mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a smoking article that includes a functional segment , a tobacco rod , a cooling segment , and a filter segment , comprising (A) preparing a segment A that includes a double-length functional segment , which has a double length of the functional segment , and tobacco rods at either end of the double-length functional segment , (C) preparing a pair of the cooling segments and placing the cooling segments in contact with either end of the segment A to prepare a segment C; (D) cutting and separating the segment C in the central part in the longitudinal direction to prepare a pair of segments D and inverting the segments D, thereby placing the segments D via a gap to align the longitudinal axes of the segments D and allow the cooling segments to face each other; (E) preparing a double-length filter segment , which has a double length of the filter segment , and placing the double-length filter segment in the gap such that both ends of the double-length filter segment come into contact with the end on the cooling segment side of either of the segments D, thereby preparing a segment E ; (F) integrating the segment E by wrapping in one tipping paper to produce a double-length smoking article , which has a double length of the smoking article , and (G) cutting the double-length smoking article in the central part in the longitudinal direction to yield smoking articles . (A) preparing a segment A that includes a double-length functional segment , which has a double length of the functional segment , and tobacco rods at either end of the double-length functional segment , (C) preparing a pair of the cooling segments and placing the cooling segments in contact with either end of the segment A to prepare a segment C; (D) cutting and separating the segment C in the central part in the longitudinal direction to prepare a pair of segments D and inverting the segments D, thereby placing the segments D via a gap to align the longitudinal axes of the segments D and allow the cooling segments to face each other; (E) preparing a double-length filter segment , which has a double length of the filter segment , and placing the double-length filter segment in the gap such that both ends of the double-length filter segment come into contact with the end on the cooling segment side of either of the segments D, thereby preparing a segment E ; (F) integrating the segment E by wrapping in one tipping paper to produce a double-length smoking article , which has a double length of the smoking article , and (G) cutting the double-length smoking article in the central part in the longitudinal direction to yield smoking articles .
A method for wireless communication, said method being performed by a user equipment and comprising: identifying a plurality of timing parameter tables that each define one or more potential values for a timing parameter associated with a timing between receipt, from a base station , of downlink control information, DCI, and a subsequent communication with the base station according to the DCI, the plurality of timing parameter tables comprising at least a first timing parameter table associated with a first bandwidth part, BWP, and a second timing parameter table associated with a second BWP ; receiving , over the first BWP, a DCI transmission that activates the second BWP, the DCI transmission comprising a resource allocation bit field indexing at least a subset of the second timing parameter table, wherein a size of the resource allocation bit field is based at least in part on a configuration of the first BWP; identifying a value for the timing parameter based at least in part on the second timing parameter table and the size of the resource allocation bit field; and communicating with the base station over the second BWP in accordance with the value for the timing parameter. identifying a plurality of timing parameter tables that each define one or more potential values for a timing parameter associated with a timing between receipt, from a base station , of downlink control information, DCI, and a subsequent communication with the base station according to the DCI, the plurality of timing parameter tables comprising at least a first timing parameter table associated with a first bandwidth part, BWP, and a second timing parameter table associated with a second BWP ; receiving , over the first BWP, a DCI transmission that activates the second BWP, the DCI transmission comprising a resource allocation bit field indexing at least a subset of the second timing parameter table, wherein a size of the resource allocation bit field is based at least in part on a configuration of the first BWP; identifying a value for the timing parameter based at least in part on the second timing parameter table and the size of the resource allocation bit field; and communicating with the base station over the second BWP in accordance with the value for the timing parameter.
A method for determining a pressure deviation (p Rel ) between a target tire pressure (p ideal ) and a current tire pressure (p Actual ) for a tire of a vehicle , comprising the steps: Determination of a wheel load (f) for the tire , determination of a dynamic tire radius (r dyn ) of the tire , and determination of the pressure deviation depending on the wheel load (f) and the dynamic tire radius (r dyn ), wherein an unloaded tire radius (r 0 ) of the tire is specified in the unloaded state, wherein the current tire pressure (p Actual ) is calculated depending on the wheel load (f), the unloaded tire radius (r 0 ) and the dynamic tire radius (r dyn ) by means of a tire stiffness function. Determination of a wheel load (f) for the tire , determination of a dynamic tire radius (r dyn ) of the tire , and determination of the pressure deviation depending on the wheel load (f) and the dynamic tire radius (r dyn ), wherein an unloaded tire radius (r 0 ) of the tire is specified in the unloaded state, wherein the current tire pressure (p Actual ) is calculated depending on the wheel load (f), the unloaded tire radius (r 0 ) and the dynamic tire radius (r dyn ) by means of a tire stiffness function.
Core-shell microcapsule comprising a cross-linked polymeric shell encapsulating a perfume-containing core, wherein the cross-linked polymeric shell is the reaction product of a functionalized polysiloxane, a polyisocyanate and a polyamine and wherein the functionalized polysiloxane comprises a polysiloxane backbone, one or more ethoxylated alcohol side chains and one or more substituted or unsubstituted alkyl or aliphatic cycloalkyl side chains.
An emergency longitude slide ruler apparatus comprising: a stationary degrees wheel ; a circumpolar star wheel comprising a circumpolar star field plate, wherein said circumpolar star field plate includes stars usable for obtaining a fix on longitude, and wherein said circumpolar star wheel is rotatably disposed relative to said degrees wheel ; a time wheel , said time wheel lockably rotatably disposed relative to said circumpolar star wheel and said degrees wheel ; a date wheel , said date wheel lockably rotatably disposed relative to said circumpolar star wheel and to said time wheel ; wherein said date wheel is demarcated with gradations for hours and minutes; wherein said date wheel is configured to be rotated to indicate a present GMT/UTC time; a longitude wheel , said longitude wheel lockably rotatably disposed relative to said circumpolar star wheel , said time wheel and said date wheel ; and a transparent angle arm affixed to the circumpolar star wheel and configured to be set to a measured angle between chosen stars on said degrees wheel ; wherein said transparent angle arm is configured to indicate a present longitude on the longitude wheel when positioned against the degrees wheel to said measured angle. a stationary degrees wheel ; a circumpolar star wheel comprising a circumpolar star field plate, wherein said circumpolar star field plate includes stars usable for obtaining a fix on longitude, and wherein said circumpolar star wheel is rotatably disposed relative to said degrees wheel ; a time wheel , said time wheel lockably rotatably disposed relative to said circumpolar star wheel and said degrees wheel ; a date wheel , said date wheel lockably rotatably disposed relative to said circumpolar star wheel and to said time wheel ; wherein said date wheel is demarcated with gradations for hours and minutes; wherein said date wheel is configured to be rotated to indicate a present GMT/UTC time; a longitude wheel , said longitude wheel lockably rotatably disposed relative to said circumpolar star wheel , said time wheel and said date wheel ; and a transparent angle arm affixed to the circumpolar star wheel and configured to be set to a measured angle between chosen stars on said degrees wheel ; wherein said transparent angle arm is configured to indicate a present longitude on the longitude wheel when positioned against the degrees wheel to said measured angle.
A wireless power transfer system comprising: an external module (100; 400) including multiple sub-wavelength structures (102; 102C; 102D; 102E; 102I; 102J; 102K; 302; 302C; 302D; 302E; 302I; 302J; 302K; 502a-n) configured to transmit wireless power by manipulating evanescent fields outside of tissue to generate propagating fields inside the tissue and thereby generate a spatially focused field inside the tissue; and an implantable module (318; 418; 630, 632, 634, 636; 730, 740, 742, 744; 746, 748, 750, 752) configured to receive the wireless power from the external module (100; 400), the implantable module (318; 418; 630, 632, 634, 636; 730, 740, 742, 744; 746, 748, 750, 752) comprising at least one of a sensor configured to sense a parameter of the tissue or a stimulator configured apply stimulation to the tissue. an external module (100; 400) including multiple sub-wavelength structures (102; 102C; 102D; 102E; 102I; 102J; 102K; 302; 302C; 302D; 302E; 302I; 302J; 302K; 502a-n) configured to transmit wireless power by manipulating evanescent fields outside of tissue to generate propagating fields inside the tissue and thereby generate a spatially focused field inside the tissue; and an implantable module (318; 418; 630, 632, 634, 636; 730, 740, 742, 744; 746, 748, 750, 752) configured to receive the wireless power from the external module (100; 400), the implantable module (318; 418; 630, 632, 634, 636; 730, 740, 742, 744; 746, 748, 750, 752) comprising at least one of a sensor configured to sense a parameter of the tissue or a stimulator configured apply stimulation to the tissue.
A fine particle analyzing apparatus including a data extracting unit configured to selectively separate, from a plurality of spectral data, one or more spectral data, wherein each spectral data indicates fluorescence intensity emitted from a single fine particle for each of a plurality of wavelengths, the apparatus being characterized in that the data extracting unit is configured to selectively separate the one or more spectral data from the plurality of spectral data based on whether the maximum of the fluorescence intensity of the spectral data is located within a predetermined wavelength range.
A method for determining a priority of an area, performed by a network device, the method comprising: acquiring information of a network slice, wherein the information of the network slice comprises attribute information of a terminal device; determining a priority of the network slice based on the attribute information of the terminal device, and setting a priority of an area corresponding to the network slice based on the priority of the network slice ; and configuring the priority of the area corresponding to the network slice to the terminal device ; wherein the area is at least one of the following: a beam area, a cell, a frequency band, a frequency point, a registration area, a tracking area, and a paging area. acquiring information of a network slice, wherein the information of the network slice comprises attribute information of a terminal device; determining a priority of the network slice based on the attribute information of the terminal device, and setting a priority of an area corresponding to the network slice based on the priority of the network slice ; and configuring the priority of the area corresponding to the network slice to the terminal device ; wherein the area is at least one of the following: a beam area, a cell, a frequency band, a frequency point, a registration area, a tracking area, and a paging area.
A dosing syringe comprising a barrel and a piston , the piston is slidably receivable in the barrel and can move within the barrel from a maximum inserted position to a withdrawn position to draw a dose of product into the barrel , the syringe comprises means for pre-setting the withdrawn position of the piston whereby to define the maximum dose which can be drawn into the barrel , characterised in that the means for pre-setting the withdrawn position of the piston comprises the barrel comprising a blocking projection and the piston comprising a plurality of cooperating projections which together define a plurality of maximum withdrawn positions of the piston , and in that the blocking projection of the barrel is movable between an unblocking position and a blocking position.
A method performed by a system-on-chip integrated circuit device , the method comprising: retrieving , by a first set of logic integrated circuitry of the system-on-chip integrated circuit device and from non-volatile memory storage cells of the system-on-chip integrated circuit device , a first combination of bit values; determining , by the first set of logic integrated circuitry , that the first combination of bit values fails to correspond to a known lifecycle state identifier ; providing , by the first set of logic integrated circuitry to a second set of logic integrated circuitry of the system-on-chip integrated circuit device , a second combination of bit values, the second combination of bit values corresponding to an undefined lifecycle state identifier ; and placing , by the second set of logic integrated circuitry , the system-on-chip integrated circuit device into an undefined lifecycle state in which the system-on-chip integrated circuit device is secure, the undefined lifecycle state preventing undefined behaviors of the system-on-chip integrated circuit device that lead to leaking data or functions available through the system-on-chip integrated circuit device . retrieving , by a first set of logic integrated circuitry of the system-on-chip integrated circuit device and from non-volatile memory storage cells of the system-on-chip integrated circuit device , a first combination of bit values; determining , by the first set of logic integrated circuitry , that the first combination of bit values fails to correspond to a known lifecycle state identifier ; providing , by the first set of logic integrated circuitry to a second set of logic integrated circuitry of the system-on-chip integrated circuit device , a second combination of bit values, the second combination of bit values corresponding to an undefined lifecycle state identifier ; and placing , by the second set of logic integrated circuitry , the system-on-chip integrated circuit device into an undefined lifecycle state in which the system-on-chip integrated circuit device is secure, the undefined lifecycle state preventing undefined behaviors of the system-on-chip integrated circuit device that lead to leaking data or functions available through the system-on-chip integrated circuit device .
Fire protection sleeve for external fastening to a ceiling or wall for sealing off cable or line passages, having a housing , a fastening device for fastening the housing in the region of a border of the cable or line passage externally on the ceiling or wall, and a fire protection insert in the housing , the fire protection insert having a resiliently deformable molded body made of an elastic first material with intumescent properties, characterized in that the molded body in the as-delivered state is an annular body formed around a passage opening formed for the passage of at least one cable or line, and that the passage opening in the as-delivered state is filled by a filling formed of a second material formed differently from the first material of the molded body , so that the filling can be removed from the passage opening without tools due to the interfaces between the different materials .
A network accessing method for a second mobile terminal , comprising: reading , by a first mobile terminal , a help request sent by the second mobile terminal and used for accessing a network by the second mobile terminal ; sending , by the first mobile terminal , a beacon channel on a beacon channel resource allocated by a base station of the network, and sending a broadcast signal on a broadcast channel resource corresponding to the beacon channel resource, after reading the help request, wherein the broadcast signal comprises an access resource; and receiving , by the first mobile terminal , an access request of the second mobile terminal on the access resource, and assisting the second mobile terminal in accessing the network, so that the second mobile terminal connects to the first mobile terminal on the access resource and then accesses the network. reading , by a first mobile terminal , a help request sent by the second mobile terminal and used for accessing a network by the second mobile terminal ; sending , by the first mobile terminal , a beacon channel on a beacon channel resource allocated by a base station of the network, and sending a broadcast signal on a broadcast channel resource corresponding to the beacon channel resource, after reading the help request, wherein the broadcast signal comprises an access resource; and receiving , by the first mobile terminal , an access request of the second mobile terminal on the access resource, and assisting the second mobile terminal in accessing the network, so that the second mobile terminal connects to the first mobile terminal on the access resource and then accesses the network.
A circuit board assembly that is constructed by stacking a first circuit board having a first contact portion and a second circuit board having a second contact portion to allow the first contact portion and the second contact portion to contact each other and that is bendable along a first direction, the circuit board assembly comprising: a first projection piece formed by cutting the first circuit board in the first contact portion ; and a second projection piece formed by cutting the second circuit board in the second contact portion , characterized in that the first circuit board has a first hole that is formed within a range in which the first projection piece is present in a second direction perpendicular to the first direction, at least part of the first hole being situated at a base portion of the first projection piece in the first direction, and the second circuit board has a second hole that is formed within a range in which the second projection piece is present in the second direction, at least part of the second hole being situated at a base portion of the second projection piece in the first direction, wherein the first hole is formed between opposite ends of the first projection piece in the second direction, and the second hole is formed between opposite ends of the second projection piece in the second direction, and wherein the first hole is situated in a middle portion, in the second direction, of the first projection piece , and the second hole is situated in a middle portion, in the second direction, of the second projection piece . a first projection piece formed by cutting the first circuit board in the first contact portion ; and a second projection piece formed by cutting the second circuit board in the second contact portion , characterized in that the first circuit board has a first hole that is formed within a range in which the first projection piece is present in a second direction perpendicular to the first direction, at least part of the first hole being situated at a base portion of the first projection piece in the first direction, and the second circuit board has a second hole that is formed within a range in which the second projection piece is present in the second direction, at least part of the second hole being situated at a base portion of the second projection piece in the first direction, wherein the first hole is formed between opposite ends of the first projection piece in the second direction, and the second hole is formed between opposite ends of the second projection piece in the second direction, and wherein the first hole is situated in a middle portion, in the second direction, of the first projection piece , and the second hole is situated in a middle portion, in the second direction, of the second projection piece .
A dispersion comprising i) particles A) of polymer comprising repeating units having the general structure -CH 2 -CHR 1 -COOR 2 - wherein R 1 represent H or an alkyl group, and R 2 represents an unsubstituted or substituted C 1 -C 10 -alkyl group, wherein particles A) have a mass average particle diameter (d 50 ) of at least 500 nm; ii) particles B) of a complex of a cationic polythiophene and a polymeric anion, wherein the particles B) have a mass average particle diameter, as determined via ultracentrifugation, of less than 150 nm; iii) water; wherein the weight ratio of the polymer in particles A) to the total weight of the cationic polythiophene and the polymeric anion in the complex of particles B) is at least 5 : 1, wherein the polymer of particles A) has a glass transition temperature, as measured by means of differential calorimetry, of less than 35 °C. i) particles A) of polymer comprising repeating units having the general structure -CH 2 -CHR 1 -COOR 2 - wherein R 1 represent H or an alkyl group, and R 2 represents an unsubstituted or substituted C 1 -C 10 -alkyl group, wherein particles A) have a mass average particle diameter (d 50 ) of at least 500 nm; R 1 represent H or an alkyl group, and R 2 represents an unsubstituted or substituted C 1 -C 10 -alkyl group, ii) particles B) of a complex of a cationic polythiophene and a polymeric anion, wherein the particles B) have a mass average particle diameter, as determined via ultracentrifugation, of less than 150 nm; iii) water; wherein the weight ratio of the polymer in particles A) to the total weight of the cationic polythiophene and the polymeric anion in the complex of particles B) is at least 5 : 1, wherein the polymer of particles A) has a glass transition temperature, as measured by means of differential calorimetry, of less than 35 °C. wherein the weight ratio of the polymer in particles A) to the total weight of the cationic polythiophene and the polymeric anion in the complex of particles B) is at least 5 : 1, wherein the polymer of particles A) has a glass transition temperature, as measured by means of differential calorimetry, of less than 35 °C.