mhurhangee/ep-ind-claims huggingface dataset:
A method of processing an acoustic image, which provides the following steps: a) acquiring acoustic signals generated by acoustic sources in a predetermined region of space, b) generating a multispectral 3D acoustic image, consisting of a collection of 2D acoustic images, each 2D acoustic image being formed by the transposition of the position of each of the acquired acoustic sources into a grayscale or color model, each 2D acoustic image being identified by a single frequency or a frequency band, such that each 2D acoustic image has the position of each of the detected audio sources marked thereon along the axes of the coordinates of the 2D image, for spatial allocation of the acquired acoustic sources, c) performing a frequency integration of said multispectral acoustic image for generating a 2D acoustic map, characterized in that it provides the additional following steps: d) locating at least one target acoustic source of interest and modeling the signal spectrum associated with said target acoustic source, e) generating a classification map obtained by comparing the signal spectrum of each signal associated with each pixel of said multispectral acoustic image and the model of the signal spectrum associated with said target acoustic source, said comparison being obtained by training a classification algorithm, which classification algorithm is executed for each pixel of said multispectral acoustic image, to thereby distinguish the spectrum of the signal associated with the target acoustic source from the signal spectra associated with the remaining acoustic sources, f) merging said classification map and said acoustic map to obtain a merged map. a) acquiring acoustic signals generated by acoustic sources in a predetermined region of space, b) generating a multispectral 3D acoustic image, consisting of a collection of 2D acoustic images, c) performing a frequency integration of said multispectral acoustic image for generating a 2D acoustic map, d) locating at least one target acoustic source of interest and modeling the signal spectrum associated with said target acoustic source, e) generating a classification map obtained by comparing the signal spectrum of each signal associated with each pixel of said multispectral acoustic image and the model of the signal spectrum associated with said target acoustic source, f) merging said classification map and said acoustic map to obtain a merged map.
A communication device, comprising: a communicator (110,120) adapted to receive location information and time information from a server (10,30); a memory adapted to store map information that is information associating locations and time differences; and a processor adapted to measure time and to perform control operations, wherein the processor creates first offset information of the measured time and the time information received by the communicator (110,120); acquires from the map information stored in the memory a time difference corresponding to a location presented by the location information received by the communicator (110,120); creates first updated time information based on the measured time, the first offset information, and the time difference corresponding to the location presented by the location information received by the communicator (110,120); and makes the communicator (110,120) transmit the first updated time information to another communication device. a communicator (110,120) adapted to receive location information and time information from a server (10,30); a memory adapted to store map information that is information associating locations and time differences; and a processor adapted to measure time and to perform control operations, wherein the processor creates first offset information of the measured time and the time information received by the communicator (110,120); acquires from the map information stored in the memory a time difference corresponding to a location presented by the location information received by the communicator (110,120); creates first updated time information based on the measured time, the first offset information, and the time difference corresponding to the location presented by the location information received by the communicator (110,120); and makes the communicator (110,120) transmit the first updated time information to another communication device. creates first offset information of the measured time and the time information received by the communicator (110,120); acquires from the map information stored in the memory a time difference corresponding to a location presented by the location information received by the communicator (110,120); creates first updated time information based on the measured time, the first offset information, and the time difference corresponding to the location presented by the location information received by the communicator (110,120); and makes the communicator (110,120) transmit the first updated time information to another communication device.
A vibrating element apparatus including: a wall section having an inner surface and an outer surface; a diaphragm formed integrally with, and closing one end of, said wall section, said diaphragm having an inner surface and an outer surface, the inner surfaces of said wall section and said diaphragm defining a hollow body; one or more vibrating elements extending from the outer surface of said diaphragm; one or more piezoelectric elements located within said hollow body; a compression device operable to compress said one or more piezoelectric elements against the inner surface of said diaphragm; and a separate cage located within said hollow body, inwardly spaced from said wall section, to serve as a mount for said compression device, said apparatus being characterised in that said cage has a plurality of spaced legs which are biased outwardly into contact with, and fixed to, the inner surface of said wall section adjacent to the junction between said wall section and said diaphragm. a wall section having an inner surface and an outer surface; a diaphragm formed integrally with, and closing one end of, said wall section, said diaphragm having an inner surface and an outer surface, the inner surfaces of said wall section and said diaphragm defining a hollow body; one or more vibrating elements extending from the outer surface of said diaphragm; one or more piezoelectric elements located within said hollow body; a compression device operable to compress said one or more piezoelectric elements against the inner surface of said diaphragm; and a separate cage located within said hollow body, inwardly spaced from said wall section, to serve as a mount for said compression device, said apparatus being characterised in that said cage has a plurality of spaced legs which are biased outwardly into contact with, and fixed to, the inner surface of said wall section adjacent to the junction between said wall section and said diaphragm.
A bike rack comprising an elongate body having a first end portion and a second end portion; a rear wheel receiver connected to the body adjacent the second end portion; and a fork mount device connected to the body adjacent the first end portion; characterized in that the fork mount device includes a body and a pair of retractable axle portions configured to move between a retracted position in which the axle portions are substantially contained in the body, and an extended position in which the axle portions extend sufficiently to engage axle holes of a 15 mm through-hole quick release style bicycle fork.
A method comprising: preparing, by a mobility access gateway (320, 330, 340), an access technology indicator that indicates an access technology type by which a mobile node attaches to the mobility access gateway; sending, by the mobility access gateway (320, 330, 340), a binding message to a local mobility entity including the access technology indicator; and receiving, by the mobility access gateway (320, 330, 340) from the local mobility entity, a prefix corresponding to a first interface through which the mobile node is attached to the mobility access gateway, wherein the prefix was generated in response to the binding message. preparing, by a mobility access gateway (320, 330, 340), an access technology indicator that indicates an access technology type by which a mobile node attaches to the mobility access gateway; sending, by the mobility access gateway (320, 330, 340), a binding message to a local mobility entity including the access technology indicator; and receiving, by the mobility access gateway (320, 330, 340) from the local mobility entity, a prefix corresponding to a first interface through which the mobile node is attached to the mobility access gateway, wherein the prefix was generated in response to the binding message.
An active diesel particulate filter regeneration system using a non-work load, comprising: an engine; pumps (160, 260, and 160a) serially connected to the engine to discharge a working fluid, and configured to be capable of varying a discharge flow of the working fluid; a diesel particulate filter disposed on an exhaust path through which exhaust gas discharged from the engine is discharged to the outside; characterized by a fuel injection means configured to perform an active DPF regeneration of combusting and removing soot collected in the diesel particulate filter by injecting a fuel into the exhaust path at a predetermined temperature; a selection switch configured to select the active DPF regeneration; and an active load generating means configured to provide a non-work load to the engine by increasing a discharge flow of the pump when the active DPF regeneration is selected, wherein the pump includes a main pump serially connected to the engine to supply the working fluid for driving a working unit, and when the main pump is driven by a negative control system controlling the discharge flow of the working fluid by feeding back a signal value based on pressure of the working fluid collected in a tank through a center by-pass line, the active load generating means enables the main pump to discharge a maximum flow of working fluid by arbitrarily adjusting the fed back value to a minimum level during the active DPF regeneration. an engine; pumps (160, 260, and 160a) serially connected to the engine to discharge a working fluid, and configured to be capable of varying a discharge flow of the working fluid; a diesel particulate filter disposed on an exhaust path through which exhaust gas discharged from the engine is discharged to the outside; characterized by a fuel injection means configured to perform an active DPF regeneration of combusting and removing soot collected in the diesel particulate filter by injecting a fuel into the exhaust path at a predetermined temperature; a selection switch configured to select the active DPF regeneration; and an active load generating means configured to provide a non-work load to the engine by increasing a discharge flow of the pump when the active DPF regeneration is selected, wherein the pump includes a main pump serially connected to the engine to supply the working fluid for driving a working unit, and when the main pump is driven by a negative control system controlling the discharge flow of the working fluid by feeding back a signal value based on pressure of the working fluid collected in a tank through a center by-pass line, the active load generating means enables the main pump to discharge a maximum flow of working fluid by arbitrarily adjusting the fed back value to a minimum level during the active DPF regeneration.
A refrigeration cycle apparatus, comprising: a refrigerant circuit configured to circulate refrigerant; a heat exchanger unit (1, 2) accommodating a heat exchanger (7, 5) of the refrigerant circuit; and a controller configured to control the heat exchanger unit, the heat exchanger unit including an air-sending fan (7f, 5f), an electric refrigerant detection unit (98, 99), and a notifier configured to output notification of an abnormality, the controller is configured to stop electric supply to the electric refrigerant detection unit when an electric supply stop condition is satisfied under a state in which the electric refrigerant detection unit is supplied with electricity, supply electricity to the electric refrigerant detection unit when an electric supply condition is satisfied under a state in which the electric supply to the electric refrigerant detection unit is stopped, and operate the air-sending fan and cause the notifier to output the notification of the abnormality when an integrated time of electric supply to the electric refrigerant detection unit becomes equal to or larger than a first threshold time. a refrigerant circuit configured to circulate refrigerant; a heat exchanger unit (1, 2) accommodating a heat exchanger (7, 5) of the refrigerant circuit; and a controller configured to control the heat exchanger unit, the heat exchanger unit including an air-sending fan (7f, 5f), an electric refrigerant detection unit (98, 99), and a notifier configured to output notification of an abnormality, the controller is configured to stop electric supply to the electric refrigerant detection unit when an electric supply stop condition is satisfied under a state in which the electric refrigerant detection unit is supplied with electricity, supply electricity to the electric refrigerant detection unit when an electric supply condition is satisfied under a state in which the electric supply to the electric refrigerant detection unit is stopped, and operate the air-sending fan and cause the notifier to output the notification of the abnormality when an integrated time of electric supply to the electric refrigerant detection unit becomes equal to or larger than a first threshold time.
A method for applying an abradable coating, the method comprising: generating a plasma; introducing a matrix-forming first particulate to the plasma at a first location; and introducing a second particulate of an organic particulate and/or salt particulate to the plasma at a second location downstream from the first location to mix with the matrix-forming first particulate, the second particulate having a characteristic size in the range 6.0 micrometers to 45.0 micrometers; and directing the first particulate and the second particulate to a target to form a coating on the target; characterised in that: both the first particulate and the second particulate are injected into a core of the plasma. generating a plasma; introducing a matrix-forming first particulate to the plasma at a first location; and introducing a second particulate of an organic particulate and/or salt particulate to the plasma at a second location downstream from the first location to mix with the matrix-forming first particulate, the second particulate having a characteristic size in the range 6.0 micrometers to 45.0 micrometers; and directing the first particulate and the second particulate to a target to form a coating on the target; characterised in that: both the first particulate and the second particulate are injected into a core of the plasma.
A method for making a genetically modified rabbit, comprising inserting an anchor DNA sequence into an endogenous locus of a secretory milk protein gene in a rabbit embryo by introducing to the rabbit embryo a CRISPR/Cas and a sgRNA, wherein the anchor DNA sequence comprises a first site-specific recombinase recognition site; transferring the rabbit embryo to a female rabbit; and allowing said rabbit embryo to develop into an animal, wherein the sgRNA has a target sequence of: GGATATCATGTTAGAGTGCCTGG (SEQ ID NO:1). wherein the secretory milk protein gene is β-Casein, and wherein the anchor DNA sequence is inserted in intron 1 of the endogenous locus of β-Casein. inserting an anchor DNA sequence into an endogenous locus of a secretory milk protein gene in a rabbit embryo by introducing to the rabbit embryo a CRISPR/Cas and a sgRNA, wherein the anchor DNA sequence comprises a first site-specific recombinase recognition site; transferring the rabbit embryo to a female rabbit; and allowing said rabbit embryo to develop into an animal, wherein the sgRNA has a target sequence of: GGATATCATGTTAGAGTGCCTGG (SEQ ID NO:1). wherein the secretory milk protein gene is β-Casein, and wherein the anchor DNA sequence is inserted in intron 1 of the endogenous locus of β-Casein.
A Michael acceptor-terminated urethane-containing prepolymer comprising the reaction product of reactants comprising: (a) an isocyanate-terminated urethane-containing adduct; and (b) a bis(vinylsulfonyl)alkanol (a) an isocyanate-terminated urethane-containing adduct; and (b) a bis(vinylsulfonyl)alkanol
A method for displaying ultrasound imaging data, the method comprising: generating an image from ultrasound data representative of a bodily structure and fluid flowing within the bodily structure; generating, from the ultrasound data, vector field data corresponding to the fluid flow, wherein the vector field data comprises axial and lateral velocity components of the fluid; defining a flow mask based on the available vector field data; dynamically updating the flow mask in subsequent image frames based on temporal variations of the available vector field data in corresponding vector flow frames; and displaying, on a user interface, a graphical representation of the vector field data overlaid on the image, wherein the graphical representation of the vector field data comprises a vector map including a flow mask layer defining a sub-region corresponding to the vector field data and a vector visualization layer illustrating at least partial trajectories of velocity vectors in the sub-region; extracting spatiotemporal information from the vector field data at one or more user-selected points within the image, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow; and concurrently displaying the spatiotemporal information at the one or more user-selected points with the image including the graphical representation of the vector field data, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow. generating an image from ultrasound data representative of a bodily structure and fluid flowing within the bodily structure; generating, from the ultrasound data, vector field data corresponding to the fluid flow, wherein the vector field data comprises axial and lateral velocity components of the fluid; defining a flow mask based on the available vector field data; dynamically updating the flow mask in subsequent image frames based on temporal variations of the available vector field data in corresponding vector flow frames; and displaying, on a user interface, a graphical representation of the vector field data overlaid on the image, wherein the graphical representation of the vector field data comprises a vector map including a flow mask layer defining a sub-region corresponding to the vector field data and a vector visualization layer illustrating at least partial trajectories of velocity vectors in the sub-region; extracting spatiotemporal information from the vector field data at one or more user-selected points within the image, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow; and concurrently displaying the spatiotemporal information at the one or more user-selected points with the image including the graphical representation of the vector field data, wherein the spatiotemporal information includes at least one of a magnitude and an angle of the fluid flow.
A mower wire box with a take-up structure, comprising a wire box and a wire reel arranged in the wire box, the wire box being provided inside with a supporting portion for rotating support, the wire reel being matched with the supporting portion through its shaft hole, a ratchet assembly being arranged between the wire reel and the wire box, wherein the ratchet assembly comprises an automatic casting-out assembly and a manual casting-out assembly; wherein the wire reel is provided with an inner ring gear and an outer ring gear in coaxial relationship; wherein the automatic casting-out assembly includes a first spring that presses a first pawl to the outer ring gear, and the manual casting-out assembly includes a second spring that presses a second pawl to the inner ring gear; wherein a rotating shaft is fitted in the central shaft hole of the supporting portion, and a rear end of the second pawl is connected to the rotating surface of the rotating shaft; wherein a torsion spring is disposed between the rotating shaft and the central shaft hole; wherein a curved chute, whose length is greater than a single pitch of the inner ring gear, is arranged on the bottom surface of the wire box; wherein a protrusion matched with the chute is disposed on the second pawl; the end of the rotating shaft is located outside the wire box, and a hexagonal surface is provided on the end of the rotating shaft to fit a manual wrench, characterized in that: the second pawl includes a cylindrical body, a rear end of the body being fixed to the rotating shaft, a front end of the body being provided with the second spring and a tooth head; the second spring presses the tooth head to the inner ring gear. wherein the ratchet assembly comprises an automatic casting-out assembly and a manual casting-out assembly; wherein the wire reel is provided with an inner ring gear and an outer ring gear in coaxial relationship; wherein the automatic casting-out assembly includes a first spring that presses a first pawl to the outer ring gear, and the manual casting-out assembly includes a second spring that presses a second pawl to the inner ring gear; wherein a rotating shaft is fitted in the central shaft hole of the supporting portion, and a rear end of the second pawl is connected to the rotating surface of the rotating shaft; wherein a torsion spring is disposed between the rotating shaft and the central shaft hole; wherein a curved chute, whose length is greater than a single pitch of the inner ring gear, is arranged on the bottom surface of the wire box; wherein a protrusion matched with the chute is disposed on the second pawl; the end of the rotating shaft is located outside the wire box, and a hexagonal surface is provided on the end of the rotating shaft to fit a manual wrench, characterized in that: the second pawl includes a cylindrical body, a rear end of the body being fixed to the rotating shaft, a front end of the body being provided with the second spring and a tooth head; the second spring presses the tooth head to the inner ring gear.