mhurhangee/ep-ind-claims huggingface dataset:
A device comprising: a memory device configured to store audio spatial metadata associated with a soundfield and video data; a processor coupled to the memory device, the processor configured to: identify one or more foreground audio objects of the soundfield using the audio spatial metadata stored in the memory device, select, based on the identified one or more foreground audio objects, one or more viewports associated with the video data, and upsample a portion of the video data stored in the memory device that is associated with the identified one or more foreground audio objects; and display hardware coupled to the processor and the memory device, the display hardware configured to output the upsampled portion of the video data being associated with the one or more viewports selected by the processor. a memory device configured to store audio spatial metadata associated with a soundfield and video data; a processor coupled to the memory device, the processor configured to: identify one or more foreground audio objects of the soundfield using the audio spatial metadata stored in the memory device, select, based on the identified one or more foreground audio objects, one or more viewports associated with the video data, and upsample a portion of the video data stored in the memory device that is associated with the identified one or more foreground audio objects; and display hardware coupled to the processor and the memory device, the display hardware configured to output the upsampled portion of the video data being associated with the one or more viewports selected by the processor.
A method of preparing nucleic acids for analysis, the method comprising: (a) adding one or more nucleotides to a 3' end of a double-stranded nucleic acid comprising a target nucleotide sequence, wherein at least one of the one or more nucleotides is a capture moiety modified nucleotide; (b) ligating an adapter nucleic acid to the double-stranded nucleic acid to which the capture moiety modified nucleotide has been added to produce a ligation product, wherein a sequence of one or more nucleotides at a 3' end of the adapter nucleic acid is complementary with the one or more nucleotides added to the 3' end of the double-stranded nucleic acid in step (a); (c) capturing the ligation product by contacting the ligation product with a binding partner of the capture moiety modified nucleotide; and (d) amplifying the ligation product by polymerase chain reaction using a first target-specific primer that specifically anneals to the target nucleotide sequence and a first adapter primer that specifically anneals to a complementary sequence of the adapter nucleic acid. (a) adding one or more nucleotides to a 3' end of a double-stranded nucleic acid comprising a target nucleotide sequence, wherein at least one of the one or more nucleotides is a capture moiety modified nucleotide; (b) ligating an adapter nucleic acid to the double-stranded nucleic acid to which the capture moiety modified nucleotide has been added to produce a ligation product, wherein a sequence of one or more nucleotides at a 3' end of the adapter nucleic acid is complementary with the one or more nucleotides added to the 3' end of the double-stranded nucleic acid in step (a); (c) capturing the ligation product by contacting the ligation product with a binding partner of the capture moiety modified nucleotide; and (d) amplifying the ligation product by polymerase chain reaction using a first target-specific primer that specifically anneals to the target nucleotide sequence and a first adapter primer that specifically anneals to a complementary sequence of the adapter nucleic acid.
A dental implant (10, 20) for anchoring in a jawbone to support an abutment for mounting a dental prosthesis, comprising: a collar portion located at an open proximal end having an axial opening that extends into a blind hole proceeding from the proximal end into the interior of the implant (10, 20) and configured to secure the abutment to the dental implant (10, 20); a mid portion integrally connected to the collar portion and including external helical threads turning around an external wall of the mid portion, and a base hollow portion integrally connected to a mid portion and located at an open distal end of said implant and comprising a wall defining an internal storage volume for an osseous tissue of said jawbone, said base hollow portion comprising a plurality of openings (135, 235) arranged in the wall and entering said internal storage volume; characterized in that said mid portion being tapered over the mid portion entire length with contraction towards the base hollow portion, and said base hollow portion being unthreaded and tapered over the base hollow portion entire length with contraction towards the distal end. a collar portion located at an open proximal end having an axial opening that extends into a blind hole proceeding from the proximal end into the interior of the implant (10, 20) and configured to secure the abutment to the dental implant (10, 20); a mid portion integrally connected to the collar portion and including external helical threads turning around an external wall of the mid portion, and a base hollow portion integrally connected to a mid portion and located at an open distal end of said implant and comprising a wall defining an internal storage volume for an osseous tissue of said jawbone, said base hollow portion comprising a plurality of openings (135, 235) arranged in the wall and entering said internal storage volume; characterized in that said mid portion being tapered over the mid portion entire length with contraction towards the base hollow portion, and said base hollow portion being unthreaded and tapered over the base hollow portion entire length with contraction towards the distal end.
A method for preparing a compound of Formula V, comprising the step of reacting a compound of Formula VA with a compound selected from 2,3-dichloro-5,6-dicyano-1,4-benzoquinone and para-benzoquinone, in the presence of an acid; wherein said compound of Formula VA is selected from Table A and wherein R 1 is as defined in Table A: Table A: No Structure No Structure 1 60 2 61 3 62 4 63 5 64 6 65 7 66 8 67 9 68 10 69 11 70 12 71 13 72 14 73 15 74 16 75 17 76 18 77 19 78 20 79 21 80 22 81 23 82 24 83 25 84 26 85 27 86 28 87 29 88 30 89 31 90 32 91 33 92 34 93 35 94 36 95 37 96 38 97 39 98 40 99 41 100 42 101 43 102 44 103 45 104 46 105 47 106 48 107 49 108 50 109 51 110 52 111 53 112 54 113 55 114 56 115 57 116 58 117 59 118
A system for detecting blood in an oral cavity during toothbrushing, the system comprising: a toothbrush comprising: a sensor configured to emit first light at a first wavelength and second light at a second wavelength, receive reflected portions of the first light and the second light, and generate a first signal indicative of a first intensity of the reflected portion of the first light and a second signal indicative of a second intensity of the reflected portion of the second light; and a power source operably coupled to the sensor to supply power to the sensor; and a processor operably coupled to the sensor and configured to receive the first and second signals and calculate a ratio of the first intensity to the second intensity to determine whether hemoglobin is present in the oral cavity. a sensor configured to emit first light at a first wavelength and second light at a second wavelength, receive reflected portions of the first light and the second light, and generate a first signal indicative of a first intensity of the reflected portion of the first light and a second signal indicative of a second intensity of the reflected portion of the second light; and a power source operably coupled to the sensor to supply power to the sensor; and a processor operably coupled to the sensor and configured to receive the first and second signals and calculate a ratio of the first intensity to the second intensity to determine whether hemoglobin is present in the oral cavity.
A method for stabilizing reduced coenzyme Q 10, comprising achieving the co-presence of the reduced coenzyme Q 10 and the following (a) and/or (b): (a) not less than 1.5 wt% to not more than 99 wt% of reduced coenzyme Q 9 relative to the reduced coenzyme Q 10, and/or (b) reduced coenzyme Q11. (a) not less than 1.5 wt% to not more than 99 wt% of reduced coenzyme Q 9 relative to the reduced coenzyme Q 10, and/or (b) reduced coenzyme Q11.
A shock absorber for a vehicle, comprising; - a damper body having an outer tube and an inner tube wherein the inner tube is arranged at least partly inside said outer tube, - a main piston arrangement arranged in said inner tube dividing said inner tube into a first volume and second volume and configured to regulate a damping fluid flow between said first and second volumes, - a first electrical continuously controlled valve fluidly connected to the first volume of the inner tube and configured to control the damping fluid flow during a compression stroke, - a second electrical continuously controlled valve fluidly connected to the second volume of the inner tube and configured to control the damping fluid flow during a rebound stroke, - a fluid reservoir for holding a pressurized gas, comprising a pressurizing piston separating the pressurized gas from the damping fluid and exerting a pressure on the damping fluid, wherein said shock absorber further comprises - a communication member arranged to fluidly connect the pressurizing piston with the low-pressure side of each of the first and second electrical continuously controlled valves (CES1; CES2), - a first passive regulating valve fluidly arranged between said pressurizing piston and one of said first or second electrical continuously controlled valves (CES1; CES2), and - wherein said fluid reservoir is co-axially arranged relative the damper body. - a damper body having an outer tube and an inner tube wherein the inner tube is arranged at least partly inside said outer tube, - a main piston arrangement arranged in said inner tube dividing said inner tube into a first volume and second volume and configured to regulate a damping fluid flow between said first and second volumes, - a first electrical continuously controlled valve fluidly connected to the first volume of the inner tube and configured to control the damping fluid flow during a compression stroke, - a second electrical continuously controlled valve fluidly connected to the second volume of the inner tube and configured to control the damping fluid flow during a rebound stroke, - a fluid reservoir for holding a pressurized gas, comprising a pressurizing piston separating the pressurized gas from the damping fluid and exerting a pressure on the damping fluid, - a communication member arranged to fluidly connect the pressurizing piston with the low-pressure side of each of the first and second electrical continuously controlled valves (CES1; CES2), - a first passive regulating valve fluidly arranged between said pressurizing piston and one of said first or second electrical continuously controlled valves (CES1; CES2), and - wherein said fluid reservoir is co-axially arranged relative the damper body.
A mobile terminal, comprising: a transparent display formed on a terminal body; a solar cell disposed below the transparent display and configured to generate electricity using incident light, which is transmitted through the transparent display; and a controller configured to charge a battery of the mobile terminal with the electricity generated from the solar cell, and configured to control an amount of light transmitted through the transparent display and being incident on the solar cell, characterized in that the controller is further configured to: divide the transparent display into a plurality of first and second display regions (510, 520), and to control the amount of light transmitted through the transparent display by controlling the transparency of at least one of the display regions (510, 520), display no information in the first display regions and to display preset specific information in the second display regions when the mobile terminal is in a standby state, and increase the transparency of the transparent display when the mobile terminal enters a power saving state by removing the preset specific information displayed in the second display regions when the mobile terminal enters the power saving state. a transparent display formed on a terminal body; a solar cell disposed below the transparent display and configured to generate electricity using incident light, which is transmitted through the transparent display; and a controller configured to charge a battery of the mobile terminal with the electricity generated from the solar cell, and configured to control an amount of light transmitted through the transparent display and being incident on the solar cell, characterized in that the controller is further configured to: divide the transparent display into a plurality of first and second display regions (510, 520), and to control the amount of light transmitted through the transparent display by controlling the transparency of at least one of the display regions (510, 520), display no information in the first display regions and to display preset specific information in the second display regions when the mobile terminal is in a standby state, and increase the transparency of the transparent display when the mobile terminal enters a power saving state by removing the preset specific information displayed in the second display regions when the mobile terminal enters the power saving state. divide the transparent display into a plurality of first and second display regions (510, 520), and to control the amount of light transmitted through the transparent display by controlling the transparency of at least one of the display regions (510, 520), display no information in the first display regions and to display preset specific information in the second display regions when the mobile terminal is in a standby state, and increase the transparency of the transparent display when the mobile terminal enters a power saving state by removing the preset specific information displayed in the second display regions when the mobile terminal enters the power saving state.
Carriage for at least one weapon, wherein the carriage comprises a lower part and an upper carriage, which is arranged on the lower part in such a way that it can be swung from a combat position into a transport position and has a weapon-height aligning part, by means of which the weapon can be aligned in height by a drive train, characterized in that the drive train comprises at least one first drive-train section, led through the lower part, and at least one second drive-train section, adjoining thereto and guided along the upper carriage, a separable coupling is arranged in the region of the mutually facing surfaces (17, 18) of the lower part and the upper carriage, the first coupling half of which is connected to the first drive-train section and the second coupling half of which is connected to the second drive-train section, so that in the combat position of the upper carriage the two drive-train sections (9, 10) are axially connected to one another in an interlocking or frictionally engaging manner and in the transport position of the upper carriage the two coupling halves (23, 24) are moved so far apart from one another by the swinging over of the upper carriages that the two drive-train sections (9, 10) are uncoupled from one another.
A server, comprising: a plurality of a game emulator units (34, 48); a composite image generating unit; a video transmitting unit that transmits a video to a video receiving device; and a data receiving unit configured to receive from the video receiving device information indicating a first user's input, wherein the composite image generating unit generates a composite image of a plurality of game screens generated by respective ones of the game emulator units, including a game emulator unit of the first user; the game emulator unit of the first user executes an update of game situation data in a manner that reflects the first user's input; and wherein the video transmitting unit transmits, to the video receiving device, the composite image. a plurality of a game emulator units (34, 48); a composite image generating unit; a video transmitting unit that transmits a video to a video receiving device; and a data receiving unit configured to receive from the video receiving device information indicating a first user's input, wherein the composite image generating unit generates a composite image of a plurality of game screens generated by respective ones of the game emulator units, including a game emulator unit of the first user; the game emulator unit of the first user executes an update of game situation data in a manner that reflects the first user's input; and wherein the video transmitting unit transmits, to the video receiving device, the composite image.
A method performed by a base station, BS, in a wireless communication system, the method comprising: receiving K preambles, to which K different beamformings are applied, from a user equipment; and estimating a timing advance, TA, for each of the K preambles, wherein the estimating of the TA for each of the K preambles comprises estimating a channel delay for each of the K preambles, which is performed by the following equation: m K ∗ = arg max m ∑ j = 0 L − 1 ∑ i = 0 N − 1 Y i + j + m S ∗ i 2, where i is a time index, m is a timing offset, N is a total length of a time signal (or orthogonal frequency division multiplexing, OFDM, symbol length), L is a multipath channel delay length by probability distribution function, PDF, Y[i] is a signal received at time i, and S [i] is a signal transmitted at time i. receiving K preambles, to which K different beamformings are applied, from a user equipment; and estimating a timing advance, TA, for each of the K preambles, wherein the estimating of the TA for each of the K preambles comprises estimating a channel delay for each of the K preambles, which is performed by the following equation: m K ∗ = arg max m ∑ j = 0 L − 1 ∑ i = 0 N − 1 Y i + j + m S ∗ i 2, where i is a time index, m is a timing offset, N is a total length of a time signal (or orthogonal frequency division multiplexing, OFDM, symbol length), L is a multipath channel delay length by probability distribution function, PDF, Y[i] is a signal received at time i, and S [i] is a signal transmitted at time i.
A protective covering device for machinery or apparatuses where a working element is movable along a translation direction; the device comprising a covering wall wherein a first portion and a corresponding second portion of said covering wall are separated from each other by the working element, said first portion comprising a plurality of first covering panels and said second portion comprising a plurality of second covering panels said first and second panels (21, 22) being mechanically connected to each other by means of a frame which defines a movable covering element wherein each movable covering element elongates according to the translation direction increasing in length with respect to each other, from the smallest to the largest, said movable covering elements being configured to translate along the translation direction the one with respect to the other such that the first panel of each movable covering element slidably overlaps partially the first panel of the adjacent shorter movable covering element, and the second panel of each movable covering element slidably overlaps partially the second panel of the longer movable covering element adjacent thereto, the covering device being characterised in that each frame comprises a pair of profiles (23, 24) that are opposite and having a decreasing size section such that the section of the profile (23, 24) of each movable covering element can be slidably fitted into the corresponding profile section (23, 24) of the adjacent longer movable covering element and the latter is configured to slidably receive the corresponding profile section (23, 24) of the adjacent shorter movable covering element, and wherein all first panels are arranged close to the outer edge (23a, 24a) of the respective profile (23, 24), while the second panels are arranged close to the inner edge (23b, 24b) of the respective profile (23, 24).
Antenna operating as a dual-band antenna or single-band antenna, comprising: a wideband slot antenna configured to receive and/or transmit electromagnetic signals in a wide band of frequencies, a feed line configured to supply the antenna, the feed line having an extremity, a rejection means (4, 5) configured to reject frequencies included in said wide band of frequencies, characterised in that the connection means is inserted between the extremity of the feed line and the rejection means, said connection means being suitable to supply, in a first state, a short circuit between the rejection means and the feed line so that the antenna rejects said frequencies included in said wide band of frequencies and operates as a single-band antenna and, in a second state, not to connect the rejection means to the feed line to allow the antenna to operate as a dual-band antenna. a wideband slot antenna configured to receive and/or transmit electromagnetic signals in a wide band of frequencies, a feed line configured to supply the antenna, the feed line having an extremity, a rejection means (4, 5) configured to reject frequencies included in said wide band of frequencies, characterised in that the connection means is inserted between the extremity of the feed line and the rejection means, said connection means being suitable to supply, in a first state, a short circuit between the rejection means and the feed line so that the antenna rejects said frequencies included in said wide band of frequencies and operates as a single-band antenna and, in a second state, not to connect the rejection means to the feed line to allow the antenna to operate as a dual-band antenna.
Radiator (13, 21) comprising a casing and a heating element, the casing delimiting a heating chamber, an air inlet, a first air outlet, the casing comprising a frontal wall (35, 34) and at least one deflection flap (14, 24, 25), the front wall and the deflection flap (14, 24, 25) delimiting the first air outlet, the heating element being intended to heat air coming from the air inlet so that the air thus heated leaves through the first air outlet, the deflection flap (14, 24, 25) extending in a plane which is substantially parallel to a plane in which the frontal wall (34, 35) extends and being offset forward in relation to the frontal wall (34, 35) so as to send the air parallel to the plane of the frontal wall (34, 35), characterized in that the casing also comprises a top wall (65, 22) and a bottom wall (15, 23), the top wall (22, 65) being distant from a floor and the bottom wall (15, 23) being close to the floor, the deflection flap (14, 25) being formed by the bottom wall (15, 23).
A complex comprising rifaximin and a complexing agent, wherein the complexing agent is a polyvinyl pyrrolidone or a cyclodextrin, with the proviso that the complexing agent is not hydroxybutenyl cyclodextrin or a derivative thereof, wherein the ratio of rifaximin to complexing agent ranges from 20:1 w/w to 1:20 w/w.