mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining incorrect antenna configuration performed by a network configuration verification component of a cellular communication network , the method comprising: obtaining crowd-sourced data comprising an indication of a central point within a coverage area of a cell sector of the cellular communication system , the crowd-sourced data comprising data indicative of actual cell coverage as experienced by a plurality of wireless communication units , and the indication of the central point within the coverage area of the cell sector being based on the actual cell coverage as experienced by the plurality of wireless communication units ; determining a distance, d, between the central point within the coverage area of the cell sector and a geographic location of an antenna of the cell sector ; calculating an expected distance, D, between an expected central point within the coverage area of the cell sector and the geographic location of the antenna ; verifying whether a difference between the determined distance, d, and the expected distance, D, is more than a threshold value; and identifying a potentially incorrect antenna configuration for the cell sector if the difference between the determined distance, d, and the expected distance, D, is more than the threshold value. obtaining crowd-sourced data comprising an indication of a central point within a coverage area of a cell sector of the cellular communication system , the crowd-sourced data comprising data indicative of actual cell coverage as experienced by a plurality of wireless communication units , and the indication of the central point within the coverage area of the cell sector being based on the actual cell coverage as experienced by the plurality of wireless communication units ; the crowd-sourced data comprising data indicative of actual cell coverage as experienced by a plurality of wireless communication units , and the indication of the central point within the coverage area of the cell sector being based on the actual cell coverage as experienced by the plurality of wireless communication units ; determining a distance, d, between the central point within the coverage area of the cell sector and a geographic location of an antenna of the cell sector ; calculating an expected distance, D, between an expected central point within the coverage area of the cell sector and the geographic location of the antenna ; verifying whether a difference between the determined distance, d, and the expected distance, D, is more than a threshold value; and identifying a potentially incorrect antenna configuration for the cell sector if the difference between the determined distance, d, and the expected distance, D, is more than the threshold value.
An imaging agent comprising 2-deoxy-2-[ 18 F]fluoroglucaric acid, or a pharmaceutically-acceptable salt thereof.
A surface-mountable razor holder comprising: a rear surface to mount the surface-mountable razor holder to an external surface; characterized by a front surface with contours that substantially match a counterpart of a handle of a shaving razor , wherein the front surface further comprises a perimeter portion that slopes from a portion of the front surface towards the rear surface in order to match the handle counterpart; and a magnet disposed in a cavity formed by the surface-mountable razor holder , wherein the magnet is to removably secure the counterpart of the handle of the shaving razor to the front surface. a rear surface to mount the surface-mountable razor holder to an external surface; characterized by a front surface with contours that substantially match a counterpart of a handle of a shaving razor , wherein the front surface further comprises a perimeter portion that slopes from a portion of the front surface towards the rear surface in order to match the handle counterpart; and a magnet disposed in a cavity formed by the surface-mountable razor holder , wherein the magnet is to removably secure the counterpart of the handle of the shaving razor to the front surface.
An insulated bag comprising: a bag main body including a bottom surface portion and a side surface portion ; a lid body attached to the bag main body ; a bottom surface insulating member and a side surface insulating member provided to the bag main body ; an extending portion extending in a vertical direction from the side surface insulating member and a step portion formed in the bottom surface insulating member being in contact with the extending portion for increasing a contact area between the side surface insulating member and the bottom surface insulating member , wherein the step portion is provided to have a side surface in contact with a side portion of the extending portion , characterized in that a bottom surface of the extending portion is in contact with an upper surface of the bottom surface insulating member . a bag main body including a bottom surface portion and a side surface portion ; a lid body attached to the bag main body ; a bottom surface insulating member and a side surface insulating member provided to the bag main body ; an extending portion extending in a vertical direction from the side surface insulating member and a step portion formed in the bottom surface insulating member being in contact with the extending portion for increasing a contact area between the side surface insulating member and the bottom surface insulating member , wherein the step portion is provided to have a side surface in contact with a side portion of the extending portion , characterized in that a bottom surface of the extending portion is in contact with an upper surface of the bottom surface insulating member .
Well system comprising a coiled tubing logging plug and a tool comprising a retrieving portion for retrieving the coiled tubing logging plug from a downhole wherein the retrieving portion is configured and formed to be insertable into a through hole of the coiled tubing logging plug and to be coupleable with the coiled tubing logging plug in order to retrieve the coiled tubing logging plug, wherein the retrieving portion comprises another tool body , a retrieving element that is movable relative to the other tool body , an element body and a collapsible portion that is movable relative to the element body , wherein the coiled tubing logging plug comprises an inner sleeve comprising a protrusion that is adapted to act on the collapsible portion such that it moves from the expanded state to the collapsed state when the tool is moved through the through hole of the coiled tubing logging plug , and the coiled tubing logging plug comprises a recess for receiving of another protrusion of an outer sleeve of the coiled tubing logging plug , wherein the retrieving element is configured to apply a retrieving force on the protrusion of the inner sleeve and to cause the inner sleeve to move such that the other protrusion of the outer sleeve is received in the recess of the inner sleeve when the coiled tubing logging plug is retrieved. a retrieving portion for retrieving the coiled tubing logging plug from a downhole wherein the retrieving portion is configured and formed to be insertable into a through hole of the coiled tubing logging plug and to be coupleable with the coiled tubing logging plug in order to retrieve the coiled tubing logging plug, wherein the retrieving portion comprises another tool body , a retrieving element that is movable relative to the other tool body , an element body and a collapsible portion that is movable relative to the element body , wherein the coiled tubing logging plug comprises an inner sleeve comprising a protrusion that is adapted to act on the collapsible portion such that it moves from the expanded state to the collapsed state when the tool is moved through the through hole of the coiled tubing logging plug , and the coiled tubing logging plug comprises a recess for receiving of another protrusion of an outer sleeve of the coiled tubing logging plug , wherein the retrieving element is configured to apply a retrieving force on the protrusion of the inner sleeve and to cause the inner sleeve to move such that the other protrusion of the outer sleeve is received in the recess of the inner sleeve when the coiled tubing logging plug is retrieved.
A method for performing prenatal diagnosis of a fetal chromosomal aneuploidy in a biological sample obtained from a pregnant female subject, wherein the biological sample includes nucleic acid molecules from the fetus and the pregnant female subject, the method comprising: for each of a plurality of the nucleic acid molecules in the biological sample: measuring a size of the nucleic acid molecule; identifying which chromosome the nucleic acid molecule is derived; for each of a plurality of chromosomes, a computer system calculating a statistical value representing a size distribution of the sizes of nucleic acid molecules corresponding to the chromosome; determining a ranking of the chromosomes based on the statistical value; comparing the determined ranking of a first chromosome to another ranking of the first chromosome obtained from a reference biological sample; and based on the comparison, determining a classification of whether the fetal chromosomal aneuploidy exists for the first chromosome. for each of a plurality of the nucleic acid molecules in the biological sample: measuring a size of the nucleic acid molecule; identifying which chromosome the nucleic acid molecule is derived; measuring a size of the nucleic acid molecule; identifying which chromosome the nucleic acid molecule is derived; for each of a plurality of chromosomes, a computer system calculating a statistical value representing a size distribution of the sizes of nucleic acid molecules corresponding to the chromosome; determining a ranking of the chromosomes based on the statistical value; comparing the determined ranking of a first chromosome to another ranking of the first chromosome obtained from a reference biological sample; and based on the comparison, determining a classification of whether the fetal chromosomal aneuploidy exists for the first chromosome.
A once-through evaporator system , comprising: a plurality of once-through evaporator sections ; each of the plurality of once-through evaporator sections comprising a distribution valve to control the flow of feedwater to each of the once-through evaporator sections and a level sensor ; a controller in communication with each distribution valve ; the controller providing the distribution valve with a position set point; and the controller biasing the position set point via a feedforward signal based on a fill level as determined by the level sensor in each of the plurality of once-through evaporator sections . a plurality of once-through evaporator sections ; each of the plurality of once-through evaporator sections comprising a distribution valve to control the flow of feedwater to each of the once-through evaporator sections and a level sensor ; a controller in communication with each distribution valve ; the controller providing the distribution valve with a position set point; and the controller biasing the position set point via a feedforward signal based on a fill level as determined by the level sensor in each of the plurality of once-through evaporator sections .
Antenna arrangement comprising: - a first transparent dielectric panel ; - a second transparent dielectric panel in front of the first transparent dielectric panel and separated by at least one panel interlayer from the first transparent dielectric panel; - a patch network (P) attached and separated by at least one patch interlayer (Ip) from the first transparent dielectric panel; - a feeding network (F) attached and separated by at least one feed interlayer (If) from the second transparent dielectric panel defining a distance Dpf between the patch network and the feeding network; - a ground plane (G); wherein the at least one patch interlayer is a transparent polymer interlayer; characterised in that the ground plane is located between the feeding network and the second transparent dielectric panel - a first transparent dielectric panel ; - a second transparent dielectric panel in front of the first transparent dielectric panel and separated by at least one panel interlayer from the first transparent dielectric panel; - a patch network (P) attached and separated by at least one patch interlayer (Ip) from the first transparent dielectric panel; - a feeding network (F) attached and separated by at least one feed interlayer (If) from the second transparent dielectric panel defining a distance Dpf between the patch network and the feeding network; - a ground plane (G);
A protection film for an electronic device, the protection film comprising: an adhesive layer including a first surface to which an electronic device is attachable; and a film layer which contacts a second surface of the adhesive layer and comprises at least a base layer which directly contacts the adhesive layer , characterized in that , a thickness of the adhesive layer satisfies equation 1: z = 5.1 x + 57.4 ⋅ ln y − 14.7 x + 140.5 , where z is the thickness of the adhesive layer in terms of micrometers, x is a modulus determined according to the conditions of ASTM D638 of the base layer of the film layer which directly contacts the adhesive layer in terms of gigapascals, and y is a total thickness of the film layer in terms of micrometers. an adhesive layer including a first surface to which an electronic device is attachable; and a film layer which contacts a second surface of the adhesive layer and comprises at least a base layer which directly contacts the adhesive layer , characterized in that , a thickness of the adhesive layer satisfies equation 1: z = 5.1 x + 57.4 ⋅ ln y − 14.7 x + 140.5 , where z is the thickness of the adhesive layer in terms of micrometers, x is a modulus determined according to the conditions of ASTM D638 of the base layer of the film layer which directly contacts the adhesive layer in terms of gigapascals, and y is a total thickness of the film layer in terms of micrometers.
A method for determining a relation between an initial saturation (Sgi) and a residual saturation (Sgr) in a first fluid in a porous sample , the method comprising the following steps: - providing a porous sample ; - substantially saturating the porous sample with a second fluid; - measuring a local volume of the second fluid in a plurality of regions of the porous sample , the regions being transversal slices of the porous sample taken in succession longitudinally along the length of the porous sample, each slice being delimited by two parallel transverse planes which are perpendicular to the central axis of the porous sample; - establishing a steady state profile of a saturation in the first fluid in the porous sample , by applying a mechanical load, creating in each region of the plurality of regions a different initial saturation (Sgi) in the first fluid; - measuring an initial local volume of the second fluid in each region of the porous sample ; - generating a rise of a capillary ascension flow of the second fluid through the porous sample ; - during the rise of the capillary ascension flow, simultaneously measuring, in each region of the plurality of regions, a local volume of the second fluid and/or of the first fluid, at successive instants, advantageously until the local volume is substantially steady; - determining the relation between the initial saturation (Sgi) in the first fluid and the residual saturation (Sgr) in the first fluid based on the local volume measured at successive instants in each region of the plurality of regions. - providing a porous sample ; - substantially saturating the porous sample with a second fluid; - measuring a local volume of the second fluid in a plurality of regions of the porous sample , the regions being transversal slices of the porous sample taken in succession longitudinally along the length of the porous sample, each slice being delimited by two parallel transverse planes which are perpendicular to the central axis of the porous sample; - establishing a steady state profile of a saturation in the first fluid in the porous sample , by applying a mechanical load, creating in each region of the plurality of regions a different initial saturation (Sgi) in the first fluid; - measuring an initial local volume of the second fluid in each region of the porous sample ; - generating a rise of a capillary ascension flow of the second fluid through the porous sample ; - during the rise of the capillary ascension flow, simultaneously measuring, in each region of the plurality of regions, a local volume of the second fluid and/or of the first fluid, at successive instants, advantageously until the local volume is substantially steady; - determining the relation between the initial saturation (Sgi) in the first fluid and the residual saturation (Sgr) in the first fluid based on the local volume measured at successive instants in each region of the plurality of regions.
A laminated acoustic absorption member comprising at least a first fiber layer and a second fiber layer, and at least one substrate layer interposed between the first fiber layer and the second fiber layer, wherein the first fiber layer has an mean flow pore size of 0.5 to 10 μm and a basis weight of 0.1 to 200 g/m 2 , wherein the second fiber layer has an mean flow pore size of 0.5 to 10 μm, which is equal to or less than the mean flow pore size of the first fiber layer, and has a basis weight of 0.1 to 200 g/m 2 , wherein the substrate layer has an air permeability of 40 cc/cm 2 ·s or more obtained by a Frazier method and has a basis weight of 1 to 700 g/m 2 , and wherein the first fiber layer is disposed on a sound-incidence side and the second fiber layer is disposed on a sound-transmission side. wherein the first fiber layer has an mean flow pore size of 0.5 to 10 μm and a basis weight of 0.1 to 200 g/m 2 , wherein the second fiber layer has an mean flow pore size of 0.5 to 10 μm, which is equal to or less than the mean flow pore size of the first fiber layer, and has a basis weight of 0.1 to 200 g/m 2 , wherein the substrate layer has an air permeability of 40 cc/cm 2 ·s or more obtained by a Frazier method and has a basis weight of 1 to 700 g/m 2 , and wherein the first fiber layer is disposed on a sound-incidence side and the second fiber layer is disposed on a sound-transmission side.
A cosmetic aerosol composition for keratin fibers, preferably human keratin fibers, more preferably for human hair, characterized in that it comprises: • One or more organopolysiloxane graft polymer(s), • One or more pigment(s), • One or more cosmetically acceptable organic solvent(s) with a boiling point in the range of more than 50°C to 120°C under atmospheric conditions, • One or more propellant(s) at a total concentration of at least 50% by weight, calculated to the total of the composition, wherein the composition comprises less than 5% by weight of water, calculated to the total of the composition, preferably it is anhydrous. • One or more organopolysiloxane graft polymer(s), • One or more pigment(s), • One or more cosmetically acceptable organic solvent(s) with a boiling point in the range of more than 50°C to 120°C under atmospheric conditions, • One or more propellant(s) at a total concentration of at least 50% by weight, calculated to the total of the composition,
A rack system comprising: at least two rack modules directly adjacent to each other in a height direction (Y) of the rack system ; wherein the rack modules are formed of two racks , which are aligned parallel to each other in a longitudinal direction (X) of the rack system and spaced apart from each other in a transverse direction (Z) of the rack system for defining a rack aisle between them, and comprise a plurality of rack compartments , which are directly adjacent to each other; wherein each of the rack modules comprises, in an area of the rack aisle , a maintenance aisle configured for automatically operating and manually maintaining at least one storage and retrieval device ; wherein, within at least one of the racks , a rack-integrated escape channel is provided for connecting the maintenance aisles directly to an outside world of the rack system , and wherein the escape channel is configured to be passed by a maintenance technician; and wherein the escape channel includes an escape shaft extending in the height direction (Y) through the at least one of the racks and connecting to each other the rack modules in the height direction (Y) in a compartmentless manner. at least two rack modules directly adjacent to each other in a height direction (Y) of the rack system ; wherein the rack modules are formed of two racks , which are aligned parallel to each other in a longitudinal direction (X) of the rack system and spaced apart from each other in a transverse direction (Z) of the rack system for defining a rack aisle between them, and comprise a plurality of rack compartments , which are directly adjacent to each other; are aligned parallel to each other in a longitudinal direction (X) of the rack system and spaced apart from each other in a transverse direction (Z) of the rack system for defining a rack aisle between them, and comprise a plurality of rack compartments , which are directly adjacent to each other; wherein each of the rack modules comprises, in an area of the rack aisle , a maintenance aisle configured for automatically operating and manually maintaining at least one storage and retrieval device ; wherein, within at least one of the racks , a rack-integrated escape channel is provided for connecting the maintenance aisles directly to an outside world of the rack system , and wherein the escape channel is configured to be passed by a maintenance technician; and wherein the escape channel includes an escape shaft extending in the height direction (Y) through the at least one of the racks and connecting to each other the rack modules in the height direction (Y) in a compartmentless manner.