mhurhangee/ep-ind-claims huggingface dataset:
A non-occlusive device for treating a vascular malformation, the device configured to be delivered through a microcatheter and positioned within the vascular malformation in its entirety, the device comprising: a wire comprising a coilable section configured to be coiled into a coil positionable within the vascular malformation; wherein said coil comprises a sequence of concentric loops; and wherein said coil is configured to line/bridge a neck of the vascular malformation so as to at least partially cover an orifice of the vascular malformation, when in use, characterised in that: said wire further comprises a docking section configured to be positioned within the vascular malformation and an intermediate section comprising a swivel; said docking section is configured to anchor and/or stabilize and/or assist the positioning of said device within the vascular malformation and/or to intertwine detachable coils delivered to the vascular malformation, when in use; said intermediate section interconnects said coilable section and said docking section; and said swivel is configured to enable said coilable section to revolve without turning said docking section. a wire comprising a coilable section configured to be coiled into a coil positionable within the vascular malformation; wherein said coil comprises a sequence of concentric loops; and wherein said coil is configured to line/bridge a neck of the vascular malformation so as to at least partially cover an orifice of the vascular malformation, when in use, characterised in that: said wire further comprises a docking section configured to be positioned within the vascular malformation and an intermediate section comprising a swivel; said docking section is configured to anchor and/or stabilize and/or assist the positioning of said device within the vascular malformation and/or to intertwine detachable coils delivered to the vascular malformation, when in use; said intermediate section interconnects said coilable section and said docking section; and said swivel is configured to enable said coilable section to revolve without turning said docking section. said wire further comprises a docking section configured to be positioned within the vascular malformation and an intermediate section comprising a swivel; said docking section is configured to anchor and/or stabilize and/or assist the positioning of said device within the vascular malformation and/or to intertwine detachable coils delivered to the vascular malformation, when in use; said intermediate section interconnects said coilable section and said docking section; and said swivel is configured to enable said coilable section to revolve without turning said docking section.
A migraine identification device comprising: audio input circuitry configured to provide an input signal that is indicative of speech provided by a user; signal processing circuitry configured to: receive the input signal; process the input signal to generate an instantaneous multi-dimensional statistical signature of speech production abilities of the user, and compare the multi-dimensional statistical signature against one or more baseline statistical signatures of speech production ability derived or obtained from the user; and provide a migraine identification signal based on the multi-dimensional statistical signature comparison; and a notification element coupled to the signal processing circuitry, the notification element configured to receive the migraine identification signal and provide at least one notification signal to the user. audio input circuitry configured to provide an input signal that is indicative of speech provided by a user; signal processing circuitry configured to: receive the input signal; process the input signal to generate an instantaneous multi-dimensional statistical signature of speech production abilities of the user, and compare the multi-dimensional statistical signature against one or more baseline statistical signatures of speech production ability derived or obtained from the user; and provide a migraine identification signal based on the multi-dimensional statistical signature comparison; and receive the input signal; process the input signal to generate an instantaneous multi-dimensional statistical signature of speech production abilities of the user, and compare the multi-dimensional statistical signature against one or more baseline statistical signatures of speech production ability derived or obtained from the user; and provide a migraine identification signal based on the multi-dimensional statistical signature comparison; and a notification element coupled to the signal processing circuitry, the notification element configured to receive the migraine identification signal and provide at least one notification signal to the user.
A method of transmitting, by a user equipment, a scheduling request, SR, in a wireless communication system, the method comprising: receiving configuration information related to at least one SR; and transmitting the at least one SR based on the configuration information, wherein the at least one SR is based on a plurality of overlapped SRs wherein, for the plurality of SRs being overlapped with uplink control information, UCI, related to at least one of HARQ information or Channel State Information, CSI: UCI bits are transmitted, in which i) a field related to the plurality of SRs and ii) the UCI are combined, wherein the field related to the plurality of SRs represents i) one of the plurality of SRs as positive or ii) all of the plurality of SRs as negative, and wherein, for i) the plurality of SRs including a plurality of positive SRs and ii) one of the plurality of positive SRs being related to a beam failure recovery, BFR: the field related to the plurality of SRs represents the SR related to the BFR as positive. receiving configuration information related to at least one SR; and transmitting the at least one SR based on the configuration information, wherein the at least one SR is based on a plurality of overlapped SRs wherein, for the plurality of SRs being overlapped with uplink control information, UCI, related to at least one of HARQ information or Channel State Information, CSI: UCI bits are transmitted, in which i) a field related to the plurality of SRs and ii) the UCI are combined, wherein the field related to the plurality of SRs represents i) one of the plurality of SRs as positive or ii) all of the plurality of SRs as negative, and wherein, for i) the plurality of SRs including a plurality of positive SRs and ii) one of the plurality of positive SRs being related to a beam failure recovery, BFR: the field related to the plurality of SRs represents the SR related to the BFR as positive. UCI bits are transmitted, in which i) a field related to the plurality of SRs and ii) the UCI are combined, wherein the field related to the plurality of SRs represents i) one of the plurality of SRs as positive or ii) all of the plurality of SRs as negative, and wherein, for i) the plurality of SRs including a plurality of positive SRs and ii) one of the plurality of positive SRs being related to a beam failure recovery, BFR: the field related to the plurality of SRs represents the SR related to the BFR as positive.
An oral care composition for treating or preventing calculus comprising: an anticalculus agent; and a Magnolia antibacterial agent comprising a biphenol compound obtainable from Magnolia Officinalis; wherein the composition is free of phosphate-containing anticalculus agents and polyphosphate-containing anticalculus agents; and wherein the anticalculus agent comprises a zinc ion source. an anticalculus agent; and a Magnolia antibacterial agent comprising a biphenol compound obtainable from Magnolia Officinalis; wherein the composition is free of phosphate-containing anticalculus agents and polyphosphate-containing anticalculus agents; and wherein the anticalculus agent comprises a zinc ion source.
A blind rivet made at least partially from an amorphous metal alloy, the blind rivet comprising: a head portion; a shaft coupled to the head portion; and a tail portion coupled to the shaft and comprising a first leg and a second leg, wherein the first leg and the second leg are in a shape formed by splitting the shaft along a plane oriented parallel to a longitudinal axis of the shaft, wherein an end of each of the first leg and the second leg comprises a tail interface, and wherein a separation distance between the first leg and the second leg is largest at the end of the first leg and the second leg; wherein: the head portion of the blind rivet is configured to engage with a first member, the tail interface for each of the first leg and the second leg is configured to engage with a second member, and at least one of the first leg and the second leg is configured to elastically deform to secure the first member in position relative to the second member. a head portion; a shaft coupled to the head portion; and a tail portion coupled to the shaft and comprising a first leg and a second leg, wherein the first leg and the second leg are in a shape formed by splitting the shaft along a plane oriented parallel to a longitudinal axis of the shaft, wherein an end of each of the first leg and the second leg comprises a tail interface, and wherein a separation distance between the first leg and the second leg is largest at the end of the first leg and the second leg; wherein: the head portion of the blind rivet is configured to engage with a first member, the tail interface for each of the first leg and the second leg is configured to engage with a second member, and at least one of the first leg and the second leg is configured to elastically deform to secure the first member in position relative to the second member. the head portion of the blind rivet is configured to engage with a first member, the tail interface for each of the first leg and the second leg is configured to engage with a second member, and at least one of the first leg and the second leg is configured to elastically deform to secure the first member in position relative to the second member.
A base for a tank for pressurized gas, such as hydrogen, substantially rotationally symmetrical about an axis, comprising: a pipe that is substantially cylindrical around said axis, passing through the base to connect the exterior of the tank to the interior of the tank; a substantially tubular notch around said axis, arranged inside the tank, suitable for receiving a sealed enclosure; a substantially tubular sleeve around said axis, arranged inside the tank, with an inner diameter that is substantially equal to the diameter of the pipe and with an outer diameter that is substantially equal to the inner diameter of the notch, with an axial extension that is at least equal to that of the notch; an O-ring and a groove with an axis, suitable for receiving the O-ring, arranged within a lateral wall of the notch; and wherein the base further comprises a body and a ring that is substantially tubular with an axis, interfaced by a surface of revolution about the axis passing through the groove, characterized in that the ring has a threaded outer cylindrical face and the body has a corresponding tapped inner cylindrical face to enable the assembly of the ring and the body by screwing.
A coextruded anti-odour, multilayer, packaging film comprising at least a first outer sealant layer (a); an optional inner gas barrier layer (b); a second outer layer (c); and an inner anti-odour layer (d) placed between the sealant layer (a) and the optional barrier layer (b), wherein said anti-odour layer (d) comprises at least an anti-odour compound selected among metals, metal ionomers and their blends, in which said metal is selected among magnesium, calcium, copper, iron, cerium, zinc and lithium, zinc salts of organic acids of formula I (RCOO) 2 Zn I in which R represents a linear or branched, saturated or unsaturated C3-C21 alkyl group and their blends, and optionally, at least a polymer selected among polyolefins, polyolefin derivatives, polyesters, polyamides or their blends, wherein the content by weight of metal ionomers in the anti-odour layer(s) (d) is at most 90%. a first outer sealant layer (a); an optional inner gas barrier layer (b); a second outer layer (c); and an inner anti-odour layer (d) placed between the sealant layer (a) and the optional barrier layer (b), wherein said anti-odour layer (d) comprises at least an anti-odour compound selected among metals, metal ionomers and their blends, in which said metal is selected among magnesium, calcium, copper, iron, cerium, zinc and lithium, zinc salts of organic acids of formula I (RCOO) 2 Zn I in which R represents a linear or branched, saturated or unsaturated C3-C21 alkyl group and their blends, and optionally, at least a polymer selected among polyolefins, polyolefin derivatives, polyesters, polyamides or their blends, wherein the content by weight of metal ionomers in the anti-odour layer(s) (d) is at most 90%.
A bonding body (12, 313, 513, 612) comprising: an aluminum member composed of aluminum; and a metal member composed of one of copper and silver, wherein the aluminum member and the metal member are bonded together, wherein in a bonding portion between the aluminum member and the metal member, a Ti layer (15, 215, 315, 515) and an Al-Ti-Si layer (16, 216, 516) are formed, the Ti layer being disposed at the metal member side; and the Al-Ti-Si layer being disposed between the Ti layer and the aluminum member and containing Si which is solid-solubilized into Al 3 Ti, and wherein the Al-Ti-Si layer includes: a first Al-Ti-Si layer (16A, 216A, 516A) formed at the Ti layer side; and a second Al-Ti-Si layer (16B, 216B, 516B) formed at the aluminum member side and a Si concentration of which is lower than a Si concentration of the first Al-Ti-Si layer. an aluminum member composed of aluminum; and a metal member composed of one of copper and silver, wherein the aluminum member and the metal member are bonded together, wherein in a bonding portion between the aluminum member and the metal member, a Ti layer (15, 215, 315, 515) and an Al-Ti-Si layer (16, 216, 516) are formed, the Ti layer being disposed at the metal member side; and the Al-Ti-Si layer being disposed between the Ti layer and the aluminum member and containing Si which is solid-solubilized into Al 3 Ti, and wherein the Al-Ti-Si layer includes: a first Al-Ti-Si layer (16A, 216A, 516A) formed at the Ti layer side; and a second Al-Ti-Si layer (16B, 216B, 516B) formed at the aluminum member side and a Si concentration of which is lower than a Si concentration of the first Al-Ti-Si layer. a first Al-Ti-Si layer (16A, 216A, 516A) formed at the Ti layer side; and a second Al-Ti-Si layer (16B, 216B, 516B) formed at the aluminum member side and a Si concentration of which is lower than a Si concentration of the first Al-Ti-Si layer.
A method of reactivating a spent or depleted fluorination catalyst, wherein the fluorination catalyst is a bulk (unsupported) or supported metal oxide-based fluorination catalyst that has been used to catalyze the fluorination of a chlorinated compound using HF, comprising contacting the spent or depleted fluorination catalyst with an agent that is a source of reactive fluorine comprising NF 3.
Method of performing operations in a well from a floating installation through a high pressure riser connected to the floating installation through a tension system at a tension connection point, where the riser comprises a housing with an internal diameter larger than an internal diameter of the riser and being connected at the top of the riser, and the housing being formed with a first connection interface, wherein the method comprises the steps of; - making an assembly comprising a number of connectable modules dependent on a desired well operation and wherein the assembly comprises a second connection interface, - assembling the assembly at the floating installation, - positioning the assembly in the housing, and connecting the second interface in the assembly to the first interface in the housing, - performing the desired operation in the well by the use of the assembly. - making an assembly comprising a number of connectable modules dependent on a desired well operation and wherein the assembly comprises a second connection interface, - assembling the assembly at the floating installation, - positioning the assembly in the housing, and connecting the second interface in the assembly to the first interface in the housing, - performing the desired operation in the well by the use of the assembly.
Method for carbon dioxide utilization by means of an electrolysis system, - wherein an electrolyte and carbon dioxide (CO 2) are passed in front of a cathode through a cathode chamber, - wherein the cathode comprises an electrode and/or catalyst material with which carbon dioxide (CO 2) is reduced at the cathode and at least one hydrocarbon compound or carbon monoxide is generated as electrolysis product and also at least one formate is generated as electrolysis byproduct, and - wherein electrolysis byproducts are removed from the electrolyte/electrolysis product mixture by means of a catalytic filter system which is immobilized at least partly on the cathode surface and is not electroreductively catalytically active, said catalytic filter system comprising a functionalized complex or a functionalized support material which catalyzes a cleavage reaction of formates to hydrogen (H 2) and carbon dioxide (CO 2) or to water (H 2 O) and carbon monoxide. - wherein an electrolyte and carbon dioxide (CO 2) are passed in front of a cathode through a cathode chamber, - wherein the cathode comprises an electrode and/or catalyst material with which carbon dioxide (CO 2) is reduced at the cathode and at least one hydrocarbon compound or carbon monoxide is generated as electrolysis product and also at least one formate is generated as electrolysis byproduct, and - wherein electrolysis byproducts are removed from the electrolyte/electrolysis product mixture by means of a catalytic filter system which is immobilized at least partly on the cathode surface and is not electroreductively catalytically active, said catalytic filter system comprising a functionalized complex or a functionalized support material which catalyzes a cleavage reaction of formates to hydrogen (H 2) and carbon dioxide (CO 2) or to water (H 2 O) and carbon monoxide.
A planar layered device, comprising: a top planar layer; and a bottom planar layer stacked together; a clamp (240, 250) that seals the top and bottom planar layers (120, 100) to each other, wherein the top planar layer comprises a top base having an upper surface and a lower surface, a top cover covering the upper surface of the top base, and a top membrane attached to the lower surface of the top base, the top base has a top through hole formed therein, the top through hole is sealed by the top cover and the top membrane to form a top chamber, and the top chamber is in fluid communication with a first input channel and a first output channel located in the top base; wherein the bottom planar layer comprises a bottom base having an upper surface and a lower surface, and a bottom substrate attached to the lower surface of the bottom base, the bottom base has a bottom through hole formed therein, the bottom through hole is sealed by the top membrane and the bottom substrate to form a bottom chamber, and the bottom chamber is in fluid communication with a second input channel and a second output channel located in the bottom base; and wherein the top chamber and the bottom chamber correspond to each other and are separated by the top membrane. a top planar layer; and a bottom planar layer stacked together; a clamp (240, 250) that seals the top and bottom planar layers (120, 100) to each other, wherein the top planar layer comprises a top base having an upper surface and a lower surface, a top cover covering the upper surface of the top base, and a top membrane attached to the lower surface of the top base, the top base has a top through hole formed therein, the top through hole is sealed by the top cover and the top membrane to form a top chamber, and the top chamber is in fluid communication with a first input channel and a first output channel located in the top base; wherein the bottom planar layer comprises a bottom base having an upper surface and a lower surface, and a bottom substrate attached to the lower surface of the bottom base, the bottom base has a bottom through hole formed therein, the bottom through hole is sealed by the top membrane and the bottom substrate to form a bottom chamber, and the bottom chamber is in fluid communication with a second input channel and a second output channel located in the bottom base; and wherein the top chamber and the bottom chamber correspond to each other and are separated by the top membrane.
A vacuum dryer for drying granular resin material prior to processing thereof by molding or extrusion thereof, comprising: a. a material supply container; b. a material processing chamber located below the supply container, the processing chamber having an inlet end equipped with a sealing lid and being divided into heating and vacuum drying zones (312, 314) by a sealing trap door; c. a material conveying tube connecting the supply container with the inlet end of the processing chamber; d. an electrical resistance heater for heating the heating zone; e. a vacuum pump connected to the vacuum drying zone; and f. a lower end of the vacuum drying zone being bounded by and defined by a second sealing trap door. a. a material supply container; b. a material processing chamber located below the supply container, the processing chamber having an inlet end equipped with a sealing lid and being divided into heating and vacuum drying zones (312, 314) by a sealing trap door; c. a material conveying tube connecting the supply container with the inlet end of the processing chamber; d. an electrical resistance heater for heating the heating zone; e. a vacuum pump connected to the vacuum drying zone; and f. a lower end of the vacuum drying zone being bounded by and defined by a second sealing trap door.
A method for determining the presence of a classical swine fever virus (CSFV) in a subject comprising the following step: - amplifying the NS5A region of at least one classical swine fever virus (CSFV) genome in a sample derived from said subject and - detecting the NS5A region; wherein the detection of the NS5A region of the at least one classical swine fever virus (CSFV) genome is attributed to the presence of a classical swine fever virus (CSFV) in said subject wherein the amplification is performed using a first amplification primer hybridizing under stringent conditions to a region according to SEQ ID No. 45 and wherein the first amplification primer comprises a sequence according to SEQ ID No. 44, or a sequence that is 80% identical thereto and shares all of the first 18 nucleotides, counted from the 3'end of SEQ ID No. 44. - amplifying the NS5A region of at least one classical swine fever virus (CSFV) genome in a sample derived from said subject and - detecting the NS5A region; wherein the detection of the NS5A region of the at least one classical swine fever virus (CSFV) genome is attributed to the presence of a classical swine fever virus (CSFV) in said subject
An actinic ray curable inkjet ink comprising an actinic ray curable compound, a ketone wax, and an ester wax, wherein the ink undergoes reversible sol-gel phase transition depending on temperature.