mhurhangee/patent-ind-claim-en huggingface dataset:
A method for distributing data to clients in an iterative data processing, comprising: establishing a multicast session with a multiplicity of clients in a radio communication system , wherein the multicast session is provided by means of one or more data replication components for replicating multicast data; and for each of multiple iterations of the iterative data processing, determining , by a server of the radio communication system , a subset of the multiplicity of clients for the iteration; determining data to be distributed to the determined subset of clients ; notifying the one or more data replication components about the determined subset; and providing , by the server , the determined data to the one or more data replication components and controlling the one or more data replication components to replicate the data according to the determined subset and to transmit the determined data to each client of the determined subset within the multicast session. establishing a multicast session with a multiplicity of clients in a radio communication system , wherein the multicast session is provided by means of one or more data replication components for replicating multicast data; and for each of multiple iterations of the iterative data processing, determining , by a server of the radio communication system , a subset of the multiplicity of clients for the iteration; determining data to be distributed to the determined subset of clients ; notifying the one or more data replication components about the determined subset; and providing , by the server , the determined data to the one or more data replication components and controlling the one or more data replication components to replicate the data according to the determined subset and to transmit the determined data to each client of the determined subset within the multicast session. determining , by a server of the radio communication system , a subset of the multiplicity of clients for the iteration; determining data to be distributed to the determined subset of clients ; notifying the one or more data replication components about the determined subset; and providing , by the server , the determined data to the one or more data replication components and controlling the one or more data replication components to replicate the data according to the determined subset and to transmit the determined data to each client of the determined subset within the multicast session.
A sample storage tube comprising; a tube body configured to store a sample; a lid configured to cap an upper opening of the tube body ; an information printed area , on which information is printed, at a bottom surface of the tube body ; and characterized by an information non-printed area formed by a light transmissive material wherein the information non-printed area is secured in a center part of the bottom of the tube body and wherein a wireless IC chip is embedded into or stuck onto the information non-printed area , wherein the information printed area is arrayed in a peripheral portion of the bottom of the tube body , four pieces of printed codes (130-1, 130-2, 130-3, 130-4) printed in the information printed area , which are provided apart from each other on a circumference around a center portion, wherein each of the four pieces of printed codes (130-1, 130-2, 130-3, 130-4) is a two-dimension dot code; wherein one of the printed codes (130-1, 130-2, 130-3, 130-4) is a printed check information code (130-4) that carries check information.
An electronic device comprising: a camera module ; a memory configured to store reference composition information; a camera control module configured to collect real-time composition information through the camera module, and a sub camera module being independently implemented from the camera module; wherein the camera control module compares the stored reference composition information and the real-time composition information to indicate to a user whether the stored reference composition information and the real-time composition information are consistent with each other; characterized in that : the reference composition information is extracted from a specific picture or video taken using the sub camera module. a camera module ; a memory configured to store reference composition information; a camera control module configured to collect real-time composition information through the camera module, and a sub camera module being independently implemented from the camera module; wherein the camera control module compares the stored reference composition information and the real-time composition information to indicate to a user whether the stored reference composition information and the real-time composition information are consistent with each other; characterized in that : the reference composition information is extracted from a specific picture or video taken using the sub camera module.
A hair iron characterized by comprising: a fan configured to blow air; a regenerable drying agent; a first clamping component ; a second clamping component ; and a heater configured to heat the air blown by the fan and to heat the regenerable drying agent, wherein the air heated by the heater passes through the regenerable drying agent configured to pass the air heated by the heater characterized in that the first clamping component is cylindrical, the plate-like heater is arranged at the interior of the first clamping component . a fan configured to blow air; a regenerable drying agent; a first clamping component ; a second clamping component ; and a heater configured to heat the air blown by the fan and to heat the regenerable drying agent, wherein the air heated by the heater passes through the regenerable drying agent configured to pass the air heated by the heater characterized in that the first clamping component is cylindrical, the plate-like heater is arranged at the interior of the first clamping component .
A method performed by a terminal for transmitting data in a wireless communication system, the method comprising: transmitting, to a base station, an uplink signal in a first reference time resource; identifying hybrid automatic repeat request, HARQ, related information corresponding to the uplink signal; identifying whether the first reference time resource is the same as a second reference time resource; adjusting a value of contention window, CW, for performing a first channel access procedure, based on the identified HARQ related information, in case that the first reference time resource is not the same as the second reference time resource; and keeping the value of CW for each priority, in case that the first reference time resource is the same as the second reference time resource, wherein the first reference time resource is a most recent time resource in which the terminal has transmitted an uplink transmission according to the first channel access procedure, before a first uplink grant including the HARQ related information is received from the base station, and wherein the second reference time resource is a most recent time resource in which the terminal has transmitted an uplink transmission according to the first channel access procedure, before a second uplink grant previous of the first uplink grant was received. transmitting, to a base station, an uplink signal in a first reference time resource; identifying hybrid automatic repeat request, HARQ, related information corresponding to the uplink signal; identifying whether the first reference time resource is the same as a second reference time resource; adjusting a value of contention window, CW, for performing a first channel access procedure, based on the identified HARQ related information, in case that the first reference time resource is not the same as the second reference time resource; and keeping the value of CW for each priority, in case that the first reference time resource is the same as the second reference time resource, wherein the first reference time resource is a most recent time resource in which the terminal has transmitted an uplink transmission according to the first channel access procedure, before a first uplink grant including the HARQ related information is received from the base station, and wherein the second reference time resource is a most recent time resource in which the terminal has transmitted an uplink transmission according to the first channel access procedure, before a second uplink grant previous of the first uplink grant was received.
A method of controlling the operation of an electrical machine forming the starter of a heat engine in a system for the automatic stopping and starting of said engine and of an electrical equipment , the starter and the electrical equipment being supplied by the same energy source , by which the operations of the said starter and of the said equipment are respectively controlled after an operation request phase has been identified and provided that predetermined conditions are not opposed thereto, the operation of the starter constituting a condition opposed to a simultaneous operation of the said equipment , characterized in that the operation of the said equipment is possible after a predetermined period of time (T1) following the identification of an operation request phase of the said equipment and only if no control of the operation of the starter has been identified during the said period, the said starter and the said equipment each cooperating with a specific computer (11; 14) operating the identification of the corresponding operation request phases, said computers (11; 14) exchanging information with each other by means of a suitable link, such as a bus, and the said predetermined period of time (T1) being calibrated so as to take into account the transfer times of the information from one computer to the other (11; 14) and the processing times of the said information.
A composition for forming a conductive pattern by electromagnetic irradiation, comprising: a polymer resin; and a non-conductive metal compound which is represented by the following Chemical Formula 1 and has a distorted square pyramidal structure, in which Cu or M is surrounded by five oxygen atoms, or a distorted octahedral structure, in which Cu or M is surrounded by six oxygen atoms, wherein a metal core is formable from the non-conductive metal compound by electromagnetic irradiation: [Chemical Formula 1] Cu 2-x M x P 2 O 7 wherein M is one or more metals selected from the group consisting of Zn, Mg, Ca, Sr and Ba, and x satisfies the condition of 0<x<2. a polymer resin; and a non-conductive metal compound which is represented by the following Chemical Formula 1 and has a distorted square pyramidal structure, in which Cu or M is surrounded by five oxygen atoms, or a distorted octahedral structure, in which Cu or M is surrounded by six oxygen atoms, wherein a metal core is formable from the non-conductive metal compound by electromagnetic irradiation: [Chemical Formula 1] Cu 2-x M x P 2 O 7 wherein M is one or more metals selected from the group consisting of Zn, Mg, Ca, Sr and Ba, and x satisfies the condition of 0<x<2.
An aqueous composition for forming polyolefin dispersion particles dispersed in an epoxy matrix comprising a blend of (i) from 2 to 30 wt.%, based on the total weight of solids in the composition, of (i) an acid or anhydride functionalized polyolefin dispersion or an epoxy adduct thereof, the functionalized polyolefin dispersion having an average particle size of from 0.2 to 5 microns as measured as indicated in the description, and (ii) a dispersion of one or more epoxy resins having an epoxy equivalent weight of from 150 to 4,000 and having an average particle size of from 0.2 to 1.0 microns, wherein the average particle size is measured as indicated in the description and further wherein the functionalized polyolefin dispersion is stabilized with from 2 to 8 wt.%, based on the total weight of solids in the composition, of one or more anionic surfactants, and, further wherein, the composition has a pH of from 3 to 8.
Caliper for an electromechanical brake comprising a single-piece caliper body comprising a housing enclosing a piston and a member for driving a mechanism for moving this piston , this drive member comprising a threaded body and a head comprising a face bearing against a bottom of the housing , and characterized in that at least the bearing face is provided with a non-friction coating, the caliper further comprising metal washer interposed between the bearing face of the head of the drive member and the bottom of the housing .
Ventilation arrangement having a vapour extraction hood, in particular in the form of a fume extractor for the kitchen region of maritime equipment, the vapour extraction hood , which is intended to be connected to a ventilation system by means of an outlet connection , acting as a central extraction system and, together with an upper ceiling part and longitudinal and transverse side parts angled from said ceiling part in each case, forming a vapour receiving chamber which is open when in the mounted position, the vapour extraction hood further comprising a separator , at least one channel (K), a return connection (TR), a transfer chamber , a fan and a cover , and vapour containing water and/or fat being received in the at least one channel (K) out from the vapour receiving chamber via the separator and being led to the outlet connection as largely cleaned exhaust air (T), the channel (K) that is provided as a distribution shaft being provided with at least one return connection (TR) which encompasses a partial volume (TV) of the filtered exhaust air (T) and flows out to the vapour receiving chamber in the region of at least the transfer chamber with the aid of the fan and the cover being provided on the outlet of said transfer chamber, which cover influences the flow direction (TR") of the recirculated partial volume (TV'), the vapour extraction hood being provided with at least one branch channel (50.1, 50.2) that forms the return connection (TR) and it being possible to convey a partial volume (TV) of the filtered exhaust air (T) directly from the region of the distribution shaft into the vapour receiving chamber by means of the branch channel (50.1, 50.2), the at least one branch channel (50.1, 50.2) extending substantially outside of the vapour receiving chamber between the region of the distribution shaft and the transfer chamber , and the fan being provided in the region of the branch channel (50.1, 50.2), characterised in that the partial volume (TV') of the filtered exhaust air (T) that can be led out from the transfer chamber in the region of the cover of said transfer chamber flows in a conveying direction (TR") which is substantially parallel to a ceiling part of the vapour extraction hood such that the partial volume (TV) flowing out of the transfer chamber can be led to the separator of the distribution shaft largely without changing direction, the transfer chamber having respective flow nozzles in the region of the cover of said transfer chamber and in the region of the fan or the flow nozzles being provided with respective ventilation flaps , the ventilation flaps being designed for internal flow control such that the fan or the associated flow nozzles can be closed against the conveying direction of the partial volume (TV) by means of the respective ventilation flaps .
An apparatus for generating a high-rate video for displaying to a user on a display device, the apparatus comprising: a camera for capturing a video at a first frame rate; a motion sensor for capturing movement of a display device; a motion tracker for estimating motion of the camera based on images of the video captured at the first frame rate and the motion reported by the motion sensor; an image generator for generating the high-rate video at a second frame rate by up-sampling the video captured at the first frame rate, wherein images of the high-rate video are output emulating a video captured at the second frame rate; and a display for displaying the high-rate video to the user, characterized in that the up-sampling comprises: interpolating images of the video captured at the first frame rate using geometrical warping thereby causing content of the high-rate video to be displayed counteracting the movement of the display device. a camera for capturing a video at a first frame rate; a motion sensor for capturing movement of a display device; a motion tracker for estimating motion of the camera based on images of the video captured at the first frame rate and the motion reported by the motion sensor; an image generator for generating the high-rate video at a second frame rate by up-sampling the video captured at the first frame rate, wherein images of the high-rate video are output emulating a video captured at the second frame rate; and a display for displaying the high-rate video to the user, characterized in that the up-sampling comprises: interpolating images of the video captured at the first frame rate using geometrical warping thereby causing content of the high-rate video to be displayed counteracting the movement of the display device.
A smart device comprising a basic garment designed to be worn during use by a user , and a monitoring device provided with at least one first longitudinally extended portion which extends along a respective main axis of extension and has at least one first end portion and one second end portion and which comprises - a geolocation module for identifying the geographical position of said monitoring device by way of a global navigation satellite system (GNSS) , - at least one longitudinally-extended antenna associated with said geolocation module and arranged at least parallel to said main axis of extension , - an inertial measurement unit which comprises at least one accelerometer and a gyroscope, - an electronic control and actuation unit , at least one power supply battery , and a transceiver , - said monitoring device being functionally connected to a processing device configured to identify the position and the movement in space of at least one portion of the body of said user as a function of the data acquired by said geolocation module and by said inertial measurement unit , said monitoring device being arranged on said basic garment and being arranged, during use, along a substantially horizontal direction, wherein said at least one first end portion and one second end portion are arranged on said basic garment substantially at the shoulders of the user , each one of the end portions being arranged at a respective shoulder of the user . - a geolocation module for identifying the geographical position of said monitoring device by way of a global navigation satellite system (GNSS) , - at least one longitudinally-extended antenna associated with said geolocation module and arranged at least parallel to said main axis of extension , - an inertial measurement unit which comprises at least one accelerometer and a gyroscope, - an electronic control and actuation unit , at least one power supply battery , and a transceiver , - said monitoring device being functionally connected to a processing device configured to identify the position and the movement in space of at least one portion of the body of said user as a function of the data acquired by said geolocation module and by said inertial measurement unit , said monitoring device being arranged on said basic garment and being arranged, during use, along a substantially horizontal direction, wherein said at least one first end portion and one second end portion are arranged on said basic garment substantially at the shoulders of the user , each one of the end portions being arranged at a respective shoulder of the user .
A method of making coelenterazine, comprising: coupling 4-(5-amino-6-benzylpyrazin-2-yl)phenol (coelenteramine) with 3-(4-(benzyloxy)phenyl)-2-oxopropanal to provide 8-benzyl-2-(4-(benzyloxy)benzyl)-6-(4-hydroxyphenyl)imidazo[1,2-α]pyrazin-3 -one; and deprotecting the 8-benzyl-2-(4-(benzyloxy)benzyl)-6-(4-hydroxyphenyl)imidazo[1,2-α]pyrazin-3(7 H )-one to provide 8-benzyl-2-(4-hydroxybenzyl)-6-(4-hydroxyphenyl)imidazo[1,2-α]pyrazin-3(7 H )-one (coelenterazine). coupling 4-(5-amino-6-benzylpyrazin-2-yl)phenol (coelenteramine) with 3-(4-(benzyloxy)phenyl)-2-oxopropanal to provide 8-benzyl-2-(4-(benzyloxy)benzyl)-6-(4-hydroxyphenyl)imidazo[1,2-α]pyrazin-3 -one; and deprotecting the 8-benzyl-2-(4-(benzyloxy)benzyl)-6-(4-hydroxyphenyl)imidazo[1,2-α]pyrazin-3(7 H )-one to provide 8-benzyl-2-(4-hydroxybenzyl)-6-(4-hydroxyphenyl)imidazo[1,2-α]pyrazin-3(7 H )-one (coelenterazine).
A light emitting device (100A9, comprising: a substrate ; a light emitting structure disposed under the substrate , the light emitting structure including a first conductive semiconductor layer , an active layer , and a second conductive semiconductor layer ; a sub-mount ; first and second metal pads disposed on the sub-mount and configured to be electrically spaced apart from one another; at least one first bump disposed between the first conductive semiconductor layer and the first metal pad ; and at least one second bump located between the second conductive semiconductor layer and the second metal pad , wherein a plurality of active areas (A1 - A4) in which the first semiconductor layer and the active layer are disposed are spaced apart from one another when viewed in plan, characterized in that the active areas (A1 - A4) are spaced apart from one another by a distance within a range of 60 μ m to 300 μ m. a substrate ; a light emitting structure disposed under the substrate , the light emitting structure including a first conductive semiconductor layer , an active layer , and a second conductive semiconductor layer ; a sub-mount ; first and second metal pads disposed on the sub-mount and configured to be electrically spaced apart from one another; at least one first bump disposed between the first conductive semiconductor layer and the first metal pad ; and at least one second bump located between the second conductive semiconductor layer and the second metal pad , wherein a plurality of active areas (A1 - A4) in which the first semiconductor layer and the active layer are disposed are spaced apart from one another when viewed in plan, characterized in that the active areas (A1 - A4) are spaced apart from one another by a distance within a range of 60 μ m to 300 μ m.