mhurhangee/ep-ind-claims huggingface dataset:
An eye applicator for an injection application of medical or diagnostic liquids and/or liquids for refraction alteration into corneal tissues, comprised of a main body which is configured to contain one or more application needles, attachable to the main body through a segment, whereby the main body is a conical or cylindrical ring with at least one side cutout, and the segment being a hollow body has its outer surface shaped so as to correspond to the surface of a cavity in the main body, so that the segment is able to turn inside said cavity, said Segment, having at least one base (3.1) with an opening (3.2), contains at least two replaceable needle holders, adapted to hold the application needles on their curved frontal surfaces and on their lateral sides being equipped with protrusions (2.1) nesting in arc-shaped grooves (3.3) which are created on the inner side of the base (3.1) of the segment, so that said needle holders are attached by a shift able way to the segment. and can move in a centripetal or centrifugal direction when the segment is turned within the main body.
A photosensitive resin composition, comprising: a heterocyclic ring-containing polymer precursor; a thermal-base generator; an organic compound containing a Group 4 element; and an oxime compound as a photo-radical polymerization initiator. a heterocyclic ring-containing polymer precursor; a thermal-base generator; an organic compound containing a Group 4 element; and an oxime compound as a photo-radical polymerization initiator.
A packet transmission method, wherein the method is applied to a first proxy node, and comprises: receiving a first packet from a service function node; and being characterized by the steps of looking up a cache of the first proxy node, wherein no segment routing header, SRH, corresponding to the first packet is obtained; generating a second packet based on the first packet and a first bypass segment identifier, SID, corresponding to a second proxy node, wherein the second proxy node and the first proxy node are connected to the same service function node, the second packet comprises the first bypass SID, first control information, and a payload of the first packet, the first bypass SID is used to identify that a destination node of the second packet is the second proxy node, and the first control information is used to indicate the second proxy node to restore the SRH corresponding to the first packet; and sending the second packet to the second proxy node. receiving a first packet from a service function node; and being characterized by the steps of looking up a cache of the first proxy node, wherein no segment routing header, SRH, corresponding to the first packet is obtained; generating a second packet based on the first packet and a first bypass segment identifier, SID, corresponding to a second proxy node, wherein the second proxy node and the first proxy node are connected to the same service function node, the second packet comprises the first bypass SID, first control information, and a payload of the first packet, the first bypass SID is used to identify that a destination node of the second packet is the second proxy node, and the first control information is used to indicate the second proxy node to restore the SRH corresponding to the first packet; and sending the second packet to the second proxy node.
A steam turbine power plant, comprising: heat source equipment that heats a low-temperature flow by applying a heat medium to generate a high-temperature flow; a steam generator that generates steam using the high-temperature flow generated by the heat source equipment; a steam turbine driven by the steam generated by the steam generator; an electric generator that converts rotational motive power of the steam turbine into electric power; a heat medium controller that controls a supply rate of the heat medium supplied to the heat source equipment; a low-temperature flow controller that controls a supply rate of the low-temperature flow supplied to the heat source equipment, characterized by comprising a prediction device that predicts startup constraints during a previously set prediction time period after a set time from the current time of the steam turbine from control input variables of the heat medium controller and the low-temperature flow controller when the steam turbine is started; a control input variables setter that sets the control input variables of the heat medium controller and the low-temperature flow controller from limit values of the startup constraints as well as from a value predicted by the prediction device; and a control signal output device (24, 25) that outputs command values to the heat medium controller and the low-temperature flow controller in response to the control input variables. heat source equipment that heats a low-temperature flow by applying a heat medium to generate a high-temperature flow; a steam generator that generates steam using the high-temperature flow generated by the heat source equipment; a steam turbine driven by the steam generated by the steam generator; an electric generator that converts rotational motive power of the steam turbine into electric power; a heat medium controller that controls a supply rate of the heat medium supplied to the heat source equipment; a low-temperature flow controller that controls a supply rate of the low-temperature flow supplied to the heat source equipment, characterized by comprising a prediction device that predicts startup constraints during a previously set prediction time period after a set time from the current time of the steam turbine from control input variables of the heat medium controller and the low-temperature flow controller when the steam turbine is started; a control input variables setter that sets the control input variables of the heat medium controller and the low-temperature flow controller from limit values of the startup constraints as well as from a value predicted by the prediction device; and a control signal output device (24, 25) that outputs command values to the heat medium controller and the low-temperature flow controller in response to the control input variables.
Device for producing portion packets of a smokeless tobacco product or non-tobacco snuff product, said device comprising - a forming arrangement configured to form portion packets of the product from a supply of product material, - a packaging arrangement configured to fold and seal a packaging material around the portion packets, the packaging arrangement comprising a unit for transversal sealing of a strip of said packaging material that has been longitudinally folded around a row of portion packets, - a sensor member (12, 13) configured to generate information useful for identifying defect portion packets during operation of the device, - a rejection system configured to reject selected portion packets during operation of the device, and - a control system configured to receive the information generated by the sensor member (12, 13) and to control the rejection system, the sensor member being capable of generating data of at least a part of an individual portion packet during operation of the device, and the control system being configured i) to carry out a comparison between a) the data received from the sensor member (12, 13) and b) reference data and ii) to control the rejection system depending on a result of said comparison, characterised in that said sensor member (12, 13) is arranged in association with said unit for transversal sealing such as to be capable of generating data of portion packets that have been folded into the longitudinally folded strip of packaging material, and wherein said control system is adapted to be provided with information on where on the strip of packaging material transversal seals generated by the transversal sealing unit will be or have been placed. - a forming arrangement configured to form portion packets of the product from a supply of product material, - a packaging arrangement configured to fold and seal a packaging material around the portion packets, the packaging arrangement comprising a unit for transversal sealing of a strip of said packaging material that has been longitudinally folded around a row of portion packets, - a sensor member (12, 13) configured to generate information useful for identifying defect portion packets during operation of the device, - a rejection system configured to reject selected portion packets during operation of the device, and - a control system configured to receive the information generated by the sensor member (12, 13) and to control the rejection system, i) to carry out a comparison between a) the data received from the sensor member (12, 13) and b) reference data and ii) to control the rejection system depending on a result of said comparison, characterised in that said sensor member (12, 13) is arranged in association with said unit for transversal sealing such as to be capable of generating data of portion packets that have been folded into the longitudinally folded strip of packaging material, and wherein said control system is adapted to be provided with information on where on the strip of packaging material transversal seals generated by the transversal sealing unit will be or have been placed.
A method performed by a registrant that communicates with a network node hosting a service layer, the method comprising: transmitting a discovery request, to the network node, for one or more resources, the discovery request including a parameter that specifies one or more operations that the registrant intends to perform on the discovered resources, wherein the parameter comprises an indication of permission-based filter criteria; and receiving a discovery response from the network node based on the parameter, wherein the discovery response includes a list of identifiers of one or more discovered resources that the registrant has privileges to perform the one or more operations upon at the service layer. transmitting a discovery request, to the network node, for one or more resources, the discovery request including a parameter that specifies one or more operations that the registrant intends to perform on the discovered resources, wherein the parameter comprises an indication of permission-based filter criteria; and receiving a discovery response from the network node based on the parameter, wherein the discovery response includes a list of identifiers of one or more discovered resources that the registrant has privileges to perform the one or more operations upon at the service layer.
A rotary engine comprising a working volume in a working volume chamber, a movable contour, and a stationary convex inner chamber wall surrounding an island, wherein the movable contour and the stationary convex inner chamber wall define the working volume chamber, and wherein the movable contour moves about the stationary convex inner chamber wall so that the working volume chamber moves about the stationary convex inner chamber wall, wherein the movable contour is a concave-shaped movable contour which has an inner curve and two legs (33,34) which remain slidably abutted against the stationary convex inner chamber wall as the concave-shaped movable contour moves about the stationary convex inner chamber wall, wherein the inner curve and the legs (33,34) together with the stationary convex inner chamber wall define the working volume, characterized in that a crank pivot is located on the movable contour and a crank shaft is disposed through the island, wherein a crank arm connects the crank pivot to the crank shaft.
An optical system comprising: a plurality of stacked waveguides (1210, 1220, 1230, 905), each waveguide comprising a first major surface and a second major surface, each waveguide further comprising: an incoupling optical element configured to incouple incident light into the waveguide; a first wavelength selective filter on the first major surface, the first wavelength selective filter having a first rearward surface adjacent the first major surface and a first forward surface opposite the first rearward surface, the first wavelength selective filter configured to: transmit incoupled light at a first plurality of wavelengths through the first rearward surface and reflect a portion of the transmitted light at a first plurality of wavelengths from the first forward surface and receive incoupled light propagating through the waveguide; and a first outcoupling optical element disposed on the first wavelength selective filter, the first outcoupling optical element configured to outcouple the incoupled light at a first plurality of wavelengths transmitted through the first wavelength selective filter, wherein the first selective wavelength filter is between the first major surface and the first outcoupling optical element. an incoupling optical element configured to incouple incident light into the waveguide; a first wavelength selective filter on the first major surface, the first wavelength selective filter having a first rearward surface adjacent the first major surface and a first forward surface opposite the first rearward surface, the first wavelength selective filter configured to: transmit incoupled light at a first plurality of wavelengths through the first rearward surface and reflect a portion of the transmitted light at a first plurality of wavelengths from the first forward surface and receive incoupled light propagating through the waveguide; and a first outcoupling optical element disposed on the first wavelength selective filter, the first outcoupling optical element configured to outcouple the incoupled light at a first plurality of wavelengths transmitted through the first wavelength selective filter, wherein the first selective wavelength filter is between the first major surface and the first outcoupling optical element.
An optical signal compensation device, comprising: a linear compensation module and N nonlinear compensation modules, wherein all of the nonlinear compensation modules and the linear compensation module are connected in parallel; the linear compensation module is configured to perform dispersion compensation on a first input signal from a first signal path according to a first compensation dispersion value, so as to obtain a first output signal of the linear compensation module, wherein the first compensation dispersion value equals to the total amount of dispersion caused in an optical fiber transmission link; characterized in that each of the N nonlinear compensation module comprises a first dispersion compensation unit, a norm processing unit, a multiplication processing unit, and a second dispersion compensation unit; the first dispersion compensation unit is configured to perform dispersion compensation on the first input signal according to a second compensation dispersion value, so as to obtain a first output signal of the first dispersion compensation unit; the norm processing unit is configured to take a first modulus of the first output signal of the first dispersion compensation unit and square the first modulus, so as to obtain a first norm value; the multiplication processing unit is configured to calculate a product according to an output signal of the first dispersion compensation unit, a norm value output by the norm processing unit, and a preset imaginary constant, so as to obtain an output signal of the multiplication processing unit; the second dispersion compensation unit is configured to perform dispersion compensation on an output signal of the multiplication processing unit according to a third compensation dispersion value, so as to obtain an output signal of the nonlinear compensation module, wherein, a sum of the second compensation dispersion value and the third compensation dispersion value equals to the first compensation dispersion value; and the optical signal compensation device further comprises a first summation module, the first summation module is connected to an output end of the linear compensation module and output ends of the N nonlinear compensation modules, and configured to perform summation on the first output signal of the linear compensation module and output signals of the N nonlinear compensation modules.
A monitoring system configured to monitor a cargo holding area associated with a vehicle during transit, the system comprising: a pressure sensing device locatable within the cargo holding area, in use, and configured to provide live load data output indicative of the pressure applied to the pressure sensing device by cargo within the cargo holding area during transit; a determination module for outputting one or more predetermined load pattern states of the cargo; a movement sensor for determining movement of the cargo holding area; a comparator module configured to compare the live load data output with the one or more predetermined load pattern states of the cargo and to determine whether there is a correspondence therebetween; and a notification module configured to output a notification that the cargo is in an unacceptable state during transit in dependence on the result of the comparison; wherein the determination module is configured to receive a movement output from the movement sensor and to adjust the one or more predetermined load pattern states of the cargo in response to the movement output. a pressure sensing device locatable within the cargo holding area, in use, and configured to provide live load data output indicative of the pressure applied to the pressure sensing device by cargo within the cargo holding area during transit; a determination module for outputting one or more predetermined load pattern states of the cargo; a movement sensor for determining movement of the cargo holding area; a comparator module configured to compare the live load data output with the one or more predetermined load pattern states of the cargo and to determine whether there is a correspondence therebetween; and a notification module configured to output a notification that the cargo is in an unacceptable state during transit in dependence on the result of the comparison; wherein the determination module is configured to receive a movement output from the movement sensor and to adjust the one or more predetermined load pattern states of the cargo in response to the movement output.
A small cell base station, comprising: a base station antenna having first through eighth ports and first through fourth linear arrays of dual-polarized radiating elements, where at least two of the first through fourth linear arrays have different azimuth boresight pointing directions when the base station antenna is mounted for use, and wherein each dual-polarized radiating element includes first and second radiators (226-1, 226-2) that have respective directional radiation patterns; and a radio having first through eighth radio ports that are connected to the respective first through eighth ports of the base station antenna; wherein the radio is configured to perform digital beamforming by determining and applying a first set of amplitude and phase weights to radio frequency,RF, signals that are received from the respective first through eighth ports of the base station antenna, and by applying a second set of amplitude and phase weights to RF signals that are output by the radio to the first through eighth ports of the base station antenna, wherein the second set of amplitude and phase weights are determined from the first set of amplitude and phase weights, wherein the digital beamforming is configured to narrow antenna beams in the azimuth plane, where the narrow antenna beams are generated through two or more of the linear arrays in response to the RF signals that are output by the radio to the first through eighth ports of the base station antenna. a base station antenna having first through eighth ports and first through fourth linear arrays of dual-polarized radiating elements, where at least two of the first through fourth linear arrays have different azimuth boresight pointing directions when the base station antenna is mounted for use, and wherein each dual-polarized radiating element includes first and second radiators (226-1, 226-2) that have respective directional radiation patterns; and a radio having first through eighth radio ports that are connected to the respective first through eighth ports of the base station antenna; wherein the radio is configured to perform digital beamforming by determining and applying a first set of amplitude and phase weights to radio frequency,RF, signals that are received from the respective first through eighth ports of the base station antenna, and by applying a second set of amplitude and phase weights to RF signals that are output by the radio to the first through eighth ports of the base station antenna, wherein the second set of amplitude and phase weights are determined from the first set of amplitude and phase weights, wherein the digital beamforming is configured to narrow antenna beams in the azimuth plane, where the narrow antenna beams are generated through two or more of the linear arrays in response to the RF signals that are output by the radio to the first through eighth ports of the base station antenna.
Method for controlling a pointer having a position determined by the position of at least one end of a limb on a touch screen of a device, the method comprising: - a step for inserting an offset between the position of the pointer and the position of said end, - when the device is in an operating mode called first adjusting mode, a step of adjusting an offset distance (DIST) by measuring a variation of a distance between two fingers (F1, F2) simultaneously present on the touch screen, the offset distance being adjusted as a function of said measured distance variation; said method being characterized in that it comprises: - when the device is in an operating mode called second adjusting mode, a step of adjusting an offset direction (DDIR) by detecting a motion of three fingers in a common direction, said common direction being essentially cardinal, the offset direction being adjusted as a function of said common direction. - a step for inserting an offset between the position of the pointer and the position of said end, - when the device is in an operating mode called first adjusting mode, a step of adjusting an offset distance (DIST) by measuring a variation of a distance between two fingers (F1, F2) simultaneously present on the touch screen, the offset distance being adjusted as a function of said measured distance variation; - when the device is in an operating mode called second adjusting mode, a step of adjusting an offset direction (DDIR) by detecting a motion of three fingers in a common direction, said common direction being essentially cardinal, the offset direction being adjusted as a function of said common direction.