mhurhangee/patent-ind-claim-en huggingface dataset:
Filtration membrane , consisting of a porous support , configured as a textile nonwoven, and of a membrane layer with a first zone and with a second zone disposed between the first zone and the support , characterized in that the first zone has a thickness of 5 to 15 μm and a mean pore size of < 0.4 μm and the second zone has a thickness of 5 to 40 μm and a mean pore size of 0.4 to 5.0 μm; in the first zone , the mean pore size increases with a mean gradient, determined by the slope of a regression line, of 20 to 80 nm per 1 μm distance from a surface of the filtration membrane that faces away from the support ; in the second zone , the mean pore size increases with a mean gradient, determined by the slope of a regression line, of 200 to 800 nm per 1 μm distance from the surface , where the mean pore size is measured on membrane microtome sections by means of scanning transmission electron microscopy, as defined in the description in the section "mean pore size"; the first and second zones consist of polysulfone and polyvinylpyrrolidone, and the filtration membrane has a clean water permeability, measured with purified water at a temperature of 20 °C and in a pressure range of 0.1 to 1 bar, of 200 to 3000 L / (m 2 ·h·bar) .
An identity authentication method, wherein the method comprises: acquiring facial feature information of a user and using the facial feature information acquired during the identity authentication as first facial feature information of the user; and sending the first facial feature information of the user to a server to allow the server to send dynamic face authentication prompt information in response to verifying that the first facial feature information matches second facial feature information of the user that is stored; receiving the dynamic face authentication prompt information sent by the server during the identity authentication of the user; obtaining gesture recognition information of the dynamic face authentication prompt information by recognizing a facial gesture presented by the user; and sending the gesture recognition information to the server to enable the server to confirm that the identity authentication is successful for the user upon verifying that the gesture recognition information is consistent with the dynamic face authentication prompt information. acquiring facial feature information of a user and using the facial feature information acquired during the identity authentication as first facial feature information of the user; and sending the first facial feature information of the user to a server to allow the server to send dynamic face authentication prompt information in response to verifying that the first facial feature information matches second facial feature information of the user that is stored; receiving the dynamic face authentication prompt information sent by the server during the identity authentication of the user; obtaining gesture recognition information of the dynamic face authentication prompt information by recognizing a facial gesture presented by the user; and sending the gesture recognition information to the server to enable the server to confirm that the identity authentication is successful for the user upon verifying that the gesture recognition information is consistent with the dynamic face authentication prompt information.
An Evolved Node-B, eNB(102a-d, 300) for communication with one or more User Equipment, UEs using an unlicensed spectrum and a licensed spectrum, the eNB (102a-d, 300) comprising: transmitter is configured to transmit on a carrier operating in the licensed spectrum, to a UE , one or both of Primary Synchronization Signal, PSS, and Secondary Synchronization Signal, SSS, meant to be transmitted on a carrier operating in the unlicensed spectrum; wherein the carrier operating on the unlicensed spectrum provides a secondary cell associated with the UE and the carrier operating on the licensed spectrum provides a primary cell associated with the UE ); wherein the carrier frequencies f1 and f2 of the carrier operating on the unlicensed spectrum and the carrier operating on the licensed spectrum, respectively, are used to transmit signals from the same transmitter as well as being adjacent in frequency band. transmitter is configured to transmit on a carrier operating in the licensed spectrum, to a UE , one or both of Primary Synchronization Signal, PSS, and Secondary Synchronization Signal, SSS, meant to be transmitted on a carrier operating in the unlicensed spectrum; wherein the carrier operating on the unlicensed spectrum provides a secondary cell associated with the UE and the carrier operating on the licensed spectrum provides a primary cell associated with the UE ); wherein the carrier frequencies f1 and f2 of the carrier operating on the unlicensed spectrum and the carrier operating on the licensed spectrum, respectively, are used to transmit signals from the same transmitter as well as being adjacent in frequency band.
A device comprising a combination near-field and far-field antenna and configured to be coupled to a conductive host surface, the device comprising: a first feed point configured to be coupled to a far-field transceiver ; a second feed point configured to be coupled to a near-field transceiver ; a first conductive antenna surface ; a first filter having a first interface coupled to both the first feed point and the first conductive antenna surface, and having a second interface coupled to the second feed point; wherein the first filter is configured to attenuate far-field signals passing between the first conductive antenna surface and the far-field transceiver from being received by the near-field transceiver; wherein the first filter is configured to pass near-field signals between the near-field transceiver and the first conductive antenna surface; and wherein the first conductive antenna surface is either a planar spiral or non-planar helical structure , having a first end configured to be coupled to a set of electronic circuitry comprising the far-field transceiver, and having a second end un-coupled and terminating in free-space. a first feed point configured to be coupled to a far-field transceiver ; a second feed point configured to be coupled to a near-field transceiver ; a first conductive antenna surface ; a first filter having a first interface coupled to both the first feed point and the first conductive antenna surface, and having a second interface coupled to the second feed point; wherein the first filter is configured to attenuate far-field signals passing between the first conductive antenna surface and the far-field transceiver from being received by the near-field transceiver; wherein the first filter is configured to pass near-field signals between the near-field transceiver and the first conductive antenna surface; and wherein the first conductive antenna surface is either a planar spiral or non-planar helical structure , having a first end configured to be coupled to a set of electronic circuitry comprising the far-field transceiver, and having a second end un-coupled and terminating in free-space.
Doctor blade, intended for a doctor blade chamber for a flexography printing unit equipped with a screened cylinder , and having the form of a rectangular blade, with a functional longitudinal side of which a longitudinal edge is capable of making contact with the screened cylinder , a longitudinal fastening side , and two lateral sides , said doctor blade comprising at least one opening located towards the functional longitudinal side and towards a first of the two lateral sides characterized in that said doctor blade includes an area provided in the first one of the two lateral sides , said area being configured to be intentionally breakable and removable from the doctor blade.
A high-frequency welding method for welding an accessory , which defines a profile having a specific shape and dimensions, to a substrate , by means of high-frequency welding machinery which includes a female mould , which comprises a cavity which is formed by a profile having substantially the same shape and dimensions as the accessory , and a male mould , which comprises a relief which is formed by a profile having substantially the same shape and dimensions as the accessory , this method comprising: • mounting the female mould or the male mould on a movable upper plate of the high-frequency welding machinery ; • mounting on a fixed lower plate of the high-frequency welding machinery the female mould , if the male mould is mounted on the upper plate , or the male mould , if the female mould is mounted on the upper plate , in such a manner that the profile of the cavity is aligned in a closure direction of the moulds with the profile of the relief in such a manner that, when the female mould is closed on the male mould , the profile of the cavity coincides with the profile of the relief ; • positioning the accessory on the relief , if the male mould is mounted on the fixed lower plate , in such a manner that the profile of the accessory coincides with the profile of the relief or in the cavity , if the female mould is mounted on the fixed lower plate , in such a manner that the profile of the accessory coincides with the profile of the cavity ; • positioning the substrate above the accessory ; • moving the movable upper plate towards the fixed lower plate in such a manner that the accessory is pressed between the cavity and the relief ; • supplying high-frequency welding energy to the movable upper plate and/or to the fixed lower plate so as to weld the accessory to the substrate . • mounting the female mould or the male mould on a movable upper plate of the high-frequency welding machinery ; • mounting on a fixed lower plate of the high-frequency welding machinery the female mould , if the male mould is mounted on the upper plate , or the male mould , if the female mould is mounted on the upper plate , in such a manner that the profile of the cavity is aligned in a closure direction of the moulds with the profile of the relief in such a manner that, when the female mould is closed on the male mould , the profile of the cavity coincides with the profile of the relief ; • positioning the accessory on the relief , if the male mould is mounted on the fixed lower plate , in such a manner that the profile of the accessory coincides with the profile of the relief or in the cavity , if the female mould is mounted on the fixed lower plate , in such a manner that the profile of the accessory coincides with the profile of the cavity ; • positioning the substrate above the accessory ; • moving the movable upper plate towards the fixed lower plate in such a manner that the accessory is pressed between the cavity and the relief ; • supplying high-frequency welding energy to the movable upper plate and/or to the fixed lower plate so as to weld the accessory to the substrate .
An operatory lighting device for generating an illumination spot on an operation site for use in combination with a fluorescence imaging device, said lighting device comprising a support structure , an underside couplable to the support structure in order to seal the underside of the device while letting light through, and a plurality of light sources emitting a white light and arranged between said support structure and the underside , wherein the device further comprises a plurality of NIR filters , each NIR filter being associated with a light source and being configured to substantially prevent the transmission of wavelengths within a wavelength band of 680 nm to 900 nm while minimizing the change in the color temperature of the illumination spot, each of the NIR filters being further arranged to move between an active position, in which it is located in front of a light source to filter the light emitted by said light source , and an inactive position in which it is not capable of filtering light from the light source , wherein the device further comprises a control unit configured to control the movement of the plurality of NIR filters between the active and inactive positions, characterized in that the device further comprises receiving means (26; 28) of signals from a fluorescence imaging device, wherein the control unit is configured to control the movement of the NIR filters between the active position and the inactive position according to a signal indicating that the fluorescence imaging device has been activated.
(Currently Amended) An apparatus for filtering radioactive material comprising: a suction pipe connected at one end to the outer peripheral surface of the upper portion of a reactor cavity for sucking radioactive gas generated from a core melt by the pressure inside the reactor cavity ; and a filtration unit installed inside a containment building for removing radioactive material in a radioactive gas sucked into the suction pipe , wherein the filtration unit comprises a dry filter connected to the suction pipe for primarily filtering the radioactive material in a radioactive gas sucked into the suction pipe , and a wet filter connected to the dry filter via a connection pipe for secondarily filtering the radioactive material using cooling water flowed into the wet filter , characterized in that the suction pipe is connected to a lower portion of the dry filter and the connection pipe is connected to an upper portion of the dry filter , thereby causing rise by heat of the radioactive gas sucked into the suction pipe ; and that the connection pipe is formed with a recessed portion of which the inner diameter is reduced for the inner pressure to increase, and the recessed portion is immersed in the cooling water of the wet filter .
A fluid dispensing apparatus for use in dispensing a paint fluid from an associated paint container under a pressure greater than ambient, the associated paint container containing associated paint and having a pierceable membrane , the fluid dispensing apparatus comprising: a valve body having a top, a bottom and a bore that extends through the valve body ; an adaptor having a top, a bottom, a bore that extends through the adaptor and a piercing member ; a nozzle attached to the top of the valve body and having a bore that is communicatable with the valve body bore ; wherein the bottom of the valve body is attached to the top of the adaptor and the adaptor bore communicates with the valve body bore ; wherein the fluid dispensing apparatus is operable by attaching the bottom of the adaptor to the associated paint container to pierce the pierceable membrane with the piercing member to communicate the associated paint within the paint container with the adaptor bore and thus with the valve body bore ; and, wherein the nozzle is operable to permit the associated paint within the associated paint container to flow under the pressure out of the associated paint container , through the adaptor bore , through the valve body bore and through the nozzle bore to ambient. a valve body having a top, a bottom and a bore that extends through the valve body ; an adaptor having a top, a bottom, a bore that extends through the adaptor and a piercing member ; a nozzle attached to the top of the valve body and having a bore that is communicatable with the valve body bore ; wherein the bottom of the valve body is attached to the top of the adaptor and the adaptor bore communicates with the valve body bore ; wherein the fluid dispensing apparatus is operable by attaching the bottom of the adaptor to the associated paint container to pierce the pierceable membrane with the piercing member to communicate the associated paint within the paint container with the adaptor bore and thus with the valve body bore ; and, wherein the nozzle is operable to permit the associated paint within the associated paint container to flow under the pressure out of the associated paint container , through the adaptor bore , through the valve body bore and through the nozzle bore to ambient.
A process for the production of a reaction product, comprising: injecting a plurality of liquid reactants and an ionic liquid catalyst through at least one nozzle into a reaction zone under reaction conditions to provide a reaction product, wherein both the plurality of liquid reactants and the ionic liquid catalyst pass through the at least one nozzle, wherein the at least one nozzle is vertically orientated facing downwardly into the reaction zone. injecting a plurality of liquid reactants and an ionic liquid catalyst through at least one nozzle into a reaction zone under reaction conditions to provide a reaction product, wherein both the plurality of liquid reactants and the ionic liquid catalyst pass through the at least one nozzle, wherein the at least one nozzle is vertically orientated facing downwardly into the reaction zone.
A method for transmitting a service, comprising: transmitting (S810), by a Mobile Station, MS, a service by means of a first resource allocation parameter set in a semi-static scheduling manner; receiving (S820), by the MS, first control signaling sent by network equipment, the first control signaling being configured to indicate the MS to transmit a service with different requirement(s) by means of a second resource allocation parameter set and the first resource allocation parameter set in the semi-static scheduling manner in parallel; and transmitting (S830), by the MS, the service with different requirement(s) according to the first control signaling, wherein each of the first resource allocation parameter set and the second resource allocation parameter set comprises at least one resource allocation parameter. transmitting (S810), by a Mobile Station, MS, a service by means of a first resource allocation parameter set in a semi-static scheduling manner; receiving (S820), by the MS, first control signaling sent by network equipment, the first control signaling being configured to indicate the MS to transmit a service with different requirement(s) by means of a second resource allocation parameter set and the first resource allocation parameter set in the semi-static scheduling manner in parallel; and transmitting (S830), by the MS, the service with different requirement(s) according to the first control signaling, wherein each of the first resource allocation parameter set and the second resource allocation parameter set comprises at least one resource allocation parameter.
Kitchen appliance for preparing food in a food preparation vessel with a tool for mixing or comminuting the food in the food preparation vessel and/or a heating element for heating the food in the food preparation vessel , wherein the kitchen appliance is configured to receive a status information regarding a food preparation from a battery-operated auxiliary device and to use it for a food preparation process, characterized in that the kitchen appliance comprises a receiving unit configured for receiving a charging status of the battery-operated auxiliary device and a control unit configured for processing the received charging status.
A real-time thermocycler , comprising: - a well (120, 230a-b) for storing a sample comprising a target and fluorescence molecules, - a thermal unit for adjusting a temperature of the sample, - an excitation unit for exciting the fluorescence molecules of the sample via radiation, - a detection unit for detecting a fluorescence signal (124, 224a-b) from the sample, and - a controller for controlling the excitation unit characterised in that the controller is configured to adjust an intensity of the excitation of the sample based on information about the target, such that the fluorescence signal is in a working range of the detection unit. - a well (120, 230a-b) for storing a sample comprising a target and fluorescence molecules, - a thermal unit for adjusting a temperature of the sample, - an excitation unit for exciting the fluorescence molecules of the sample via radiation, - a detection unit for detecting a fluorescence signal (124, 224a-b) from the sample, and - a controller for controlling the excitation unit characterised in that the controller is configured to adjust an intensity of the excitation of the sample based on information about the target, such that the fluorescence signal is in a working range of the detection unit.
A mobile device for high dynamic range (HDR) image capture, the mobile device comprising: at least first and second image sensors fixed in a co-planar arrangement to a substrate ; and an optical splitting system comprising a beamsplitter , wherein: said first and second image sensors and said optical splitting system are integrated into a camera of the mobile device ; and a HDR processing device configured to process images data from first and second image sensors; and the beamsplitter is configured to transmit a first portion comprising at least 90% of incident light received through an aperture of said device along a first light path to a first reflective member and onto said first image sensor (34 ) and characterized by the beamsplitter being further configured to reflect a second portion of the incident light along a second light path that is reflected by a second reflective member back through the beamsplitter and onto the second image sensor (34 ). at least first and second image sensors fixed in a co-planar arrangement to a substrate ; and an optical splitting system comprising a beamsplitter , wherein: said first and second image sensors and said optical splitting system are integrated into a camera of the mobile device ; and a HDR processing device configured to process images data from first and second image sensors; and the beamsplitter is configured to transmit a first portion comprising at least 90% of incident light received through an aperture of said device along a first light path to a first reflective member and onto said first image sensor (34 ) and characterized by the beamsplitter being further configured to reflect a second portion of the incident light along a second light path that is reflected by a second reflective member back through the beamsplitter and onto the second image sensor (34 ). said first and second image sensors and said optical splitting system are integrated into a camera of the mobile device ; and a HDR processing device configured to process images data from first and second image sensors; and the beamsplitter is configured to transmit a first portion comprising at least 90% of incident light received through an aperture of said device along a first light path to a first reflective member and onto said first image sensor (34 ) and characterized by the beamsplitter being further configured to reflect a second portion of the incident light along a second light path that is reflected by a second reflective member back through the beamsplitter and onto the second image sensor (34 ).