mhurhangee/ep-ind-claims huggingface dataset:
A computer-readable medium comprising instructions which, when executed, cause a single audio-visual automated speech recognition, AV-ASR, model to transcribe speech from audio-visual data, the single AV-ASR model comprising: an encoder frontend comprising an attention mechanism, the attention mechanism being configured to receive an audio track of the audio-visual data and a video portion of the audio-visual data, the video portion of the audio-visual data comprising a plurality of video face tracks, each video face track of the plurality of video face tracks is associated with a face of a respective person; and for each video face track of the plurality of video face tracks, determine a confidence score indicating a likelihood that the face of the respective person associated with the video face track comprises a speaking face of the audio track; and a decoder configured to process the audio track and the video face track of the plurality of video face tracks associated with the highest confidence score to determine a speech recognition result of the audio track. an encoder frontend comprising an attention mechanism, the attention mechanism being configured to receive an audio track of the audio-visual data and a video portion of the audio-visual data, the video portion of the audio-visual data comprising a plurality of video face tracks, each video face track of the plurality of video face tracks is associated with a face of a respective person; and for each video face track of the plurality of video face tracks, determine a confidence score indicating a likelihood that the face of the respective person associated with the video face track comprises a speaking face of the audio track; and receive an audio track of the audio-visual data and a video portion of the audio-visual data, the video portion of the audio-visual data comprising a plurality of video face tracks, each video face track of the plurality of video face tracks is associated with a face of a respective person; and for each video face track of the plurality of video face tracks, determine a confidence score indicating a likelihood that the face of the respective person associated with the video face track comprises a speaking face of the audio track; and a decoder configured to process the audio track and the video face track of the plurality of video face tracks associated with the highest confidence score to determine a speech recognition result of the audio track.
Heating system including a domestic hot water line in heat exchange connection to a supply line and a return line (3, 4) and where the domestic hot water line feeds water taps with heated water, whereas a heat pump is connected to said domestic hot water line transferring thermal energy from a fluid in a first fluid connection to a fluid in a second fluid connection of the heat pump, where said heat pump is defined by being able of transfer thermal energy from a first fluid to a second fluid, the second fluid being hotter than the first where the temperature of the first connection outlet is lower than the temperature of the second connection outlet, where the second fluid connection inlet is connected to a return line of said domestic hot water line downstream of at least the first of the water taps, and the second fluid connection outlet is connected to a supply part of said domestic hot water line being upstream of the first of the water taps, together forming a flow circuit where thermal energy in the heat pump is transferred to the water from the return part and then directed to the supply part, and where the first connection of heat pump includes an inlet connected to a supply line of the supply by a heating inlet communication, and an outlet connected to a return line of the supply by a heating outlet communication.
A powdered resin composition for slush molding comprising a thermoplastic polyurethane resin powder as the main component and a fine particle powder of a vinyl type copolymer comprising a copolymer of a monomer having one vinyl group and a monomer having two or more vinyl groups and having a cross-linked structure wherein the term "vinyl group" means a group having one carbon - carbon double bond.
Induction forming device, for a method for forming workpieces comprising a step of positioning of a workpiece (2, 2a) in a cold press comprising an inductor, at least one step of application, by means of the inductor, of a localized induction field suitable for raising an identified part of the workpiece to a temperature suitable for the deformation of said part and at least one step of application of a deformation tool (1a, 1b) to said heated identified part, the tool producing a hot forming of the identified part, characterized in that the inductor comprises at least two parallel conductor elements (5a, 5b, 6a, 6b) linked together at a first of their ends and linked to a current generator at a second of their ends, the conductor elements being passed through by an electrical current and suitable for generating an inductive field extending from one conductor element to the other along a curve centred on the axis passing between the two conductor elements, the inductor device being placed on just one side of the workpiece to be heated without surrounding it.
A welding device for a packaging machine for making and sealing at least one package containing a product comprising: - a first and a second sealing and cutting equipment (2, 3), wherein each sealing and cutting equipment (2, 3) is configured to receive a respective tubular envelope and to seal it transversally and wherein each sealing and cutting equipment (2, 3) comprises at least one cutting blade adapted to separate a portion of the respective tubular envelope for making a package containing a product; - a support body bearing said first and second sealing and cutting equipment (2, 3) arranged in opposite positions along an extension direction of said support body, said support body being connectible to a packaging machine, preferably to a rotary drum of a packaging machine; wherein each of said first and second sealing and cutting equipments (2, 3) comprises an arm and an abutment body, said arm being rotatably constrained with respect to said support body and reversibly movable between a plurality of positions comprised between an active position, wherein it is substantially in abutment on said abutment body and an inactive position in which it is raised with respect to said abutment body; and wherein each arm comprises a portion of locking means adapted to lock said arms in said active position. - a first and a second sealing and cutting equipment (2, 3), wherein each sealing and cutting equipment (2, 3) is configured to receive a respective tubular envelope and to seal it transversally and wherein each sealing and cutting equipment (2, 3) comprises at least one cutting blade adapted to separate a portion of the respective tubular envelope for making a package containing a product; - a support body bearing said first and second sealing and cutting equipment (2, 3) arranged in opposite positions along an extension direction of said support body, said support body being connectible to a packaging machine, preferably to a rotary drum of a packaging machine;
Electric generator comprising a stator and a rotor, wherein the stator comprises a stator winding electrically connected to a rectifier, wherein the rectifier comprises plus and minus diodes (88, 58) connected by means of a bridge circuit, wherein the plus diodes are connected to a plus heat sink and the minus diodes are connected to a minus heat sink, wherein the rectifier is covered by a protective cap comprising cooling air openings, wherein the protective cap has at least one opening disposed axially over the minus diode and the minus heat sink, wherein between the protective cap and the minus heat sink, behind an intermediate space, initially a connection plate is disposed for realizing the rectifier bridge circuit, wherein the plus heat sink follows behind a further intermediate space and a third intermediate space is between the final protective cap and the plus heat sink, characterized in that the protective cap has a lowered ring section which is approximately at axial height of the plus heat sink, wherein for tolerance and manufacturing reasons there is a narrow intermediate space between the plus heat sink and the ring section, so that a cooling airflow sucked through the openings flows substantially between the connection plate and the minus heat sink and thereby effectively cools the minus diodes because a preheating by cooling plus diodes does not occur. wherein the rectifier comprises plus and minus diodes (88, 58) connected by means of a bridge circuit, wherein the plus diodes are connected to a plus heat sink and the minus diodes are connected to a minus heat sink, wherein the rectifier is covered by a protective cap comprising cooling air openings, wherein the protective cap has at least one opening disposed axially over the minus diode and the minus heat sink, wherein between the protective cap and the minus heat sink, behind an intermediate space, initially a connection plate is disposed for realizing the rectifier bridge circuit, wherein the plus heat sink follows behind a further intermediate space and a third intermediate space is between the final protective cap and the plus heat sink, characterized in that the protective cap has a lowered ring section which is approximately at axial height of the plus heat sink, wherein for tolerance and manufacturing reasons there is a narrow intermediate space between the plus heat sink and the ring section, so that a cooling airflow sucked through the openings flows substantially between the connection plate and the minus heat sink and thereby effectively cools the minus diodes because a preheating by cooling plus diodes does not occur.
A device for generating an energy-resolved X-ray image comprising a multiplicity of pixels, wherein the device comprises: - an X-ray source; - an X-ray detector; - an adapting means; and - a control and evaluation unit; wherein the X-ray source is configured to direct an X-ray beam through a region of interest of an object; wherein the X- ray detector is configured to acquire initial X-ray intensity values of X-rays transmitted through the region of interest for each of the pixels; wherein the adapting means are configured to adapt an energy threshold value for each pixel in dependence of the acquired X-ray intensity values for each of the pixels; and wherein the X-ray source is further configured to direct an X-ray beam having an X-ray spectrum through the region of interest of the object; wherein the X- ray detector is further configured to acquire first main X-ray intensity values of X-rays transmitted through the region of interest within a first partial X-ray spectrum range at energies below the adapted energy threshold value and to acquire second main x-ray intensity values of X-rays transmitted through the region of interest within a second partial X-ray spectrum range at energies above the adapted energy threshold value for each of the pixels, respectively; and wherein the control and evaluation unit is configured to generate the energy-resolved X-ray image based on the first and second main x-ray intensity values for each of the pixels. - an X-ray source; - an X-ray detector; - an adapting means; and - a control and evaluation unit;
A cellular mobile device configured to operate in a cellular communication network, comprising: generator to generate an outgoing divergent beam for an optical source that is coincident with an incoming divergent beam for an optical detector; determinator to determine an adjustment to a mirror to cause an optical alignment of the incoming divergent beam with the optical detector based on at least an optical intensity across the optical detector, wherein the alignment is with respect to another cellular mobile device; adjustor to adjust a position of the mirror according to the determined adjustment; and change the outgoing divergent beam to an outgoing collimated beam to enable optical communications with the other cellular mobile device via the outgoing collimated beam. generator to generate an outgoing divergent beam for an optical source that is coincident with an incoming divergent beam for an optical detector; determinator to determine an adjustment to a mirror to cause an optical alignment of the incoming divergent beam with the optical detector based on at least an optical intensity across the optical detector, wherein the alignment is with respect to another cellular mobile device; adjustor to adjust a position of the mirror according to the determined adjustment; and change the outgoing divergent beam to an outgoing collimated beam to enable optical communications with the other cellular mobile device via the outgoing collimated beam.
An electronic antitheft device comprising electronic detection means, a first part and a second part, each provided with a so-called contact inner surface (20, 30), and the first part being movable with respect to the second part so as to cooperate by clamping at their respective contact surface (20, 30), characterised in that at least one of the parts, preferably both parts (2, 3), comprise, on their contact surface (20, 30), an abrasive covering in the form of a support carrying abrasive grains.
A tire comprising a tread portion, the tread portion comprising: at least one circumferential groove continuously extending in a tire circumferential direction along a tire equator; a plurality of tilted grooves continuously extending from the circumferential groove to tread ends (Te); and a plurality of blocks (5, 10, 15, 20) each delimited by the circumferential groove, corresponding ones of the tilted grooves, and a corresponding one of the tread ends (Te), wherein each of the plurality of blocks (5, 10, 15, 20) has a plurality of sipes (6, 11, 16, 21) extending along the tilted grooves, the plurality of sipes (6, 11, 16, 21) at least include at least one first sipe (6A, 11A, 16A, 21A) located on the tire equator side, and at least one second sipe (6B, 11B, 16B, 21B) located on the tread end (Te) side, and characterized in that the plurality of sipes (6, 11, 16, 21) further include at least one third sipe (6C, 11C, 16C, 21C) located between the first sipe (6A, 11A, 16A, 21A) and the second sipe (6B, 11B, 16B, 21B) in a tire axial direction, and extending in a longitudinal direction so as to be bent; an end on the tread end (Te) side of the third sipe (6C, 11C, 16C, 21C) is located on an extension line of the second sipe (6B, 11B, 16B, 21B); wherein a break portion is provided between each pair of neighboring sipes of the plurality of sipes (6, 11, 16, 21) and the length of each break is in a range of 2 to 6 mm. at least one circumferential groove continuously extending in a tire circumferential direction along a tire equator; a plurality of tilted grooves continuously extending from the circumferential groove to tread ends (Te); and a plurality of blocks (5, 10, 15, 20) each delimited by the circumferential groove, corresponding ones of the tilted grooves, and a corresponding one of the tread ends (Te), wherein each of the plurality of blocks (5, 10, 15, 20) has a plurality of sipes (6, 11, 16, 21) extending along the tilted grooves, the plurality of sipes (6, 11, 16, 21) at least include at least one first sipe (6A, 11A, 16A, 21A) located on the tire equator side, and at least one second sipe (6B, 11B, 16B, 21B) located on the tread end (Te) side, and characterized in that at least one first sipe (6A, 11A, 16A, 21A) located on the tire equator side, and at least one second sipe (6B, 11B, 16B, 21B) located on the tread end (Te) side, and characterized in that the plurality of sipes (6, 11, 16, 21) further include at least one third sipe (6C, 11C, 16C, 21C) located between the first sipe (6A, 11A, 16A, 21A) and the second sipe (6B, 11B, 16B, 21B) in a tire axial direction, and extending in a longitudinal direction so as to be bent; an end on the tread end (Te) side of the third sipe (6C, 11C, 16C, 21C) is located on an extension line of the second sipe (6B, 11B, 16B, 21B); wherein a break portion is provided between each pair of neighboring sipes of the plurality of sipes (6, 11, 16, 21) and the length of each break is in a range of 2 to 6 mm.
A human or humanised anti-nerve growth factor antibody or antigen binding fragment thereof, wherein said antibody or antigen binding fragment thereof competes for binding to human NGF with a reference antibody and/or binds the same human NGF epitope as the reference antibody, wherein the reference antibody comprises a heavy chain variable region comprising the sequence shown in SEQ ID NO:1 and a light chain variable region comprising the sequence shown in SEQ ID NO:2; wherein said antibody or antigen binding fragment thereof: binds human NGF with a K D of less than 2 nM as measured by surface plasmon resonance; inhibits human NGF-dependent survival of mouse E13.5 trigeminal neurons with an IC50 of 100 pM or less, wherein the IC50 is measured at 15 pM human NGF; and inhibits human NGF-dependent survival of mouse E13.5 trigeminal neurons with an IC50 of 10 pM or less, wherein the IC50 is measured at 1.5 pM of human NGF; wherein the antibody comprises heavy chain variable and light chain variable region sequences having at least 95% identity to the heavy chain variable and light chain variable region sequences of the reference antibody; and wherein the antibody is not the reference antibody. binds human NGF with a K D of less than 2 nM as measured by surface plasmon resonance; inhibits human NGF-dependent survival of mouse E13.5 trigeminal neurons with an IC50 of 100 pM or less, wherein the IC50 is measured at 15 pM human NGF; and inhibits human NGF-dependent survival of mouse E13.5 trigeminal neurons with an IC50 of 10 pM or less, wherein the IC50 is measured at 1.5 pM of human NGF;
A brain activity analysis apparatus, which processes at least one brain electrical signal to generate an analysis result, comprising at least one sensing unit detecting brain waves of a subject to acquire said at least one brain electrical signal; a display unit electrically connected with said signal processing unit and presenting said analysis result; and a signal processing unit being in communication with said sensing unit to receive said brain electrical signal, using a nonstationary decomposition method to decompose said brain electrical signal to acquire a plurality of sub-signals carrying intrinsic feature components, demodulating each of said sub-signals to generate modulation signals respectively corresponding to said sub-signals, characterised by undertaking recursive iteration of said modulation signals, wherein a feature mask is used to determine whether to proceed with further decomposition and demodulation of the acquired modulation signals or to select modulation signals of interest from all said modulation signals as feature modulation signals, and undertaking quantitation processes and identification processes of said feature modulation signals to obtain the analysis result corresponding to said brain electrical signal. at least one sensing unit detecting brain waves of a subject to acquire said at least one brain electrical signal; a display unit electrically connected with said signal processing unit and presenting said analysis result; and a signal processing unit being in communication with said sensing unit to receive said brain electrical signal, using a nonstationary decomposition method to decompose said brain electrical signal to acquire a plurality of sub-signals carrying intrinsic feature components, demodulating each of said sub-signals to generate modulation signals respectively corresponding to said sub-signals, characterised by undertaking recursive iteration of said modulation signals, wherein a feature mask is used to determine whether to proceed with further decomposition and demodulation of the acquired modulation signals or to select modulation signals of interest from all said modulation signals as feature modulation signals, and undertaking quantitation processes and identification processes of said feature modulation signals to obtain the analysis result corresponding to said brain electrical signal.
A grain bin moisture sensor system comprising: a data collector configured to be associated with a grain bin and comprising a data collector microprocessor and a data collector memory coupled to at least one capacitive moisture cable hanging within the grain bin; each capacitive moisture cable comprising a plurality of sensor nodes spaced at a predetermined interval along a wiring cable through which the sensor nodes are wired in parallel to the data collector; each sensor node comprising a sensor node microprocessor and a sensor node memory coupled to a temperature sensor, a reference capacitive sensor, and a capacitive moisture sensor, each sensor node further comprising a pair of longitudinally extending capacitive plates (46,48) of the capacitive moisture sensor positioned in side-by-side, spaced-apart relationship to form a longitudinally extending gap between the capacitive plates, a longitudinal length of the moisture cable being positioned within the longitudinal gap between the capacitive plates, a circuit board comprising the sensor node microprocessor, the sensor node memory, and the temperature sensor being positioned within the longitudinal gap between the capacitive plates and adjacent the length of moisture cable; and each sensor node further comprising an outer housing sealed to the moisture cable at each longitudinal end of the housing to create a sealed enclosure surrounding the circuit board, the capacitive plates, and the longitudinal length of the moisture cable, the wiring cable extending through and sealing openings in each longitudinal end of the housing. a data collector configured to be associated with a grain bin and comprising a data collector microprocessor and a data collector memory coupled to at least one capacitive moisture cable hanging within the grain bin; each capacitive moisture cable comprising a plurality of sensor nodes spaced at a predetermined interval along a wiring cable through which the sensor nodes are wired in parallel to the data collector; each sensor node comprising a sensor node microprocessor and a sensor node memory coupled to a temperature sensor, a reference capacitive sensor, and a capacitive moisture sensor, each sensor node further comprising a pair of longitudinally extending capacitive plates (46,48) of the capacitive moisture sensor positioned in side-by-side, spaced-apart relationship to form a longitudinally extending gap between the capacitive plates, a longitudinal length of the moisture cable being positioned within the longitudinal gap between the capacitive plates, a circuit board comprising the sensor node microprocessor, the sensor node memory, and the temperature sensor being positioned within the longitudinal gap between the capacitive plates and adjacent the length of moisture cable; and each sensor node further comprising an outer housing sealed to the moisture cable at each longitudinal end of the housing to create a sealed enclosure surrounding the circuit board, the capacitive plates, and the longitudinal length of the moisture cable, the wiring cable extending through and sealing openings in each longitudinal end of the housing.