mhurhangee/patent-ind-claim-en huggingface dataset:
An anvil delivery system comprising: a flexible tube configured for trans-oral insertion into a patient, the flexible tube including a first end and a second end , the first end being configured to secure an anvil assembly thereto; and a light assembly disposed within the second end of the flexible tube , the light assembly being configured to emit a light (L), further comprising an adapter member configured to facilitate connection of the anvil assembly with the flexible tube , said adapter member comprising a first end configured to be received within the first end of the flexible tube and a second end configured to be received within a bore of a center rod of the anvil assembly , wherein the first end of the adapter member comprises a series of annular rings configured to frictionally secure the first end of the adapter member within the first end of the flexible tube , and wherein the second end of the adapter member comprises an alignment feature to enable proper positioning of the adapter member relative to the anvil assembly . a flexible tube configured for trans-oral insertion into a patient, the flexible tube including a first end and a second end , the first end being configured to secure an anvil assembly thereto; and a light assembly disposed within the second end of the flexible tube , the light assembly being configured to emit a light (L),
A thermal insulation board (IB) comprising at least two insulating layers (A), wherein the at least two insulating layers (A) are bonded together by an adhesive and wherein at least one of the at least two insulating layers (A) comprises at least one aerogel composite material comprising at least the following components (a1) to (a3): (a1) 10 to 94 % by weight of at least one silica aerogel, (a2) 1 to 20 % by weight of at least one polymer foam and (a3) 5 to 70 % by weight of at least one flame retardant, based in each case on the total weight of the at least one aerogel composite; and wherein at least one of the at least two insulating layers (A): does not comprise the at least one aerogel composite material comprising at least the components (a1) to (a3); and comprises at least one different material selected from the group consisting of extruded polystyrene (XPS) foams, expanded polystyrene (EPS) foams, polyurethane foams, phenolic resin foams, wood fibers, cellulose fibers, cork, calcium silicate, gypsum, mineral foam, glass foam, mineral wool, stone wool, glass wool, glass fibers and aerogels. (a1) 10 to 94 % by weight of at least one silica aerogel, (a2) 1 to 20 % by weight of at least one polymer foam and (a3) 5 to 70 % by weight of at least one flame retardant, based in each case on the total weight of the at least one aerogel composite; and wherein at least one of the at least two insulating layers (A): does not comprise the at least one aerogel composite material comprising at least the components (a1) to (a3); and comprises at least one different material selected from the group consisting of extruded polystyrene (XPS) foams, expanded polystyrene (EPS) foams, polyurethane foams, phenolic resin foams, wood fibers, cellulose fibers, cork, calcium silicate, gypsum, mineral foam, glass foam, mineral wool, stone wool, glass wool, glass fibers and aerogels. does not comprise the at least one aerogel composite material comprising at least the components (a1) to (a3); and comprises at least one different material selected from the group consisting of extruded polystyrene (XPS) foams, expanded polystyrene (EPS) foams, polyurethane foams, phenolic resin foams, wood fibers, cellulose fibers, cork, calcium silicate, gypsum, mineral foam, glass foam, mineral wool, stone wool, glass wool, glass fibers and aerogels.
Wind turbine blade, with a generally hollow blade body comprising an upper and a lower half shell and a first and a second elongated web each extending in the lengthwise direction of the blade and being disposed between and connected to the upper and the lower half shell , with each web comprising a web body and an upper and a lower flange connecting the respective web to the respective half shell , and with the first and second webs being supported by respective first and second reinforcement structures relative to the respective half shell , which reinforcement structures extend in the lengthwise direction of the blade , wherein each first and second reinforcement structure supporting the first and second web comprises at least one stack composed of several pultruded composite strips comprising carbon fibers with the strips being fixed in a resin matrix characterised in that the resin matrix of each at least one stack composed of the pultruded composite strips is integral with a resin matrix of the web body of the web so that each stack is an integral part of the respective first and second web and builds the respective flange , which is attached to the inner layer of the respective upper and lower shell .
An indoor device configured to operate a predetermined main function, the indoor device comprising: a remote operation receiver configured to communicate with a communication terminal and to receive a remote operation; an operation receiver configured to receive an operation; a main function controller configured to control an operation of the main function based on the remote operation received by the remote operation receiver or the operation received by the operation receiver , the indoor device characterised by comprising: a communication monitor configured to monitor a state of communication with the communication terminal at the remote operation receiver during execution of an operation based on the remote operation; and a notifier configured to provide notice that the remote operation is disabled or guidance to urge a user to conduct an operation on the operation receiver when the communication monitor detects that the communication with the communication terminal is discontinued. a remote operation receiver configured to communicate with a communication terminal and to receive a remote operation; an operation receiver configured to receive an operation; a main function controller configured to control an operation of the main function based on the remote operation received by the remote operation receiver or the operation received by the operation receiver , the indoor device characterised by comprising: a communication monitor configured to monitor a state of communication with the communication terminal at the remote operation receiver during execution of an operation based on the remote operation; and a notifier configured to provide notice that the remote operation is disabled or guidance to urge a user to conduct an operation on the operation receiver when the communication monitor detects that the communication with the communication terminal is discontinued. a communication monitor configured to monitor a state of communication with the communication terminal at the remote operation receiver during execution of an operation based on the remote operation; and a notifier configured to provide notice that the remote operation is disabled or guidance to urge a user to conduct an operation on the operation receiver when the communication monitor detects that the communication with the communication terminal is discontinued.
Profile arrangement for components, furniture panels and the like, comprising at least one melt layer and at least one structural layer connected to the melt layer , which two layers comprise a polymer material at least in part and both have a defined width (B2, B3) of approximately 10 to 120 mm, preferably 15 to 100 mm, wherein the melt layer at least partly has a lower width B3 than the width B2 of the structural layer on at least one longitudinal edge side L3, characterised in that the structural layer is arranged at least partly at a distance from the longitudinal edge side L3 of the melt layer on at least one longitudinal edge side L2, in that the material of the melt layer has a melt volume-flow rate (MVR) of 60 to 150 cm3/10 min., preferably 85 to 125 cm3/10 min. in accordance with DIN ISO 1133 at 140°C / 1.20 kg and, on the longitudinal edge side, has an approximately 0.5-4.7% lower width B3 than the width B2 of the structural layer .
Laundry dryer machine comprising a fluff filter for filtering drying air from fluff lost by laundry during the laundry dryer machine operation, the fluff filter comprising: - an input opening for receiving the drying air; - a first filtering portion and a second filtering portion for outputting drying air filtered from fluff, the first filtering portion including a first frame structure and the second filtering portion including a second frame structure , and - hinge elements for pivotally coupling the first frame structure with the second frame structure , characterised in that the fluff filter further comprises: - a filtering surface supported by the first frame structure and by the second frame structure , said filtering surface joining the first frame structure with the second frame structure , wherein each hinge element comprises: - a pin connected to a first selected frame structure among the first - frame structure and the second frame structure , and - a corresponding seat connected to a second selected frame structure among the first frame structure and the second frame structure different from the first selected frame structure, the seat being adapted to rotatably house the pin . - an input opening for receiving the drying air; - a first filtering portion and a second filtering portion for outputting drying air filtered from fluff, the first filtering portion including a first frame structure and the second filtering portion including a second frame structure , and - hinge elements for pivotally coupling the first frame structure with the second frame structure , characterised in that the fluff filter further comprises: - a filtering surface supported by the first frame structure and by the second frame structure , said filtering surface joining the first frame structure with the second frame structure , wherein each hinge element comprises: - a pin connected to a first selected frame structure among the first - frame structure and the second frame structure , and - a corresponding seat connected to a second selected frame structure among the first frame structure and the second frame structure different from the first selected frame structure, the seat being adapted to rotatably house the pin . - a filtering surface supported by the first frame structure and by the second frame structure , said filtering surface joining the first frame structure with the second frame structure , wherein each hinge element comprises: - a pin connected to a first selected frame structure among the first - frame structure and the second frame structure , and - a corresponding seat connected to a second selected frame structure among the first frame structure and the second frame structure different from the first selected frame structure, the seat being adapted to rotatably house the pin .
A fuel injection control system for an internal combustion engine in which fuel discharged from a low pressure fuel pump is supplied to a fuel injection valve with its pressure boosted by a high pressure fuel pump , wherein said low-pressure pump is controlled by an electronic control unit , comprising: an inlet valve for changing the discharge ratio of the high pressure fuel pump ; a processing section that executes a lowering process of lowering feed pressure that is the discharge pressure of said low pressure fuel pump ; a pressure sensor that measures the discharge pressure of said high pressure fuel pump ; a control section that performs a proportional-integral control of the duty cycle of said inlet valve based on the difference between a target discharge pressure of said high pressure fuel pump and a measurement value of said pressure sensor ; the fuel injection control system being characterized in that it further comprises: a stopping section that stops said lowering process with reference to a tendency of change in an integral term used in the proportional-integral control during the execution of said lowering process. an inlet valve for changing the discharge ratio of the high pressure fuel pump ; a processing section that executes a lowering process of lowering feed pressure that is the discharge pressure of said low pressure fuel pump ; a pressure sensor that measures the discharge pressure of said high pressure fuel pump ; a control section that performs a proportional-integral control of the duty cycle of said inlet valve based on the difference between a target discharge pressure of said high pressure fuel pump and a measurement value of said pressure sensor ; the fuel injection control system being characterized in that it further comprises: a stopping section that stops said lowering process with reference to a tendency of change in an integral term used in the proportional-integral control during the execution of said lowering process.
A transcatheter valve prosthesis comprising: a tubular stent having acompressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent ; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent , the anti-paravalvular leakage component including a plurality of self-expanding struts and an annular sealing membrane coupled to the struts , each strut having a first end coupled to a distal end of the tubular stent and a second end not coupled to the tubular stent , wherein the anti-paravalvular leakage component is moveable between a compressed configuration in which each strut extends distally away from the distal end of the stent and a deployed configuration in which each strut is rolled-up and extends radially away from the distal end of the stent, wherein each strut is rolled at least 360 degrees when in the deployed configuration. a tubular stent having acompressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent ; and an anti-paravalvular leakage component coupled to and encircling an outer surface of the tubular stent , the anti-paravalvular leakage component including a plurality of self-expanding struts and an annular sealing membrane coupled to the struts , each strut having a first end coupled to a distal end of the tubular stent and a second end not coupled to the tubular stent , wherein the anti-paravalvular leakage component is moveable between a compressed configuration in which each strut extends distally away from the distal end of the stent and a deployed configuration in which each strut is rolled-up and extends radially away from the distal end of the stent, wherein each strut is rolled at least 360 degrees when in the deployed configuration.
A high-strength thin-gauge checkered steel plate/strip, comprising the following chemical elements in weight percentages: C: ≤0.06%, Si: ≤0.5%, Mn: 0.4-1.7%, P≤0.04%, S≤0.007%, N: 0.004-0.010%, Als: <0.001%, B: 0.001-0.006%, Mn/S≥250, total oxygen [O] T : 0.007-0.020%; Cu: 0.1-0.6% and/or Sn: 0.005-0.04%; and a balance of Fe and other unavoidable impurities; wherein the checkered steel plate/strip has • a yield strength of ≥345 MPa, • a tensile strength of ≥470 MPa, • an elongation of ≥22%, • a thickness (a) of 0.8-2.5 mm, and • a pattern height (h) of at least 20% of a thickness (a) of a base plate/strip (h ≥ 0.2a). • a yield strength of ≥345 MPa, • a tensile strength of ≥470 MPa, • an elongation of ≥22%, • a thickness (a) of 0.8-2.5 mm, and • a pattern height (h) of at least 20% of a thickness (a) of a base plate/strip (h ≥ 0.2a).
A UBE3A vector, comprising: a transcription initiation sequence, wherein the transcription initiation sequence is a cytomegalovirus chicken-beta actin hybrid promotor, or a human ubiquitin c promotor; a UBE3A sequence disposed downstream of the transcription initiation sequence, wherein the UBE3A sequence is SEQ ID NO: 6, SEQ ID NO: 12, SEQ ID NO: 13, SEQ ID NO: 15, a cDNA of SEQ ID NO: 7, a cDNA of SEQ ID NO: 14, or a nucleotide sequence possessing at least 95% sequence identity thereto; a secretion sequence disposed downstream of the transcription initiation sequence, wherein the secretion sequence is SEQ ID NO: 2, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, a cDNA of SEQ ID NO: 3, or a nucleotide sequence possessing at least 80% sequence identity thereto; and a cell uptake sequence disposed downstream of the transcription initiation sequence, wherein the cell uptake sequence is SEQ ID NO: 4, a cDNA of SEQ ID NO: 5, or a nucleotide sequence possessing at least 80% sequence identity thereto wherein a therapeutically effective amount of E6-associated protein (E6-AP) expressed by cells transfected with the UBE3A vector is secreted and taken up by cerebral cells with a deficiency in E6-AP expression. a transcription initiation sequence, wherein the transcription initiation sequence is a cytomegalovirus chicken-beta actin hybrid promotor, or a human ubiquitin c promotor; a UBE3A sequence disposed downstream of the transcription initiation sequence, wherein the UBE3A sequence is SEQ ID NO: 6, SEQ ID NO: 12, SEQ ID NO: 13, SEQ ID NO: 15, a cDNA of SEQ ID NO: 7, a cDNA of SEQ ID NO: 14, or a nucleotide sequence possessing at least 95% sequence identity thereto; a secretion sequence disposed downstream of the transcription initiation sequence, wherein the secretion sequence is SEQ ID NO: 2, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, a cDNA of SEQ ID NO: 3, or a nucleotide sequence possessing at least 80% sequence identity thereto; and a cell uptake sequence disposed downstream of the transcription initiation sequence, wherein the cell uptake sequence is SEQ ID NO: 4, a cDNA of SEQ ID NO: 5, or a nucleotide sequence possessing at least 80% sequence identity thereto wherein a therapeutically effective amount of E6-associated protein (E6-AP) expressed by cells transfected with the UBE3A vector is secreted and taken up by cerebral cells with a deficiency in E6-AP expression.
A method of wireless communication performed by a user equipment, UE , comprising: transmitting a UE capability indicator to indicate that the UE is capable of applying an activation status message (320-A, 320-B, 320-C, 320-D) to a plurality of bandwidth parts; receiving the activation status message (320-A, 320-B, 320-C, 320-D) identifying one or more transmission configuration indicator, TCI, states or one or more spatial relationships, the activation status message (320-A, 320-B, 320-C, 320-D) being configured to alter one or more activation statuses for the one or more TCI states or the one or more spatial relationships in a single bandwidth part associated with a single component carrier, wherein receiving the activation status message (320-A, 320-B, 320-C, 320-D) comprises: receiving the activation status message (320-A, 320-B, 320-C, 320-D) based at least in part on transmitting the UE capability indicator; and altering the one or more activation statuses of the one or more TCI states or the one or more spatial relationships in the plurality of bandwidth parts associated with a plurality of component carriers based at least in part on an activation status indicator indicating whether the activation status message (320-A, 320-B, 320-C, 320-D) is to apply to more than one bandwidth part of the plurality of bandwidth parts. transmitting a UE capability indicator to indicate that the UE is capable of applying an activation status message (320-A, 320-B, 320-C, 320-D) to a plurality of bandwidth parts; receiving the activation status message (320-A, 320-B, 320-C, 320-D) identifying one or more transmission configuration indicator, TCI, states or one or more spatial relationships, the activation status message (320-A, 320-B, 320-C, 320-D) being configured to alter one or more activation statuses for the one or more TCI states or the one or more spatial relationships in a single bandwidth part associated with a single component carrier, wherein receiving the activation status message (320-A, 320-B, 320-C, 320-D) comprises: receiving the activation status message (320-A, 320-B, 320-C, 320-D) based at least in part on transmitting the UE capability indicator; and altering the one or more activation statuses of the one or more TCI states or the one or more spatial relationships in the plurality of bandwidth parts associated with a plurality of component carriers based at least in part on an activation status indicator indicating whether the activation status message (320-A, 320-B, 320-C, 320-D) is to apply to more than one bandwidth part of the plurality of bandwidth parts. receiving the activation status message (320-A, 320-B, 320-C, 320-D) based at least in part on transmitting the UE capability indicator; and altering the one or more activation statuses of the one or more TCI states or the one or more spatial relationships in the plurality of bandwidth parts associated with a plurality of component carriers based at least in part on an activation status indicator indicating whether the activation status message (320-A, 320-B, 320-C, 320-D) is to apply to more than one bandwidth part of the plurality of bandwidth parts.
A film comprising a curable epoxy resin based thermosetting adhesive film which - is non-tacky to the touch at room temperature such that it does not need a force more than 2 N to pull out a 25 mm diameter stainless steel plate applied on its surface; - is flexible prior to cure and has an uncured thickness between 0.2 and 3.0 mm; and - is storage stable at room temperature; comprises an adhesive layer and a fibrous supporting layer or fleece; wherein the fibrous supporting layer or fleece - is selected from a woven or knit mat, a random mat and is derived from glass, polyester, polyimide, carbon or aramid fibres; - has a thickness of from 10 to 500 μm; and - has an area weight of from 10 to 200 grams/square metre; and is provided with a tacky surface comprising a layer of a liquid epoxy resin, wherein the liquid epoxy resin is curable by a curing agent within the adhesive film. a curable epoxy resin based thermosetting adhesive film which - is non-tacky to the touch at room temperature such that it does not need a force more than 2 N to pull out a 25 mm diameter stainless steel plate applied on its surface; - is flexible prior to cure and has an uncured thickness between 0.2 and 3.0 mm; and - is storage stable at room temperature; - is non-tacky to the touch at room temperature such that it does not need a force more than 2 N to pull out a 25 mm diameter stainless steel plate applied on its surface; - is flexible prior to cure and has an uncured thickness between 0.2 and 3.0 mm; and - is storage stable at room temperature; comprises an adhesive layer and a fibrous supporting layer or fleece; wherein the fibrous supporting layer or fleece - is selected from a woven or knit mat, a random mat and is derived from glass, polyester, polyimide, carbon or aramid fibres; - has a thickness of from 10 to 500 μm; and - has an area weight of from 10 to 200 grams/square metre; and - is selected from a woven or knit mat, a random mat and is derived from glass, polyester, polyimide, carbon or aramid fibres; - has a thickness of from 10 to 500 μm; and - has an area weight of from 10 to 200 grams/square metre; is provided with a tacky surface comprising a layer of a liquid epoxy resin, wherein the liquid epoxy resin is curable by a curing agent within the adhesive film.