mhurhangee/ep-ind-claims huggingface dataset:
A stable aqueous palivizumab formulation comprising, (a) in water, 103 ± 3 mg/ml of palivizumab, 25 mM histidine, and 1.6 mM glycine, wherein the formulation has a pH of 6.0 and the formulation is stable at 2oC to 8oC for 15 months as determined by high performance size exclusion chromatography (HPSEC). (b) in an aqueous carrier, at least 75 mg/ml of palivizumab or an antigen-binding fragment thereof, 20 mM to 30 mM histidine, and less than 3 mM glycine, wherein the formulation is stable at 38oC to 42oC for at least 60 days as determined by HPSEC. (a) in water, 103 ± 3 mg/ml of palivizumab, 25 mM histidine, and 1.6 mM glycine, wherein the formulation has a pH of 6.0 and the formulation is stable at 2oC to 8oC for 15 months as determined by high performance size exclusion chromatography (HPSEC). (b) in an aqueous carrier, at least 75 mg/ml of palivizumab or an antigen-binding fragment thereof, 20 mM to 30 mM histidine, and less than 3 mM glycine, wherein the formulation is stable at 38oC to 42oC for at least 60 days as determined by HPSEC.
A method for scalable improvement of the quality of an encoding method, in which the Subband Adaptive Differential Pulse Code Modulation (SB-ADPCM) for encoding audio signals pursuant to IT-U Recommendation G.722 is used, comprising the following method steps, - comparing a digital error signal (e H), derived from an input signal to be encoded and a prognosis signal, in sections to a number of M*L N different reference signals c(n) in an iterative process having a number of repeated steps depending on a scope of an expansion, and deriving from said comparison a reference signal having a minimum error signal with respect to a prescribed error criterion, - each of the reference signals c(n) is made up of equidistant Dirac impulses δ(n) according to the formula c n = ∑ p = 0 N - 1 α p ⋅ δ ⁢ n - off - M ⋅ p wherein off = [0.. M-1] indicates the distance of the first impulse from the beginning of the comparison segment, α P ∈{α 0,α 1,···,α L -1} indicates the amplitude value, M the distance between two individual pulses, N the number of pulses, L the number of different levels α; transmitting the information (I Himin,... I HSmin) about the reference signal with the minimum error signal. - comparing a digital error signal (e H), derived from an input signal to be encoded and a prognosis signal, in sections to a number of M*L N different reference signals c(n) in an iterative process having a number of repeated steps depending on a scope of an expansion, and deriving from said comparison a reference signal having a minimum error signal with respect to a prescribed error criterion, - each of the reference signals c(n) is made up of equidistant Dirac impulses δ(n) according to the formula c n = ∑ p = 0 N - 1 α p ⋅ δ ⁢ n - off - M ⋅ p wherein off = [0.. M-1] indicates the distance of the first impulse from the beginning of the comparison segment, α P ∈{α 0,α 1,···,α L -1} indicates the amplitude value, M the distance between two individual pulses, N the number of pulses, L the number of different levels α; transmitting the information (I Himin,... I HSmin) about the reference signal with the minimum error signal.
A method for constructing an FLNG or FSRU, the method comprising: (a) separating a first existing LNG carrier to form a forward section and an aft section; (b) fabricating a structural block prior to separating the first existing LNG carrier, the structural block includes a gas process facility, the gas process facility includes a regasification plant or a liquefaction plant; (c) placing the said structural block into a space between the forward section and the aft section, the structural block having a front end and a rear end; (d) joining the forward section to the front end of the structural block and joining the aft section to the rear end of the structural block to form a new integrated vessel; and (e) placing at least one sponson on a side of the new integrated vessel. (a) separating a first existing LNG carrier to form a forward section and an aft section; (b) fabricating a structural block prior to separating the first existing LNG carrier, the structural block includes a gas process facility, the gas process facility includes a regasification plant or a liquefaction plant; (c) placing the said structural block into a space between the forward section and the aft section, the structural block having a front end and a rear end; (d) joining the forward section to the front end of the structural block and joining the aft section to the rear end of the structural block to form a new integrated vessel; and (e) placing at least one sponson on a side of the new integrated vessel.
A method for controlling activation of a component on an electronic device, comprising: in a dormant state monitoring for an activation event that represents an activation activity for the electronic device; and progressing to a movement processing state from the dormant state, upon receipt of the activation event, and in the movement processing state, starting a first timer; and streaming movement data from a motion detection circuit in the electronic device to a microprocessor in the electronic device for only the duration of the first timer, analyzing the movement data for a further movement of the electronic device and if the movement data matches a profile for an activation movement for the electronic device then activating the component on the electronic device, wherein a second timer is started when the further movement is detected providing a time window for matching the profile wherein the dormant state had been entered when the electronic device was either turned off, placed in a holster or connected to a docking station; and the activation event is one of activation of a key on the electronic device, detection of removal of the electronic device from the holster or detection of removal of the electronic device from the docking station. in a dormant state monitoring for an activation event that represents an activation activity for the electronic device; and progressing to a movement processing state from the dormant state, upon receipt of the activation event, and in the movement processing state, starting a first timer; and streaming movement data from a motion detection circuit in the electronic device to a microprocessor in the electronic device for only the duration of the first timer, analyzing the movement data for a further movement of the electronic device and if the movement data matches a profile for an activation movement for the electronic device then activating the component on the electronic device, wherein a second timer is started when the further movement is detected providing a time window for matching the profile wherein the dormant state had been entered when the electronic device was either turned off, placed in a holster or connected to a docking station; and the activation event is one of activation of a key on the electronic device, detection of removal of the electronic device from the holster or detection of removal of the electronic device from the docking station.
A high pressure plate heat exchanger comprising an angular plate packet which is arranged in a pressure chamber provided by a housing, wherein the plate packet is formed by a plurality of individual plates connected to each other to form a plate stack, wherein the plate packet comprises first and second channels (K1, K2) through which media (M1, M2) can flow, which first and second channels (K1, K2) are arranged in cross current and are formed as tubes between individual plates that are connected to each other to form a pair of plates for the first medium and are formed like waves between pairs of plates that are connected to each other to form a plate stack for the second medium, wherein the tubular channels are formed in parallel to the longitudinal edges of the individual plates and the individual plates are connected to each other along the longitudinal edges thereof to form pairs of plates and the pairs of plates are connected to each other along their edges extending transversely with respect to the longitudinal edges of the individual plates to form a plate stack, wherein the tube side serves as pressure side for the first medium and the wave side serves as pressure side for the second medium, wherein the housing comprises flange covers (8, 9) which are connected on the tube side of the plate packet and which are at least partially spherical, characterized in that at least one of the flange covers (8, 9) comprises an angular opening for receiving the plate packet, wherein an edge of the flange cover (8, 9), which forms the opening, extends in a curved manner from the corners of the opening, wherein the plate packet is directly attached to the flange cover (8, 9), wherein at least one end of the plate packet directly leads into the opening of the flange cover (8, 9).
A compressor comprising: a sealed casing (1, 1001), a compression element (2, 1002) placed in the sealed casing (1, 1001), and a motor (3, 1003) that is placed in the sealed casing (1, 1001) to drive the compression element (2, 1002) through a shaft, the motor (3, 1003) comprising a rotor (6, 1006) and a stator (5, 1005) placed on radial outside of the rotor (6, 1006), spaces on radial inside of the stator (5, 1005) being used as a delivery passage through which refrigerant gas discharged from the compression element (2, 1002) into the sealed casing (1, 1001) and lubricating oil in the sealed casing (1, 1001) flow in a direction opposite to the compression element (2, 1002) with respect to the motor (3, 1003), spaces on radial outside of the stator (5, 1005) being used as a return passage through which the lubricating oil in the sealed casing (1, 1001) is returned toward the compression element (2, 1002) with respect to the motor (3, 1003), and wherein the compression element comprises a support part for supporting the shaft, the support part comprising an oil discharge port for discharging the lubricating oil supplied into between the support part and the shaft, to outside of the support part, and characterised in that: the stator comprises a stator core, coils wound on the stator core, and guide parts placed on radial outside of the coils, and the guide parts guide, toward radial inside of the stator, the lubricating oil discharged from the oil discharge port of the support part and the refrigerant gas discharged from the compression element into the sealed casing. a sealed casing (1, 1001), a compression element (2, 1002) placed in the sealed casing (1, 1001), and a motor (3, 1003) that is placed in the sealed casing (1, 1001) to drive the compression element (2, 1002) through a shaft, the stator comprises a stator core, coils wound on the stator core, and guide parts placed on radial outside of the coils, and the guide parts guide, toward radial inside of the stator, the lubricating oil discharged from the oil discharge port of the support part and the refrigerant gas discharged from the compression element into the sealed casing.
A fire resistant structure comprising: a foam material located between a first facing and a second facing, wherein the foam material is selected from a polyurethane foam, a polyisocyanurate foam, a phenolic foam, or combinations thereof; and a geopolymer-aerogel composite layer between the foam material and the first facing, wherein the geopolymer-aerogel composite layer is formed by curing a geopolymer precursor-aerogel composition including an aluminosilicate reactant, an alkaline activator, a silica aerogel additive, and a continuous medium. a foam material located between a first facing and a second facing, wherein the foam material is selected from a polyurethane foam, a polyisocyanurate foam, a phenolic foam, or combinations thereof; and a geopolymer-aerogel composite layer between the foam material and the first facing, wherein the geopolymer-aerogel composite layer is formed by curing a geopolymer precursor-aerogel composition including an aluminosilicate reactant, an alkaline activator, a silica aerogel additive, and a continuous medium.
An automotive accelerator comprising: a sensor (5, 6B) configured to detect a force to press the accelerator, wherein the sensor (5, 6B) includes: a flexible substrate; a functional layer formed of metal, an alloy, or a metal compound, the functional layer being provided directly on one surface of the substrate; and a resistor (30, 30B) formed of a film containing Cr, CrN, and Cr 2 N, the resistor (30, 30B) being provided directly on one surface of the functional layer, wherein a portion of the material that constitutes the functional layer is diffused into the film containing Cr, CrN, and Cr 2 N, wherein a main component of the resistor (30, 30B) is α-Cr, wherein the functional layer includes a function of promoting crystal growth of the α-Cr and depositing a film of which a main component is α-Cr, and wherein the sensor (5, 6B) is configured to detect the force to press the accelerator as a change in a resistance value of the resistor (30, 30B). a sensor (5, 6B) configured to detect a force to press the accelerator, wherein the sensor (5, 6B) includes: a flexible substrate; a functional layer formed of metal, an alloy, or a metal compound, the functional layer being provided directly on one surface of the substrate; and a resistor (30, 30B) formed of a film containing Cr, CrN, and Cr 2 N, the resistor (30, 30B) being provided directly on one surface of the functional layer, wherein a portion of the material that constitutes the functional layer is diffused into the film containing Cr, CrN, and Cr 2 N, a flexible substrate; a functional layer formed of metal, an alloy, or a metal compound, the functional layer being provided directly on one surface of the substrate; and a resistor (30, 30B) formed of a film containing Cr, CrN, and Cr 2 N, the resistor (30, 30B) being provided directly on one surface of the functional layer, wherein a portion of the material that constitutes the functional layer is diffused into the film containing Cr, CrN, and Cr 2 N, wherein a main component of the resistor (30, 30B) is α-Cr, wherein the functional layer includes a function of promoting crystal growth of the α-Cr and depositing a film of which a main component is α-Cr, and wherein the sensor (5, 6B) is configured to detect the force to press the accelerator as a change in a resistance value of the resistor (30, 30B).
A shaft assembly for use with a surgical system, wherein said shaft assembly comprises: a frame, comprising: a proximal portion configured to be mounted to the surgical system; and a tube extending distally from said proximal portion; an end effector, comprising: a first jaw; and a second jaw rotatably mounted to said first jaw, wherein said second jaw is rotatable between an open position and a closed position; a firing member operably engageable with a drive system of the surgical system; and a firing member retraction system configured to pull said firing member proximally; characterised by a spine, wherein said spine extends through said tube, wherein said spine is slidably mounted to said proximal portion, wherein said first jaw extends from said spine, and wherein said firing member is movable distally relative to said spine during a firing stroke; and an end effector opening system configured to slide said spine distally and allow said second jaw to rotate into said open position. a frame, comprising: a proximal portion configured to be mounted to the surgical system; and a tube extending distally from said proximal portion; a proximal portion configured to be mounted to the surgical system; and a tube extending distally from said proximal portion; an end effector, comprising: a first jaw; and a second jaw rotatably mounted to said first jaw, wherein said second jaw is rotatable between an open position and a closed position; a first jaw; and a second jaw rotatably mounted to said first jaw, wherein said second jaw is rotatable between an open position and a closed position; a firing member operably engageable with a drive system of the surgical system; and a firing member retraction system configured to pull said firing member proximally; characterised by a spine, wherein said spine extends through said tube, wherein said spine is slidably mounted to said proximal portion, wherein said first jaw extends from said spine, and wherein said firing member is movable distally relative to said spine during a firing stroke; and an end effector opening system configured to slide said spine distally and allow said second jaw to rotate into said open position.
An Ni-based superalloy for hot forging, having a component composition consisting of, in terms of % by mass, C: more than 0.001% and less than 0.100%, Cr: 11% or more and less than 19%, Co: more than 5% and less than 25%, Fe: 0.1% or more and less than 4.0%, Mo: more than 2.0% and less than 5.0%, W: more than 1.0% and less than 5.0%, Nb: 0.3% or more and less than 4.0%, Al: more than 3.0% and less than 5.0%, Ti: more than 1.0% and less than 3.4%, and Ta: 0.01% or more and less than 2.0%, and optionally, B: less than 0.03%, Zr: less than 0.1%, Mg: less than 0.030%, Ca: less than 0.030%, and REM: 0.200% or less, with the balance being unavoidable impurities and Ni, wherein, when a content of an element M in terms of atomic % is represented by, the component composition satisfies the following two relationships: 3.5 ≤ Ti + Nb + Ta / Al × 10 < 6.5 and 9.5 ≤ Al + Ti + Nb + Ta < 13.0. C: more than 0.001% and less than 0.100%, Cr: 11% or more and less than 19%, Co: more than 5% and less than 25%, Fe: 0.1% or more and less than 4.0%, Mo: more than 2.0% and less than 5.0%, W: more than 1.0% and less than 5.0%, Nb: 0.3% or more and less than 4.0%, Al: more than 3.0% and less than 5.0%, Ti: more than 1.0% and less than 3.4%, and Ta: 0.01% or more and less than 2.0%, and B: less than 0.03%, Zr: less than 0.1%, Mg: less than 0.030%, Ca: less than 0.030%, and REM: 0.200% or less,
A ventilator comprising a gas source, at least one gas line (9, 11, 12, 13), at least one control unit, and a patient line, and at least two valves (2, 3), wherein each of the valves comprises, at least indirectly, a connection to the ambient air (15, 16) and wherein the valves are arranged in the gas line or as part of the gas line, wherein the two valves (2, 3) are fluidically connected in series in at least one switching position and in at least one part of the gas line, wherein one of the valves is a switching valve and operates in a switching manner in such a way that insufflation of the patient is provided in a first switching position and exsufflation of the patient is provided in a second switching position, wherein one of the valves is an oscillation valve and operates in such a manner that, by opening and closing the valve stepwise, the flow resistance in the gas line between fan and patient can be varied, which results in oscillations of flow and pressure during insufflation and/or exsufflation, wherein the control unit is configured and designed to control the fan and/or to control the switching valve and/or to control the oscillation valve, wherein the oscillation valve is designed as a rotatably mounted valve, and in that the oscillation valve comprises an electrically driven motor having a stator and a valve body that is fastened to the rotor in a rotationally fixed manner, characterized in that the valve body comprises at least one opening (65, 64) in a radial direction and at least one opening in an axial direction, wherein the valve body of the oscillation valve comprises a wall region which, in one rotary position of the valve, at least partially closes or opens the opening (64, 65) that leads to the patient line or the opening that leads to the ambient air for a flow of breathing gas and, depending on the rotary position of the valve, at least one opening (63, 64, 65) of the valve thus enables a flow of breathing gas in the direction of the patient line or a flow of gas in the direction of the surroundings.
A process for preparing a protective layer of a base layer and a top layer on a substrate, wherein a) a coating composition comprising a binder component of a hydrolysate or condensate of one or more hydrolysable silicon compounds, wherein at least one hydrolysable silicon compound has at least one non-hydrolysable organic group, and a flexibilizing component of at least one linear inorganic polymer, is wet-chemically applied to the substrate and densified to form the base layer, and b) a coating composition comprising at least one basic alkali metal compound and a hydrolysate or condensate of one or more hydrolysable silicon compounds, wherein at least one hydrolysable silicon compound has at least one non-hydrolysable organic group, is wet-chemically applied to the base layer and densified to form the top layer. a) a coating composition comprising a binder component of a hydrolysate or condensate of one or more hydrolysable silicon compounds, wherein at least one hydrolysable silicon compound has at least one non-hydrolysable organic group, and a flexibilizing component of at least one linear inorganic polymer, is wet-chemically applied to the substrate and densified to form the base layer, and b) a coating composition comprising at least one basic alkali metal compound and a hydrolysate or condensate of one or more hydrolysable silicon compounds, wherein at least one hydrolysable silicon compound has at least one non-hydrolysable organic group, is wet-chemically applied to the base layer and densified to form the top layer.
A process for producing a zeolite film comprising: a particle adhesion step of allowing a slurry, where zeolite particles which become seeds are dispersed, to freely fall down on the base material by the self-weight of the slurry and then to flow on the surface of the base material by the self-weight of the slurry, so that the zeolite particles adhere to the base material; and a film formation step of immersing the base material, to which the zeolite particles adhere, into a sol to carry out hydrothermal synthesis, thereby forming the zeolite film on the base material. a particle adhesion step of allowing a slurry, where zeolite particles which become seeds are dispersed, to freely fall down on the base material by the self-weight of the slurry and then to flow on the surface of the base material by the self-weight of the slurry, so that the zeolite particles adhere to the base material; and a film formation step of immersing the base material, to which the zeolite particles adhere, into a sol to carry out hydrothermal synthesis, thereby forming the zeolite film on the base material.
An ultra-high-strength steel wire rod having excellent resistance to delayed fracture, the wire rod comprising, by wt%, 0.7-1.2% C, 0.25-0.5% Si, 0.5-0.8% Mn, 0.02-0.1% V, 0.02% or less P, 0.02% or less S, optionally 60ppm or less N and a balance of Fe and inevitable impurities, wherein the wire rod comprises V(C,N) precipitates and the average particle size of the V(C,N) precipitates is 30 nm or less, and the number of the V(C,N) precipitates is 1x10 9 /mm 2 or more and the wire rod has a pearlite structure having a lamellar spacing of 150∼300nm, in which the V(C,N) precipitates are distributed in the ferrite structure of the pearlite, and wherein the wire rod has diffusible hydrogen content 0.6∼0.9 ppm.