mhurhangee/patent-ind-claim-en huggingface dataset:
An aerosol-generating article for producing an aerosol upon heating, the aerosol-generating article comprising: a rod of aerosol-forming substrate comprising an aerosol former, the aerosol-forming substrate having an aerosol former content of greater than 10 percent on a dry weight basis; and a filter positioned downstream of the rod of aerosol-forming substrate; wherein the rod of aerosol-forming substrate and the filter are assembled within a wrapper , the aerosol-generating article comprising first and second air ingress zones located on the wrapper, the first and second air ingress zones each configured to allow the ingress of air into the interior of the aerosol-generating article; further wherein the second air ingress zone is located at a position at least 1.5 mm downstream of the first air ingress zone. a rod of aerosol-forming substrate comprising an aerosol former, the aerosol-forming substrate having an aerosol former content of greater than 10 percent on a dry weight basis; and a filter positioned downstream of the rod of aerosol-forming substrate; wherein the rod of aerosol-forming substrate and the filter are assembled within a wrapper , the aerosol-generating article comprising first and second air ingress zones located on the wrapper, the first and second air ingress zones each configured to allow the ingress of air into the interior of the aerosol-generating article; further wherein the second air ingress zone is located at a position at least 1.5 mm downstream of the first air ingress zone.
Apparatus for delivering a prosthesis into a target vessel comprising: a flexible catheter shaft having a proximal end and a distal end; an expandable member coupled with the catheter shaft near the distal end movable from a contracted configuration to an expanded configuration; a tubular prosthesis selectively movable in an axial direction over the expandable member while the tubular prosthesis is in an undeployed configuration; and a stop member disposed on the catheter shaft near the distal end for stopping the prosthesis at a deployment position on the expandable member , wherein the expandable member has a deployment portion and a tapered portion tapering distally from the deployment portion, the stop member being adapted to stop the tubular prosthesis on the deployment portion proximal to the tapered portion . a flexible catheter shaft having a proximal end and a distal end; an expandable member coupled with the catheter shaft near the distal end movable from a contracted configuration to an expanded configuration; a tubular prosthesis selectively movable in an axial direction over the expandable member while the tubular prosthesis is in an undeployed configuration; and a stop member disposed on the catheter shaft near the distal end for stopping the prosthesis at a deployment position on the expandable member , wherein the expandable member has a deployment portion and a tapered portion tapering distally from the deployment portion, the stop member being adapted to stop the tubular prosthesis on the deployment portion proximal to the tapered portion .
A method for allocating physical resources to an Acknowledgement/ Negative Acknowledgement, ACK/NACK, signal channel representative of a response signal in a wireless communication system, the method comprising: decoding a data channel or a control channel received through a plurality of consecutive uplink resource blocks (303-305); generating a downlink ACK/NACK symbol according to success/failure in the decoding; grouping ACK/NACK signal channels into a plurality of groups (306-311) based on uplink resource block indices so that ACK/NACK signal channels of adjacent uplink resource blocks (303-305) do not belong to the same group (306-311), wherein ACK/NACK signal channel is used to transmit a downlink ACK/NACK signal in response to the data channel or the control channel received through the plurality of the consecutive uplink resource blocks; allocating same frequency resources to the ACK/NACK signal channels belonging to the same ACK/NACK signal channel group and allocating orthogonal sequences so the ACK/NACK signal channels in each ACK/NACK signal channel group are distinguished in a code domain; and multiplying the generated ACK/NACK symbol by the orthogonal sequence allocated to the respective ACK/NACK signal channel to spread the generated ACK/NACK symbol. decoding a data channel or a control channel received through a plurality of consecutive uplink resource blocks (303-305); generating a downlink ACK/NACK symbol according to success/failure in the decoding; grouping ACK/NACK signal channels into a plurality of groups (306-311) based on uplink resource block indices so that ACK/NACK signal channels of adjacent uplink resource blocks (303-305) do not belong to the same group (306-311), wherein ACK/NACK signal channel is used to transmit a downlink ACK/NACK signal in response to the data channel or the control channel received through the plurality of the consecutive uplink resource blocks; allocating same frequency resources to the ACK/NACK signal channels belonging to the same ACK/NACK signal channel group and allocating orthogonal sequences so the ACK/NACK signal channels in each ACK/NACK signal channel group are distinguished in a code domain; and multiplying the generated ACK/NACK symbol by the orthogonal sequence allocated to the respective ACK/NACK signal channel to spread the generated ACK/NACK symbol.
A kitchen apparatus comprising: a food preparation chamber ; a first housing portion ; a second housing portion , the first housing portion and the second housing portion being movable relative to each other to enable the food preparation chamber to be opened and closed; and a channel for receiving at least one wire connected to a food monitoring sensor, at least part of the channel being at an interface between the first housing portion and the second housing portion so as to permit routing of the at least one wire received in the channel into the food preparation chamber; the apparatus being characterized by a handle mounted to one of the first and second housing portions via a mounting portion extending between the respective housing portion and the handle, wherein at least part of the channel is arranged in the mounting portion. a food preparation chamber ; a first housing portion ; a second housing portion , the first housing portion and the second housing portion being movable relative to each other to enable the food preparation chamber to be opened and closed; and a channel for receiving at least one wire connected to a food monitoring sensor, at least part of the channel being at an interface between the first housing portion and the second housing portion so as to permit routing of the at least one wire received in the channel into the food preparation chamber; the apparatus being characterized by a handle mounted to one of the first and second housing portions via a mounting portion extending between the respective housing portion and the handle, wherein at least part of the channel is arranged in the mounting portion.
A fuse comprising: - at least one fuse link , formed in a sheet having two opposite main faces extending along a longitudinal axis (A2) of the fuse link, each fuse link comprising a portion in which is formed a reduced section defining a plane (P4) crossing the fuse link, - two connection terminals , each terminal being connected to each blade fuse, - arch shields , made of a preformed elastic material, which are associated in pairs , the arch shields of the same pair each being located opposite each other on a respective main face of the same fuse link, characterised in that for at least a first pair of arch guards , a layer of adhesive is interposed between the fuse link and an inner face of each arch guard of that pair, the inner face facing one of the main faces of the fuse link, so as to secure each arch guard to the fuse link. - at least one fuse link , formed in a sheet having two opposite main faces extending along a longitudinal axis (A2) of the fuse link, each fuse link comprising a portion in which is formed a reduced section defining a plane (P4) crossing the fuse link, - two connection terminals , each terminal being connected to each blade fuse, - arch shields , made of a preformed elastic material, which are associated in pairs , the arch shields of the same pair each being located opposite each other on a respective main face of the same fuse link,
A lithium oxide argyrodite of the general formula: Li (6-y) PS 4 O (1-y) X (1+y) where X is a halide and y is a number between 0 and 0.8.
An information processing method comprising: an exposure step (S10) of exposing a correction image (IMC) displayed on an image display device having a plurality of pixels to a photosensitive recording medium via a limiting member , the limiting member being provided between the image display device and an exposure surface of the photosensitive recording medium and limiting an angle of light emitted from the image display device to the photosensitive recording medium ; an acquisition step (S12) of acquiring recorded image data (IMD), which is data of a recorded image (IMR) recorded on the photosensitive recording medium through the exposure of the correction image (IMC); and a derivation step (S16) of deriving a correction coefficient K for correcting a pixel value for each pixel of a display image (IMA) for each pixel of the image display device based on the recorded image data (IMD) such that the display image including unevenness of which brightness is complementary to unevenness that occur in the recorded image is displayed on the image display device, characterised in that wherein in the derivation step (S16), the correction coefficient K is derived using a pixel value Cr for each pixel of the recorded image and a reference pixel value Cs of the recorded image, which are derived based on the recorded image data, and wherein in the derivation step, in a case where a predetermined constant is denoted by A, the correction coefficient K is derived based on the following equation , K = 1 − Cr / Cs − 1 × A an exposure step (S10) of exposing a correction image (IMC) displayed on an image display device having a plurality of pixels to a photosensitive recording medium via a limiting member , the limiting member being provided between the image display device and an exposure surface of the photosensitive recording medium and limiting an angle of light emitted from the image display device to the photosensitive recording medium ; an acquisition step (S12) of acquiring recorded image data (IMD), which is data of a recorded image (IMR) recorded on the photosensitive recording medium through the exposure of the correction image (IMC); and a derivation step (S16) of deriving a correction coefficient K for correcting a pixel value for each pixel of a display image (IMA) for each pixel of the image display device based on the recorded image data (IMD) such that the display image including unevenness of which brightness is complementary to unevenness that occur in the recorded image is displayed on the image display device, characterised in that wherein in the derivation step (S16), the correction coefficient K is derived using a pixel value Cr for each pixel of the recorded image and a reference pixel value Cs of the recorded image, which are derived based on the recorded image data, and wherein in the derivation step, in a case where a predetermined constant is denoted by A, the correction coefficient K is derived based on the following equation , K = 1 − Cr / Cs − 1 × A
A method of producing a non-human animal model of corneal angiogenesis, the method comprising applying, preferably topically applying, to a cornea of at least one eye of a non-human animal an effective amount of an aromatic compound selected from the group consisting of benzene and phenol, wherein the effective amount of the aromatic compound applied is about 1 μmol to about 70 μmol.
A compound, which is: wherein: R 1 is selected from C1-C16 alkyl; or, R 1 is C16 alkyl; n is selected from 1; R 4 independently is selected from H, halogen, nitro, C1-C3 alkoxy; or, R 4 independently is selected from H, F, Cl, nitro, methoxy; X- is an anion of a pharmaceutically acceptable inorganic or organic acid salt; or, the inorganic acid salt is hydrochloride, hydrobromide, hydroiodide, nitrate, bicarbonate and carbonate, sulfate or phosphate, the organic acid salt is formate, acetate, propionate, benzoate, maleate, fumarate, succinate, tartrate, citrate, ascorbate, α-ketoglutarate, α-glycerophosphate, alkyl sulfonate or aryl sulfonate; or, said alkyl sulfonate is methyl sulfonate or ethyl sulfonate; said aryl sulfonate is benzenesulfonate or p-toluenesulfonate; or a stereoisomer thereof or a pharmaceutically acceptable solvate thereof. R 1 is selected from C1-C16 alkyl; or, R 1 is C16 alkyl; n is selected from 1; R 4 independently is selected from H, halogen, nitro, C1-C3 alkoxy; or, R 4 independently is selected from H, F, Cl, nitro, methoxy; X- is an anion of a pharmaceutically acceptable inorganic or organic acid salt; or, the inorganic acid salt is hydrochloride, hydrobromide, hydroiodide, nitrate, bicarbonate and carbonate, sulfate or phosphate, the organic acid salt is formate, acetate, propionate, benzoate, maleate, fumarate, succinate, tartrate, citrate, ascorbate, α-ketoglutarate, α-glycerophosphate, alkyl sulfonate or aryl sulfonate; or, said alkyl sulfonate is methyl sulfonate or ethyl sulfonate; said aryl sulfonate is benzenesulfonate or p-toluenesulfonate; or a stereoisomer thereof or a pharmaceutically acceptable solvate thereof.
A cigarette comprising a filter , an active portion for releasing a substance to be inhaled and a patch connecting the active portion and the filter to each other, characterized in that the patch has a first annular end portion wrapped freely around the active portion , and a second, annular portion , adjacent to the first annular portion and glued around the filter and the active portion .
A method to control a laundry treating apparatus, the method comprising: setting a drying time period set by user input or a selected drying mode; supplying air to laundry in the laundry treating apparatus, wherein supplying the air includes operating a fan during the drying time period; characterized by : determining whether the dryness level measured at a reference time has reached a reference dryness level, wherein the reference time is set as a time point at which 10 minutes or more remain before the drying time period ends, and resetting the drying time period by adding a reset drying time period to the drying time period after the reference time when the dryness level of the laundry is less than the reference dryness level, wherein resetting the drying time period adds more time period to the drying time period as the dryness level measured at the reference time is lower, and wherein the determining whether the dryness level measured after the reference time has reached the reference dryness level and resetting the drying time period are repeatedly performed until the dryness level of the laundry reaches the reference dryness level. setting a drying time period set by user input or a selected drying mode; supplying air to laundry in the laundry treating apparatus, wherein supplying the air includes operating a fan during the drying time period; characterized by : determining whether the dryness level measured at a reference time has reached a reference dryness level, wherein the reference time is set as a time point at which 10 minutes or more remain before the drying time period ends, and resetting the drying time period by adding a reset drying time period to the drying time period after the reference time when the dryness level of the laundry is less than the reference dryness level, wherein resetting the drying time period adds more time period to the drying time period as the dryness level measured at the reference time is lower, and wherein the determining whether the dryness level measured after the reference time has reached the reference dryness level and resetting the drying time period are repeatedly performed until the dryness level of the laundry reaches the reference dryness level. determining whether the dryness level measured at a reference time has reached a reference dryness level, wherein the reference time is set as a time point at which 10 minutes or more remain before the drying time period ends, and resetting the drying time period by adding a reset drying time period to the drying time period after the reference time when the dryness level of the laundry is less than the reference dryness level, wherein resetting the drying time period adds more time period to the drying time period as the dryness level measured at the reference time is lower, and wherein the determining whether the dryness level measured after the reference time has reached the reference dryness level and resetting the drying time period are repeatedly performed until the dryness level of the laundry reaches the reference dryness level.
A method of determining extracellular concentrations of an analyte , the method comprising: for each of a plurality of times, receiving sensor data from at least one array of ligand-functionalized plasmonic nanostructures of a localized surface plasmon resonance imaging (LSPRi) chip , the array being in contact with a fluid containing at least one living cell ; determining intensity data for the nanostructures , based on the sensor data for each of the plurality of times; and determining fractional occupancy data for the nanostructures based on the intensity data for each of the plurality of times, wherein the fractional occupancy data is a fraction of active surface ligands bound to the analyte ; and characterized in that the method further includes a step of determining extracellular concentration data of the analyte based on the fractional occupancy data ; and the sensor data is received from the at least one sensor array by a charge coupled device , and the fractional occupancy data for the nanostructures is determined as a linear function of normalized intensity data I N (t) which corresponds to: I N t = I t − I 0 I f − I 0 wherein I ( t ) is the mean intensity at time t of each array and I 0 and I f are the initial and saturated array intensity values, respectively. for each of a plurality of times, receiving sensor data from at least one array of ligand-functionalized plasmonic nanostructures of a localized surface plasmon resonance imaging (LSPRi) chip , the array being in contact with a fluid containing at least one living cell ; determining intensity data for the nanostructures , based on the sensor data for each of the plurality of times; and determining fractional occupancy data for the nanostructures based on the intensity data for each of the plurality of times, wherein the fractional occupancy data is a fraction of active surface ligands bound to the analyte ; and characterized in that the method further includes a step of determining extracellular concentration data of the analyte based on the fractional occupancy data ; and the sensor data is received from the at least one sensor array by a charge coupled device , and the fractional occupancy data for the nanostructures is determined as a linear function of normalized intensity data I N (t) which corresponds to: I N t = I t − I 0 I f − I 0 wherein I ( t ) is the mean intensity at time t of each array and I 0 and I f are the initial and saturated array intensity values, respectively.
An operation method of an electronic device , comprising: detecting , by a processor , an input to the electronic device from a user; detecting one or more objects keeping the processor in an active state when said user input is detected; if the one or more objects are detected, retrieving information about the detected one or more objects; displaying a list including the retrieved information on the display the retrieved information; and terminating at least one of the one or more objects or all of the one or more objects among the list according to a selection of a user, characterized by : said detecting the input to the electronic device from the user corresponds to detecting a turning-off operation of a display of the electronic device , and said terminating action includes: either turning-off said display and executing a sleep mode of the electronic device , if all the objects are terminated; or entering a waiting mode in which the display is turned off and non-terminated objects are executed. detecting , by a processor , an input to the electronic device from a user; detecting one or more objects keeping the processor in an active state when said user input is detected; if the one or more objects are detected, retrieving information about the detected one or more objects; displaying a list including the retrieved information on the display the retrieved information; and terminating at least one of the one or more objects or all of the one or more objects among the list according to a selection of a user, characterized by : said detecting the input to the electronic device from the user corresponds to detecting a turning-off operation of a display of the electronic device , and said terminating action includes: either turning-off said display and executing a sleep mode of the electronic device , if all the objects are terminated; or entering a waiting mode in which the display is turned off and non-terminated objects are executed. said detecting the input to the electronic device from the user corresponds to detecting a turning-off operation of a display of the electronic device , and said terminating action includes: either turning-off said display and executing a sleep mode of the electronic device , if all the objects are terminated; or entering a waiting mode in which the display is turned off and non-terminated objects are executed. either turning-off said display and executing a sleep mode of the electronic device , if all the objects are terminated; or entering a waiting mode in which the display is turned off and non-terminated objects are executed.