mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for assessing sleep of a subject, the apparatus comprising: a processor configured to: receive data indicative of one or more physiological parameters associated with a subject; determine, based on the data, two or more sleep parameters relating to sleep of the subject; and use a rule-based method to determine whether the subject is suffering from (a) obstructive sleep apnoea, (b) insomnia, (c) comorbid insomnia and obstructive sleep apnoea, or (d) neither obstructive sleep apnoea nor insomnia, wherein the rule-based method comprises comparing each of the two or more sleep parameters to a respective threshold value; wherein a first sleep parameter of the two or more sleep parameters comprises Wakefulness After Sleep Onset for at least X Minutes, WASOx min , wherein WASOx min comprises the sum of awakenings with a duration of X minutes or longer during a sleep session, wherein X is equal to, or greater than, 1; characterized in that the rule-based method comprises: assigning a weight to each of the two or more sleep parameters; and calculating a sum of the weights corresponding to each sleep parameter that satisfies a respective condition based on a respective comparison of each of the two or more sleep parameters to its respective threshold, wherein the step of determining whether a subject is suffering from (a), (b), (c) or (d) comprises using the sum of the weights. receive data indicative of one or more physiological parameters associated with a subject; determine, based on the data, two or more sleep parameters relating to sleep of the subject; and use a rule-based method to determine whether the subject is suffering from (a) obstructive sleep apnoea, (b) insomnia, (c) comorbid insomnia and obstructive sleep apnoea, or (d) neither obstructive sleep apnoea nor insomnia, wherein the rule-based method comprises comparing each of the two or more sleep parameters to a respective threshold value; wherein a first sleep parameter of the two or more sleep parameters comprises Wakefulness After Sleep Onset for at least X Minutes, WASOx min , wherein WASOx min comprises the sum of awakenings with a duration of X minutes or longer during a sleep session, wherein X is equal to, or greater than, 1; characterized in that the rule-based method comprises: assigning a weight to each of the two or more sleep parameters; and calculating a sum of the weights corresponding to each sleep parameter that satisfies a respective condition based on a respective comparison of each of the two or more sleep parameters to its respective threshold, wherein the step of determining whether a subject is suffering from (a), (b), (c) or (d) comprises using the sum of the weights. assigning a weight to each of the two or more sleep parameters; and calculating a sum of the weights corresponding to each sleep parameter that satisfies a respective condition based on a respective comparison of each of the two or more sleep parameters to its respective threshold, wherein the step of determining whether a subject is suffering from (a), (b), (c) or (d) comprises using the sum of the weights.
Moisturized tissue paper, comprising: a softwood kraft pulp that accounts for more than 70 mass% of constituent fiber; and a polyol content of 26.0 or more and 30.0 or less mass% of the tissue paper, wherein a paper thickness is 220 to 330 μm, a basis weight is 15 to 18 g/m 2 per ply, an arithmetic mean curvature at a peak point of an outer surface in an unpressurized state (Spc ) is 4.0 to 4.8 (1/mm) when measured as described herein, and a developed area ratio at an interface on the outer surface (Sdr) is 0.020 to 0.030 (-) when measured as described herein. a softwood kraft pulp that accounts for more than 70 mass% of constituent fiber; and a polyol content of 26.0 or more and 30.0 or less mass% of the tissue paper, wherein a paper thickness is 220 to 330 μm, a basis weight is 15 to 18 g/m 2 per ply, an arithmetic mean curvature at a peak point of an outer surface in an unpressurized state (Spc ) is 4.0 to 4.8 (1/mm) when measured as described herein, and a developed area ratio at an interface on the outer surface (Sdr) is 0.020 to 0.030 (-) when measured as described herein.
A device for printing and die-cutting a web , wherein the device comprises at least one printing device , wherein the web is printed with a recurring print image with a printing length Lb in the printing device , and wherein the web has an essentially uniform printing web speed v20 in the region of the at least one printing device , and wherein the device comprises a die-cutting unit , wherein the die-cutting unit has a die-cutting length Ls, and wherein a pattern with a pattern length Lm can be die cut or embossed by means of the die-cutting unit , wherein the pattern length Lm is smaller than or equal to the printing length Lb, characterized in that the die-cutting length Ls of the die-cutting unit is larger than the pattern length Lm, and wherein the device comprises at least one deflection device for cyclically changing the web speed v. wherein the device comprises at least one printing device , wherein the web is printed with a recurring print image with a printing length Lb in the printing device , and wherein the web has an essentially uniform printing web speed v20 in the region of the at least one printing device , and wherein the device comprises a die-cutting unit , wherein the die-cutting unit has a die-cutting length Ls, and wherein a pattern with a pattern length Lm can be die cut or embossed by means of the die-cutting unit , wherein the pattern length Lm is smaller than or equal to the printing length Lb, characterized in that the die-cutting length Ls of the die-cutting unit is larger than the pattern length Lm, and wherein the device comprises at least one deflection device for cyclically changing the web speed v.
Method to measure a hybrid flow rate (Q) of a fluid in an open channel, said method using simultaneously at least two measuring technologies and a reference measurement, said method comprising a step of calculation of a hybrid value, wherein the measurements of the at least two measuring technologies are combined according to a given rule to get said hybrid value by performing a linear or non-linear interpolation within a given interval of the reference measurement, wherein the reference measurement is a measurement performed by an additional measuring technology, said reference measurement being a level of the fluid.
A method of intra Planar prediction with a height of a block equal to 1, comprising: calculating a value of a vertical component predV[ x ][ y ] of an intra prediction sample included in the block, wherein the value of the vertical component predV[ x ][ y ] is predV[ x ][ y ] = ((y + 1 ) * p[ -1 ][ nTbH ] ) << Log2 ( nTbW); calculating a value of a horizontal component predH[ x ][ y ] of the intra prediction sample, wherein the value of the horizontal component predH[ x ][ y ] is predH[ x][ y] = ( ( nTbW - 1 - x ) * p[-1 ][y ] + (x + 1 ) * p[ nTbW][ -1 ] ) ; and generating the intra prediction sample predSamples[ x ][ y ] based on the value of the vertical component and the value of the horizontal component, wherein nTbH represents the height of the block, nTbW represents the width of the block, p[ x ][ y ] represents neighbouring samples with x = -1, y = -1..nTbH and x = 0..nTbW, y = -1, and wherein the block is a transform block, or a prediction block. calculating a value of a vertical component predV[ x ][ y ] of an intra prediction sample included in the block, wherein the value of the vertical component predV[ x ][ y ] is predV[ x ][ y ] = ((y + 1 ) * p[ -1 ][ nTbH ] ) << Log2 ( nTbW); calculating a value of a horizontal component predH[ x ][ y ] of the intra prediction sample, wherein the value of the horizontal component predH[ x ][ y ] is predH[ x][ y] = ( ( nTbW - 1 - x ) * p[-1 ][y ] + (x + 1 ) * p[ nTbW][ -1 ] ) ; and generating the intra prediction sample predSamples[ x ][ y ] based on the value of the vertical component and the value of the horizontal component, wherein nTbH represents the height of the block, nTbW represents the width of the block, p[ x ][ y ] represents neighbouring samples with x = -1, y = -1..nTbH and x = 0..nTbW, y = -1, and wherein the block is a transform block, or a prediction block.
A radar emission-reception method implementing a short-range operating mode involving emitting a short pulse and a long-range operating mode involving emitting a long modulated pulse, with the emitted short and long pulses being temporally interleaved, the short pulses and the long pulses being emitted in the form of waves having distinct polarisations, characterised in that the polarisation of each emitted wave is acquired by two co-located radiating sources simultaneously emitting, for each pulse, two signals having a phase-shift θ, the value of which varies depending on the short or long nature of the considered pulse.
Transparent peelable polyester film comprising a biaxially oriented polyester film (B) which has a first and a second surface, and comprising, applied on the first surface of the base layer (B), a further layer (C), and comprising, applied on the second surface of the base layer (B), a heat-sealable outer layer (A) that is peelable in relation to ready-meal trays made of APET and made of RPET, where the heat-sealable and peelable outer layer (A) is an off-line coating and consists of (a) from 85 to 99 % by weight of polyester and (b) from 1 to 15 % by weight of other substances, where the polyester is composed of from 25 to 95 mol % of units derived from at least one aromatic dicarboxylic acid and from 5 to 75 mol % of units derived from at least one aliphatic dicarboxylic acid, where the sum of the dicarboxylic-acid-derived molar percentages is 100 and the polyester is composed of at least 10 mol % of units derived from linear or branched diols having more than 2 carbon atoms, where the entirety of the diol components provides 100 molar per cent and the layer (C) comprises crosslinked acrylate- and/or methacrylate-based copolymers and the minimal sealing temperature of the film in relation to ready-meal trays made of APET and made of RPET is not above 115 °C and the maximal sealing temperature of the film is about 160 °C. (a) from 85 to 99 % by weight of polyester and (b) from 1 to 15 % by weight of other substances, where the polyester is composed of from 25 to 95 mol % of units derived from at least one aromatic dicarboxylic acid and from 5 to 75 mol % of units derived from at least one aliphatic dicarboxylic acid, where the sum of the dicarboxylic-acid-derived molar percentages is 100 and
A light emitting device having a longitudinal axis (A) comprising: at least one LED light source adapted for, in operation, emitting first light, at least one LED filament adapted for, in operation, emitting second light, at least one translucent core element , the translucent core element comprising a circumferential wall , an inner space enclosed by the circumferential wall , and an outer bulb enclosing the at least one translucent core element and the at least one LED filament , wherein the at least one LED filament being arranged outside of the at least one translucent core element , and wherein the at least one translucent core element is centrally arranged on the longitudinal axis (A), characterised by the at least one LED light source being arranged in the inner space enclosed by the circumferential wall of the translucent core element . at least one LED light source adapted for, in operation, emitting first light, at least one LED filament adapted for, in operation, emitting second light, at least one translucent core element , the translucent core element comprising a circumferential wall , an inner space enclosed by the circumferential wall , and an outer bulb enclosing the at least one translucent core element and the at least one LED filament , wherein the at least one LED filament being arranged outside of the at least one translucent core element , and wherein the at least one translucent core element is centrally arranged on the longitudinal axis (A), characterised by the at least one LED light source being arranged in the inner space enclosed by the circumferential wall of the translucent core element .
An article comprising: a foam layer, having a first surface and a second opposing surface; a first primer layer, the first primer layer comprising thermoplastic polymeric binder; and a first pressure sensitive adhesive layer, having a first surface and a second opposing surface, the first pressure sensitive adhesive layer comprising a poly(meth)acrylate polymer and an epoxy functional nanoparticle, wherein the first primer layer is positioned between the first surface of the foam layer and the second surface of the first pressure sensitive adhesive layer. a foam layer, having a first surface and a second opposing surface; a first primer layer, the first primer layer comprising thermoplastic polymeric binder; and a first pressure sensitive adhesive layer, having a first surface and a second opposing surface, the first pressure sensitive adhesive layer comprising a poly(meth)acrylate polymer and an epoxy functional nanoparticle, wherein the first primer layer is positioned between the first surface of the foam layer and the second surface of the first pressure sensitive adhesive layer.
Water fitting (10; 110) for carrying out a hygiene flushing in a water installation with a water supply, comprising (a) a fitting housing (18; 118) with an inlet connection (20; 120, 135) for connecting the water fitting (10; 110) to the water installation and an outlet connection (22; 122) for connecting to a water consumer, a tap or a further water installation at the fitting housing (18; 118); (b) a shut-off valve and a drain outlet (24; 124) which is adapted to be shut off with the shut-off valve for draining water from the water installation; wherein (c) the shut-off valve is provided outside the flow path between the inlet connection (20; 120, 135) and the outlet connection (22; 122) upstream of the drain outlet (24; 124), whereby water can flow from the inlet connection (20; 120, 135) to the outlet connection (22; 122) regardless of the state of the shut-off valve , characterized in that (d) a second inlet connection is provided at the fitting housing in addition to the first inlet connection , the second inlet connection having a different orientation than the orientation of the first inlet connection and one of the two inlet connections is releasably closed with a plug . (a) a fitting housing (18; 118) with an inlet connection (20; 120, 135) for connecting the water fitting (10; 110) to the water installation and an outlet connection (22; 122) for connecting to a water consumer, a tap or a further water installation at the fitting housing (18; 118); (b) a shut-off valve and a drain outlet (24; 124) which is adapted to be shut off with the shut-off valve for draining water from the water installation; wherein (c) the shut-off valve is provided outside the flow path between the inlet connection (20; 120, 135) and the outlet connection (22; 122) upstream of the drain outlet (24; 124), whereby water can flow from the inlet connection (20; 120, 135) to the outlet connection (22; 122) regardless of the state of the shut-off valve , characterized in that (d) a second inlet connection is provided at the fitting housing in addition to the first inlet connection , the second inlet connection having a different orientation than the orientation of the first inlet connection and one of the two inlet connections is releasably closed with a plug .
A method of optimizing Packet Flow Description, PFD, management updates in a telecommunication network, the method carried out at a Session Management Function, SMF, and comprising: configuring (S-210), the SMF from an Operation and Maintenance, O&M, entity , with a list of permanent Application Ids for which PFD management applies; setting (S-710) a timer to check periodically Application Ids in a list of temporary Application Ids for which PFD management applies; subscribing (S-720), toward a Network Exposure Function, NEF, , to PFD data notifications for Application Ids in the list of permanent Application Ids for which PFD management applies; receiving (S-730), from a Policy Control Function, PCF, , a control rule specifying an Application Id, wherein the specified Application Id is not included in the list of permanent Application Ids; adding (S-740) the specified Application Id to the list of temporary Application Ids for which PFD management applies; subscribing (S-750), toward the NEF , to PFD data notifications for the specified Application Id in the list of temporary Application Ids; upon the timer expiry, determining (S-760) one or more Application Id, in the list of temporary Application Ids, not currently used in any session at the SMF; removing (S-770) the one or more determined Application Ids from the list of temporary Application Ids; and unsubscribing (S-780), toward the NEF , to PFD data notifications for the one or more determined Application Ids. configuring (S-210), the SMF from an Operation and Maintenance, O&M, entity , with a list of permanent Application Ids for which PFD management applies; setting (S-710) a timer to check periodically Application Ids in a list of temporary Application Ids for which PFD management applies; subscribing (S-720), toward a Network Exposure Function, NEF, , to PFD data notifications for Application Ids in the list of permanent Application Ids for which PFD management applies; receiving (S-730), from a Policy Control Function, PCF, , a control rule specifying an Application Id, wherein the specified Application Id is not included in the list of permanent Application Ids; adding (S-740) the specified Application Id to the list of temporary Application Ids for which PFD management applies; subscribing (S-750), toward the NEF , to PFD data notifications for the specified Application Id in the list of temporary Application Ids; upon the timer expiry, determining (S-760) one or more Application Id, in the list of temporary Application Ids, not currently used in any session at the SMF; removing (S-770) the one or more determined Application Ids from the list of temporary Application Ids; and unsubscribing (S-780), toward the NEF , to PFD data notifications for the one or more determined Application Ids.
An apparatus for irradiating a laser beam, comprising: a main body ; a laser resonator located within the main body and configured to generate the laser beam and output the laser beam forwards; a beam barrel which is arranged in front of the laser resonator and in which a focusing lens is fixed; a beam barrel guiding unit located in front of the main body and configured to guide forward and backward movement of the beam barrel ; a forward and backward moving means connected to an outer periphery of the beam barrel and configured to move the beam barrel forwards and backwards relative to an irradiation target portion in front of the beam barrel ; and a window barrel which is connected to the front of the beam barrel guiding unit and allows a laser beam passing through the beam barrel to pass therethrough, wherein the window barrel includes: a window part which is located within the window barrel ; and a window fixing part which is screw-connected to the window barrel in order to fix the window part , wherein a screw unit is formed on the outer periphery of the beam barrel and a screw thread is formed corresponding to the screw unit of the beam barrel on an inner surface of the forward and backward moving means to rotate the forward and backward moving means , so that the beam barrel is slidably moved forwards and backwards. a main body ; a laser resonator located within the main body and configured to generate the laser beam and output the laser beam forwards; a beam barrel which is arranged in front of the laser resonator and in which a focusing lens is fixed; a beam barrel guiding unit located in front of the main body and configured to guide forward and backward movement of the beam barrel ; a forward and backward moving means connected to an outer periphery of the beam barrel and configured to move the beam barrel forwards and backwards relative to an irradiation target portion in front of the beam barrel ; and a window barrel which is connected to the front of the beam barrel guiding unit and allows a laser beam passing through the beam barrel to pass therethrough, wherein the window barrel includes: a window part which is located within the window barrel ; and a window fixing part which is screw-connected to the window barrel in order to fix the window part , wherein a screw unit is formed on the outer periphery of the beam barrel and a screw thread is formed corresponding to the screw unit of the beam barrel on an inner surface of the forward and backward moving means to rotate the forward and backward moving means , so that the beam barrel is slidably moved forwards and backwards. a window part which is located within the window barrel ; and a window fixing part which is screw-connected to the window barrel in order to fix the window part , wherein a screw unit is formed on the outer periphery of the beam barrel and a screw thread is formed corresponding to the screw unit of the beam barrel on an inner surface of the forward and backward moving means to rotate the forward and backward moving means , so that the beam barrel is slidably moved forwards and backwards.
An aircraft comprising a fuselage , an anhedral rearwardly-swept leading wing for generating lift connected to an upper portion of the fuselage , and a dihedral forwardly-swept trailing wing for generating lift attached to a lower portion of the fuselage , the trailing wing being arranged to be vertically lower than the leading wing , wherein the leading wing and trailing wing are blended together at their wingtips, forming a common wingtip , such that the underside surface of the leading wing forms a generally continuous and smoothly transitioning surface with the upper surface of the trailing wing so as to, in flight, form a vortex guide surface such that vortex air flow from the leading wing is guided by the vortex guide surface onto, or into the path of, the trailing wing , characterised in that at least one of the leading and/or trailing wings comprises one or more flow ducts extending therethrough, and in that the ducts comprise at least one motor , for example a turbine, provided therein configured to provide propulsive power to the aircraft.
An electrolyte solution comprising vinylene carbonate (VC) and a compound of formula wherein Rf is C 1-8 -fluoroalkyl:
A clarifying agent composition obtained by heating a mixture to a range of 80 to 180°C, said mixture comprising: not less than 85% by mass of a benzylidene sorbitol compound represented by the following Formula : (wherein, R represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and R 1 , R 2 , R 3 and R 4 each independently represent a hydrogen atom, a halogen atom, a cyano group or an alkyl group having 1 to 4 carbon atoms); 5 to 10% by mass of tetrakis[3(3,5-di-tert-butyl-4-hydroxyphenyl)propionyloxymethyl]methane; and 6 to 9% by mass of a lubricant. not less than 85% by mass of a benzylidene sorbitol compound represented by the following Formula : (wherein, R represents a hydrogen atom or an alkyl group having 1 to 4 carbon atoms; and R 1 , R 2 , R 3 and R 4 each independently represent a hydrogen atom, a halogen atom, a cyano group or an alkyl group having 1 to 4 carbon atoms); 5 to 10% by mass of tetrakis[3(3,5-di-tert-butyl-4-hydroxyphenyl)propionyloxymethyl]methane; and 6 to 9% by mass of a lubricant.