mhurhangee/ep-ind-claims huggingface dataset:
Video production system comprisinga plurality of low usage cameras occasionally used in a program output stream, a plurality of cameras frequently used in a program output stream and a video production server which ingests camera streams provided by the plurality of frequently used cameras, wherein the system further comprises a cloud recorder, - wherein the cloud recorder ingests and stores camera streams provided by the plurality of low usage cameras occasionally used in the program output stream, characterized in that - the video production server stores the camera streams provided by the plurality of frequently used cameras, - that the cloud recorder is communicatively connected via a first data connection with a replay device enabling an operator to browse through all the recorded camera streams from the plurality of low usage cameras and to select one of the recorded camera streams for replay by sending a corresponding command to the cloud recorder; and - that the cloud recorder is communicatively connected via a second data connection for providing the recorded camera stream that has been selected to the video production server. - wherein the cloud recorder ingests and stores camera streams provided by the plurality of low usage cameras occasionally used in the program output stream, characterized in that - the video production server stores the camera streams provided by the plurality of frequently used cameras, - that the cloud recorder is communicatively connected via a first data connection with a replay device enabling an operator to browse through all the recorded camera streams from the plurality of low usage cameras and to select one of the recorded camera streams for replay by sending a corresponding command to the cloud recorder; and - that the cloud recorder is communicatively connected via a second data connection for providing the recorded camera stream that has been selected to the video production server.
A method for real-time traffic detection, wherein the method comprises: capturing ambient sounds as an audio sample in a plurality of user devices; segmenting the audio sample into a plurality of audio frames; filtering background noise from the plurality of audio frames to obtain filtered audio frames; identifying periodic frames amongst the plurality of filtered audio frames, wherein the identifying periodic frames comprises separating the plurality of audio frames into the periodic frames, non-periodic frames, and silenced frames; extracting and receiving spectral features of the periodic frames from the plurality of user devices in a geographical location for real-time traffic detection; identifying horn sounds from the received spectral features; and detecting real-time traffic congestion at the geographical location based on the identified horn sounds. capturing ambient sounds as an audio sample in a plurality of user devices; segmenting the audio sample into a plurality of audio frames; filtering background noise from the plurality of audio frames to obtain filtered audio frames; identifying periodic frames amongst the plurality of filtered audio frames, wherein the identifying periodic frames comprises separating the plurality of audio frames into the periodic frames, non-periodic frames, and silenced frames; extracting and receiving spectral features of the periodic frames from the plurality of user devices in a geographical location for real-time traffic detection; identifying horn sounds from the received spectral features; and detecting real-time traffic congestion at the geographical location based on the identified horn sounds.
A method performed by a Session Management Function, SMF, for providing access to a Data Network, DN, the method comprising: - registering a Network Function, NF, profile for the SMF, the NF profile including a first DN Access Identifier, DNAI, that indicates that the SMF has access to a DN identified by the first DNAI. - registering a Network Function, NF, profile for the SMF, the NF profile including a first DN Access Identifier, DNAI, that indicates that the SMF has access to a DN identified by the first DNAI.
A virtual image display device comprising: a projection unit configured to project an image display light; an intermediate image formation unit (14, 114, 214) on which a real image (56, 57) based on the image display light is formed; and a projection mirror configured to reflect the image display light output from the intermediate image formation unit toward a virtual image presentation plane, wherein the intermediate image formation unit includes a reference surface (21, 221) on which the image display light is incident and a reflective part (28, 228) that reflects a portion of the image display light transmitted through the reference surface toward the reference surface, characterized in that the reference surface includes a first area, a second area, and a third area arranged in that stated order in a predetermined direction along the reference surface, the first area is provided with a transmission-type screen on which a first display light that is a portion of the image display light forms an image, and the third area is provided with a reflection-type screen on which a second display light that is another portion of the image display light forms an image, the first display light is transmitted through the transmission-type screen, reflected by the reflective part (28, 228), transmitted through the second area, and output toward the projection mirror, and the second display light is reflected by the reflection-type screen and output toward the projection mirror. a projection unit configured to project an image display light; an intermediate image formation unit (14, 114, 214) on which a real image (56, 57) based on the image display light is formed; and a projection mirror configured to reflect the image display light output from the intermediate image formation unit toward a virtual image presentation plane, wherein the intermediate image formation unit includes a reference surface (21, 221) on which the image display light is incident and a reflective part (28, 228) that reflects a portion of the image display light transmitted through the reference surface toward the reference surface, characterized in that the reference surface includes a first area, a second area, and a third area arranged in that stated order in a predetermined direction along the reference surface, the first area is provided with a transmission-type screen on which a first display light that is a portion of the image display light forms an image, and the third area is provided with a reflection-type screen on which a second display light that is another portion of the image display light forms an image, the first display light is transmitted through the transmission-type screen, reflected by the reflective part (28, 228), transmitted through the second area, and output toward the projection mirror, and the second display light is reflected by the reflection-type screen and output toward the projection mirror.
A refrigerator comprising a body; a door which provides access into the body; and a receptacle which is suitable for vegetables and fruits therein and which has a perforated cover for discharging the moisture therein into the body, a lid which is placed on the perforated cover, a base, a front wall, side walls and a rear wall, characterized by further comprising a moisture screen having a plurality of holes and positioned so as to contact at least one of the base, the front wall, the side walls and the rear wall such that the vegetables and fruits do not come into contact with moisture and by the receptacle which is, when the door is closed, seated into a door pocket formed on the inner lining of the side of the door facing the body and having a first cavity and a second cavity.
A sliceable bone repair material comprising a porous block-shaped scaffold containing a hydrogel, wherein the hydrogel is formed by Michael type addition of at least two precursor molecules, and wherein said scaffold is made of a synthetic ceramic material and comprises interconnected macropores having a diameter above 100 μm, and said scaffold having a total porosity of 60 to less than 80% characterized in that 30 to 60% of the total volume of the interconnected macropores is filled with said hydrogel.
A method of electromagnetic heating, comprising: placing an object to be heated in a cavity (10, 98), subjecting the object to input UHF or microwave energy in an amount capable of heating the object; measuring a heating efficiency over a plurality of frequencies; and adjusting the electromagnetic heating at each of the frequencies according to the measured heating efficiency at that frequency; characterized by the method further comprising: determining an amount of the input energy that is not output from the cavity; and adjusting the electromagnetic heating when the determined amount of energy reaches a desired amount of energy. placing an object to be heated in a cavity (10, 98), subjecting the object to input UHF or microwave energy in an amount capable of heating the object; measuring a heating efficiency over a plurality of frequencies; and adjusting the electromagnetic heating at each of the frequencies according to the measured heating efficiency at that frequency; characterized by the method further comprising: determining an amount of the input energy that is not output from the cavity; and adjusting the electromagnetic heating when the determined amount of energy reaches a desired amount of energy. determining an amount of the input energy that is not output from the cavity; and adjusting the electromagnetic heating when the determined amount of energy reaches a desired amount of energy.
An optical fiber, comprising: a first tubular member having an internal surface, a first wall thickness (t 1), and an outer diameter greater than 300 μm; a plurality of second tubular members extending through the first tubular member and spaced apart about the internal surface, with a minimum spacing (d) of 2.7 μm between adjacent second tubular members, with the second tubular members defining a core region having a radius in the range of 25 μm to 50 μm, and each second tubular member having a second wall thickness (t 2); and a plurality of third tubular members, with each third tubular member nested in and extending through a respective second tubular member, and each third tubular member having a third wall thickness (t 3), wherein the arrangement of the tubular members (102, 108, 116) defines a Nested Anti-resonant Nodeless hollow core Fiber, NANF, configured to confine and guide light in the range between 1050 nm and 1100 nm for transmission through the core region with a loss of 0.3dB/km from optical anti-resonance in the arrangement of the tubular members (102, 108, 116). a first tubular member having an internal surface, a first wall thickness (t 1), and an outer diameter greater than 300 μm; a plurality of second tubular members extending through the first tubular member and spaced apart about the internal surface, with a minimum spacing (d) of 2.7 μm between adjacent second tubular members, with the second tubular members defining a core region having a radius in the range of 25 μm to 50 μm, and each second tubular member having a second wall thickness (t 2); and a plurality of third tubular members, with each third tubular member nested in and extending through a respective second tubular member, and each third tubular member having a third wall thickness (t 3), wherein the arrangement of the tubular members (102, 108, 116) defines a Nested Anti-resonant Nodeless hollow core Fiber, NANF, configured to confine and guide light in the range between 1050 nm and 1100 nm for transmission through the core region with a loss of 0.3dB/km from optical anti-resonance in the arrangement of the tubular members (102, 108, 116).
A method for signal processing for controlling a digital audio source comprising: retrieving a time code signal from a rotating recording medium; filtering the time code signal to recover a sinusoidal pilot signal and a binary signal; and providing estimated speed of rotation of the recording medium determined from the recovered pilot signal, and estimated position data, which indicates a position on the recording medium, determined from the recovered binary signal, for controlling the digital audio source; characterized in that the time code signal is a sum of the binary signal and the sinusoidal pilot signal having a frequency in the audible range, the ratio of the frequency of the pilot signal to a symbol frequency of the binary signal being at least 1.5:1; and wherein the filtering includes using a low pass/high pass crossover filter having respective predetermined low pass and high pass cut off frequencies to generate a low pass output and high pass output, wherein in the low pass output the recovered pilot signal is attenuated a predetermined amount relative to the recovered binary signal and wherein in the high pass output the recovered binary signal is attenuated a predetermined amount relative to the recovered pilot signal. retrieving a time code signal from a rotating recording medium; filtering the time code signal to recover a sinusoidal pilot signal and a binary signal; and providing estimated speed of rotation of the recording medium determined from the recovered pilot signal, and estimated position data, which indicates a position on the recording medium, determined from the recovered binary signal, for controlling the digital audio source; characterized in that the time code signal is a sum of the binary signal and the sinusoidal pilot signal having a frequency in the audible range, the ratio of the frequency of the pilot signal to a symbol frequency of the binary signal being at least 1.5:1; and wherein the filtering includes using a low pass/high pass crossover filter having respective predetermined low pass and high pass cut off frequencies to generate a low pass output and high pass output, wherein in the low pass output the recovered pilot signal is attenuated a predetermined amount relative to the recovered binary signal and wherein in the high pass output the recovered binary signal is attenuated a predetermined amount relative to the recovered pilot signal.
An image display device configured to project laser light onto a projection surface to display an image on the projection surface, comprising: a laser light source (2a-2c) configured to emit the laser light with an optical output corresponding to a driving current; an optical system (3, 4, 5, 7) configured to guide the laser light emitted by the laser light source so as to be projected onto the projection surface; a polarization switching unit that is provided in an optical path of the laser light to the projection surface and is configured to periodically switch a polarization direction of the laser light emitted therefrom between a first polarization direction and a second polarization direction; and characterized by a laser control unit configured to control the laser light source in synchronization with the switching by the polarization switching unit, to determine the driving current corresponding to a grayscale to be displayed on the basis of first driving current characteristics when the polarization direction of the laser light is the first polarization direction, and to determine the driving current corresponding to the grayscale to be displayed on the basis of second driving current characteristics different from the first driving current characteristics when the polarization direction of the laser light is the second polarization direction, wherein the driving current characteristics are specified so as to prevent image flickering due to a periodic change in brightness caused by the switching of the polarization direction. a laser light source (2a-2c) configured to emit the laser light with an optical output corresponding to a driving current; an optical system (3, 4, 5, 7) configured to guide the laser light emitted by the laser light source so as to be projected onto the projection surface; a polarization switching unit that is provided in an optical path of the laser light to the projection surface and is configured to periodically switch a polarization direction of the laser light emitted therefrom between a first polarization direction and a second polarization direction; and characterized by a laser control unit configured to control the laser light source in synchronization with the switching by the polarization switching unit, to determine the driving current corresponding to a grayscale to be displayed on the basis of first driving current characteristics when the polarization direction of the laser light is the first polarization direction, and to determine the driving current corresponding to the grayscale to be displayed on the basis of second driving current characteristics different from the first driving current characteristics when the polarization direction of the laser light is the second polarization direction, wherein the driving current characteristics are specified so as to prevent image flickering due to a periodic change in brightness caused by the switching of the polarization direction.
A contactless electric power transmission device comprising: a power transmission assembly including an inverter, a filter circuit, and a resonance circuit, the inverter being configured to produce alternate current power having a given frequency, the resonance circuit being configured to receive the alternate current power from the inverter via the filter circuit, and contactlessly transmit the alternate current power to an electric power receiving device; a first temperature sensor configured to detect a temperature of the inverter; a second temperature sensor configured to detect a temperature of the resonance circuit; and an electronic control unit configured to adjust the frequency of the alternate current power by controlling the inverter, the electronic control unit being configured to perform first control when the temperature of the inverter is higher than the temperature of the resonance circuit, and perform second control when the temperature of the resonance circuit is higher than the temperature of the inverter, the first control including control for adjusting the frequency so as to reduce output current of the inverter, the second control including control for adjusting the frequency so as to reduce current flowing through the resonance circuit. a power transmission assembly including an inverter, a filter circuit, and a resonance circuit, the inverter being configured to produce alternate current power having a given frequency, the resonance circuit being configured to receive the alternate current power from the inverter via the filter circuit, and contactlessly transmit the alternate current power to an electric power receiving device; a first temperature sensor configured to detect a temperature of the inverter; a second temperature sensor configured to detect a temperature of the resonance circuit; and an electronic control unit configured to adjust the frequency of the alternate current power by controlling the inverter, the electronic control unit being configured to perform first control when the temperature of the inverter is higher than the temperature of the resonance circuit, and perform second control when the temperature of the resonance circuit is higher than the temperature of the inverter, the first control including control for adjusting the frequency so as to reduce output current of the inverter, the second control including control for adjusting the frequency so as to reduce current flowing through the resonance circuit.
An exhaust tool comprising: a bar-shaped body portion; and a tip portion provided at an end of the body portion, characterized in that the exhaust tool further comprises: a through-hole-shaped holding portion which is provided at the tip portion and is configured to restrict movement of the body portion by being configured to be put so that a first tightening portion placed inside an insulating connector of a first electric apparatus having a bus and the connector passes through the holding portion; and a cut-in portion which is not configured to be penetrated and is cut in adjacently to the holding portion, the cut-in portion being formed in a valley-like shape by being cut in toward the inner side of the exhaust tool, the cut-in portion having a thin portion left at the bottom of the valley part, wherein the cut-in portion is configured to be torn by the first tightening portion when the exhaust tool is drawn in a direction away from the first tightening portion. a bar-shaped body portion; and a tip portion provided at an end of the body portion, characterized in that the exhaust tool further comprises: a through-hole-shaped holding portion which is provided at the tip portion and is configured to restrict movement of the body portion by being configured to be put so that a first tightening portion placed inside an insulating connector of a first electric apparatus having a bus and the connector passes through the holding portion; and a cut-in portion which is not configured to be penetrated and is cut in adjacently to the holding portion, the cut-in portion being formed in a valley-like shape by being cut in toward the inner side of the exhaust tool, the cut-in portion having a thin portion left at the bottom of the valley part, wherein the cut-in portion is configured to be torn by the first tightening portion when the exhaust tool is drawn in a direction away from the first tightening portion. a through-hole-shaped holding portion which is provided at the tip portion and is configured to restrict movement of the body portion by being configured to be put so that a first tightening portion placed inside an insulating connector of a first electric apparatus having a bus and the connector passes through the holding portion; and a cut-in portion which is not configured to be penetrated and is cut in adjacently to the holding portion, the cut-in portion being formed in a valley-like shape by being cut in toward the inner side of the exhaust tool, the cut-in portion having a thin portion left at the bottom of the valley part, wherein the cut-in portion is configured to be torn by the first tightening portion when the exhaust tool is drawn in a direction away from the first tightening portion.
A turbine assembly comprising: a wheel configured to rotate in response to a portion of a fluid flow bypassing a flow control valve; a generator including a stator assembly disposed about a rotor, the rotor being coupled to the wheel to rotate in response to rotation of the wheel; a thermally conductive structure in contact with the stator assembly, wherein a portion of the conductive structure is exposed to the portion of the fluid flow; and an insulating structure radially encompassing the conductive structure and the generator. a wheel configured to rotate in response to a portion of a fluid flow bypassing a flow control valve; a generator including a stator assembly disposed about a rotor, the rotor being coupled to the wheel to rotate in response to rotation of the wheel; a thermally conductive structure in contact with the stator assembly, wherein a portion of the conductive structure is exposed to the portion of the fluid flow; and an insulating structure radially encompassing the conductive structure and the generator.