mhurhangee/ep-ind-claims huggingface dataset:
A method for the measurement or detection of sialylated sugar chains composed of the glycoproteins, glycopeptides, glycolipids, sugar precursors, or oligosaccharides having sialic acid sugar chains, which comprises the following steps: (a) contacting the test sample with an active recombinant lectin PSL1b; and (b) analyzing the glycoproteins, glycopeptides, glycolipids, sugar precursors, or oligosaccharides binding to the lectin above, wherein the active recombinant lectin PSL1b is composed of the amino acid sequence represented by SEQ. ID. NO: 2, SEQ. ID. NO: 6, or SEQ. ID. NO: 10 and binds specifically to the following sialic acid sugar chains: sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal or Glc residue; sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→4)Glc or Glc(β1→4)Glc residue; sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→4)GlcNAc or Gal(β1→3)GlcNAc residue; sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→3)[αFuc(1→4)]GlcNAc residue; and sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→4)[αFuc(1→3)]GlcNAc. (a) contacting the test sample with an active recombinant lectin PSL1b; and (b) analyzing the glycoproteins, glycopeptides, glycolipids, sugar precursors, or oligosaccharides binding to the lectin above, sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal or Glc residue; sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→4)Glc or Glc(β1→4)Glc residue; sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→4)GlcNAc or Gal(β1→3)GlcNAc residue; sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→3)[αFuc(1→4)]GlcNAc residue; and sialylated sugar chain wherein NeuAc or NeuGc(α2→6) is added to Gal(β1→4)[αFuc(1→3)]GlcNAc.
An electrode, comprising: an electrode composition comprising carbon nanotubes; carbon black particles having a Brunauer-Emmett-Teller surface area greater than 90 m 2 /g, an oil adsorption number greater than 150 mL/100g, and a surface energy less than 5 mJ/m 2,wherein the ratio of the carbon nanotubes to the carbon black particles ranges from 3:1 to 0.25:1 by weight; and an electroactive material selected from the group consisting of lithium nickel cobalt manganese oxide and lithium nickel cobalt aluminum oxide, wherein the total concentration of the carbon nanotubes and the carbon black particles is equal to or less than 3 wt% of the electrode composition; and a current collector contacting the electrode composition. an electrode composition comprising carbon nanotubes; carbon black particles having a Brunauer-Emmett-Teller surface area greater than 90 m 2 /g, an oil adsorption number greater than 150 mL/100g, and a surface energy less than 5 mJ/m 2,wherein the ratio of the carbon nanotubes to the carbon black particles ranges from 3:1 to 0.25:1 by weight; and an electroactive material selected from the group consisting of lithium nickel cobalt manganese oxide and lithium nickel cobalt aluminum oxide, carbon nanotubes; carbon black particles having a Brunauer-Emmett-Teller surface area greater than 90 m 2 /g, an oil adsorption number greater than 150 mL/100g, and a surface energy less than 5 mJ/m 2,wherein the ratio of the carbon nanotubes to the carbon black particles ranges from 3:1 to 0.25:1 by weight; and an electroactive material selected from the group consisting of lithium nickel cobalt manganese oxide and lithium nickel cobalt aluminum oxide, wherein the total concentration of the carbon nanotubes and the carbon black particles is equal to or less than 3 wt% of the electrode composition; and a current collector contacting the electrode composition.
A toner refill cartridge, comprising: a body including a toner chamber to contain toner and a toner discharging portion having an entrance connected to one end of the toner chamber in a length direction and an exit to discharge toner outside of the toner refill cartridge; a plunger including a piston movably inserted into the toner chamber in the length direction and a packing member located at an end of the piston to push the toner toward the toner discharging portion; characterized by a weight part movable in the toner chamber and having a shape which prevents the weight part from passing through the entrance; and a weight part container provided in the one end of the toner chamber in the length direction to accommodate the weight part, wherein the weight part container includes a first weight part container partitioned from the entrance and having a first depth which extends in the length direction from the entrance to a bottom of the first weight part container, wherein the first weight part container is partitioned from the toner discharging portion via a barrier. a body including a toner chamber to contain toner and a toner discharging portion having an entrance connected to one end of the toner chamber in a length direction and an exit to discharge toner outside of the toner refill cartridge; a plunger including a piston movably inserted into the toner chamber in the length direction and a packing member located at an end of the piston to push the toner toward the toner discharging portion; characterized by a weight part movable in the toner chamber and having a shape which prevents the weight part from passing through the entrance; and a weight part container provided in the one end of the toner chamber in the length direction to accommodate the weight part, wherein the weight part container includes a first weight part container partitioned from the entrance and having a first depth which extends in the length direction from the entrance to a bottom of the first weight part container, wherein the first weight part container is partitioned from the toner discharging portion via a barrier.
A process-critical device with a first and a second network controller (12a, 12b) adapted to be connected over a respective first and second port (13a, 13b) to two switches (2, 3) in a communication network of a process control system, the device comprises a Link Redundancy Entity, LRE, adapted to: implement, by the LRE, a relaying function in the communication network that relays data frames between the first and second port (13a, 13b) only in case the critical device is part of the last working communication connection between the two switches (2, 3), and implement a subset of the Rapid Spanning Tree Protocol, RSTP, without providing relaying functionality between the first and second port (13a, 13b) in case there is a working communication between the two switches (2, 3). implement, by the LRE, a relaying function in the communication network that relays data frames between the first and second port (13a, 13b) only in case the critical device is part of the last working communication connection between the two switches (2, 3), and implement a subset of the Rapid Spanning Tree Protocol, RSTP, without providing relaying functionality between the first and second port (13a, 13b) in case there is a working communication between the two switches (2, 3).
A sensor, comprising: at least one sensing device comprising a first electrode and a second electrode, and a gap defined as a distance between one or more facing inner surfaces of the first and second electrodes, wherein a change in the gap length provides a change in capacitance and/or resistance in order to sense a parameter related to the change in the gap length; a resonant circuit comprising an antenna and the sensing device; an RFID tag incorporating a memory chip and the resonant circuit, wherein the resonant circuit is operable to provide energy for accessing the memory chip of the RFID tag; and wherein; said change in capacitance and/or resistance is translated into a change of the resonant frequency of the resonant circuit, such that the RFID tag is energised sufficiently for the memory chip to be accessed only if the resonant frequency lies within the RFID tag's operable frequency range. at least one sensing device comprising a first electrode and a second electrode, and a gap defined as a distance between one or more facing inner surfaces of the first and second electrodes, wherein a change in the gap length provides a change in capacitance and/or resistance in order to sense a parameter related to the change in the gap length; a resonant circuit comprising an antenna and the sensing device; an RFID tag incorporating a memory chip and the resonant circuit, wherein the resonant circuit is operable to provide energy for accessing the memory chip of the RFID tag; and wherein; said change in capacitance and/or resistance is translated into a change of the resonant frequency of the resonant circuit, such that the RFID tag is energised sufficiently for the memory chip to be accessed only if the resonant frequency lies within the RFID tag's operable frequency range.
A razor blade having a symmetrical tapering blade edge ending in a substrate tip, the razor blade comprising a substrate, wherein the substrate has a thickness comprised between 1.30 micrometers and 2.00 micrometers measured at a distance of 5 micrometers from the substrate tip, a thickness comprised between 4.00 micrometers and 6.00 micrometers measured at a distance of 20 micrometers from the substrate tip,a thickness comprised between 8.00 micrometers and 11.50 micrometers measured at a distance of 40 micrometers from the substrate tip, and a thickness comprised between 41.70 micrometers and 47.00 micrometers measured at a distance of 250 micrometers from the substrate tip.
Tyre comprising a tread band on which a plurality of grooves is provided, at least one block defined by said plurality of grooves, at least one sipe of complex shape provided on said at least one block defining a first and a second block portion separated from each other by said sipe, as well as a first and a second surface, respectively, on said first and second block portion, facing each other in the region of said sipe of complex shape, each of said first and second surface extending along a plane of reference incident to a tread surface radially external to said tread band, a longitudinal direction, substantially parallel with said tread surface, and a transverse direction substantially perpendicular to said longitudinal direction, being defined in said plane of reference, wherein on at least one of said first and second surface at least one first protuberance is provided, the projection of which in said transverse direction is at least partially superimposed on the projection in said transverse direction of the other of said first and second surface, and the vertex of which is positioned at a first depth from said tread surface measured in said transverse direction, said vertex being connected to said plane of reference via a first connecting surface facing towards a radially outer side of said sipe and a second connecting surface facing towards a radially inner side of said sipe, said first connecting surface being inclined with respect to said plane of reference at an angle of between about 50° and about 90° and said second connecting surface being inclined with respect to said plane of reference at an angle of between about 0° and about 50°, on said at least one of said first and second surface being provided at least one first recess, aligned with said first protuberance in said transverse direction and positioned at a second depth from said tread surface, measured in said transverse direction, smaller than said first depth, characterised in that the vertex of said first protuberance is more spaced from said plane of reference than a vertex of said first recess.
A detection reagent for an analyte comprising an NO x group, wherein the detection reagent comprises an arylamine and a structural formula of the arylamine is selected from structural formula 1: wherein R 1 is selected from CO 2 X or PhCO 2 X with X = vinyl, allyl, homoallyl or aryl or R 1 stands for C NX 2 or PhC NX 2, with X = H, alkyl, perfluoroalkyl, vinyl, allyl, homoallyl or aryl; R 2, R 3, R 4, and/or R 5 are selected independently of one another from H, F, an alkyl or an aryl; and R 6 is selected from an aryl. R 1 is selected from CO 2 X or PhCO 2 X with X = vinyl, allyl, homoallyl or aryl or R 1 stands for C NX 2 or PhC NX 2, with X = H, alkyl, perfluoroalkyl, vinyl, allyl, homoallyl or aryl; R 2, R 3, R 4, and/or R 5 are selected independently of one another from H, F, an alkyl or an aryl; and R 6 is selected from an aryl.
Process for preparing lithium fluoride, comprising at least the steps of: a) providing an aqueous medium comprising dissolved lithium carbonate, where the solid lithium carbonate used for the provision has a purity level of 98.0 to 99.8% by weight based on the anhydrous product, b) reacting the aqueous medium provided in a) with gaseous hydrogen fluoride to give an aqueous suspension of solid lithium fluoride, c) separating the solid lithium fluoride from the aqueous suspension, d) drying the separated lithium fluoride. a) providing an aqueous medium comprising dissolved lithium carbonate, where the solid lithium carbonate used for the provision has a purity level of 98.0 to 99.8% by weight based on the anhydrous product, b) reacting the aqueous medium provided in a) with gaseous hydrogen fluoride to give an aqueous suspension of solid lithium fluoride, c) separating the solid lithium fluoride from the aqueous suspension, d) drying the separated lithium fluoride.
A door assembly for an aircraft interior, the door assembly comprising: a door for opening and closing an aperture between zones (12, 14) of the aircraft interior, wherein the door comprises a main portion, a pressure-relief element cooperating with the main portion in opening and closing the aperture between the zones (12, 14) of the aircraft interior and forming at least a portion of the door, the pressure-relief element being retained by a magnetic force calibrated to permit release of the pressure-relief element upon presence of a predetermined pressure differential across the pressure-relief element; and an interface configured to couple the door to the aircraft interior, wherein the pressure-relief element is coupled to the interface by the calibrated magnetic force. a door for opening and closing an aperture between zones (12, 14) of the aircraft interior, wherein the door comprises a main portion, a pressure-relief element cooperating with the main portion in opening and closing the aperture between the zones (12, 14) of the aircraft interior and forming at least a portion of the door, the pressure-relief element being retained by a magnetic force calibrated to permit release of the pressure-relief element upon presence of a predetermined pressure differential across the pressure-relief element; and an interface configured to couple the door to the aircraft interior, wherein the pressure-relief element is coupled to the interface by the calibrated magnetic force.
Sliding window comprising: a) an outer frame formed from outer frame profiles, b) a sash which has sash frame profiles (10, 11, 12, 13), can be opened out parallel relative to the outer frame and is displaceable parallel to the outer frame in a position in which said sash is opened out parallel, c) wherein an upper fitting having two links (23, 24) is provided between the sash and outer frame, and d) a lower fitting having two links (21, 22) which are coupled to one another is provided between the sash and outer frame, e) wherein a first upper link and a first lower link are connected to one another via a spindle arranged on a sash frame profile of the sash, characterized in that f) a second upper link and a second lower link are articulated at a spacing from a lateral sash frame profile on an upper and lower sash frame profile (12, 13) respectively, wherein the spacing of a spindle of the second links (22, 24) on the upper and lower sash frame profile (12, 13) from an outer edge of the lateral vertical sash frame profile is greater than the length of the second links (22, 24). a) an outer frame formed from outer frame profiles, b) a sash which has sash frame profiles (10, 11, 12, 13), can be opened out parallel relative to the outer frame and is displaceable parallel to the outer frame in a position in which said sash is opened out parallel, c) wherein an upper fitting having two links (23, 24) is provided between the sash and outer frame, and d) a lower fitting having two links (21, 22) which are coupled to one another is provided between the sash and outer frame, e) wherein a first upper link and a first lower link are connected to one another via a spindle arranged on a sash frame profile of the sash, characterized in that f) a second upper link and a second lower link are articulated at a spacing from a lateral sash frame profile on an upper and lower sash frame profile (12, 13) respectively, wherein the spacing of a spindle of the second links (22, 24) on the upper and lower sash frame profile (12, 13) from an outer edge of the lateral vertical sash frame profile is greater than the length of the second links (22, 24).
Converter for a three-phase voltage with - three electrically delta-connected series circuits (R1, R2, R3), each of which comprises at least two switching modules connected in series and an inductance, and - a control apparatus connected to the switching modules, which control apparatus is configured to operate the switching modules such that branch currents with the fundamental frequency of the three-phase voltage and with at least one additional current harmonic flow in the series circuits (R1, R2, R3), wherein the additional current harmonic is dimensioned such that it flows in a closed loop in the series circuits (R1, R2, R3) of the converter, and remains within the converter, characterized in that - an energy swing (ΔW) of the series circuit is the difference between the maximum and minimum branch energies during a mains period in said series circuit, - the additional current harmonics are the third and the ninth harmonic and the magnitude and phase of the additional harmonic currents are dimensioned such that the energy swing (ΔW) in each of the series circuits (R1, R2, R3) is smaller than without the additional harmonic currents. - three electrically delta-connected series circuits (R1, R2, R3), each of which comprises at least two switching modules connected in series and an inductance, and - a control apparatus connected to the switching modules, which control apparatus is configured to operate the switching modules such that branch currents with the fundamental frequency of the three-phase voltage and with at least one additional current harmonic flow in the series circuits (R1, R2, R3), wherein the additional current harmonic is dimensioned such that it flows in a closed loop in the series circuits (R1, R2, R3) of the converter, and remains within the converter, - an energy swing (ΔW) of the series circuit is the difference between the maximum and minimum branch energies during a mains period in said series circuit, - the additional current harmonics are the third and the ninth harmonic and the magnitude and phase of the additional harmonic currents are dimensioned such that the energy swing (ΔW) in each of the series circuits (R1, R2, R3) is smaller than without the additional harmonic currents.
Plug-in piece comprising a sleeve-shaped support part which is made of a tough material and has in the axial direction a first sealing bead on a first end face and a second sealing bead on a second end face, wherein the first sealing bead and the second sealing bead are formed from a rubber-elastic material, characterized in that the support part is formed in two parts and comprises a first sub-support part and a second sub-support part, each being sleeve-shaped and disposed so as to be mutually adjacent and axially spaced apart, in that the first sub-support part is connected to the first sealing bead and the second sub-support part is connected to the second sealing bead and in that a rubber-elastic intermediate piece which connects the two sub-support parts (5, 6) to one another in an elastically resilient manner is disposed in the gap formed by the axial spacing of the first sub-support part and the second sub-support part, wherein the first sub-support part and the second sub-support part each have on their axially facing end faces (10, 11) a collar (13, 14) which extends outwards in the radial direction and has a radial height (15, 16), wherein the intermediate piece completely covers the respective collar (13, 14) of the sub-support parts (5, 6) in the radial direction and comprises a substantially U-shaped constriction which is open radially towards the outside, wherein a support ring is disposed in the constriction.
A method for monitoring a composite structure during manufacture thereof, the method comprising: providing the composite structure; embedding an optical fiber within the composite structure in an uncured state, the optical fiber including a plurality of quantum dots, the plurality of quantum dots being configured to create a nonlinear effect in response to a defect in the composite material; providing signals from a signal source to the optical fiber for propagation there along until the composite structure achieves a cured state, the signal source being configured to provide two distinct input frequencies v 1 and v 2, wherein at least one of v 1, v 2, v 1 + v 2 or v 1 -v 2 is resonant with one or more material parameters of the optical fiber; detecting signals that exit the optical fiber until the composite structure achieves the cured state; identifying the presence of a non-linear effect in the detected signal; and identifying a defect in the composite structure in response to identifying the presence of the non-linear effect. providing the composite structure; embedding an optical fiber within the composite structure in an uncured state, the optical fiber including a plurality of quantum dots, the plurality of quantum dots being configured to create a nonlinear effect in response to a defect in the composite material; providing signals from a signal source to the optical fiber for propagation there along until the composite structure achieves a cured state, the signal source being configured to provide two distinct input frequencies v 1 and v 2, wherein at least one of v 1, v 2, v 1 + v 2 or v 1 -v 2 is resonant with one or more material parameters of the optical fiber; detecting signals that exit the optical fiber until the composite structure achieves the cured state; identifying the presence of a non-linear effect in the detected signal; and identifying a defect in the composite structure in response to identifying the presence of the non-linear effect.