mhurhangee/patent-ind-claim-en huggingface dataset:
A nicotine chewing gum comprising, i. a gum core comprising nicotine, ii. at least one film coating outside the gum core comprising at least two buffers, at least one sweetener, at least one flavor, and at least one film forming polymer or at least two film coatings outside the gum core, wherein one film coating comprises at least two buffers and at least one film forming polymer and another film coating comprises at least one sweetener, at least one flavor, and at least one film forming polymer iii. at least one polyol-based hard coating outside the at least one film coating, wherein the polyol-based hard coating comprises at least one sugar alcohol or mixtures of sugar alcohols, iv. at least one portion/layer fused onto the outside of the polyol-based hard coating, wherein the at least one portion/layer comprises nicotine salt, and at least one sugar alcohol or a mixture of sugar alcohols and wherein the nicotine release from the outer portion/layer (iv) is immediate and the nicotine release from the gum core (i) is extended and wherein the buffers (ii) in the film coating outside the gum core promote a rapid uptake of nicotine from (iv) through the oral mucosa. i. a gum core comprising nicotine, ii. at least one film coating outside the gum core comprising at least two buffers, at least one sweetener, at least one flavor, and at least one film forming polymer or at least two film coatings outside the gum core, wherein one film coating comprises at least two buffers and at least one film forming polymer and another film coating comprises at least one sweetener, at least one flavor, and at least one film forming polymer iii. at least one polyol-based hard coating outside the at least one film coating, wherein the polyol-based hard coating comprises at least one sugar alcohol or mixtures of sugar alcohols, iv. at least one portion/layer fused onto the outside of the polyol-based hard coating, wherein the at least one portion/layer comprises nicotine salt, and at least one sugar alcohol or a mixture of sugar alcohols and wherein the nicotine release from the outer portion/layer (iv) is immediate and the nicotine release from the gum core (i) is extended and wherein the buffers (ii) in the film coating outside the gum core promote a rapid uptake of nicotine from (iv) through the oral mucosa. wherein the at least one portion/layer comprises nicotine salt, and at least one sugar alcohol or a mixture of sugar alcohols and wherein the nicotine release from the outer portion/layer (iv) is immediate and the nicotine release from the gum core (i) is extended and wherein the buffers (ii) in the film coating outside the gum core promote a rapid uptake of nicotine from (iv) through the oral mucosa.
A composition comprising electrospun fibres comprising i) a hydrophilic polymer that is soluble in a first solvent, wherein the hydrophilic polymer is polyvinylpyrrolidone (PVP), or acrylates and acrylic copolymers (Eudragit ® ), or mixtures thereof; ii) a bioadhesive substance having a solubility in said first solvent of 0.5 g/100 ml or less at 25 °C, wherein the bioadhesive substance is selected from dextrans, polyethylene oxides (PEOs), alginate, tragacanth, carrageenan, pectin, gelatin, guar, xanthan, gellan, methylcellulose, hydroxypropylmethylcellulose (HPMC), polyvinylalcohol (PVA), polymers of acrylic acids (PAA derivatives), chitosan, lectins, thiolated polymers, polyox WSRA, PAA-co-PEG (PEG is polyethylene glycol), and mixtures thereof; and iii) optionally, a drug substance, wherein an outer surface of said electrospun fibres or composition is provided with a coating, wherein the coating is water-impermeable. i) a hydrophilic polymer that is soluble in a first solvent, wherein the hydrophilic polymer is polyvinylpyrrolidone (PVP), or acrylates and acrylic copolymers (Eudragit ® ), or mixtures thereof; ii) a bioadhesive substance having a solubility in said first solvent of 0.5 g/100 ml or less at 25 °C, wherein the bioadhesive substance is selected from dextrans, polyethylene oxides (PEOs), alginate, tragacanth, carrageenan, pectin, gelatin, guar, xanthan, gellan, methylcellulose, hydroxypropylmethylcellulose (HPMC), polyvinylalcohol (PVA), polymers of acrylic acids (PAA derivatives), chitosan, lectins, thiolated polymers, polyox WSRA, PAA-co-PEG (PEG is polyethylene glycol), and mixtures thereof; and iii) optionally, a drug substance,
A method of making an insulating glass unit (IGU) comprising a first sheet of glass, a second sheet of glass, and a sealant assembly, the method comprising: a) providing a first sheet of glass and a second sheet of glass; b) depositing online, from a first coater positioned online, a first coating on at least a portion of the first sheet of glass; c) depositing online, from a second coater positioned online, a second coating on at least a portion of the first coating, wherein the second coating comprises fluorine doped tin oxide; and d) disposing a sealant assembly around the periphery of the first sheet of glass and the second sheet of glass for maintaining the first sheet and the second sheet in a spaced-apart relationship from each other; wherein the second coating is made by pyrolytic deposition and is deposited in the presence of an oxidizing agent at an elevated temperature; wherein the oxidizing agent is nitric acid; and wherein the second coating is deposited at a temperature in the range of 200° C to 800° C. a) providing a first sheet of glass and a second sheet of glass; b) depositing online, from a first coater positioned online, a first coating on at least a portion of the first sheet of glass; c) depositing online, from a second coater positioned online, a second coating on at least a portion of the first coating, wherein the second coating comprises fluorine doped tin oxide; and d) disposing a sealant assembly around the periphery of the first sheet of glass and the second sheet of glass for maintaining the first sheet and the second sheet in a spaced-apart relationship from each other;
Apparatus for adjusting a screen arrangement for a vehicle roof , comprising: - a main slider which can be coupled to the screen arrangement and is configured for pivoting the screen arrangement out and in and for displacing the latter, and - an adjusting slider which can be coupled to the screen arrangement and is configured for adjusting a prescribed alignment angle (A) of the screen arrangement , wherein, in a guide rail , the main slider is mounted so as to be drivable by means of a first drive cable and the adjusting slider is mounted so as to be drivable by means of a second drive cable , characterized in that the apparatus furthermore has a drive coupling element which is configured as a gear and couples the drive cable of the main slider and the drive cable of the adjusting slider to one another, such that the main slider and the adjusting slider can be displaced, with respect to a common reference point, at least in certain portions, at different movement speeds, and a spacing (D1, D2, D3) between the main slider and the adjusting slider and therefore an alignment angle (A) of the screen arrangement can be adjusted in a prescribed manner by means of the adjusting slider , independently of a position, set by means of the main slider , of the screen arrangement in relation to a longitudinal axis (L) of the apparatus . - a main slider which can be coupled to the screen arrangement and is configured for pivoting the screen arrangement out and in and for displacing the latter, and - an adjusting slider which can be coupled to the screen arrangement and is configured for adjusting a prescribed alignment angle (A) of the screen arrangement ,
A method of coverage enhancement, performed by an apparatus (105-a, 600-a), in a wireless communication system, comprising: selecting a first coverage enhancement technique for a first channel (225-a) from a set of coverage enhancement techniques, wherein the first channel comprises a physical downlink shared channel, PDSCH, and wherein the first coverage enhancement technique comprises precoding for spatial multiplexing; selecting a second coverage enhancement technique, different from the first coverage enhancement technique, for a second channel (225-b) from the set of coverage enhancement techniques, wherein the second channel comprises a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH, and wherein the second coverage enhancement technique comprises repetition within a subframe, wherein the first channel (225-a) is used to transmit a different type of information than the second channel (225-b); transmitting a first portion of information to a particular user equipment, UE, on the first channel (225-a) using the first coverage enhancement technique; and transmitting a second portion of the information to the UE on the second channel (225-b) using the second coverage enhancement technique. selecting a first coverage enhancement technique for a first channel (225-a) from a set of coverage enhancement techniques, wherein the first channel comprises a physical downlink shared channel, PDSCH, and wherein the first coverage enhancement technique comprises precoding for spatial multiplexing; selecting a second coverage enhancement technique, different from the first coverage enhancement technique, for a second channel (225-b) from the set of coverage enhancement techniques, wherein the second channel comprises a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH, and wherein the second coverage enhancement technique comprises repetition within a subframe, wherein the first channel (225-a) is used to transmit a different type of information than the second channel (225-b); transmitting a first portion of information to a particular user equipment, UE, on the first channel (225-a) using the first coverage enhancement technique; and transmitting a second portion of the information to the UE on the second channel (225-b) using the second coverage enhancement technique.
A testing device , comprising: a connector including: an insulating base ; two or more connector conductors ; and two or more electrically conductive prongs (102a,b) mounted on the insulating base , each electrically conductive prong having a respective tapered distal end (106a,b) operable to axially contact a respective conductor of a cable , irrespective of an identity of the respective conductor of the cable , when a force is applied to axially push the cable onto the two or more electrically conductive prongs (102a,b), and each electrically conductive prong having a proximal end (112a,b) electrically coupled to a respective connector conductor of the two or more connector conductors ; and a processor electrically coupled to the two or more respective connector conductors of the two or more electrically conductive prongs (102a,b), and configured to produce data representative of an electrical signal traversing at least one electrically conductive prong of the two or more electrically conductive prongs (102a,b) and test the cable based on the data. a connector including: an insulating base ; two or more connector conductors ; and two or more electrically conductive prongs (102a,b) mounted on the insulating base , each electrically conductive prong having a respective tapered distal end (106a,b) operable to axially contact a respective conductor of a cable , irrespective of an identity of the respective conductor of the cable , when a force is applied to axially push the cable onto the two or more electrically conductive prongs (102a,b), and each electrically conductive prong having a proximal end (112a,b) electrically coupled to a respective connector conductor of the two or more connector conductors ; and an insulating base ; two or more connector conductors ; and two or more electrically conductive prongs (102a,b) mounted on the insulating base , each electrically conductive prong having a respective tapered distal end (106a,b) operable to axially contact a respective conductor of a cable , irrespective of an identity of the respective conductor of the cable , when a force is applied to axially push the cable onto the two or more electrically conductive prongs (102a,b), and each electrically conductive prong having a proximal end (112a,b) electrically coupled to a respective connector conductor of the two or more connector conductors ; and a processor electrically coupled to the two or more respective connector conductors of the two or more electrically conductive prongs (102a,b), and configured to produce data representative of an electrical signal traversing at least one electrically conductive prong of the two or more electrically conductive prongs (102a,b) and test the cable based on the data.
A method comprising: receiving, at a node in a blockchain network, a first transaction to validate, the first transaction including a first script that includes at least: a first value, at least a portion of the first value including data that is unconstrained by a second script; and a second value; obtaining a second transaction, the second transaction having been validated and including the second script that, as a result of being executed, causes the node to at least: obtain the first value and the second value as a result of execution of the first script; and validate, based at least in part on first value and the second value, that the data is associated with a particular source; and validating the first transaction by executing the first script and the second script. receiving, at a node in a blockchain network, a first transaction to validate, the first transaction including a first script that includes at least: a first value, at least a portion of the first value including data that is unconstrained by a second script; and a second value; a first value, at least a portion of the first value including data that is unconstrained by a second script; and a second value; obtaining a second transaction, the second transaction having been validated and including the second script that, as a result of being executed, causes the node to at least: obtain the first value and the second value as a result of execution of the first script; and validate, based at least in part on first value and the second value, that the data is associated with a particular source; and obtain the first value and the second value as a result of execution of the first script; and validate, based at least in part on first value and the second value, that the data is associated with a particular source; and validating the first transaction by executing the first script and the second script.
An airbag device for a flying object , which protects at least one of a plurality of objects to be protected mounted on the flying object from collision with an obstacle, the airbag device comprising: an airbag which is configured to be provided adjacent to at least one of the objects to be protected mounted on the flying object , is contracted or folded in an initial state, and is deployable so as to cover a portion or the entirety of a periphery of the object to be protected mounted on the flying object when the airbag is inflated; and a gas generator which is connected to the airbag and is capable of supplying gas into the airbag to inflate the airbag when the gas generator is activated; wherein the airbag and the gas generator are configured such that an internal pressure of the airbag after the deployment is from -69.8kPa to 48.6kPa; and, wherein the airbag has two vent holes having a total opening area with respect to the area of the airbag in a range of 0.086% to 0.27%; and, wherein when a weight of the obstacle is M [kg] and a relative speed with respect to the obstacle at which the airbag is capable of absorbing impact is W [m/s], a numerical value M 1/2 × W = x [kg 1/2 m/s] is 50 to 900. an airbag which is configured to be provided adjacent to at least one of the objects to be protected mounted on the flying object , is contracted or folded in an initial state, and is deployable so as to cover a portion or the entirety of a periphery of the object to be protected mounted on the flying object when the airbag is inflated; and a gas generator which is connected to the airbag and is capable of supplying gas into the airbag to inflate the airbag when the gas generator is activated; wherein the airbag and the gas generator are configured such that an internal pressure of the airbag after the deployment is from -69.8kPa to 48.6kPa; and, wherein the airbag has two vent holes having a total opening area with respect to the area of the airbag in a range of 0.086% to 0.27%; and, wherein when a weight of the obstacle is M [kg] and a relative speed with respect to the obstacle at which the airbag is capable of absorbing impact is W [m/s], a numerical value M 1/2 × W = x [kg 1/2 m/s] is 50 to 900.
Method for configuring a switched mode power supply having several output channels , wherein the switched mode power supply comprises for each output channel at least one operating element by means of which an operating parameter is manually set for the associated output channel , characterised in that the switched mode power supply comprises an interface for the purpose of remote configuration, that each of the operating parameters which has been set manually is output in real time to a remote configuration unit by means of the interface , that each of the operating parameters which has been set manually is copied into a configuration for the switched mode power supply defined by means of the configuration unit , and that each of the operating parameters which has been copied is applied the next time the switched mode power supply is started in a remote mode.
A method for operating a power system connected to a power grid , the power system defining a generator power path and a converter power path , the generator power path having a generator with a rotor and a stator , the converter power path having a power converter with a rotor-side converter and a line-side converter, the method comprising: providing an active filter in the converter power path ; receiving one or more operating conditions of the power system; determining, based on the one or more operating conditions, a change in attenuation of harmonics of the power system over a predetermined frequency spectrum that is needed to comply with one or more grid code requirements of the power grid, the one or more grid code requirements referring to compliance of current and voltage harmonics at a turbine output of the power system; and actively controlling, via a controller, the active filter to provide the change to the attenuation of the harmonics of the power system so as to mitigate the harmonics of the turbine output of the power system. providing an active filter in the converter power path ; receiving one or more operating conditions of the power system; determining, based on the one or more operating conditions, a change in attenuation of harmonics of the power system over a predetermined frequency spectrum that is needed to comply with one or more grid code requirements of the power grid, the one or more grid code requirements referring to compliance of current and voltage harmonics at a turbine output of the power system; and actively controlling, via a controller, the active filter to provide the change to the attenuation of the harmonics of the power system so as to mitigate the harmonics of the turbine output of the power system.
A sterilization method comprising irradiating a first object to be sterilized comprising a recessed portion with a reactive oxygen at the recessed portion, stacking a second object to be sterilized on top thereof to cover the recessed portion so as to form a closed space and carrying out sterilization within this formed closed space; characterised in that the reactive oxygen is obtained by generating plasma.
A decorative laminate comprising: a decorative layered structure defining a first surface and a second surface opposed from said first surface; and a gas permeable layer underlying said decorative layered structure , wherein said gas permeable layer defines continuous voids extending in x-axis, y-axis, and z-axis directions through said gas permeable layer , wherein said gas permeable layer comprises a non-woven material, and wherein said gas permeable layer has a cross-sectional thickness ranging from about 25,4 μm to about 381 μm. a decorative layered structure defining a first surface and a second surface opposed from said first surface; and a gas permeable layer underlying said decorative layered structure , wherein said gas permeable layer defines continuous voids extending in x-axis, y-axis, and z-axis directions through said gas permeable layer , wherein said gas permeable layer comprises a non-woven material, and wherein said gas permeable layer has a cross-sectional thickness ranging from about 25,4 μm to about 381 μm.
A three-dimensional shaping device comprising: a melting unit configured to melt a material into a shaping material; and a nozzle configured to discharge the shaping material supplied from the melting unit toward a stage , wherein the melting unit includes a flat screw configured to rotate about a rotation axis (RX) and having a groove forming surface in which a groove to which the material is supplied is formed; a heating unit configured to heat the material supplied to the groove; a barrel having a facing surface that faces the groove forming surface and provided with a communication hole that communicates the facing surface with the nozzle ; a discharge amount adjustment mechanism provided in the communication hole and configured to adjust a flow rate of the shaping material discharged from the nozzle ; the heating unit is disposed in the barrel , and a shortest distance between the heating unit and the communication hole of the barrel is shorter than a shortest distance between the heating unit and an outer peripheral edge of the flat screw in a direction perpendicular to the rotation axis of the flat screw , characterized in that the three dimensional shaping device further includes a cooling unit , and a shortest distance between the cooling unit and the communication hole of the barrel is longer than a shortest distance between the cooling unit and the outer peripheral edge of the flat screw in the direction perpendicular to the rotation axis (RX) of the flat screw . a melting unit configured to melt a material into a shaping material; and a nozzle configured to discharge the shaping material supplied from the melting unit toward a stage , wherein the melting unit includes a flat screw configured to rotate about a rotation axis (RX) and having a groove forming surface in which a groove to which the material is supplied is formed; a heating unit configured to heat the material supplied to the groove; a barrel having a facing surface that faces the groove forming surface and provided with a communication hole that communicates the facing surface with the nozzle ; a discharge amount adjustment mechanism provided in the communication hole and configured to adjust a flow rate of the shaping material discharged from the nozzle ; the heating unit is disposed in the barrel , and a shortest distance between the heating unit and the communication hole of the barrel is shorter than a shortest distance between the heating unit and an outer peripheral edge of the flat screw in a direction perpendicular to the rotation axis of the flat screw ,