mhurhangee/ep-ind-claims huggingface dataset:
An optical system for use in a near-eye display device for projecting a virtual image, the optical system comprising: an optical unit defining a light guiding channel for guiding input light indicative of the virtual image through said channel and providing output light with a field of view, said output light having a predetermined non-uniform intensity profile (IP 1) across said field of view; and a masking optical element optically coupled to an output of said optical unit for output light passage through the masking optical element, said masking optical element having a spatially varying transmission profile across said masking optical element configured in accordance with intensity non-uniformities due to a non-uniform transfer function of said optical unit, to affect regions of relatively high light intensity within said intensity profile to thereby apply intensity modulation to light passing through the masking optical element to provide the virtual image with improved light intensity uniformity characterized in that said masking optical element comprises a pattern of successive regions of continuously varying transmission, thereby providing said spatially varying transmission profile, wherein said pattern providing the spatially varying transmission profile is defined by at least one of the following: (a) said pattern comprises a predetermined arrangement of said regions defined by predetermined dimensions of the regions, spaces between them, and optical density of said regions; (b) said pattern corresponds to a projection of said predetermined non-uniform intensity profile (IP 1) across said field of view onto said masking optical element. an optical unit defining a light guiding channel for guiding input light indicative of the virtual image through said channel and providing output light with a field of view, said output light having a predetermined non-uniform intensity profile (IP 1) across said field of view; and a masking optical element optically coupled to an output of said optical unit for output light passage through the masking optical element, said masking optical element having a spatially varying transmission profile across said masking optical element configured in accordance with intensity non-uniformities due to a non-uniform transfer function of said optical unit, to affect regions of relatively high light intensity within said intensity profile to thereby apply intensity modulation to light passing through the masking optical element to provide the virtual image with improved light intensity uniformity characterized in that
A PTH prodrug or a pharmaceutically acceptable salt thereof, wherein the prodrug is of formula (Ia) wherein - D is a PTH moiety; - L 1 - is a reversible prodrug linker moiety connected to the N-terminal amine functional group of -D and wherein the linkage between -D and -L 1 - is cleavable in the absence of enzymes under physiological conditions with a half-life ranging from one hour to two months; - L 2 - is a single chemical bond or a spacer moiety; - Z is a water-soluble PEG-based carrier moiety; and x is an integer selected from the group consisting of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15 and 16. - D is a PTH moiety; - L 1 - is a reversible prodrug linker moiety connected to the N-terminal amine functional group of -D and wherein the linkage between -D and -L 1 - is cleavable in the absence of enzymes under physiological conditions with a half-life ranging from one hour to two months; - L 2 - is a single chemical bond or a spacer moiety; - Z is a water-soluble PEG-based carrier moiety; and
A method in a telecommunications network, the telecommunications network comprising a base station node having a node controller component and a first radio network controller component, the first radio network controller component configured to communicate with a packet switched component of a core network, but not with a circuit switched component, the telecommunications network further comprising a second RNC configured to communicate with the node controller and also to communicate with the packet switched component of the core network and the circuit switched component; the method establishing communication between a given user terminal and the core network via the second RNC, when a given user terminal has at least a control plane connection with the base station node, such that the first RNC is the serving RNC (SRNC), the method comprising: transmitting at least one message over the control plane between the node controller and the core network via the second RNC, such that the message is tunnelled between the node controller and the second RNC. transmitting at least one message over the control plane between the node controller and the core network via the second RNC, such that the message is tunnelled between the node controller and the second RNC.
Combined fluid pressure and temperature sensor apparatus comprising: a housing forming a fluid pressure chamber and having a tubular coupling formed with an open end, the tubular coupling being connectable to a fluid pressure source and serving as a fluid receiving port, a fluid pressure sensor having a relatively flexible diaphragm disposed in the housing with the flexible diaphragm exposed to the fluid pressure chamber, a temperature responsive element disposed on said face surface of the diaphragm exposed to the fluid pressure chamber, the tubular coupling extending along a longitudinal axis, circuit means coupled to the capacitive fluid pressure sensor and temperature responsive element, characterized in that the apparatus comprises a fluid flow diffuser passage disposed in the tubular coupling and having at least one first path leading from the open end of the tubular coupling to the fluid pressure chamber and at least one second path leading from the fluid pressure chamber to the open end of the tubular coupling whereby fluid is directed through the first path into engagement with and across the temperature responsive resistive element and back through the at least one second path, wherein the fluid flow diffuser is formed by at least one longitudinally extending wall disposed in the tubular coupling separating the at least one first path from the at least one second path, and wherein the at least one longitudinally extending wall extends beyond the open end of the tubular coupling to a distal end, and the apparatus further comprises a wall lying in a plane generally normal to the longitudinal axis attached to the at least one longitudinally extending wall at the distal end. a housing forming a fluid pressure chamber and having a tubular coupling formed with an open end, the tubular coupling being connectable to a fluid pressure source and serving as a fluid receiving port, a fluid pressure sensor having a relatively flexible diaphragm disposed in the housing with the flexible diaphragm exposed to the fluid pressure chamber, a temperature responsive element disposed on said face surface of the diaphragm exposed to the fluid pressure chamber, the tubular coupling extending along a longitudinal axis,
An axle assembly for a tire inflation system, the axle assembly having a pilot operated wheel control valve for controlling tire pressure as a function of a pilot pressure, the axle assembly supporting a wheel hub which is adjustable in a plurality of positions; an axle housing; an axle rotatably supported by the axle housing; a supply passage extending axially along a central axis of the axle from a first passage end to a second passage end; a pilot conduit extending through the supply passage and extending from a first conduit end to a second conduit end; a supply inlet for communicating a source of supply pressure with the first passage end of the supply passage; a supply outlet communicating the second passage end of the supply passage with the pilot operated wheel control valve; a pilot inlet for communicating a source of pilot pressure with the first conduit end of the pilot conduit; a pilot outlet communicating the second conduit end of the pilot conduit with the pilot operated wheel control valve; a flexible supply air hose connected to the supply outlet; and a flexible pilot air hose connected to the pilot outlet, wherein the supply and pilot air hoses (92, 96) are coiled around an outer surface of the axle.
A stacked organic light emitting device comprising: a cathode; a blue-emitting sub-element comprising an emissive layer comprising a phosphorescent blue emissive material; a charge-generating layer; a green-emitting sub-element comprising an emissive layer comprising a phosphorescent green emissive material; a charge-generating layer; a red-emitting sub-element comprising an emissive layer comprising a phosphorescent red emissive material; and an anode; wherein the charge-generating layers separate the sub-elements; characterized in that each of the sub-elements is configured to have a charge balance factor of 0.9 to 1 and in that the emissive layers of each sub-element are configured to be within 20% of the distance to an optical antinode for that emitter; and wherein a combined emission of the emissive materials gives a white emission from the device. a cathode; a blue-emitting sub-element comprising an emissive layer comprising a phosphorescent blue emissive material; a charge-generating layer; a green-emitting sub-element comprising an emissive layer comprising a phosphorescent green emissive material; a charge-generating layer; a red-emitting sub-element comprising an emissive layer comprising a phosphorescent red emissive material; and an anode;
A method for manufacturing an electrode structure, comprising: coating and drying a slurry for an electrode active material layer including an electrode active material, a binder and a solvent on an electrode current collector placed on a heated bottom surface whose temperature is from 40 to 200°C; coating and drying a slurry for an electrically insulating porous layer including inorganic particles, a binder, and a solvent, on a heated roller located at a predetermined distance from the bottom surface and wherein the temperature of the heated roller is from 40 to 200°C; and subsequently transferring the dried slurry for an electrically insulating porous layer to the dried slurry for an electrode active material layer on the bottom surface, and thermo-compressing simultaneously between the heated roller and the heated bottom surface the dried slurry for an electrically insulating porous layer and the dried slurry for an electrode active material layer, to form an insulating layer on an electrode surface, thus manufacturing the electrode structure. coating and drying a slurry for an electrode active material layer including an electrode active material, a binder and a solvent on an electrode current collector placed on a heated bottom surface whose temperature is from 40 to 200°C; coating and drying a slurry for an electrically insulating porous layer including inorganic particles, a binder, and a solvent, on a heated roller located at a predetermined distance from the bottom surface and wherein the temperature of the heated roller is from 40 to 200°C; and subsequently transferring the dried slurry for an electrically insulating porous layer to the dried slurry for an electrode active material layer on the bottom surface, and thermo-compressing simultaneously between the heated roller and the heated bottom surface the dried slurry for an electrically insulating porous layer and the dried slurry for an electrode active material layer, to form an insulating layer on an electrode surface, thus manufacturing the electrode structure.
A power supply device comprising: an input unit configured to receive an input voltage from outside; a power supply unit configured to generate a power-supply voltage from the input voltage inputted through the input unit; an output unit including an output terminal (32, 33) configured to output the power-supply voltage; and a lighting circuit connected to the input unit and configured to be turned on in response to application of the input voltage, the lighting circuit being configured to vary in lighting mode depending on the input voltage wherein the lighting circuit includes a plurality of light-emitting devices (71 to 74), the number of light-emitting devices to be turned on among the plurality of light-emitting devices (71 to 74) is varied depending on the magnitude of the input voltage, characterised in that the lighting circuit further includes a plurality of Zener diodes (51 to 54) each connected to a high-voltage side of a corresponding one of the plurality of light-emitting devices (71 to 74), and the plurality of Zener diodes (51 to 54) are connected in one single cascade, with each one of the plurality of Zener diodes (51 to 54) - other than the first and the final ones of the single cascade of the plurality of Zener diodes (51 to 54) - connected between another one of the plurality of Zener diodes (51 to 54), thereby forming the single cascade of the plurality of Zener diodes (51 to 54). an input unit configured to receive an input voltage from outside; a power supply unit configured to generate a power-supply voltage from the input voltage inputted through the input unit; an output unit including an output terminal (32, 33) configured to output the power-supply voltage; and a lighting circuit connected to the input unit and configured to be turned on in response to application of the input voltage, the lighting circuit being configured to vary in lighting mode depending on the input voltage the lighting circuit includes a plurality of light-emitting devices (71 to 74), the number of light-emitting devices to be turned on among the plurality of light-emitting devices (71 to 74) is varied depending on the magnitude of the input voltage, characterised in that the lighting circuit further includes a plurality of Zener diodes (51 to 54) each connected to a high-voltage side of a corresponding one of the plurality of light-emitting devices (71 to 74), and the plurality of Zener diodes (51 to 54) are connected in one single cascade, with each one of the plurality of Zener diodes (51 to 54) - other than the first and the final ones of the single cascade of the plurality of Zener diodes (51 to 54) - connected between another one of the plurality of Zener diodes (51 to 54), thereby forming the single cascade of the plurality of Zener diodes (51 to 54).
A transparent pane comprising a first optically effective pattern in a first plane and a second optically effective pattern in a second plane spaced apart from the first plane in a thickness direction of the pane, characterized in that the two patterns are designed in the two spaced-apart planes such that they cause Moiré effects, wherein the optically effective patterns are regular and are designed spaced apart and aligned such that, at a spacing of 2 meters or 3 meters or 4 meters from the pane, a Moiré pattern produced is one-dimensionally or two-dimensionally regular and has a lattice constant of above 2 cm and below 30 cm in one dimension or in two dimensions, wherein an optically effective pattern is formed by first pane regions whose transmission properties and/or absorption properties and/or reflection properties and/or scattering properties are different from those of an adjacent second pane region, and a first pane region has a degree of absorption and/or a degree of reflection of at least 30%, preferably of at least 50%, of the radiation power at a wavelength in a wavelength range, wherein the wavelength range is between 100 nm and 400 nm. the two patterns are designed in the two spaced-apart planes such that they cause Moiré effects, wherein the optically effective patterns are regular and are designed spaced apart and aligned such that, at a spacing of 2 meters or 3 meters or 4 meters from the pane, a Moiré pattern produced is one-dimensionally or two-dimensionally regular and has a lattice constant of above 2 cm and below 30 cm in one dimension or in two dimensions, wherein an optically effective pattern is formed by first pane regions whose transmission properties and/or absorption properties and/or reflection properties and/or scattering properties are different from those of an adjacent second pane region, and a first pane region has a degree of absorption and/or a degree of reflection of at least 30%, preferably of at least 50%, of the radiation power at a wavelength in a wavelength range, wherein the wavelength range is between 100 nm and 400 nm.
Hopper and the holder thereof designed to be hitched to a carrier machine for charging a material and distributing the latter, the hopper comprising a bin, a member for emptying said bin, a means for hitching with said holder, said holder comprising a corresponding means for hitching to the hopper, said holder comprising at least one finger (Dt), the hitching means comprising a means to raise said hopper from the ground with the aid of the carrier machine, the member for emptying said hopper being connected to a rotational drive means designed to be coupled to a corresponding member present on the holder, these two members being coupled at the end of the mechanical device for hitching the hopper on said holder, which are characterized in that the means designed for raising said hopper from the ground comprises said finger with which the holder is provided and which is able to engage in a corresponding cross member (Tr) arranged in the low part of the hopper when viewed in the service position thereof.
A conveying type washing device that develops a flexographic printing plate precursor after imagewise exposure using a washing solution, the device comprising: a conveying unit that conveys the flexographic printing plate precursor through a conveying path including a curved conveying path; and a development unit that develops the flexographic printing plate precursor in a state in which the flexographic printing plate precursor is immersed in the washing solution by the conveying unit and conveyed, characterised in that the development unit has a flat brush used for development, the flat brush being arranged to be immersed in the washing solution, and the development is performed by removing an unexposed portion of the flexographic printing plate precursor by the flat brush. a conveying unit that conveys the flexographic printing plate precursor through a conveying path including a curved conveying path; and a development unit that develops the flexographic printing plate precursor in a state in which the flexographic printing plate precursor is immersed in the washing solution by the conveying unit and conveyed, characterised in that the development unit has a flat brush used for development, the flat brush being arranged to be immersed in the washing solution, and the development is performed by removing an unexposed portion of the flexographic printing plate precursor by the flat brush.
An imaging agent comprising; a synaptotagmin C2A domain polypeptide comprising an amino acid sequence having at least 75% sequence identity with SEQ ID NO:1 and having a cysteine residue at a position corresponding to position 78 of SEQ ID NO:1; and, a detectable label attached to the cysteine residue.
Procedure for running a spark-ignited gas engine with a combustion chamber (1.1) and with a hydrogen source (5, 3), said source (5, 3) supplying the engine with hydrogen, whereby the combustion chamber (1.1) is loaded with a gas air mixture, characterized in that a) the loaded gas air mixture is choked with hydrogen or b) the combustion chamber (1.1) is directly charged with hydrogen, in an amount of at most X % of the volume of the loaded gas, whereby this loaded mixture of hydrogen, air and gas is adjusted to a maximum value lambda λ of Y, according to the following table, wherein lambda is the ratio air actual /air stoichiometric: X [%] 3.0 8.0 13.0 33.0 50.0 80.0 Y 1.8 - 2.1 1.85 - 2.3 1.9 - 2.4 2.2 - 2.8 2.5 - 3.5 3.7 - 5.1 a) the loaded gas air mixture is choked with hydrogen or b) the combustion chamber (1.1) is directly charged with hydrogen,
An acid-activated antimicrobial peptide comprising an amino acid sequence selected from the group consisting of HHFFHHFHHFFHHF (SEQ ID NO:109) (AA-1), FHFFHHFFHFFHHF (SEQ ID NO:110) (AA-2), KLLKGATFHFFHHFFHFFHHF (SEQ ID NO:111) (AA-3), KLLKFHFFHHFFHFFHHF (SEQ ID NO:112) (AA-4), and FHFFHHFFHFFHHFKLLK (SEQ ID NO:113) (AA-5), wherein said peptide shows greater antimicrobial activity against S. mutans at pH 4.9 than at pH 7.4.
A composition comprising: A. a first antibody labelled with a first fluorochrome having a first emission spectrum, said first antibody that binds to an antigenic determinant that is differentially expressed on populations of leukocytes and non-leukocytes in a sample; B. an additional antibody labelled with an additional fluorochrome, wherein said additional antibody binds to an antigenic determinant that is differentially expressed on populations of mature and immature granulocytes or myeloid cells, and wherein said additional fluorochrome has a peak emission spectrum that overlaps said first peak emission spectrum; and C. a nucleic acid dye which has an emission spectrum that overlaps with at least one of said first emission spectra or said additional emission spectra but wherein the peak emission spectrum of the dye does not overlap with the peak emission spectra of the first and additional fluorochromes. A. a first antibody labelled with a first fluorochrome having a first emission spectrum, said first antibody that binds to an antigenic determinant that is differentially expressed on populations of leukocytes and non-leukocytes in a sample; B. an additional antibody labelled with an additional fluorochrome, wherein said additional antibody binds to an antigenic determinant that is differentially expressed on populations of mature and immature granulocytes or myeloid cells, and wherein said additional fluorochrome has a peak emission spectrum that overlaps said first peak emission spectrum; and C. a nucleic acid dye which has an emission spectrum that overlaps with at least one of said first emission spectra or said additional emission spectra but wherein the peak emission spectrum of the dye does not overlap with the peak emission spectra of the first and additional fluorochromes.