mhurhangee/ep-ind-claims huggingface dataset:
A radiation detector (1B, 1C, 1E, 1F) comprising: a thallium bromide crystalline body having a first electrode installation surface and a second electrode installation surface opposed to the first electrode installation surface; a first electrode (10B, 10C, 10E, 10F) provided on the first electrode installation surface of the thallium bromide crystalline body; and a second electrode (20B, 20C, 20E, 20F) provided on the second electrode installation surface of the thallium bromide crystalline body, characterized in that the second electrode (20B, 20C, 20E, 20F) includes: an alloy layer comprised of an alloy of metallic thallium and one or more other metals different from the metallic thallium, the alloy layer having a first layer surface facing the second electrode installation surface and a second layer surface located on a side opposite to the second electrode installation surface across the first layer surface of the alloy layer, and a low-resistance metal layer provided on the second layer surface of the alloy layer and comprised of a metal having a resistance value lower than a resistance value of the alloy layer. a thallium bromide crystalline body having a first electrode installation surface and a second electrode installation surface opposed to the first electrode installation surface; a first electrode (10B, 10C, 10E, 10F) provided on the first electrode installation surface of the thallium bromide crystalline body; and a second electrode (20B, 20C, 20E, 20F) provided on the second electrode installation surface of the thallium bromide crystalline body, characterized in that the second electrode (20B, 20C, 20E, 20F) includes: an alloy layer comprised of an alloy of metallic thallium and one or more other metals different from the metallic thallium, the alloy layer having a first layer surface facing the second electrode installation surface and a second layer surface located on a side opposite to the second electrode installation surface across the first layer surface of the alloy layer, and a low-resistance metal layer provided on the second layer surface of the alloy layer and comprised of a metal having a resistance value lower than a resistance value of the alloy layer. an alloy layer comprised of an alloy of metallic thallium and one or more other metals different from the metallic thallium, the alloy layer having a first layer surface facing the second electrode installation surface and a second layer surface located on a side opposite to the second electrode installation surface across the first layer surface of the alloy layer, and a low-resistance metal layer provided on the second layer surface of the alloy layer and comprised of a metal having a resistance value lower than a resistance value of the alloy layer.
A polynucleotide comprising a viral base sequence, the viral base sequence containing: a first base sequence encoding a viral replication protein; and a second base sequence encoding a viral movement protein, the second base sequence being located downstream of the first base sequence and having a linking site for linking with an exogenous base sequence encoding a polypeptide to be expressed, and the linking site being located downstream of the second base sequence, the second base sequence comprising an inserted base sequence having a base length of 100 or more at any position from 17th base to 795th base of the base sequence shown in SEQ ID NO: 20, wherein a polynucleotide having the second base sequence is: (i) a polynucleotide having the base sequence shown in any one of SEQ ID NO: 4 through 17. a first base sequence encoding a viral replication protein; and a second base sequence encoding a viral movement protein, the second base sequence being located downstream of the first base sequence and having a linking site for linking with an exogenous base sequence encoding a polypeptide to be expressed, and the linking site being located downstream of the second base sequence, the second base sequence comprising an inserted base sequence having a base length of 100 or more at any position from 17th base to 795th base of the base sequence shown in SEQ ID NO: 20, wherein a polynucleotide having the second base sequence is: (i) a polynucleotide having the base sequence shown in any one of SEQ ID NO: 4 through 17. (i) a polynucleotide having the base sequence shown in any one of SEQ ID NO: 4 through 17.
Composition comprising a compound selected from: • 2-Cyclohexylmethylthio-3-phenyl-4-oxo-3,4-dihydroquinazolin • 3-(2-Bromophenyl)-2-cyclohexylmethylthio-4-oxo-3,4-dihydroquinazoline • 3-Phenyl-2-neopentylthio-4-oxo-3,4-dihydroquinazoline • 3-(2,6-Difluorophenyl)-8-methyl-2-neopentylthio-4-oxo-3,4-dihydroquinazoline • 8-Chloro-3-phenyl-2-neopentylthio-4-oxo-3,4-dihydroquinazoline • 3-(2-Bromophenyl)-2-cyclopropylmethylthio-4-oxo-3,4-dihydroquinazoline • 2-Cyclopropylmethylthio-3-(2,6-difluorophenyl)-8-methyl-4-oxo-3,4-dihydroquinazoline • 3-Phenyl-2-(2-naphthylmethylthio)-4-oxo-3,4-dihydroquinazoline their salts, or pharmaceutically acceptable solvates for use as a medicament. • 2-Cyclohexylmethylthio-3-phenyl-4-oxo-3,4-dihydroquinazolin • 3-(2-Bromophenyl)-2-cyclohexylmethylthio-4-oxo-3,4-dihydroquinazoline • 3-Phenyl-2-neopentylthio-4-oxo-3,4-dihydroquinazoline • 3-(2,6-Difluorophenyl)-8-methyl-2-neopentylthio-4-oxo-3,4-dihydroquinazoline • 8-Chloro-3-phenyl-2-neopentylthio-4-oxo-3,4-dihydroquinazoline • 3-(2-Bromophenyl)-2-cyclopropylmethylthio-4-oxo-3,4-dihydroquinazoline • 2-Cyclopropylmethylthio-3-(2,6-difluorophenyl)-8-methyl-4-oxo-3,4-dihydroquinazoline • 3-Phenyl-2-(2-naphthylmethylthio)-4-oxo-3,4-dihydroquinazoline their salts, or pharmaceutically acceptable solvates for use as a medicament.
A method for assisting a thermally-induced change to a nano-sized solute or dispersed-phase in a liquid, the dispersed-phase being a solid, a liquid or a micelle, wherein the nano-sized solute or dispersed-phase has a maximum dimension in the range of from 0.5 to 200 nm, the method comprising the step of: passing gas bubbles through the liquid, the gas in the gas bubbles having a temperature higher than the bulk temperature of the liquid and the bubbles having a diameter range of from 0.1 to 7 mm, wherein the liquid is water or an aqueous solution in which water is the only solvent or is at least 50% by weight of the total solvents in the solution, wherein the gas in the gas bubbles has a relative humidity of less than 50 %, and wherein the thermally-induced change occurs at a temperature of less than 1000 °C and is a thermally-induced chemical reaction.
Method for the bending and/or tempering heat treatment of a glazing coated in part with at least one layer of an enamel composition, in which the enamel composition is applied in the fluid state to the glass sheet according to the desired pattern which, on the finished glazing, extends at least partly to the edge of the glazing, the enamel composition being pre-fired before carrying out the heat treatment in order to remove therefrom at least the organic constituents that it contains, in which method the glass sheet is cut after the pre-firing of the enamel composition characterized in that the cutting tool used does not come into contact with the pre-fired composition and in that, after the cutting, the edge of the glass sheet is subjected to a grinding before carrying out the heat treatment.
Scattered-light smoke detector with a detector unit that works according to the scattered-light principle, comprising a light-emitting diode to irradiate particles to be detected and a photosensor which is spectrally sensitive thereto to detect the light scattered by the particles, wherein the light-emitting diode has a principal optical axis and the photosensor has an optical receiving axis, wherein the light-emitting diode and the photosensor are arranged and aligned with respect to each other such that the two optical axes (SA, EA) define a scattered-light angle (α), wherein the light-emitting diode comprises a first and a second LED chip (3, 4) for emitting a first and a second light bundle (BL, RO) with light in a first wavelength range and in a second wavelength range that is different therefrom, wherein the light-emitting diode comprises an LED chip carrier arranged orthogonally to the principal optical axis, and wherein the two LED chips (3, 4) are arranged side-by-side on the LED chip carrier, characterised in that the light-emitting diode is rotated about its principal optical axis aligned toward the photosensor such that a chip axis extending through the geometric centre of the first LED chip and through the centre of the second LED chip is orthogonal to an angle plane defined by the two optical axes (SA, EA).
A method performed by a network node for controlling communication between a radio base station, RBS, and user equipments, UEs, in a wireless communication system, wherein the RBS has multiple antennas and wherein the RBS uses beam forming when communicating with the UEs, the method comprising: obtaining information on an expected first propagation path direction interval between the RBS and UEs served by other neighboring RBSs, obtaining information on an expected second propagation path direction interval between the RBS and served UEs; defining a first communication power limit for each of a plurality of beams according to the obtained information on expected first and second propagation path direction intervals, the first communication power limit being defined to suppress communication power in the expected first propagation path direction interval, when the plurality of beams is transmitted; and determining RBS antenna weights for each of the plurality of beams based on the defined first communication power limit for each of the plurality of beams, such that communication power transmitted by each of the plurality of beams is below the first communication power limit in the expected first propagation path direction interval, when the plurality of beams is transmitted. obtaining information on an expected first propagation path direction interval between the RBS and UEs served by other neighboring RBSs, obtaining information on an expected second propagation path direction interval between the RBS and served UEs; defining a first communication power limit for each of a plurality of beams according to the obtained information on expected first and second propagation path direction intervals, the first communication power limit being defined to suppress communication power in the expected first propagation path direction interval, when the plurality of beams is transmitted; and determining RBS antenna weights for each of the plurality of beams based on the defined first communication power limit for each of the plurality of beams, such that communication power transmitted by each of the plurality of beams is below the first communication power limit in the expected first propagation path direction interval, when the plurality of beams is transmitted.
A system of warehouse racks in which warehouse racks are placed perpendicularly to the working aisle, with at least one rack, after selecting the place of storage of the goods, is moved to the working aisle, where the goods are placed or removed from the indicated place in the rack, and then the rack is moved to the initial position, wherein the movement of the rack to the working aisle and its return to its initial position is made by movable, shared platform moving under at least one row of racks - perpendicular to the direction of movement of the rack, parallel to the working aisle and which includes a drive system, a power supply system, at least one running gear (41, 42), a rack lifting system and a positioning system of the rack which is extending or retracting, whereby during movement to the working aisle and return to the initial position, the rack is lifted above the ground surface by the lifting system of the shared platform, the system of warehouse racks being characterized in that one pair of legs of the rack is shorter and placed on a levelling element in the form of a bracket arranged along a row of racks, while the other pair of legs at the working aisle is set on the ground, and in that a guide rail for the shared platform is placed in front of the levelling element.
A method of obtaining a 3D composite image of at least a first portion of a patient's body, comprising the steps of: - obtaining a 3D planning image corresponding to the first portion of the patient's body and having a first field-of-view, - obtaining a 3D fraction image of the first portion of the patient's body, the fraction image having a second field-of-view which is limited in at least one dimension compared to the first field-of-view, - creating a model outline including at least one area of the patient's body included in the first field-of-view but not in the second field-of-view, - appending the model outline to the fraction image, to include at least one outlined portion in the fraction image which is outside the second field-of-view to obtain an intermediate image, - performing a deformable registration between the outline of the planning image and the outline of the fraction image, - using the result of the deformable registration to include material information from the area in the planning image inside of the outlined portion in the intermediate image, to obtain a composite image. - obtaining a 3D planning image corresponding to the first portion of the patient's body and having a first field-of-view, - obtaining a 3D fraction image of the first portion of the patient's body, the fraction image having a second field-of-view which is limited in at least one dimension compared to the first field-of-view, - creating a model outline including at least one area of the patient's body included in the first field-of-view but not in the second field-of-view, - appending the model outline to the fraction image, to include at least one outlined portion in the fraction image which is outside the second field-of-view to obtain an intermediate image, - performing a deformable registration between the outline of the planning image and the outline of the fraction image, - using the result of the deformable registration to include material information from the area in the planning image inside of the outlined portion in the intermediate image, to obtain a composite image.
Heatable cooking chamber insert (1; 6), having at least one base element (2; 7; 13) and at least one heating element (3; 16) attached below at least one region of the base element (2; 7; 13) and the base element (2; 7; 13) consisting of a microwave-permeable material, characterised in that at least one microwave-impermeable layer (4; 4b, 4c; 15) is disposed between the base element (2; 7; 13) and the at least one heating element (3; 16).
An elongated cloth medium to be recorded made with a satin weave that ranges from six-harness satin to ten-harness satin by using a warp made of heat-meltable fiber in a medium longitudinal direction and a weft made of heat-meltable fiber in a direction orthogonal to the medium longitudinal direction, the cloth medium comprising one surface and another surface, said warp having a weaving density that ranges from 11811 to 21260 yarns/m (300 to 540 yarns/inch), said weft having a weaving density that ranges from 3150 to 21260 yarns/m (80 to 540 yarns/inch), said one surface being a surface with said warp more exposed than said weft in accordance with said satin weave, and the cloth medium further comprising, on the one surface, a print-receiving surface to which calendering has been executed by heating and pressing and suitable for receiving printing by heat transfer of ink from an ink ribbon receiving heat from a thermal head, the cloth medium further comprising, one of two heat-cut parts that is cut by heating and is disposed on one of edge portions on both sides in a medium width direction and the other of the two heat-cut parts that is cut by heating and is disposed on the other of the edge portions on both sides in the medium width direction; and a part to be recorded with a print area to be recorded that is disposed between said two heat-cut parts on said edge portions on both sides and has a thickness smaller than said heat cut parts, the heat cut parts being respective ear parts having a relatively greater thickness than the print area part.
A method for non-intrusively determining deposits in a fluidic channel, the method comprising: obtaining, from one or more sensors, a measured pressure profile based on at least one pressure pulse induced in a fluidic channel; generating a forward model of deposits in the fluidic channel; generating, using the forward model, a simulated pressure profile; calculating, using the measured pressure profile and the simulated pressure profile, an error; updating, when the error is outside a predetermined threshold, the forward model including updated inputs calculated using updated deposit = the deposit + α * sqrt(the error), wherein α is an adjustable factor, the value of which is empirically tested; repeating, until the error is within the predetermined threshold, the steps of generating the forward model, generating the simulated pressure profile, calculating the error and updating the forward model; adjusting the updated forward model based on the error; outputting, when the error is within the predetermined threshold, the forward model; generating, using the forward model, an estimate of deposits in the fluidic channel; and outputting the estimate of deposits in the fluidic channel. obtaining, from one or more sensors, a measured pressure profile based on at least one pressure pulse induced in a fluidic channel; generating a forward model of deposits in the fluidic channel; generating, using the forward model, a simulated pressure profile; calculating, using the measured pressure profile and the simulated pressure profile, an error; updating, when the error is outside a predetermined threshold, the forward model including updated inputs calculated using updated deposit = the deposit + α * sqrt(the error), wherein α is an adjustable factor, the value of which is empirically tested; repeating, until the error is within the predetermined threshold, the steps of generating the forward model, generating the simulated pressure profile, calculating the error and updating the forward model; adjusting the updated forward model based on the error; outputting, when the error is within the predetermined threshold, the forward model; generating, using the forward model, an estimate of deposits in the fluidic channel; and outputting the estimate of deposits in the fluidic channel.
A chimeric antigen receptor comprising an antigen binding domain; a hinge region; a transmembrane domain; a costimulatory domain; and a cytoplasmic signaling domain, characterized in that the antigen binding domain binds to IL13Rα2, wherein, in the antigen binding domain, the 11th, 64th, 67th, and 107th positions of the amino acid sequence indicated with Sequence No. 1 are substituted with lysine, aspartic acid, aspartic acid and lysine, respectively.
A form panel setting element, comprising a face longitudinal wall and two opposite side walls (9, 10) each extending from said longitudinal wall to a free end piece-forming free tip edge, the respective outer faces (19, 20) of the two side walls (9, 10) having an alternation of protruding and recessed interlocking crenellations, the free tip edge of the first side wall having a first interlocking element cooperatively shaped with a second interlocking element located on the free tip edge of the opposite second side wall, the outer face of the face longitudinal wall having an alternation of protruding and recessed interlocking crenellations, wherein the protruding and recessed interlocking crenellations of the two opposite side walls (9, 10) extend over the height of said walls (9, 10) and have a same width, and wherein the protruding and recessed interlocking crenellations of the face longitudinal wall extend over the height of said wall and have a same width.
Method for operating a packet-based communications network in a railway network, wherein the railway network comprises a plurality of trains, a plurality of radio block centers (4; 4a-4b) and an address management unit, which communicate with one another in a packet-based manner via the communications network, wherein a communications hardware of a respective train comprises a hardware name, and a communications unit of a respective radio block center (4; 4a-4b) comprises a hardware name, wherein the address management unit stores statically or dynamically a respective physical packet address for different hardware names, and the address management unit responds to inquiries (13, 30, 32, 34, 38) about physical packet addresses for hardware names from the communications network, characterized in that the trains further are assigned a symbolic name for the duration of individual journeys, wherein the symbolic name represents a current journey assignment of the train, and the hardware names of the communications hardware of the trains do not change from journey to journey, that the address management unit further stores dynamically the respective physical packet address of the communications hardware of the train for different symbolic names, and that the address management unit also responds to inquiries (17; 36) about physical packet addresses for symbolic names from the communications network, that the railway network furthermore comprises additional services (6, 6a-6c) on the track side, which access the trains via the communications network, wherein the additional services (6; 6a-6c) on the track side direct inquiries about physical packet addresses for symbolic names to the address management unit, and wherein the additional services (6, 6a-6c) on the track side only know the symbolic name but not the hardware name.
A porous body comprising a porous silicone substrate having communicating pores and a three-dimensional network silicone skeleton which forms the pores and which is formed by a copolymerization of a bifunctional alkoxysilane and a trifunctional alkoxysilane; and a polymeric cover material covering at least a part of a surface of the silicone skeleton, wherein the porous body is obtained by dipping the porous silicone substrate in a solution of a polymeric material for forming the polymeric cover material, and then taking the porous silicone substrate out of the solution, wherein the solution for forming the polymeric cover material contains the polymeric material in a concentration of 1% by weight or more and 3% by weight or less.
A soluble derivatized chitosan for use in an oral rinse composition to reduce bacteria in the mouth, wherein the derivatized chitosan comprises a chitosan of the following formula: wherein: n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, and a group of formula: wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are a group of formula; wherein the concentration of the soluble derivatized chitosan is from 10 to 250 ppm. n is an integer between 20 and 6000; and each R 1 is independently selected for each occurrence from hydrogen, acetyl, and a group of formula: wherein at least 25% of R 1 substituents are H, at least 1% of R 1 substituents are acetyl, and at least 2% of R 1 substituents are a group of formula; wherein the concentration of the soluble derivatized chitosan is from 10 to 250 ppm.