mhurhangee/ep-ind-claims huggingface dataset:
A method for obtaining system information, applied to a terminal side, configured to be applied in a scenario where a cell transmits a plurality of synchronization signals and has a plurality of pieces of system information and comprising: receiving a synchronization signal transmitted from a network reception and transmission node, and obtaining feature information of the synchronization signal, node information of the network reception and transmission node, and a correspondence between the feature information and a transmitting position of the system information; obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence; and receiving, at the transmitting position of the system information, the system information transmitted from the network reception and transmission node; wherein obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence comprises: obtaining a frequency domain transmitting position of the system information based on the feature information and the correspondence; wherein obtaining the frequency domain transmitting position of the system information based on the feature information and the correspondence comprises: determining the frequency domain transmitting position of the system information based on a frequency of the synchronization signal and the correspondence, or determining the frequency domain transmitting position of the system information based on a frequency domain position of the synchronization signal and the correspondence. receiving a synchronization signal transmitted from a network reception and transmission node, and obtaining feature information of the synchronization signal, node information of the network reception and transmission node, and a correspondence between the feature information and a transmitting position of the system information; obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence; and receiving, at the transmitting position of the system information, the system information transmitted from the network reception and transmission node; wherein obtaining the transmitting position of the system information corresponding to the node information based on the feature information and the correspondence comprises: obtaining a frequency domain transmitting position of the system information based on the feature information and the correspondence; wherein obtaining the frequency domain transmitting position of the system information based on the feature information and the correspondence comprises: determining the frequency domain transmitting position of the system information based on a frequency of the synchronization signal and the correspondence, or determining the frequency domain transmitting position of the system information based on a frequency domain position of the synchronization signal and the correspondence.
A process for manufacturing a cooking oven, particularly for food, said cooking oven being of the type suitable to light a fire in it and comprising an internal compartment delimited by a case, the upper part of the case being generally dome-shaped, while the lower part of the case being of a material suitable to arrange on it both the cooking substances and the materials used to light the fire, the upper part of the case comprising an internal layer made of refractory material facing the internal compartment, an intermediate layer made of thermal insulating material, an outer covering layer, and a chimney to let to smoke out, the process being characterized by comprising a step of making said outer covering layer as one piece of prefabricated rigid composite multilayer based on fiberglass.
A component mounting apparatus, comprising: a component supply unit that is adapted to advance a tape including storage portions storing components to thereby supply a component to a predetermined supply position; and a holder that is adapted to extract the component from the component supply unit and mount the component onto a substrate; characterized by a supply detector that is adapted to detect whether the component is in a storage portion of the tape at the supply position or whether the supplied component is in an abnormal posture in the storage portion of the tape; and a supply controller that is adapted to control the advancing speed of the tape based on a detection result of the supply detector. a component supply unit that is adapted to advance a tape including storage portions storing components to thereby supply a component to a predetermined supply position; and a holder that is adapted to extract the component from the component supply unit and mount the component onto a substrate; characterized by a supply detector that is adapted to detect whether the component is in a storage portion of the tape at the supply position or whether the supplied component is in an abnormal posture in the storage portion of the tape; and a supply controller that is adapted to control the advancing speed of the tape based on a detection result of the supply detector.
A chemical vapour deposition method for depositing a zinc oxide coating on a glass substrate on a float glass manufacturing line comprising: (a) forming a first precursor gas stream comprised of a zinc containing compound; (b) forming a second precursor gas stream comprised of a water containing oxygen source; (c) delivering said first and said second precursor gas streams to a gas mixing zone above a surface of a glass substrate to be coated; and (d) mixing together said first precursor gas stream and said second precursor gas stream in the gas mixing zone to form a precursor mixture, wherein the mixing time of the gaseous reagents is controlled by feeding the gas streams separately to a coating nozzle and wherein the precursor mixture contacts the surface of the substrate as the substrate moves past the gas mixing zone, the surface being at atmospheric pressure and at a temperature sufficient to drive a reaction between said zinc containing compound and said water; wherein said first precursor gas stream and said second precursor gas stream are mixed together in the gas mixing zone for a time <1 second before the precursor mixture contacts the surface of the substrate so that a zinc oxide coating is formed on the surface at a deposition rate of greater than 5 nm/second. (a) forming a first precursor gas stream comprised of a zinc containing compound; (b) forming a second precursor gas stream comprised of a water containing oxygen source; (c) delivering said first and said second precursor gas streams to a gas mixing zone above a surface of a glass substrate to be coated; and (d) mixing together said first precursor gas stream and said second precursor gas stream in the gas mixing zone to form a precursor mixture, wherein the mixing time of the gaseous reagents is controlled by feeding the gas streams separately to a coating nozzle and wherein the precursor mixture contacts the surface of the substrate as the substrate moves past the gas mixing zone, the surface being at atmospheric pressure and at a temperature sufficient to drive a reaction between said zinc containing compound and said water;
Laundry treatment device having a housing, a treatment space for laundry items to be treated, a control unit, a door unit for opening and closing the treatment space, wherein the door unit has a door insert which contains a transparent material and closes off the treatment space, wherein the door insert has a first layer, the transparency of which can be varied by changing a temperature and/or an electrical property of the first layer, wherein the door insert is configured such that it is present in a transparent state in the case of non-execution of an operating program, wherein the first layer is electrochromic and is configured as a display device for displaying information about the laundry treatment device and/or a treatment program running therein, characterised in that the laundry treatment device contains a light sensor which can detect the light intensity Lu in an environment of the laundry treatment device, and the control device is designed, if a minimum value L Umin is undershot, to increase the transparency of the first layer and/or if a maximum value L Umax is exceeded, to reduce the transparency of the first layer.
A medication monitoring system comprising: a medication container and a cover; and a beacon system, which includes at least one beacon that transmits a wireless signal when the cover is removed from the medication container, characterised in that: the beacon system includes two electrical contacts, and a rim of the medication container includes a conductor configured to form a short circuit between the two electrical contacts when the cover is installed on the medication container, such that the beacon is held in a reset state when the cover is installed on the medication container, wherein the beacon is in a low-power standby mode while it is held in the reset state; and the beacon is configured to transmit the wireless signal when the short circuit between the two electrical contacts is interrupted. a medication container and a cover; and a beacon system, which includes at least one beacon that transmits a wireless signal when the cover is removed from the medication container, characterised in that: the beacon system includes two electrical contacts, and a rim of the medication container includes a conductor configured to form a short circuit between the two electrical contacts when the cover is installed on the medication container, such that the beacon is held in a reset state when the cover is installed on the medication container, wherein the beacon is in a low-power standby mode while it is held in the reset state; and the beacon is configured to transmit the wireless signal when the short circuit between the two electrical contacts is interrupted. the beacon system includes two electrical contacts, and a rim of the medication container includes a conductor configured to form a short circuit between the two electrical contacts when the cover is installed on the medication container, such that the beacon is held in a reset state when the cover is installed on the medication container, wherein the beacon is in a low-power standby mode while it is held in the reset state; and the beacon is configured to transmit the wireless signal when the short circuit between the two electrical contacts is interrupted.
Vehicle washing installation comprising a first and a second support (14, 16) on which a roof wash brush rotatable about a horizontal axis of rotation and a roof drying unit are each held for movement back and forth between an upper and a lower end position and comprising a splash guard element which is arranged between the roof wash brush and the roof drying unit at a level of the upper end positions of the roof wash brush and the roof drying unit, characterized in that the splash guard element has at least one recess (58, 60) which extends in the area between a lateral edge (50, 52) and a lower edge of the splash guard element and into which a part of the roof drying unit extends when the roof drying unit assumes its upper end position, wherein the lower edge of the splash guard element has arranged thereon a drain channel extending over the entire width of the splash guard element, said drain channel having at least one movable end section (66, 68) which is movable back and forth between a first and a second position, wherein said at least one movable end section (66, 68), when in its first position, extends over the entire width of a recess (58, 60) and engages under the recess (58, 60) and, when in its second position, releases the recess (58, 60).
A forklift truck (10; 15) comprising a truck body and forks which are horizontally movable in relation to the truck body between a home position and a fully extended position, characterised in that the forklift truck (10; 15) comprises a control unit arranged to control a maximum allowed horizontal acceleration and/or retardation of the forks in relation to a maximum acceleration and/or retardation value for the forklift truck based on whether a movement of the forks is directed away from (x1; y1) the truck body or towards (x2; y2) the truck body and based on the current position of the forks in relation to the home position and/or the fully extended position.
An Internet-of-Vehicles communication method, comprising: sending, by user equipment, UE, a scheduling request to a base station; receiving, by the UE, notification information sent by the base station for allocating a buffer status report, BSR, transmission resource; transmitting, by the UE, a BSR on the BSR transmission resource allocated by the base station, wherein the BSR carries driving status information of the UE, and the driving status information is used by the base station to allocate a radio resource applicable to a current driving status to the UE according to the driving status information; and transmitting, by the UE, data by using the radio resource allocated by the base station. sending, by user equipment, UE, a scheduling request to a base station; receiving, by the UE, notification information sent by the base station for allocating a buffer status report, BSR, transmission resource; transmitting, by the UE, a BSR on the BSR transmission resource allocated by the base station, wherein the BSR carries driving status information of the UE, and the driving status information is used by the base station to allocate a radio resource applicable to a current driving status to the UE according to the driving status information; and transmitting, by the UE, data by using the radio resource allocated by the base station.
A continuous gas phase circulating bed olefin polymerization reactor, comprising: a riser for contacting a catalyst and a first gas composition comprising an olefin to form a polyolefin under fast-fluidization regime or a dilute-phase pneumatic conveying regime conditions; a downer for contacting the catalyst and a second gas composition comprising an olefin to form additional polyolefin under fast fluidization regime or a dilute-phase pneumatic conveying regime conditions; a transport section for conveying at least a portion of the catalyst, polyolefin, and additional polyolefin from the downer to the riser, wherein the transport section, the downer and the riser form a circulation loop of the continuous gas phase circulating bed olefin polymerization reactor; a first gas circulation loop with a first device for circulating the first gas composition through the riser from an outlet of the riser to an inlet of the riser; a second gas circulation loop with a second device for circulating the second gas composition through the downer from an outlet of the downer to an inlet of the downer; and a device between the downer and the transport section of the circulation loop for discharging a polymer product particle from the circulation loop that comprises a fluidization/settling chamber for segregating the polymer product particle from the particles of the polyolefin and the additional polyolefin circulating through the riser and downer, wherein the polymer product particle has an average particle size greater than an average particle size of the particles of the polyolefin and the additional polyolefin. a riser for contacting a catalyst and a first gas composition comprising an olefin to form a polyolefin under fast-fluidization regime or a dilute-phase pneumatic conveying regime conditions; a downer for contacting the catalyst and a second gas composition comprising an olefin to form additional polyolefin under fast fluidization regime or a dilute-phase pneumatic conveying regime conditions; a transport section for conveying at least a portion of the catalyst, polyolefin, and additional polyolefin from the downer to the riser, wherein the transport section, the downer and the riser form a circulation loop of the continuous gas phase circulating bed olefin polymerization reactor; a first gas circulation loop with a first device for circulating the first gas composition through the riser from an outlet of the riser to an inlet of the riser; a second gas circulation loop with a second device for circulating the second gas composition through the downer from an outlet of the downer to an inlet of the downer; and a device between the downer and the transport section of the circulation loop for discharging a polymer product particle from the circulation loop that comprises a fluidization/settling chamber for segregating the polymer product particle from the particles of the polyolefin and the additional polyolefin circulating through the riser and downer, wherein the polymer product particle has an average particle size greater than an average particle size of the particles of the polyolefin and the additional polyolefin.
A method for detecting faults in a rotor bar of an electric machine having multiple phases, the method comprising: acquiring electrical signals representative of an operating condition of the electric machine for each phase of the electric machine; eliminating symmetrical components from the electrical signals by squaring an instantaneous value of a data point of the electrical signals for each phase of the electric machine and summing the squared instantaneous values; selecting a window function based on a proximity of the electrical signals to frequencies pertaining to faults of the rotor bar in the electric machine and a frequency pertaining to a normal operation of the electric machine; eliminating discontinuities in the electrical signals by applying the window function to each sum of the squared instantaneous values to obtain a weighted representation of the electrical signals; normalizing the weighted representation to obtain spectral information utilizing at least one of a Fast Fourier Transform, time frequency analysis, and multimodal resolution analysis; and analyzing the spectral information to detect fault in the rotor bar. acquiring electrical signals representative of an operating condition of the electric machine for each phase of the electric machine; eliminating symmetrical components from the electrical signals by squaring an instantaneous value of a data point of the electrical signals for each phase of the electric machine and summing the squared instantaneous values; selecting a window function based on a proximity of the electrical signals to frequencies pertaining to faults of the rotor bar in the electric machine and a frequency pertaining to a normal operation of the electric machine; eliminating discontinuities in the electrical signals by applying the window function to each sum of the squared instantaneous values to obtain a weighted representation of the electrical signals; normalizing the weighted representation to obtain spectral information utilizing at least one of a Fast Fourier Transform, time frequency analysis, and multimodal resolution analysis; and analyzing the spectral information to detect fault in the rotor bar.
A first connector housing for accommodating electrical contacts for connecting to a mating second connector housing, the first connector housing comprising: a first lever structure including a first lever portion pivotally engageable with a first engaging member on a side face of the first connector housing, and a second lever structure including a first lever portion pivotally engageable with a second engaging member on a side face of the first connector housing so as to be opposing the first lever structure, wherein each of the first lever structure and the second lever structure further comprises a gear member, each gear member (4222, 4122) including a plurality of teeth characterized in that said teeth are configured for engagement with a toothed element on a side face of the second connector housing; and in that the gear member (4122, 4222) comprises at least two gear teeth of different lengths to provide a high initial gear ratio and a lower final gear ratio, respectively. a first lever structure including a first lever portion pivotally engageable with a first engaging member on a side face of the first connector housing, and a second lever structure including a first lever portion pivotally engageable with a second engaging member on a side face of the first connector housing so as to be opposing the first lever structure, wherein each of the first lever structure and the second lever structure further comprises a gear member, each gear member (4222, 4122) including a plurality of teeth characterized in that said teeth are configured for engagement with a toothed element on a side face of the second connector housing; and in that the gear member (4122, 4222) comprises at least two gear teeth of different lengths to provide a high initial gear ratio and a lower final gear ratio, respectively.
An isocyanate-reactive composition comprising: a polyol composition having an average hydroxyl functionality from 3.7 to 5.7 based upon total polyols of the polyol composition, an average hydroxyl number from 370 to 550 mg KOH/g based upon total polyols of the polyol composition, and a number average molecular weight from 400 to 750 g/mol based upon total polyols of the polyol composition; and a high-functionality crosslinker having an average functionality of 3.0 or more, wherein functional groups of the high-functionality crosslinker are selected from acrylate groups, allyl groups, OH groups, NH 2 groups, COOH groups, and combinations thereof, wherein from 10 to 99 percent of the functional groups of the high-functionality crosslinker are acrylate groups, allyl groups, or combinations thereof. a polyol composition having an average hydroxyl functionality from 3.7 to 5.7 based upon total polyols of the polyol composition, an average hydroxyl number from 370 to 550 mg KOH/g based upon total polyols of the polyol composition, and a number average molecular weight from 400 to 750 g/mol based upon total polyols of the polyol composition; and a high-functionality crosslinker having an average functionality of 3.0 or more, wherein functional groups of the high-functionality crosslinker are selected from acrylate groups, allyl groups, OH groups, NH 2 groups, COOH groups, and combinations thereof, wherein from 10 to 99 percent of the functional groups of the high-functionality crosslinker are acrylate groups, allyl groups, or combinations thereof.