mhurhangee/ep-ind-claims huggingface dataset:
A steam turbine overspeed protection system, wherein, the steam turbine overspeed protection system comprises: a drive gear, the drive gear is arranged to match a rotation speed of a rotor of a steam turbine; a rotating shaft, the rotating shaft is parallel to an axis of the drive gear and capable of rotating at a critical rotation speed; a protective gear, the protective gear is arranged on the rotating shaft and forms a lead screw nut mechanism with the rotating shaft, and the protective gear is arranged to be capable of engaging with the drive gear when the rotation speed of the drive gear exceeds the critical rotation speed; and an operating rod, the operating rod can be connected to the protective gear; wherein, when the drive gear engages with the protective gear, the protective gear can move in the axial direction of the rotating shaft and thereby drive the operating rod to move and produce an action that activates a protection device for preventing steam turbine overspeed. a drive gear, the drive gear is arranged to match a rotation speed of a rotor of a steam turbine; a rotating shaft, the rotating shaft is parallel to an axis of the drive gear and capable of rotating at a critical rotation speed; a protective gear, the protective gear is arranged on the rotating shaft and forms a lead screw nut mechanism with the rotating shaft, and the protective gear is arranged to be capable of engaging with the drive gear when the rotation speed of the drive gear exceeds the critical rotation speed; and an operating rod, the operating rod can be connected to the protective gear; wherein, when the drive gear engages with the protective gear, the protective gear can move in the axial direction of the rotating shaft and thereby drive the operating rod to move and produce an action that activates a protection device for preventing steam turbine overspeed.
A gas turbine engine for an aircraft, the gas turbine engine comprising: a first turbine positioned upstream of a second intermediate turbine and a third turbine being positioned downstream of the first and second turbines (34, 36); a fan; and three compressors (28, 30, 32), with a first upstream one of said compressors being connected to rotate with said fan, and said third turbine for driving said upstream compressor and said fan both through a gear reduction, and a second intermediate compressor for being driven by said second intermediate turbine, and a third compressor downstream of said first and second compressors (28, 30) and for being driven by said first turbine, wherein said fan delivers air into a bypass duct as propulsion air and delivers air to said first compressor as core air flow, and an overall pressure ratio at sea level take off across said three compressors (28, 30, 32) is greater than or equal to about 35.0 and is less than or equal to about 75.0. a first turbine positioned upstream of a second intermediate turbine and a third turbine being positioned downstream of the first and second turbines (34, 36); a fan; and three compressors (28, 30, 32), with a first upstream one of said compressors being connected to rotate with said fan, and said third turbine for driving said upstream compressor and said fan both through a gear reduction, and a second intermediate compressor for being driven by said second intermediate turbine, and a third compressor downstream of said first and second compressors (28, 30) and for being driven by said first turbine, wherein said fan delivers air into a bypass duct as propulsion air and delivers air to said first compressor as core air flow, and an overall pressure ratio at sea level take off across said three compressors (28, 30, 32) is greater than or equal to about 35.0 and is less than or equal to about 75.0.
A coupling device, for coupling microwave radiation from a first microwave structure, in particular a microwave waveguide, into a second microwave structure, in particular a microwave resonant cavity, wherein the first and second microwave structures (2a, 1a) share a common wall, through an iris opening in said wall in front of which the coupling device is positioned on the side of the first microwave structure, in particular wherein the coupling device is of a basically cylindrical shape, and wherein the coupling device comprises N electrically conducting conductor loops, with N≥3, preferably 3≤N≤20, characterized in that the conductor loops are arranged coaxially in an array along a z-axis, wherein the z-axis is in parallel with the common wall of the first microwave structure and the second microwave structure, and that axially neighboring conductor loops are separated by a dielectric. for coupling microwave radiation from a first microwave structure, in particular a microwave waveguide, into a second microwave structure, in particular a microwave resonant cavity, wherein the first and second microwave structures (2a, 1a) share a common wall, through an iris opening in said wall in front of which the coupling device is positioned on the side of the first microwave structure, in particular wherein the coupling device is of a basically cylindrical shape, and wherein the coupling device comprises N electrically conducting conductor loops, with N≥3, preferably 3≤N≤20, characterized in that the conductor loops are arranged coaxially in an array along a z-axis, wherein the z-axis is in parallel with the common wall of the first microwave structure and the second microwave structure, and that axially neighboring conductor loops are separated by a dielectric.
An elastic barrier coating composition comprising: a barrier material dispersed in an aqueous media; a polysulfide; and a curing agent reactive with the polysulfide. a barrier material dispersed in an aqueous media; a polysulfide; and a curing agent reactive with the polysulfide.
A Narrow Band Internet of Things, NB-IoT, terminal device for use with a wireless telecommunications network, the NB-IoT terminal device comprising: transceiver circuitry configured to receive data from the wireless telecommunications network, and a controller configured: to control the transceiver circuitry to receive control information, a first narrow band physical downlink control channel, NB-PDCCH, (NB-PDCCH 1), and a first narrow band physical downlink shared channel, NB-PDSCH, (NB-PDSCH 1), wherein the first NB-PDSCH is scheduled by the first NB-PDCCH, and wherein, the control information defines a first period of time between the first NB-PDCCH and the first NB-PDSCH and to ignore a subsequent second NB-PDCCH (NB-PDCCH 2), received during said first period of time following the first NB-PDCCH, if this leads to a number of grants being greater than a predetermined number. transceiver circuitry configured to receive data from the wireless telecommunications network, and a controller configured: to control the transceiver circuitry to receive control information, a first narrow band physical downlink control channel, NB-PDCCH, (NB-PDCCH 1), and a first narrow band physical downlink shared channel, NB-PDSCH, (NB-PDSCH 1), wherein the first NB-PDSCH is scheduled by the first NB-PDCCH, and wherein, the control information defines a first period of time between the first NB-PDCCH and the first NB-PDSCH and to ignore a subsequent second NB-PDCCH (NB-PDCCH 2), received during said first period of time following the first NB-PDCCH, if this leads to a number of grants being greater than a predetermined number.
Process for obtaining polysaccharides from jatoba seeds, comprising the steps of: a) treatment of the seeds by using microwave for separating the coats; b) aqueous extraction at 1% to 5% of powder mass per volume, at a temperature of 70°C for 4 hours; c) precipitation with ethanol 96°GL using 1 to 3 times the aqueous extract volume; d) press filtration of the precipitate obtained in step (c); e) solublization of the polysaccaharides obtained in step (d) with water; and f) drying the polysaccharides obtained in step (e) by spray drying or by freeze drying; wherein the process also comprises a step of separating the polysaccharides after the step of aqueous extraction, said separation being a centrifugation carried out at 4100 RPM for 15 minutes. a) treatment of the seeds by using microwave for separating the coats; b) aqueous extraction at 1% to 5% of powder mass per volume, at a temperature of 70°C for 4 hours; c) precipitation with ethanol 96°GL using 1 to 3 times the aqueous extract volume; d) press filtration of the precipitate obtained in step (c); e) solublization of the polysaccaharides obtained in step (d) with water; and f) drying the polysaccharides obtained in step (e) by spray drying or by freeze drying;
A jaw assembly for use with a clip applier device, comprising: a metal frame having a proximal portion and a distal portion with first and second jaws (502, 504) having opposed inward facing surfaces (514, 515), each inward facing surface having at least one protrusion (510, 511) formed thereon; and a first outer housing overmolded around the first jaw and a second housing overmolded around the second jaw, the first and second housings (520, 522) including opposed inward facing surfaces (530, 531), wherein each inward facing surface of the outer housings (530, 531) has a clip track (532, 533) formed therein and extending longitudinally therealong for seating a clip therein, wherein the at least one protrusion (510, 511) on each of the first and second jaws (502, 504) is configured to extend through the inward facing surface of the first and second housings (520, 522), respectively, such that the at least one protrusion (510, 511) on each of the first and second jaws (502, 504) is configured to contact a clip seated in the clip track (532, 533). a metal frame having a proximal portion and a distal portion with first and second jaws (502, 504) having opposed inward facing surfaces (514, 515), each inward facing surface having at least one protrusion (510, 511) formed thereon; and a first outer housing overmolded around the first jaw and a second housing overmolded around the second jaw, the first and second housings (520, 522) including opposed inward facing surfaces (530, 531), wherein each inward facing surface of the outer housings (530, 531) has a clip track (532, 533) formed therein and extending longitudinally therealong for seating a clip therein, wherein the at least one protrusion (510, 511) on each of the first and second jaws (502, 504) is configured to extend through the inward facing surface of the first and second housings (520, 522), respectively, such that the at least one protrusion (510, 511) on each of the first and second jaws (502, 504) is configured to contact a clip seated in the clip track (532, 533).
A system comprising: an expandable tubular member comprising: a first expandable tubular member; a second expandable tubular member; and a releasable connection selectively coupling said first and second expandable tubular members; a latch receptacle disposed within said first expandable tubular member; a support member operable to be disposed within said tubular member; an expansion device coupled to said support member and operable to radially expand said expandable tubular member as said expansion device moves axially through said expandable tubular member, wherein said releasable connection is operable to release said first expandable tubular member from said second expandable tubular member as the releasable connection is radially expanded by said expansion member; and a latch assembly coupled to said support member and operable to engage said latch receptacle once said expansion device radially expands said releasable connection so as to limit the axial movement of said expansion device relative to said first expandable tubular member. an expandable tubular member comprising: a first expandable tubular member; a second expandable tubular member; and a releasable connection selectively coupling said first and second expandable tubular members; a first expandable tubular member; a second expandable tubular member; and a releasable connection selectively coupling said first and second expandable tubular members; a latch receptacle disposed within said first expandable tubular member; a support member operable to be disposed within said tubular member; an expansion device coupled to said support member and operable to radially expand said expandable tubular member as said expansion device moves axially through said expandable tubular member, wherein said releasable connection is operable to release said first expandable tubular member from said second expandable tubular member as the releasable connection is radially expanded by said expansion member; and a latch assembly coupled to said support member and operable to engage said latch receptacle once said expansion device radially expands said releasable connection so as to limit the axial movement of said expansion device relative to said first expandable tubular member.
A collection device for collecting and stabilizing whole blood or a component thereof, comprising a first end and a second end and at least one interior wall defining a reservoir and wherein the reservoir comprises a stabilization agent comprising a lysophospholipase (LysoPLA) inhibitor and an anti-coagulant, wherein the device is an at least partially evacuated tube and further comprises a closure pierceable by a needle for supplying blood to the reservoir.
Pad device comprising at least one pad unit that is provided in order to be placed at least in part between a setting-down counter and a heated cooking vessel in at least one heating operating mode, and comprising an electronic unit which is provided in order to supply at least one function in at least one operating mode, characterised in that the electronic unit has at least one positioning unit, which is provided in order to detect at least one position of the pad unit on the setting-down counter,
A method for generating electrical power comprising processing a first energy source to produce electricity via a coupled generator and a first exhaust combusted gas and processing a biomass fuel source that is different from the first energy source, separately from the processing of the first energy source and the first exhaust combusted gas, to produce a second steam flow, wherein the method is characterized in that: the processing of the first energy source further produces a by-product first steam flow via a coupled heat recovery steam generator; the processing of the biomass fuel source produces a second steam flow at temperature and pressure conditions on the same order as the by-product first steam flow, wherein the temperature and pressure conditions of the second steam flow are maintained on the same order as the temperature and pressure conditions for the by-product first steam flow; combining the by-product first steam flow and the second steam flow, wherein the steam flows are combined after the by-product first steam flow is processed through the heat recovery steam generator; routing the combined steam flow through a steam turbine generator; recirculating a first portion of an output of the steam turbine generator for reheating in a biomass boiler configured to process the biomass fuel source; reheating the first portion of the output in the biomass boiler to generate a first reheated steam; and delivering the first reheated steam to the steam turbine generator. the processing of the first energy source further produces a by-product first steam flow via a coupled heat recovery steam generator; the processing of the biomass fuel source produces a second steam flow at temperature and pressure conditions on the same order as the by-product first steam flow, wherein the temperature and pressure conditions of the second steam flow are maintained on the same order as the temperature and pressure conditions for the by-product first steam flow; combining the by-product first steam flow and the second steam flow, wherein the steam flows are combined after the by-product first steam flow is processed through the heat recovery steam generator; routing the combined steam flow through a steam turbine generator; recirculating a first portion of an output of the steam turbine generator for reheating in a biomass boiler configured to process the biomass fuel source; reheating the first portion of the output in the biomass boiler to generate a first reheated steam; and delivering the first reheated steam to the steam turbine generator.
A suction head for a dredging device, the suction head comprising: a first conduit having an inlet; a second conduit having an inlet and an outlet, the second conduit being in series and in fluid communication with the first conduit, the outlet of the second conduit opening to the inlet of the first conduit via a mixing region; a third conduit having an inlet and an outlet, the outlet of the third conduit opening to the first conduit via a restriction and the mixing region, characterised in that the third conduit generally surrounds the second conduit, and an annular region is formed between the second and third conduits, wherein a fluid may be fed under pressure through the inlet of the third conduit and conveyed through the annular region to the mixing region via the restriction to cause a reduction in the pressure of the fluid passing into the mixing region, the reduction in pressure of the fluid causing matter to be sucked through the inlet of the second conduit and conveyed through the second conduit to the mixing region, the matter being entrained with the fluid and exiting the mixing region via the first conduit; and means for promoting a generally helical flow of the fluid through the restriction. a first conduit having an inlet; a second conduit having an inlet and an outlet, the second conduit being in series and in fluid communication with the first conduit, the outlet of the second conduit opening to the inlet of the first conduit via a mixing region; a third conduit having an inlet and an outlet, the outlet of the third conduit opening to the first conduit via a restriction and the mixing region, characterised in that the third conduit generally surrounds the second conduit, and an annular region is formed between the second and third conduits, wherein a fluid may be fed under pressure through the inlet of the third conduit and conveyed through the annular region to the mixing region via the restriction to cause a reduction in the pressure of the fluid passing into the mixing region, the reduction in pressure of the fluid causing matter to be sucked through the inlet of the second conduit and conveyed through the second conduit to the mixing region, the matter being entrained with the fluid and exiting the mixing region via the first conduit; and means for promoting a generally helical flow of the fluid through the restriction.
A method for providing a 3D model of an environment comprising the step of forming a mesh modelling the environment in three dimensions, based on geo-referenced images of the environment, said mesh comprising nodes interconnected by edges and having surfaces boarded by the edges, based on measurements of the environment, characterized by the steps of determining for each of a plurality of the nodes and/or surfaces and/or edges in the mesh a mesh uncertainty in at least two dimensions, representing a measure of the reliability of the mesh in relation to the environment in that node and/or surface and/or edge and associating the determined mesh uncertainty to the corresponding node and/or surface and/or edge, wherein each node of the mesh is associated to a 3D coordinate in a geographical coordinate system and wherein the mesh uncertainty represents a measure of the reliability of 3D coordinates of the model in the geographical coordinate system in relation to the environment.
A rectangular secondary battery comprising: a current interrupting portion disposed in a current path between a collector plate connected to a rolled electrode group and an external terminal and configured to interrupt the current path when an internal pressure of a battery container is increased, wherein the current interrupting portion has a diaphragm whose top portion is electrically connected to the collector plate and whose edge portion is electrically connected to the external terminal, and the diaphragm is formed into a convex shape protruding inside the battery container and into a planar shape elongated in a longitudinal direction of the battery container, and the diaphragm has, at the top portion thereof, a protrusion protruding inside the battery container, and the protrusion has a shape extending in the longitudinal direction in a plan view, and a cleavage plate electrically connected to the collector plate, wherein the cleavage plate has a joint portion joined with the protrusion of the diaphragm and an annular groove formed around the joint portion, characterised by: at least a part of the protrusion contacts the cleavage plate at an outside of the annular groove. a current interrupting portion disposed in a current path between a collector plate connected to a rolled electrode group and an external terminal and configured to interrupt the current path when an internal pressure of a battery container is increased, wherein the current interrupting portion has a diaphragm whose top portion is electrically connected to the collector plate and whose edge portion is electrically connected to the external terminal, and the diaphragm is formed into a convex shape protruding inside the battery container and into a planar shape elongated in a longitudinal direction of the battery container, and the diaphragm has, at the top portion thereof, a protrusion protruding inside the battery container, and the protrusion has a shape extending in the longitudinal direction in a plan view, and a cleavage plate electrically connected to the collector plate, wherein the cleavage plate has a joint portion joined with the protrusion of the diaphragm and an annular groove formed around the joint portion, characterised by: at least a part of the protrusion contacts the cleavage plate at an outside of the annular groove.
A peptide which is of SEQ ID NO 1 SIIGIIMGILGNIPQVIQIIMSIVKAFKGNKR (SEQ ID NO.1) or a variant thereof wherein the variant is peptide encoded by an orthologue of a gene sequence which encodes the peptide of SEQ ID NO 1 derived from an Ecel protein of a Candida species, or a peptide which is at least 87% identical to SEQ ID No 1; or a fragment of either of these of from 20 to 31 amino acids in length; or a labelled form thereof, wherein the peptide has a cell-activating, damage-inducing, immunomodulatory or immunogenic ability.
A method for transmitting, by a base station, BS, reference signals, RSs, for channel measurement for M antenna ports of the BS in a downlink multiple input multiple output, MIMO, system which supports a first type user equipment, UE, capable of recognizing first antenna ports and a second type UE capable of recognizing the first antenna ports and second antenna ports different from the first antenna ports, the method comprising: transmitting subframe-associated information which designates one or more second subframes among a plurality of subframes; transmitting first RSs for a number N of first antenna ports among the M antenna ports in each of the plurality of subframes; and transmitting second RSs for a number L of second antenna ports among the M antenna ports of the BS, where M=N+L, in each of the one or more second subframes based on the subframe-associated information, wherein the second RSs are transmitted using code division multiplexing. transmitting subframe-associated information which designates one or more second subframes among a plurality of subframes; transmitting first RSs for a number N of first antenna ports among the M antenna ports in each of the plurality of subframes; and transmitting second RSs for a number L of second antenna ports among the M antenna ports of the BS, where M=N+L, in each of the one or more second subframes based on the subframe-associated information, wherein the second RSs are transmitted using code division multiplexing.