compounds, having a volatility of less than or equal to that of the anhydride A-C(=O)-O-(O=)C-A are separated from said reaction medium, typically by fractional distillation, these heavy compounds including the anhydride A-C(=O)-O-(O=)C-A and triflic acid in hydrated form; e2) the anhydride A-C(=O)-O-(O=)C-A is separated from the heavy compounds, by virtue of difference in volatility.