mhurhangee/ep-ind-claims huggingface dataset:
A method of predicting fluid responsiveness in a critically ill patient, comprising: receiving a real-time physiological data of the patient producing a real-time physiological waveform; performing a discrete Fourier transform of the real-time physiological waveform; generating an estimate of pulse pressure variability from the discrete Fourier transform of the real-time physiological waveform, wherein the generating is based on signal components of the Fourier transform located at a difference between a heart rate and a respiratory rate and a sum of the heart rate and the respiratory rate and any associated harmonics; and displaying the estimate of pulse pressure variability on a clinical display. receiving a real-time physiological data of the patient producing a real-time physiological waveform; performing a discrete Fourier transform of the real-time physiological waveform; generating an estimate of pulse pressure variability from the discrete Fourier transform of the real-time physiological waveform, wherein the generating is based on signal components of the Fourier transform located at a difference between a heart rate and a respiratory rate and a sum of the heart rate and the respiratory rate and any associated harmonics; and displaying the estimate of pulse pressure variability on a clinical display.
A polypeptide which has alpha amylase activity and which has a polypeptide sequence which shows at least 87% identity to amino acids 18 to 495 of SEQ ID No.1, and wherein the polypeptide has at least 90% residual alpha amylase activity after 15 minutes at 51 degrees C at pH 5.2.
A display structure comprising: a plurality of pixels arranged in pixel rows, each two neighboring pixel rows having an inter-pixel spacing therebetween; a feeding line configured to deliver a first electrical signal to the pixel rows, the feeding line being located in the inter-pixel spacing; and an antenna (300, 400) comprising: a slotted waveguide located in the inter-pixel spacing, the slotted waveguide defining a plurality of slots configured to radiate electromagnetic waves; and a substrate attached to the slotted waveguide and located between the feeding line and the slotted waveguide, the substrate being configured to deliver a second electrical signal to the slotted waveguide via a feeding structure, including a feeding electrical circuit. a plurality of pixels arranged in pixel rows, each two neighboring pixel rows having an inter-pixel spacing therebetween; a feeding line configured to deliver a first electrical signal to the pixel rows, the feeding line being located in the inter-pixel spacing; and an antenna (300, 400) comprising: a slotted waveguide located in the inter-pixel spacing, the slotted waveguide defining a plurality of slots configured to radiate electromagnetic waves; and a substrate attached to the slotted waveguide and located between the feeding line and the slotted waveguide, the substrate being configured to deliver a second electrical signal to the slotted waveguide via a feeding structure, including a feeding electrical circuit. a slotted waveguide located in the inter-pixel spacing, the slotted waveguide defining a plurality of slots configured to radiate electromagnetic waves; and a substrate attached to the slotted waveguide and located between the feeding line and the slotted waveguide, the substrate being configured to deliver a second electrical signal to the slotted waveguide via a feeding structure, including a feeding electrical circuit.
A vehicle operation supporting device, comprising a beam radiating means that radiates light beams having a predetermined optical characteristic and a predetermined pattern conforming to a locus to which a vehicle is estimated to run onto a road surface around the vehicle so as to inform a driver of the vehicle of a travelling path of the vehicle and others of the existence of the vehicle, characterized by further comprising a dimming means that is more permeable to light having the predetermined optical characteristic than to light having optical characteristics other than the predetermined optical characteristic, wherein the dimming means is an optical filter and is deployed between a windshield and the eyes of the driver of the vehicle, and wherein the dimming means is either manually deployed by the driver of the vehicle or automatically deployed only when a visible light pattern on a road surface is difficult to visually recognize.
A device for steam pressure cooking and heating and/or reviving of portions of fresh and/or frozen pre-cooked pasta and other food preparations, which comprises an outer enclosure that accommodates a boiler for producing steam and a tank for water, which is comprising a supporting assembly with which a pressure-tight container provided with a handle is associated detachably, characterized in that said supporting assembly comprises a basket, perforated in a lower region, for said portion being accommodatable detachably therein in a suspended manner, means being present for feeding and/or storing and discharging water, said supporting assembly being constituted by a disk with which a diffuser is associated in a lower region, said disk having a first hole and a second hole (17a, 17b) for the inflow and outflow of the steam.
A measuring device, comprising: a first reference for alignment against a first edge of a target object; a second reference for alignment against a second edge of the target object; and a third reference for alignment against a third edge of the target object; whereby each of the first reference, the second reference, and the third reference comprises a first board and a second board connected to the first board, the first board of the first reference and the first board of the second reference are respectively rotatably connected to the first board and the second board of the third reference; and the second board of the first reference and the second board of the second reference latch with each other to align the first reference, the second reference, and the third reference along three axes in a Cartesian coordinate system to measure geometric characteristics of the target object. a first reference for alignment against a first edge of a target object; a second reference for alignment against a second edge of the target object; and a third reference for alignment against a third edge of the target object; whereby each of the first reference, the second reference, and the third reference comprises a first board and a second board connected to the first board, the first board of the first reference and the first board of the second reference are respectively rotatably connected to the first board and the second board of the third reference; and the second board of the first reference and the second board of the second reference latch with each other to align the first reference, the second reference, and the third reference along three axes in a Cartesian coordinate system to measure geometric characteristics of the target object.
A lubricant composition consisting of: (a) 95.323 weight % of an SAE 50 base oil of lubricating viscosity; (b) dispersants consisting of 2.0 wt % of a succinimide dispersant, 0.335 wt % of a boron-containing succinimide dispersant and 0.255 wt % of a sulfur- and nitrogen- containing succinimide dispersant; (c) phosphorus compounds consisting of 0.05 wt % dibutyl hydrogen phosphite, 0.04 wt % phosphoric acid, 0.14 wt % triaryl thiophosphate and 0.2 wt % alkenyl phosphite; (d) 0.115 wt % of a 300 TBN Ca sulfonate detergent; (e) 0.1 wt % of a substituted thiadiazole; (f) 0.392 wt % of an alkyl diphenylamine; (g) 0.95 wt % of a substituted hydrocarbyl sulfide; (h) 0.1 wt % of an alkyl borated ester; and (i) 5 ppm of polydimethylsiloxane (a) 95.323 weight % of an SAE 50 base oil of lubricating viscosity; (b) dispersants consisting of 2.0 wt % of a succinimide dispersant, 0.335 wt % of a boron-containing succinimide dispersant and 0.255 wt % of a sulfur- and nitrogen- containing succinimide dispersant; (c) phosphorus compounds consisting of 0.05 wt % dibutyl hydrogen phosphite, 0.04 wt % phosphoric acid, 0.14 wt % triaryl thiophosphate and 0.2 wt % alkenyl phosphite; (d) 0.115 wt % of a 300 TBN Ca sulfonate detergent; (e) 0.1 wt % of a substituted thiadiazole; (f) 0.392 wt % of an alkyl diphenylamine; (g) 0.95 wt % of a substituted hydrocarbyl sulfide; (h) 0.1 wt % of an alkyl borated ester; and (i) 5 ppm of polydimethylsiloxane
Electrical cable comprising a conductive element, and successively around this conductive element, an electrically-insulating layer, a metal screen and an outer protective sheath, characterized in that it further comprises an extruded outer layer surrounding the outer protective sheath, wherein the extruded outer layer is in direct contact with the outer protective sheath, and is obtained from a composition comprising more than 50.0 parts by weight of apolar polymer per 100 parts by weight of polymer in the composition, and an electrically-conductive filler.
A cell management method in a carrier aggregation heterogeneous network deployment scenario in which a user plane is separated from a control plane, a macro eNB provides macro coverage, and a local eNB provides hotspot coverage within the macro coverage, said method comprising: determining, by the macro eNB, that cells controlled by the local eNB need to be managed, wherein the cells controlled by the local eNB include a primary cell and a secondary cell for carrier aggregation by a User Equipment UE; and notifying, by the macro eNB, the local eNB to manage the cells controlled by the local eNB; wherein managing the cells controlled by the local eNB comprises at least one of the following: configuring or changing the primary cell controlled by the local eNB, adding or deleting the secondary cell controlled by the local eNB, or modifying configuration information of the secondary cell controlled by the local eNB. determining, by the macro eNB, that cells controlled by the local eNB need to be managed, wherein the cells controlled by the local eNB include a primary cell and a secondary cell for carrier aggregation by a User Equipment UE; and notifying, by the macro eNB, the local eNB to manage the cells controlled by the local eNB; wherein managing the cells controlled by the local eNB comprises at least one of the following: configuring or changing the primary cell controlled by the local eNB, adding or deleting the secondary cell controlled by the local eNB, or modifying configuration information of the secondary cell controlled by the local eNB.
A method of operating a hybrid electric vehicle, the method comprising: driving an engine to generate mechanical energy; converting the mechanical energy into a first AC voltage; estimating a total DC link load current associated with a respective plurality of loads (120 to 123) on the hybrid electric vehicle; converting, with a first converter, the first AC voltage into a DC bus voltage by regulating the DC bus voltage based on the total DC link load current; and inverting, with a respective plurality of inverters (111 to 114), the DC bus voltage into a respective plurality of other AC voltages to drive the respective plurality of loads (120 to 123) on the hybrid electric vehicle, characterised in that the method further comprises the steps of: estimating a change in the DC bus voltage with respect to time; controlling, with a current command, the total DC link load current based on an estimated change in the DC bus voltage with respect to time; and reducing the change in the DC bus voltage with respect to time based on the current command. driving an engine to generate mechanical energy; converting the mechanical energy into a first AC voltage; estimating a total DC link load current associated with a respective plurality of loads (120 to 123) on the hybrid electric vehicle; converting, with a first converter, the first AC voltage into a DC bus voltage by regulating the DC bus voltage based on the total DC link load current; and inverting, with a respective plurality of inverters (111 to 114), the DC bus voltage into a respective plurality of other AC voltages to drive the respective plurality of loads (120 to 123) on the hybrid electric vehicle, characterised in that the method further comprises the steps of: estimating a change in the DC bus voltage with respect to time; controlling, with a current command, the total DC link load current based on an estimated change in the DC bus voltage with respect to time; and reducing the change in the DC bus voltage with respect to time based on the current command. estimating a change in the DC bus voltage with respect to time; controlling, with a current command, the total DC link load current based on an estimated change in the DC bus voltage with respect to time; and reducing the change in the DC bus voltage with respect to time based on the current command.
A method for configuring and searching high speed shared control channels HS-SCCHs, in a multi-carrier cell, which is applied to a Time Division Synchronization Code Division Multiple Access system, and the method comprises the following steps: (a) a network side configures the configuration information of a high speed shared control channel, HS-SCCH, set for a mobile terminal UE and notifies the UE through a high layer signaling, wherein the configuration information includes the information about the frequency points of high speed shared resources to which each HS-SCCH corresponds; (b) after receiving the high layer signaling, the UE saves the HS-SCCH set, and divides it into several HS-SCCH subsets, wherein HS-SCCHs corresponding to a same frequency point constitute a HS-SCCH subset. (c) when the UE searches the HS-SCCHs, it first selects a minimum value represented as N from the number of carriers supported by the UE itself and the number of HS-SCCH subsets, and adds all HS-SCCH subsets into a group of HS-SCCH subsets to be searched; (d) the UE searches each HS-SCCH subset to be searched in turn, and if the UE finds a HS-SCCH being consistent with its own identification in a subset, then it stops searching other HS-SCCHs in the subset, the UE moves the subset out of the group of the HS-SCCH subsets to be searched, and adds found HS-SCCH into a valid HS-SCCH set, and monitors all HS-SCCHs in the valid HS-SCCH set; and (e) the UE judges whether the number of the HS-SCCHs in the valid HS-SCCH set equals to N or not, if not, returning to step (d), and if yes, stops searching and ends the method. (a) a network side configures the configuration information of a high speed shared control channel, HS-SCCH, set for a mobile terminal UE and notifies the UE through a high layer signaling, wherein the configuration information includes the information about the frequency points of high speed shared resources to which each HS-SCCH corresponds; (b) after receiving the high layer signaling, the UE saves the HS-SCCH set, and divides it into several HS-SCCH subsets, wherein HS-SCCHs corresponding to a same frequency point constitute a HS-SCCH subset. (c) when the UE searches the HS-SCCHs, it first selects a minimum value represented as N from the number of carriers supported by the UE itself and the number of HS-SCCH subsets, and adds all HS-SCCH subsets into a group of HS-SCCH subsets to be searched; (d) the UE searches each HS-SCCH subset to be searched in turn, and if the UE finds a HS-SCCH being consistent with its own identification in a subset, then it stops searching other HS-SCCHs in the subset, the UE moves the subset out of the group of the HS-SCCH subsets to be searched, and adds found HS-SCCH into a valid HS-SCCH set, and monitors all HS-SCCHs in the valid HS-SCCH set; and (e) the UE judges whether the number of the HS-SCCHs in the valid HS-SCCH set equals to N or not, if not, returning to step (d), and if yes, stops searching and ends the method.
Sealing device for sealing a passage for a medical instrument, with: a fastening area for fastening the sealing device on a tube or another medical appliance; a sealing area (31, 34) which is at least either designed to bear on the circumference of a medical instrument inserted into the sealing device or is designed to close the sealing device when no medical instrument is inserted into the sealing device; a first elastic wall enclosing the sealing area in a ring shape, with an annular first edge, which is connected to the sealing area (31, 34), and an annular second edge; a second elastic wall which encloses the first wall in a ring shape and is spaced apart therefrom, with an annular first edge and an annular second edge, which is connected to the fastening area; an annular transition area, which connects the second edge of the first wall to the first edge of the second wall, wherein the transition area has a wall thickness greater than the first wall and greater than the second wall, wherein the first wall and the second wall are parallel to each other or enclose an angle not greater than 20 degrees. a fastening area for fastening the sealing device on a tube or another medical appliance; a sealing area (31, 34) which is at least either designed to bear on the circumference of a medical instrument inserted into the sealing device or is designed to close the sealing device when no medical instrument is inserted into the sealing device; a first elastic wall enclosing the sealing area in a ring shape, with an annular first edge, which is connected to the sealing area (31, 34), and an annular second edge; a second elastic wall which encloses the first wall in a ring shape and is spaced apart therefrom, with an annular first edge and an annular second edge, which is connected to the fastening area; an annular transition area, which connects the second edge of the first wall to the first edge of the second wall, wherein the transition area has a wall thickness greater than the first wall and greater than the second wall, wherein the first wall and the second wall are parallel to each other or enclose an angle not greater than 20 degrees.
Filter apparatus with a filter housing comprising a filter head and a filter bowl and with a filter element received therein, said filter element separating an unfiltered medium side from a filtrate side, and with a differential pressure measurement device, which at least displays a blockage of the filter element during filtration operation and which comprises a measurement piston that can be displaced longitudinally in a measurement housing, the pressure on the unfiltered medium side at any moment in time being applied to one end face of said piston and the pressure on the filtrate side at any moment in time being applied to the opposite end face of said piston, said piston passing into the measurement housing by means of at least one channel duct (57, 61, 65, 89) in each case, at least one part (57, 61) of the channel duct being arranged in an element cap of the filter element, and the part (57, 61) of the channel duct that is arranged in the element cap ending with one free end on the unfiltered medium side of the filter element, characterised in that the part (57, 61) of the channel duct that is arranged in the element cap ends with its other free end in a collection chamber, which protrudes from the outer circumference of the element cap and is delimited on opposite end faces in a sealing manner by a lid part arranged on the upper side of the filter head such that it can be removed on the one hand and on the other hand at the bottom by wall parts of the filter head; in that the collection chamber forms part of the channel duct; and in that, on the upper side opposite the wall part, the collection chamber is delimited by the housing lid part, which comprises a radial projection which extends over a radially protruding wall part forming the side wall of the collection chamber.
A pharmaceutical composition comprising a water-soluble polymer matrix in which are dispersed droplets of oil, the composition comprising an antigenic substance which substance comprises a killed microorganism or a modified-live microorganism, wherein the composition further comprises an adjuvant and wherein the adjuvant is a ceramide.
A method for manufacturing an engine component, comprising the steps of: providing a first portion of an intermediate component article, the first portion comprising a first material; subjecting the first portion of the intermediate component article to a heat treatment; forming, after the subjecting step, a second portion of the intermediate component article on the first portion of the intermediate component article with an additive manufacturing technique, the second portion comprising a second material; forming a third portion of the intermediate component article on the first portion of the intermediate component article, the third portion comprising a third material; and subjecting first and second portions (250, 270) of the intermediate component article to a heat treatment prior to the step of forming the third portion of the intermediate component article; finishing the intermediate component article to form the engine component; wherein the engine component is a turbine component, and wherein the providing step includes providing a blade portion as the first portion, the forming the second portion includes providing a tip portion as the second portion, and the forming the third portion includes providing an attachment portion as the third portion. providing a first portion of an intermediate component article, the first portion comprising a first material; subjecting the first portion of the intermediate component article to a heat treatment; forming, after the subjecting step, a second portion of the intermediate component article on the first portion of the intermediate component article with an additive manufacturing technique, the second portion comprising a second material; forming a third portion of the intermediate component article on the first portion of the intermediate component article, the third portion comprising a third material; and subjecting first and second portions (250, 270) of the intermediate component article to a heat treatment prior to the step of forming the third portion of the intermediate component article; finishing the intermediate component article to form the engine component; wherein the engine component is a turbine component, and wherein the providing step includes providing a blade portion as the first portion, the forming the second portion includes providing a tip portion as the second portion, and the forming the third portion includes providing an attachment portion as the third portion.
A process for manufacturing an energy cable comprising at least one conductor and at least one polymeric coating layer, said process comprising: - by a kneader, compounding a polypropylene matrix and a dielectric fluid to obtain a polymeric mixture; - raising flow pressure of said polymeric mixture; - filtering said polymeric mixture; - causing said polymeric mixture to flow through an extrusion head to produce said coating layer on said conductor; and - cooling said cable, such that the raised flow pressure enables extrusion at a flow rate greater than 100 kg/h. - by a kneader, compounding a polypropylene matrix and a dielectric fluid to obtain a polymeric mixture; - raising flow pressure of said polymeric mixture; - filtering said polymeric mixture; - causing said polymeric mixture to flow through an extrusion head to produce said coating layer on said conductor; and - cooling said cable,