mhurhangee/ep-ind-claims huggingface dataset:
An organic light-emitting device comprising: an anode electrode; a cathode electrode; and an organic electroluminescent layer disposed between the anode electrode and the cathode electrode, the organic electroluminescent layer comprising a phosphorescent dopant and a host material comprising the following three different compounds: (a) an electron-transporting host compound having a triplet energy that is greater than the triplet energy of the phosphorescent dopant; (b) a hole-transporting host compound having a triplet energy that is greater than the triplet energy of the phosphorescent dopant, wherein the hole-transporting host compound is an organometallic complex; (c) a wide band gap host compound having a molecular weight of less than 2,000; wherein the wide band gap host compound has a band gap of at least 2.0 eV and a triplet energy that is greater than the triplet energy of the phosphorescent dopant. an anode electrode; a cathode electrode; and an organic electroluminescent layer disposed between the anode electrode and the cathode electrode, the organic electroluminescent layer comprising a phosphorescent dopant and a host material comprising the following three different compounds: (a) an electron-transporting host compound having a triplet energy that is greater than the triplet energy of the phosphorescent dopant; (b) a hole-transporting host compound having a triplet energy that is greater than the triplet energy of the phosphorescent dopant, wherein the hole-transporting host compound is an organometallic complex; (c) a wide band gap host compound having a molecular weight of less than 2,000; wherein the wide band gap host compound has a band gap of at least 2.0 eV and a triplet energy that is greater than the triplet energy of the phosphorescent dopant. (a) an electron-transporting host compound having a triplet energy that is greater than the triplet energy of the phosphorescent dopant; (b) a hole-transporting host compound having a triplet energy that is greater than the triplet energy of the phosphorescent dopant, wherein the hole-transporting host compound is an organometallic complex; (c) a wide band gap host compound having a molecular weight of less than 2,000; wherein the wide band gap host compound has a band gap of at least 2.0 eV and a triplet energy that is greater than the triplet energy of the phosphorescent dopant.
Shooting weapon, in particular air gun or fire arm, comprising a barrel arrangement having at least barrel element forming at least part of a barrel of the shooting weapon, and having a sound suppressor element which is attachable or is attached to the barrel element, wherein, for the attachment to the barrel element, the sound suppressor element is braced by means of at least one clamping element axially against at least one contact element which is formed integrally with the barrel element or is attached captively thereto, characterized in that the clamping element is attachable or attached within the sound suppressor element.
A trimmer blade comprising: a movable plate having a plurality of movable blades including a first movable blade, and a second movable blade adjacent to the first movable blade; and a fixed plate having a plurality of fixed blades including a first fixed blade, and a second fixed blade adjacent to the first fixed blade with a fixed blade groove interposed between the second fixed blade and the first fixed blade, characterized in that when at least one part of the first movable blade is located above the fixed blade groove, the second movable blade comes into contact with the first fixed blade, and until one part of one of blade edges, on a side opposite to the advancing direction of the first movable blade moves onto the first fixed blade, the second movable blade continues to be in contact with the first fixed blade. a movable plate having a plurality of movable blades including a first movable blade, and a second movable blade adjacent to the first movable blade; and a fixed plate having a plurality of fixed blades including a first fixed blade, and a second fixed blade adjacent to the first fixed blade with a fixed blade groove interposed between the second fixed blade and the first fixed blade, characterized in that when at least one part of the first movable blade is located above the fixed blade groove, the second movable blade comes into contact with the first fixed blade, and until one part of one of blade edges, on a side opposite to the advancing direction of the first movable blade moves onto the first fixed blade, the second movable blade continues to be in contact with the first fixed blade.
An osteotomy plate system for use in associated bone comprising a locking screw having distal threads and a head having external threads, a non-locking screw having distal threads and a head having a rounded surface, and a plate having first end and an opposing second end aligned along a longitudinal axis of the plate and joined by a middle section which has a width in the direction perpendicular to the longitudinal axis, the first end including a non-locking hole for the non-locking screw, and the second end including a locking hole for the locking screw, a third screw having a longitudinal axis and wherein the plate further includes a third screw hole, wherein the third screw hole does not including internal threads, characterized in that the first end terminates in a cutting edge and the third screw hole defines a screw hole axis that forms an angle which is oblique with respect to the longitudinal axis of the plate, wherein the third screw hole further includes a shroud.
A compound comprising (i) a domain comprising a polypeptide which binds to the surface of AML blast cells and is internalised upon binding to the AML blast cells, and (ii) a cytotoxic domain, wherein the compound is a fusion polypeptide with the amino acid sequence of SEQ ID NO: 43. (i) a domain comprising a polypeptide which binds to the surface of AML blast cells and is internalised upon binding to the AML blast cells, and (ii) a cytotoxic domain,
A garment care device adapted to take different angular orientations during use, the device comprising: - a sensor connected to a control unit for determining an angular orientation of the device during use, - a user actuator for generating a trigger signal to said control unit for each actuation of the user actuator, - an interface for displaying at least one operating mode of a plurality of operating modes of said device, wherein the control unit is adapted to: - detect, based on the determined angular orientation, that the device is in a predetermined angular orientation, - trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal, and - apply to said device, the latest operating mode displayed on said interface, - and characterized in that the control unit is adapted to trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal generated only when the device is in said predetermined angular orientation. - a sensor connected to a control unit for determining an angular orientation of the device during use, - a user actuator for generating a trigger signal to said control unit for each actuation of the user actuator, - an interface for displaying at least one operating mode of a plurality of operating modes of said device, - detect, based on the determined angular orientation, that the device is in a predetermined angular orientation, - trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal, and - apply to said device, the latest operating mode displayed on said interface, - and characterized in that the control unit is adapted to trigger the successive display on said interface of a different operating mode taken among said plurality of operating modes, for each successive trigger signal generated only when the device is in said predetermined angular orientation.
A method for providing secure remote access to an enterprise application store from a mobile device, the method comprising: receiving, by an access gateway, an access token request from an authenticated access manager on the mobile device, providing, by the access gateway, an access token to the authenticated access manager in response to the access token request if the access token request includes a valid session cookie; receiving, by the access gateway, an access request from an application management service on the mobile device, and allowing, by the access gateway, access to the enterprise application store by the mobile device if the access request includes the access token. receiving, by an access gateway, an access token request from an authenticated access manager on the mobile device, providing, by the access gateway, an access token to the authenticated access manager in response to the access token request if the access token request includes a valid session cookie; receiving, by the access gateway, an access request from an application management service on the mobile device, and allowing, by the access gateway, access to the enterprise application store by the mobile device if the access request includes the access token.
A process for generating electrical energy using a complex generator, which generator comprises: a hydrophilic fiber membrane coated with an adsorption material comprising a conductive carbon layer comprising carbon particles or at least one conductive polymer selected from poly(3,4-ethylenedioxythiophene) polystyrene sulfonate (PEDOT:PSS), polyaniline (PANI), polypyrrole (PPy), Poly(p-phenylene vinylene), Poly(acetylene)s and poly(p-phenylene sulfide), wherein electrical energy is generated in such a manner that a polar solvent is adsorbed onto the adsorption material in some region of the hydrophilic fiber membrane by asymmetrical wetting of the polar solvent for the hydrophilic fiber membrane, wherein the wetting of the polar solvent for the hydrophilic fiber membrane coated with the adsorption material forms an electric double layer on a surface of the adsorption material, so a voltage difference induced by a capacitance difference occurs between a wetted region and a dry region, and wherein a current is generated based on a continuous flow of electrons caused when cations of the polar solvent included in the hydrophilic fiber membrane flow. a hydrophilic fiber membrane coated with an adsorption material comprising a conductive carbon layer comprising carbon particles or at least one conductive polymer selected from poly(3,4-ethylenedioxythiophene) polystyrene sulfonate (PEDOT:PSS), polyaniline (PANI), polypyrrole (PPy), Poly(p-phenylene vinylene), Poly(acetylene)s and poly(p-phenylene sulfide), wherein electrical energy is generated in such a manner that a polar solvent is adsorbed onto the adsorption material in some region of the hydrophilic fiber membrane by asymmetrical wetting of the polar solvent for the hydrophilic fiber membrane, wherein the wetting of the polar solvent for the hydrophilic fiber membrane coated with the adsorption material forms an electric double layer on a surface of the adsorption material, so a voltage difference induced by a capacitance difference occurs between a wetted region and a dry region, and wherein a current is generated based on a continuous flow of electrons caused when cations of the polar solvent included in the hydrophilic fiber membrane flow.
A wind turbine, comprising: a rotor including a plurality of blades (15A, 15B, 15C); and a deicing unit (200, 210, 220), wherein said deicing unit performs a deicing operation only on one of said plurality of blades, which has an azimuth angle within a predetermined range, and said predetermined range is within a range from 90 to 270 degrees, and includes 180 degrees, characterized in that said deicing unit includes: a pitch angle controller independently controlling rotations of said plurality of blades around respective pitch axes; and an acoustic generator provided on a tower supporting said rotor, wherein, in said deicing operation, said pitch angle controller holds said one of said plurality of blades (15A, 15B, 15C) in a fine state or an inversion state in which the pitch angle thereof differs in 180 degrees from that of the fine state, and wherein said acoustic generator outputs acoustic wave to said one of said plurality of blades. a rotor including a plurality of blades (15A, 15B, 15C); and a deicing unit (200, 210, 220), wherein said deicing unit performs a deicing operation only on one of said plurality of blades, which has an azimuth angle within a predetermined range, and said predetermined range is within a range from 90 to 270 degrees, and includes 180 degrees, characterized in that said deicing unit includes: a pitch angle controller independently controlling rotations of said plurality of blades around respective pitch axes; and an acoustic generator provided on a tower supporting said rotor, a pitch angle controller independently controlling rotations of said plurality of blades around respective pitch axes; and an acoustic generator provided on a tower supporting said rotor, wherein, in said deicing operation, said pitch angle controller holds said one of said plurality of blades (15A, 15B, 15C) in a fine state or an inversion state in which the pitch angle thereof differs in 180 degrees from that of the fine state, and wherein said acoustic generator outputs acoustic wave to said one of said plurality of blades.
A method comprising: receiving, by a computing device for monitoring a virtualization infrastructure, from each of a plurality of agents executing within corresponding servers of a computer network, result data for probes issued by each agent to at least one other agent, wherein each of the servers is a member of one or more aggregates, and wherein each of the aggregates comprises one or more of the servers; determining, by the computing device for each aggregate of the one or more aggregates, at least one status for communications between the aggregate and at least one other aggregate of the one or more aggregates, the at least one status for communications determined based on a selected metric and based on the result data associated with one or more probes issued by one or more agents of the plurality of agents that are grouped into the aggregate, the probes destined to the at least one other aggregate of the one or more aggregates; generating, by the computing device, a graphical user interface that includes respective graphical elements representing the one or more aggregates (634, 638) and also includes, for each aggregate of the aggregates, one or more graphical indicators (641, 642) that are indicative of the at the least one status determined for communications directed toward the aggregate and originating from the at least one other aggregate of the one or more aggregates; and outputting, by the computing device, the graphical user interface for display at a display device. receiving, by a computing device for monitoring a virtualization infrastructure, from each of a plurality of agents executing within corresponding servers of a computer network, result data for probes issued by each agent to at least one other agent, wherein each of the servers is a member of one or more aggregates, and wherein each of the aggregates comprises one or more of the servers; determining, by the computing device for each aggregate of the one or more aggregates, at least one status for communications between the aggregate and at least one other aggregate of the one or more aggregates, the at least one status for communications determined based on a selected metric and based on the result data associated with one or more probes issued by one or more agents of the plurality of agents that are grouped into the aggregate, the probes destined to the at least one other aggregate of the one or more aggregates; generating, by the computing device, a graphical user interface that includes respective graphical elements representing the one or more aggregates (634, 638) and also includes, for each aggregate of the aggregates, one or more graphical indicators (641, 642) that are indicative of the at the least one status determined for communications directed toward the aggregate and originating from the at least one other aggregate of the one or more aggregates; and outputting, by the computing device, the graphical user interface for display at a display device.
Apparatus for interferometrically measuring an optical device under test DUT, characterized by: a laser for scanning the optical device under test over a range of different wavelengths of light, the laser having a coherence length, a laser monitor interferometer coupled to detectors; an optical device under test interferometer coupled to the detectors; a splitter for directing light from the laser to the laser monitor interferometer and to the optical device under test interferometer; and electronic circuitry coupled to the detectors and arranged to: determine a phase of the laser at an optical length associated with the optical device under test, measure an interferometric intensity of the optical device under test at an optical length associated with the optical device under test; and compensate the interferometric intensity determined at the optical length for a phase variation of the laser at the optical length using the phase of the laser determined at the optical length to determine an interferometric response of the optical device under test; wherein the optical device under test has an optical length greater than the coherence length of the laser. a laser for scanning the optical device under test over a range of different wavelengths of light, the laser having a coherence length, a laser monitor interferometer coupled to detectors; an optical device under test interferometer coupled to the detectors; a splitter for directing light from the laser to the laser monitor interferometer and to the optical device under test interferometer; and electronic circuitry coupled to the detectors and arranged to: determine a phase of the laser at an optical length associated with the optical device under test, measure an interferometric intensity of the optical device under test at an optical length associated with the optical device under test; and compensate the interferometric intensity determined at the optical length for a phase variation of the laser at the optical length using the phase of the laser determined at the optical length to determine an interferometric response of the optical device under test; determine a phase of the laser at an optical length associated with the optical device under test, measure an interferometric intensity of the optical device under test at an optical length associated with the optical device under test; and compensate the interferometric intensity determined at the optical length for a phase variation of the laser at the optical length using the phase of the laser determined at the optical length to determine an interferometric response of the optical device under test; wherein the optical device under test has an optical length greater than the coherence length of the laser.
A device for controlling electrical power supply in response to air pressure measurement, the device comprising: an airflow path; a chamber having an aperture; a liquid flow restrictor positioned to inhibit ingress of liquid into the chamber via the aperture; a pressure sensor located in the chamber and operable to detect, in the presence of the liquid flow restrictor, air pressure changes caused by air flow in the airflow path; and a circuit for converting air pressure changes detected by the pressure sensor to control signals for controlling output of power from a battery located outside the chamber. an airflow path; a chamber having an aperture; a liquid flow restrictor positioned to inhibit ingress of liquid into the chamber via the aperture; a pressure sensor located in the chamber and operable to detect, in the presence of the liquid flow restrictor, air pressure changes caused by air flow in the airflow path; and a circuit for converting air pressure changes detected by the pressure sensor to control signals for controlling output of power from a battery located outside the chamber.
A soluble chimeric protein having the formula: Ht1-Ht2-Casp wherein Casp is a caspase domain; Ht1 is a first heterodimerization domain; and Ht2 is a second heterodimerization domain and wherein, in the presence of a chemical inducer of dimerization, an identical pair of the soluble chimeric proteins interact such that Ht1 from one soluble chimeric protein heterodimerizes with Ht2 from the other soluble chimeric protein, causing homodimerization of the two caspase domains wherein one heterodimerization domain comprises an FK506-binding protein (FKBP) and the other heterodimerization domain comprises an FRB domain of mTOR, and wherein the CID is rapamycin or a rapamycin analog. Casp is a caspase domain; Ht1 is a first heterodimerization domain; and Ht2 is a second heterodimerization domain and wherein, in the presence of a chemical inducer of dimerization, an identical pair of the soluble chimeric proteins interact such that Ht1 from one soluble chimeric protein heterodimerizes with Ht2 from the other soluble chimeric protein, causing homodimerization of the two caspase domains wherein one heterodimerization domain comprises an FK506-binding protein (FKBP) and the other heterodimerization domain comprises an FRB domain of mTOR, and wherein the CID is rapamycin or a rapamycin analog.
A liquid electrostatic printing method comprising: providing a liquid electrostatic ink composition comprising a carrier liquid and chargeable particles comprising a resin; providing an adhesion promoting composition comprising an adhesion promoter; contacting the liquid electrostatic ink composition with a latent electrostatic image disposed on a surface to create a developed ink image; transferring the developed ink image to an intermediate transfer member; depositing the adhesion promoting composition on the intermediate transfer member to form an adhesion promoting layer; transferring the adhesion promoting layer to a print substrate; and transferring the developed ink image to the print substrate, such that the adhesion promoting layer is disposed on the print substrate and the developed ink image is disposed on the adhesion promoting layer, wherein the adhesion promoting composition comprises a carrier liquid and about 1 wt.% to about 50 wt.% of the adhesion promoter by total weight of the adhesion promoting composition, wherein the adhesion promoter comprises a tackifier having a polar functional group and a number average molecular weight Mn of less than about 5000, wherein the adhesion promoter is dissolved in the carrier liquid of the adhesion promoting composition. providing a liquid electrostatic ink composition comprising a carrier liquid and chargeable particles comprising a resin; providing an adhesion promoting composition comprising an adhesion promoter; contacting the liquid electrostatic ink composition with a latent electrostatic image disposed on a surface to create a developed ink image; transferring the developed ink image to an intermediate transfer member; depositing the adhesion promoting composition on the intermediate transfer member to form an adhesion promoting layer; transferring the adhesion promoting layer to a print substrate; and transferring the developed ink image to the print substrate, such that the adhesion promoting layer is disposed on the print substrate and the developed ink image is disposed on the adhesion promoting layer, wherein the adhesion promoting composition comprises a carrier liquid and about 1 wt.% to about 50 wt.% of the adhesion promoter by total weight of the adhesion promoting composition, wherein the adhesion promoter comprises a tackifier having a polar functional group and a number average molecular weight Mn of less than about 5000, wherein the adhesion promoter is dissolved in the carrier liquid of the adhesion promoting composition.