mhurhangee/patent-ind-claim-en huggingface dataset:
A smoking article comprising: a tobacco rod ; a filter connected to the tobacco rod ; and a tipping wrapper circumscribing the filter and at least a portion of the tobacco rod, wherein the tipping wrapper comprises paper having a basis weight of less than 70 grams per square metre; wherein the filter comprises: a first filter segment comprising a breakable capsule, the breakable capsule comprising an outer shell and an inner core containing an additive; a hollow tube segment downstream of the first filter segment and defining a cavity at the mouth end of the filter , the hollow tube segment positioned between a downstream end of the first filter segment and the mouth end of the filter , wherein the hollow tube segment has a wall thickness of at least 150 micrometres; and a plug wrap circumscribing the first filter segment and the hollow tube segment , wherein the plug wrap has a basis weight of less than 90 grams per square metre. a tobacco rod ; a filter connected to the tobacco rod ; and a tipping wrapper circumscribing the filter and at least a portion of the tobacco rod, wherein the tipping wrapper comprises paper having a basis weight of less than 70 grams per square metre; wherein the filter comprises: a first filter segment comprising a breakable capsule, the breakable capsule comprising an outer shell and an inner core containing an additive; a hollow tube segment downstream of the first filter segment and defining a cavity at the mouth end of the filter , the hollow tube segment positioned between a downstream end of the first filter segment and the mouth end of the filter , wherein the hollow tube segment has a wall thickness of at least 150 micrometres; and a plug wrap circumscribing the first filter segment and the hollow tube segment , wherein the plug wrap has a basis weight of less than 90 grams per square metre. a first filter segment comprising a breakable capsule, the breakable capsule comprising an outer shell and an inner core containing an additive; a hollow tube segment downstream of the first filter segment and defining a cavity at the mouth end of the filter , the hollow tube segment positioned between a downstream end of the first filter segment and the mouth end of the filter , wherein the hollow tube segment has a wall thickness of at least 150 micrometres; and a plug wrap circumscribing the first filter segment and the hollow tube segment , wherein the plug wrap has a basis weight of less than 90 grams per square metre.
Hardener composition for use in an amino resin based adhesive system, comprising from 1 to 50 weight-% of an aliphatic alpha hydroxy- mono-, or di-, carboxylic acid, and polyvinyl alcohol, wherein the acid belongs to the group of glycolic acid and malic acid.
A laser annealing apparatus comprising a beam homogenizer for laser annealing and a laser for producing a laser beam, wherein: the beam homogenizer comprises a plurality of cylindrical lenses ; the plurality of cylindrical lenses have different lengths in a direction of transmission of the laser beam; wherein the plurality of cylindrical lenses have a same radius of curvature and same dimensions in a plane of curvature defined by X and Y directions, where the X direction is orthogonal to the Y direction; and characterized in that : any two adjacent ones of the plurality of cylindrical lenses have a length difference, in the direction of transmission of the laser beam, greater than a coherence length of the laser , and in that the length differences between two adjacent ones of the plurality of cylindrical lenses in the direction of transmission of the laser beam differ from one another, the radius of curvature of each of the plurality of cylindrical lenses is from 100 mm to 200 mm, each of the plurality of cylindrical lenses has a thickness in the Y direction of 4 mm to 10 mm, and each of the plurality of cylindrical lenses has a width in the X direction equal to a diameter of the laser beam.
An ultrasound system , comprising: a plurality of transducer elements forming a one-dimensional array, wherein the plurality of transducer elements is divided into two collections of sets which overlap in a grid-type manner; a first plurality of bias voltage circuits , each bias voltage circuit being in communication with a respective first set of the transducer elements and configured to apply a bias voltage to its respective first set of the transducer elements, wherein the first sets do not overlap with each other; a second plurality of transmit and receive circuits , each transmit and receive circuit being in communication with a respective second set of transducer elements and configured to stimulate signal transmission or reception of the transducer elements of its respective second set, wherein the second sets do not overlap with each other; wherein the transducer elements of at least one first set differ from the transducer elements of at least one second set such that only a portion of transducer elements of the second set are arranged to be activated by its respective transmit and receive circuit upon application of a bias voltage to the at least one first set of the transducer elements by the respective bias voltage circuit, wherein said portion of transducer elements are at an overlap between the at least one first set and the at least one second set. a plurality of transducer elements forming a one-dimensional array, wherein the plurality of transducer elements is divided into two collections of sets which overlap in a grid-type manner; a first plurality of bias voltage circuits , each bias voltage circuit being in communication with a respective first set of the transducer elements and configured to apply a bias voltage to its respective first set of the transducer elements, wherein the first sets do not overlap with each other; a second plurality of transmit and receive circuits , each transmit and receive circuit being in communication with a respective second set of transducer elements and configured to stimulate signal transmission or reception of the transducer elements of its respective second set, wherein the second sets do not overlap with each other; wherein the transducer elements of at least one first set differ from the transducer elements of at least one second set such that only a portion of transducer elements of the second set are arranged to be activated by its respective transmit and receive circuit upon application of a bias voltage to the at least one first set of the transducer elements by the respective bias voltage circuit, wherein said portion of transducer elements are at an overlap between the at least one first set and the at least one second set.
A cooling apparatus that is integrally combined with the cover of an electric machine to operate in conjunction with a fan of the electric machine , the cooling apparatus comprising: a cone-shaped body portion around the circumference of an external surface of the cover wherein the body portion is formed outwards in the radial direction from a plurality of fins attached to a frame of the electric machine , and comprising: a first cone-shaped part which is formed at a first angle in a radially outward direction away from the cover , and a second cone-shaped part which is formed at a second angle in a radially inward direction which is opposite the direction of the first part , wherein the first cone-shaped part and the second cone-shaped part form an opening therebetween to allow fresh air to enter, wherein air coming from the fan is introduced into the fins via an axial air inlet end and exits through an axial air outlet end at the opposite end of each fin of the plurality of fins , wherein the opening is at an axial location between the axial air inlet end and axial air outlet end of the plurality of fins , and wherein the fresh air is introduced via the opening into the fins and mixes with the air coming from the fan in order to increase the velocity of the air coming from the fan between the fins . a cone-shaped body portion around the circumference of an external surface of the cover wherein the body portion is formed outwards in the radial direction from a plurality of fins attached to a frame of the electric machine , and comprising: a first cone-shaped part which is formed at a first angle in a radially outward direction away from the cover , and a second cone-shaped part which is formed at a second angle in a radially inward direction which is opposite the direction of the first part , wherein the first cone-shaped part and the second cone-shaped part form an opening therebetween to allow fresh air to enter, a first cone-shaped part which is formed at a first angle in a radially outward direction away from the cover , and a second cone-shaped part which is formed at a second angle in a radially inward direction which is opposite the direction of the first part , wherein the first cone-shaped part and the second cone-shaped part form an opening therebetween to allow fresh air to enter, wherein air coming from the fan is introduced into the fins via an axial air inlet end and exits through an axial air outlet end at the opposite end of each fin of the plurality of fins , wherein the opening is at an axial location between the axial air inlet end and axial air outlet end of the plurality of fins , and wherein the fresh air is introduced via the opening into the fins and mixes with the air coming from the fan in order to increase the velocity of the air coming from the fan between the fins .
A method performed by a base station in a wireless communication system, the method comprising: receiving, from a user equipment, a signal having a signal strength that is higher than a threshold value; identifying whether decoding of the signal fails; and characterised in that the method further comprises: identifying whether resources on which a portion of the signal is received are in an overlapped portion of a first resource region and a second resource region; skipping storage of the portion of the signal in a buffer in case that decoding of the signal fails and that the resources on which the portion of the signal is received are in the overlapped portion. receiving, from a user equipment, a signal having a signal strength that is higher than a threshold value; identifying whether decoding of the signal fails; and characterised in that the method further comprises: identifying whether resources on which a portion of the signal is received are in an overlapped portion of a first resource region and a second resource region; skipping storage of the portion of the signal in a buffer in case that decoding of the signal fails and that the resources on which the portion of the signal is received are in the overlapped portion. identifying whether resources on which a portion of the signal is received are in an overlapped portion of a first resource region and a second resource region; skipping storage of the portion of the signal in a buffer in case that decoding of the signal fails and that the resources on which the portion of the signal is received are in the overlapped portion.
An imaging system comprising a camera , the camera comprising: a frame extending from a first frame end to a second frame end opposite the first frame end , the frame comprising an aperture extending from the first frame end to the second frame end , the first frame end comprising a first edge around the aperture and the second frame end comprising a second edge around the aperture ; a lens shuttle housed within the aperture suspended by a first flex member and a second flex member , the lens shuttle having a first body end and a second body end , the lens shuttle fit to house a lens assembly with a lens , the lens of the lens assembly oriented toward the first body end ; the first flex member coupling the lens shuttle to the frame , the first flex member coupled to the first frame end and the first body end ; the second flex member coupling the lens shuttle to the frame , the second flex member coupled to the second frame end and the second body end ; the imaging system further comprising a shuttle driver configured to articulate the lens shuttle housed within the aperture and configured to flex the first flex member and second flex member a defined flex distance, the imaging system being characterised in that the shuttle driver comprises a cam driven by a stepper motor . a frame extending from a first frame end to a second frame end opposite the first frame end , the frame comprising an aperture extending from the first frame end to the second frame end , the first frame end comprising a first edge around the aperture and the second frame end comprising a second edge around the aperture ; a lens shuttle housed within the aperture suspended by a first flex member and a second flex member , the lens shuttle having a first body end and a second body end , the lens shuttle fit to house a lens assembly with a lens , the lens of the lens assembly oriented toward the first body end ; the first flex member coupling the lens shuttle to the frame , the first flex member coupled to the first frame end and the first body end ; the second flex member coupling the lens shuttle to the frame , the second flex member coupled to the second frame end and the second body end ; the imaging system further comprising a shuttle driver configured to articulate the lens shuttle housed within the aperture and configured to flex the first flex member and second flex member a defined flex distance, the imaging system being characterised in that the shuttle driver comprises a cam driven by a stepper motor .
A method comprising: - providing a yarn or thread comprising a base fiber uniformly blended with trace fiber slivers, said trace fiber slivers comprising luminescent nano-particle photon marker microcapsules evenly distributed within cellulose fibers, the luminescent nano-particle photon marker microcapsules transmitting a reflected response signature within a wavelength range of 380 nm and 100 μm when examined under a spectrophotometer reader, the response signature being indicative of an aspect of the yarn, thread or any intermediate or final product manufactured therefrom, the method comprising: - providing the trace fiber slivers by processing trace fiber strands into the trace fiber slivers; - forming the trace fiber strands by: - forming the luminescent nano-particle photon marker microcapsules by encasing luminescent nano-particle photon markers in shells , and - mixing the luminescent nano-particle photon marker microcapsules within a diluted cellulose slurry to form a mixture; - extruding the mixture through a spinneret to form the trace fiber strands. - providing a yarn or thread comprising a base fiber uniformly blended with trace fiber slivers, said trace fiber slivers comprising luminescent nano-particle photon marker microcapsules evenly distributed within cellulose fibers, the luminescent nano-particle photon marker microcapsules transmitting a reflected response signature within a wavelength range of 380 nm and 100 μm when examined under a spectrophotometer reader, the response signature being indicative of an aspect of the yarn, thread or any intermediate or final product manufactured therefrom, the method comprising: - providing the trace fiber slivers by processing trace fiber strands into the trace fiber slivers; - forming the trace fiber strands by: - forming the luminescent nano-particle photon marker microcapsules by encasing luminescent nano-particle photon markers in shells , and - mixing the luminescent nano-particle photon marker microcapsules within a diluted cellulose slurry to form a mixture; - extruding the mixture through a spinneret to form the trace fiber strands. - forming the luminescent nano-particle photon marker microcapsules by encasing luminescent nano-particle photon markers in shells , and - mixing the luminescent nano-particle photon marker microcapsules within a diluted cellulose slurry to form a mixture; - extruding the mixture through a spinneret to form the trace fiber strands.
A method of a User Equipment, UE, the method comprising: performing registration procedure to a second Public Land Mobile Network, PLMN, over a second access network for a non-emergency service through an Access and Mobility Management Function, AMF, in a case where the UE is registered for an emergency service to a first PLMN over a first access network; and establishing a Protocol Data Unit, PDU, session for the non-emergency service to the second PLMN over the second access network, wherein one of the first access network and the second access network is a 3GPP access network, and the other of the first access network and the second access network is a non-3GPP access network. performing registration procedure to a second Public Land Mobile Network, PLMN, over a second access network for a non-emergency service through an Access and Mobility Management Function, AMF, in a case where the UE is registered for an emergency service to a first PLMN over a first access network; and establishing a Protocol Data Unit, PDU, session for the non-emergency service to the second PLMN over the second access network, wherein one of the first access network and the second access network is a 3GPP access network, and the other of the first access network and the second access network is a non-3GPP access network.
Carrier for a semiconductor structure, comprising a charge-trapping layer arranged on a base substrate , the trapping layer consisting of a main polycrystalline layer made of silicon and at least one intermediate layer inserted in the main layer or between the main layer and the base substrate , the intermediate layer having a resistivity greater than 1000 ohm.cm, the carrier being characterized in that the at least one intermediate layer is made of an alloy of silicon and carbon or of carbon.
Multimeric influenza hemagglutinin stem domain polypeptides, comprising at least a first and a second influenza hemagglutinin stem domain monomer, said first and second monomer each comprising an amino acid sequence: wherein X 1 is K, X 2 is K, X 3 is F, X 4 is T, X 5 is M, X 6 is Y, X 7 is I, X 8 is Y and X 9 is S. wherein the first monomer is linked to said second monomer by a disulfide bridge between the amino acid on position 411 of the first monomer and the amino acid on position 419 of the second monomer, and wherein the numbering of the amino acid positions is based on SEQ ID NO: 1. wherein X 1 is K, X 2 is K, X 3 is F, X 4 is T, X 5 is M, X 6 is Y, X 7 is I, X 8 is Y and X 9 is S. wherein the first monomer is linked to said second monomer by a disulfide bridge between the amino acid on position 411 of the first monomer and the amino acid on position 419 of the second monomer, and wherein the numbering of the amino acid positions is based on SEQ ID NO: 1.
Method for producing a waveguide comprising at least one core and a sheath, the method comprising at least the following steps: - Providing a substrate , - Depositing a layer based on germanium (Ge) on the substrate , - Forming the core of the waveguide in said layer based on Ge , - Depositing an encapsulation layer around the core , the encapsulation layer having a germanium content t Ge encapsulation nulle or such that: t Ge encapsulation ≤ 0.9 t Ge core , t Ge core being the germanium content of the core , so as to at least partially form the sheath, the method being characterised in that , before the step of depositing the encapsulation layer , the method further comprises at least the following step: - Depositing by epitaxy a shell around the core , said shell at least partially forming said sheath and having a germanium content t Ge shell nulle or such that: t Ge shell ≤ 0.9 t Ge core , the deposition by epitaxy of the shell being performed at a temperature T epitaxy shell ≤ 780°C, and and in that said encapsulation layer is deposited by epitaxy at a temperature T epitaxy encapsulation such that: T epitaxy encapsulation ≥ 1.08 ∗ T epitaxy shell . - Providing a substrate , - Depositing a layer based on germanium (Ge) on the substrate , - Forming the core of the waveguide in said layer based on Ge , - Depositing an encapsulation layer around the core , the encapsulation layer having a germanium content t Ge encapsulation nulle or such that: t Ge encapsulation ≤ 0.9 t Ge core , t Ge core being the germanium content of the core , so as to at least partially form the sheath, the method being characterised in that , before the step of depositing the encapsulation layer , the method further comprises at least the following step: - Depositing by epitaxy a shell around the core , said shell at least partially forming said sheath and having a germanium content t Ge shell nulle or such that: t Ge shell ≤ 0.9 t Ge core , the deposition by epitaxy of the shell being performed at a temperature T epitaxy shell ≤ 780°C, and and in that said encapsulation layer is deposited by epitaxy at a temperature T epitaxy encapsulation such that: T epitaxy encapsulation ≥ 1.08 ∗ T epitaxy shell .
A dryer 30; 40) for compressed gas, comprising a pressure vessel comprising a rotation symmetrical part including a drying zone and a regeneration zone ; a drum , set up in the rotation symmetrical part, provided with a regenerable drying agent; driving means for rotating said drum relative to the rotation symmetrical part, or vice versa, so that the drying agent is moved successively through the drying zone and the regeneration zone; an inlet for the supply of compressed gas to be dried; an outlet for the discharge of dried compressed gas; a first connection line for tapping-off of a partial stream of the dried compressed gas and guiding the partial stream to the regeneration zone, wherein the first connection line is provided with a heating device for heating the partial stream tapped-off for regeneration; wherein the first connection line and the heating device are located within the pressure vessel, characterised in, that the outlet side of the drying zone is subdivided using means for separation of the stream of dried gas at the position where it is expelled from the drum into a first outlet zone with which the outlet is connected for the dried compressed gas, and a second outlet zone with which the first connection line is connected; and that the heating device is a heat exchanger , provided for heating the partial stream tapped-off for regeneration with the compressed gas to be dried supplied to the dryer, wherein the heat exchanger forms the means for the division of the stream of dried gas at the position where it is expelled from the drum . a pressure vessel comprising a rotation symmetrical part including a drying zone and a regeneration zone ; a drum , set up in the rotation symmetrical part, provided with a regenerable drying agent; driving means for rotating said drum relative to the rotation symmetrical part, or vice versa, so that the drying agent is moved successively through the drying zone and the regeneration zone; an inlet for the supply of compressed gas to be dried; an outlet for the discharge of dried compressed gas; a first connection line for tapping-off of a partial stream of the dried compressed gas and guiding the partial stream to the regeneration zone, wherein the first connection line is provided with a heating device for heating the partial stream tapped-off for regeneration; wherein the first connection line and the heating device are located within the pressure vessel, characterised in, that the outlet side of the drying zone is subdivided using means for separation of the stream of dried gas at the position where it is expelled from the drum into a first outlet zone with which the outlet is connected for the dried compressed gas, and a second outlet zone with which the first connection line is connected; and that the heating device is a heat exchanger , provided for heating the partial stream tapped-off for regeneration with the compressed gas to be dried supplied to the dryer, wherein the heat exchanger forms the means for the division of the stream of dried gas at the position where it is expelled from the drum .