mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a local tissue function of tissue in a body region of interest of an examination object, wherein the tissue is a tumour tissue or comprises a lesion of an unknown nature suspected of being tumour tissue, comprising the steps: - segmentation of an outer contour (AK3, AK4) of the tissue using at least one medical image recording representing the body region of interest of the examination object comprising the tissue; - subdivision of the segmented tissue into at least two tissue regions (GB; GB31-GB35, GB41-GB45); and - ascertaining a function parameter (FP; G31-G35, G41-G45) relating to the tissue function for each of the at least two tissue regions, wherein the at least two tissue regions are arranged in slices such that a first tissue region (GB31, GB32) completely encloses a second tissue region (GB32, GB42). - segmentation of an outer contour (AK3, AK4) of the tissue using at least one medical image recording representing the body region of interest of the examination object comprising the tissue; - subdivision of the segmented tissue into at least two tissue regions (GB; GB31-GB35, GB41-GB45); and - ascertaining a function parameter (FP; G31-G35, G41-G45) relating to the tissue function for each of the at least two tissue regions, wherein the at least two tissue regions are arranged in slices such that a first tissue region (GB31, GB32) completely encloses a second tissue region (GB32, GB42).
An aircraft with a fuselage that accommodates a floor panel and a fuel storage system, wherein the fuel storage system comprises: a tank system with at least one main tank that is arranged underneath the floor panel; a cross ventilation system with a plurality of ventilation lines for venting the tank system, wherein the plurality of ventilation lines comprises at least one crossing ventilation line that is routed from a first lateral side of the tank system to an opposite second lateral side of the tank system, wherein the at least one crossing ventilation line is routed underneath or in the floor panel from the first lateral side of the tank system to the second lateral side of the tank system; wherein the tank system comprises an expansion tank that is arranged at the second lateral side, wherein the at least one crossing ventilation line is routed underneath or in the floor panel from a first ventilation point provided at the first lateral side on the at least one main tank to the expansion tank, characterized in that the expansion tank of the tank system is arranged above floor panel level. a tank system with at least one main tank that is arranged underneath the floor panel; a cross ventilation system with a plurality of ventilation lines for venting the tank system, wherein the plurality of ventilation lines comprises at least one crossing ventilation line that is routed from a first lateral side of the tank system to an opposite second lateral side of the tank system, wherein the at least one crossing ventilation line is routed underneath or in the floor panel from the first lateral side of the tank system to the second lateral side of the tank system; wherein the tank system comprises an expansion tank that is arranged at the second lateral side, wherein the at least one crossing ventilation line is routed underneath or in the floor panel from a first ventilation point provided at the first lateral side on the at least one main tank to the expansion tank, characterized in that the expansion tank of the tank system is arranged above floor panel level.
Method for operating an ultrasound sensor in the frequency division duplex mode, which method has the following steps of: - transmitting a transmission trigger to the ultrasound sensor at a multiple of the resonant frequency of an ultrasound transducer of the ultrasound sensor via a first frequency division duplex channel for the purpose of triggering an acoustic transmission signal; - dividing down the transmission trigger in the ultrasound sensor; and - transmitting at least one electrical reception signal corresponding to the acoustic transmission signal from the ultrasound sensor at the resonant frequency of the ultrasound transducer of the ultrasound sensor via a second frequency division duplex channel. - transmitting a transmission trigger to the ultrasound sensor at a multiple of the resonant frequency of an ultrasound transducer of the ultrasound sensor via a first frequency division duplex channel for the purpose of triggering an acoustic transmission signal; - dividing down the transmission trigger in the ultrasound sensor; and - transmitting at least one electrical reception signal corresponding to the acoustic transmission signal from the ultrasound sensor at the resonant frequency of the ultrasound transducer of the ultrasound sensor via a second frequency division duplex channel.
A band saw device comprising a base frame, at least two deflection wheels (3, 4) which are arranged at a distance from each other, a drive means, which is in a driving engagement with at least one of the deflection wheels (3, 4), and a band saw blade continuously circulating the deflection wheels (3,4), wherein the band saw blade is frictionally engaged with at least one damping roller (7, 8) in the region of one side of the saw arranged between both deflection rollers, and wherein the damping roller (7, 8) has a track guide (9, 10) for the back of the band and lateral regions of the band saw blade adjoining thereto, characterized in that the damping roller (7, 8) has at least one insert element (11, 12) of an elastomer, in particular rubber-elastic material, which is pressed against a flank of the band saw blade.
A method for dynamic power allocation in a transport refrigeration system, the method comprising: a TRS power source (205, 215) operating in an operational state; monitoring an amount of current being drawn from one or more generator powered components of the TRS; calculating, via a TRS controller (135, 230) of the TRS, a maximum available power amount based on the amount of current being drawn from the one or more generator powered components; characterized by controlling, via the TRS controller (135, 230), an amount of power directed to a compressor of the TRS to continuously allocate the maximum available power amount to the compressor of the TRS. a TRS power source (205, 215) operating in an operational state; monitoring an amount of current being drawn from one or more generator powered components of the TRS; calculating, via a TRS controller (135, 230) of the TRS, a maximum available power amount based on the amount of current being drawn from the one or more generator powered components; characterized by controlling, via the TRS controller (135, 230), an amount of power directed to a compressor of the TRS to continuously allocate the maximum available power amount to the compressor of the TRS.
A circuit board which is used for a second electronic circuit laminated on the side of a first electronic circuit, said first electronic circuit containing a power semiconductor element, the second electronic circuit being disposed on said first electronic circuit via said power semiconductor element, wherein: said circuit board comprises a substrate, which comprises dielectric layer(s) comprising ceramics, and first surface electrode(s), which is formed on the side of said circuit board, suitable to face said first electronic circuit, and at least a part of a conductor, which constitutes said first surface electrode(s), is embedded inside of said substrate, wherein said conductor, which constitutes said first surface electrode(s), is exposed out of said substrate in the same plane as a first surface which is the surface of said circuit board, said first surface being a planar surface, suitable to face said first electronic circuit, and said conductor is suitable to be opposed to terminal(s) of said power semiconductor element, wherein the first surface which is the surface of said circuit board is a surface of a ceramic dielectric layer, characterised in that the part of the conductor being embedded inside of said substrate includes a corner portion of the conductor, said corner portion of the conductor being at the end portion of the interface between the conductor and the substrate, where the stress may concentrate, and the thickness of said conductor, which constitutes said first surface electrode(s), is not less than 100 micrometers in a direction perpendicular to said first surface. said circuit board comprises a substrate, which comprises dielectric layer(s) comprising ceramics, and first surface electrode(s), which is formed on the side of said circuit board, suitable to face said first electronic circuit, and at least a part of a conductor, which constitutes said first surface electrode(s), is embedded inside of said substrate, wherein said conductor, which constitutes said first surface electrode(s), is exposed out of said substrate in the same plane as a first surface which is the surface of said circuit board, said first surface being a planar surface, suitable to face said first electronic circuit, and said conductor is suitable to be opposed to terminal(s) of said power semiconductor element, wherein the first surface which is the surface of said circuit board is a surface of a ceramic dielectric layer, characterised in that the part of the conductor being embedded inside of said substrate includes a corner portion of the conductor, said corner portion of the conductor being at the end portion of the interface between the conductor and the substrate, where the stress may concentrate, and the thickness of said conductor, which constitutes said first surface electrode(s), is not less than 100 micrometers in a direction perpendicular to said first surface.
An access control apparatus belonging to a first domain in a multi-domain environment, characterized by comprising: a request means for requesting access control information, corresponding to a user belonging to a second domain, for controlling usage of a function of an image forming apparatus, from an access control apparatus belonging to the second domain, when the user belonging to the second domain instructs usage of the function of the image forming apparatus belonging to the first domain; an adding means for adding authentication information of the first domain to the access control information obtained by the request means; and a transmitting means for transmitting the access control information including the added authentication information to the image forming apparatus belonging to the first domain. a request means for requesting access control information, corresponding to a user belonging to a second domain, for controlling usage of a function of an image forming apparatus, from an access control apparatus belonging to the second domain, when the user belonging to the second domain instructs usage of the function of the image forming apparatus belonging to the first domain; an adding means for adding authentication information of the first domain to the access control information obtained by the request means; and a transmitting means for transmitting the access control information including the added authentication information to the image forming apparatus belonging to the first domain.
Method for forming a selector device for a memory array, the method comprising: forming a first electrode layer, wherein the first electrode layer is embedded in an oxide, forming a second electrode layer above the first electrode layer, wherein the second electrode layer is separated from the first electrode layer by the oxide, forming an opening in the second electrode layer and in the oxide, wherein forming the opening exposes a part of the top surface of the first electrode layer, and depositing a semiconductor material, such that it fills the opening and forms a semiconductor layer on the top surface of the second electrode layer, wherein the semiconductor material contacts the first electrode layer and the second electrode layer, wherein the semiconductor material comprises a metal oxide material or amorphous silicon, and wherein the first electrode layer, the semiconductor material, and the second electrode layer form a double-sided Schottky diode. forming a first electrode layer, wherein the first electrode layer is embedded in an oxide, forming a second electrode layer above the first electrode layer, wherein the second electrode layer is separated from the first electrode layer by the oxide, forming an opening in the second electrode layer and in the oxide, wherein forming the opening exposes a part of the top surface of the first electrode layer, and depositing a semiconductor material, such that it fills the opening and forms a semiconductor layer on the top surface of the second electrode layer, wherein the semiconductor material contacts the first electrode layer and the second electrode layer, wherein the semiconductor material comprises a metal oxide material or amorphous silicon, and wherein the first electrode layer, the semiconductor material, and the second electrode layer form a double-sided Schottky diode.
A method of a machine to machine, M2M, terminal for signal measurement in a communication system, the method comprising: determining whether a current subframe corresponds to a measurement period; measuring, when the current subframe corresponds to the measurement period, a neighbour cell signal; performing filtering by reflecting a certain ratio of a newly measured value to a previous measurement value of the neighbour cell signal; determining whether current measurement mode is a normal scan mode or a short scan mode for measuring the neighbour cell signal more frequently than the normal scan mode; determining, when the current measurement mode is the normal scan mode, whether a measured serving cell signal is less than a predetermined low signal threshold; resetting, when the current measurement mode is the normal scan mode and the measured serving cell signal is less than the low signal threshold, the previous measurement value; and switching, when the current measurement mode is the normal scan mode and the measured serving cell signal is less than the low signal threshold, the current measurement mode to the short scan mode. determining whether a current subframe corresponds to a measurement period; measuring, when the current subframe corresponds to the measurement period, a neighbour cell signal; performing filtering by reflecting a certain ratio of a newly measured value to a previous measurement value of the neighbour cell signal; determining whether current measurement mode is a normal scan mode or a short scan mode for measuring the neighbour cell signal more frequently than the normal scan mode; determining, when the current measurement mode is the normal scan mode, whether a measured serving cell signal is less than a predetermined low signal threshold; resetting, when the current measurement mode is the normal scan mode and the measured serving cell signal is less than the low signal threshold, the previous measurement value; and switching, when the current measurement mode is the normal scan mode and the measured serving cell signal is less than the low signal threshold, the current measurement mode to the short scan mode.
A flexible printed circuit comprising: a flexible body having a proximal end and a distal end, wherein the proximal end is configured to be connected to a stationary object and the distal end is configured to be connected to a moving object that moves in relation to the stationary obj ect; a head end of the flexible printed circuit at the distal end of the flexible body; and at least one line of symmetry associated with the flexible body and the head end, the line of symmetry defining lateral symmetry from the proximal end of the body to a distal end of the head end of the flexible printed circuit; the head end comprising: a central opening at a center of the head end; a plurality of elongated semi-circular cut-outs (453, 457) concentric with the central opening and the head end, the plurality of elongated semi-circular cut-outs (453, 457) being symmetrically arranged about the line of symmetry; and a plurality of electrical connection pads (226, 236) located between an interior cut out of the plurality of elongated cutouts (453, 457) and the central opening of the head end. a flexible body having a proximal end and a distal end, wherein the proximal end is configured to be connected to a stationary object and the distal end is configured to be connected to a moving object that moves in relation to the stationary obj ect; a head end of the flexible printed circuit at the distal end of the flexible body; and at least one line of symmetry associated with the flexible body and the head end, the line of symmetry defining lateral symmetry from the proximal end of the body to a distal end of the head end of the flexible printed circuit; the head end comprising: a central opening at a center of the head end; a plurality of elongated semi-circular cut-outs (453, 457) concentric with the central opening and the head end, the plurality of elongated semi-circular cut-outs (453, 457) being symmetrically arranged about the line of symmetry; and a plurality of electrical connection pads (226, 236) located between an interior cut out of the plurality of elongated cutouts (453, 457) and the central opening of the head end. a central opening at a center of the head end; a plurality of elongated semi-circular cut-outs (453, 457) concentric with the central opening and the head end, the plurality of elongated semi-circular cut-outs (453, 457) being symmetrically arranged about the line of symmetry; and a plurality of electrical connection pads (226, 236) located between an interior cut out of the plurality of elongated cutouts (453, 457) and the central opening of the head end.
A boiler structure comprising a furnace; a plurality of furnace water-walls respectively formed of multiple boiler evaporation tubes disposed on a wall surface of the furnace and configured to generate steam by heating water inside the furnace when the water that is pressure-fed to the boiler evaporation tubes flows inside the boiler evaporation tubes; and an outlet connection tube (10;30,31) that connects outlets of the furnace water-walls, wherein the outlet connection tube (10;30,31) is provided with a pressure-loss adjusting section for an internal fluid.
Method for transporting containers filled with fluid, which have a flexible base, the method comprising the following steps: - lowering the fluid level of the fluid in the container filled with fluid; and - transporting the container with the lowered fluid level; characterized in that lowering of the fluid level is achieved by a partial surface contact of the base of the container to a container support. - lowering the fluid level of the fluid in the container filled with fluid; and - transporting the container with the lowered fluid level;
An article of footwear having an upper and a sole structure secured to the upper, the upper comprising: a foot region for covering at least a portion of a foot of a wearer, the foot region including a foot part of a knitted component, and the foot region having a first degree of stretch; and an ankle region for covering at least a portion of an ankle of the wearer, the ankle region including an ankle part of the knitted component, and the ankle region having a second degree of stretch; the foot part of the knitted component and the ankle part of the knitted component being formed from unitary knit construction, and the first degree of stretch being less than the second degree of stretch wherein the foot part of the knitted component defines a plurality of protruding areas that extend outward and away from a void within the upper for receiving the foot of the wearer, wherein the protruding areas include a first tubular structure and a second tubular structure, characterised in that the foot part also comprises yarn sections crossing each other in extending across a width of the second tubular structure. a foot region for covering at least a portion of a foot of a wearer, the foot region including a foot part of a knitted component, and the foot region having a first degree of stretch; and an ankle region for covering at least a portion of an ankle of the wearer, the ankle region including an ankle part of the knitted component, and the ankle region having a second degree of stretch; the foot part of the knitted component and the ankle part of the knitted component being formed from unitary knit construction, and the first degree of stretch being less than the second degree of stretch wherein the foot part of the knitted component defines a plurality of protruding areas that extend outward and away from a void within the upper for receiving the foot of the wearer, wherein the protruding areas include a first tubular structure and a second tubular structure, characterised in that the foot part also comprises yarn sections crossing each other in extending across a width of the second tubular structure.
An ester prodrug compound of an acid ceramidase inhibitor for use in a method for inhibiting acid ceramidase, wherein the compound has a structure of Formula (1 b): wherein: n is an integer from 0 to 13; R 1 is selected from the group consisting of H, n-butyl, OH, SH, NH 2, Cl, Br, I, C(=O)OH, C(=O)NH 2, NH(C=NH)NH 2, NHR 6, NR 6 R 7, + N(R 6) 3 and N-heterocycle; R 2 is selected from the group consisting of H and alkyl; R 3 is selected from the group consisting of H, OH, NO 2, NH 2 and NHR 9; R 4 is selected from the group consisting of H, CH 3, CH 2 OH, and CH 2 O-C(=O)-CH(R 8)NR 6 R 7; R 5 is selected from the group consisting of H, OH, =O, and OC(=O)CH(R 8)NR 6 R 7 each R 6, R 7, and R 8 is independently selected from the group consisting of H, alkyl, aralkyl, and aryl; R 9 is C(=O)-(CH 2) m R 10, wherein m is an integer from 5 to 10; R 10 is H, alkyl, cycloalkyl, or heterocycle; X is selected from the group consisting of O, NH, and S; Y is CH 2 or NH; and wherein at least one of R 4 and R 5 comprises an ester moiety; or a pharmaceutically acceptable salt thereof. n is an integer from 0 to 13; R 1 is selected from the group consisting of H, n-butyl, OH, SH, NH 2, Cl, Br, I, C(=O)OH, C(=O)NH 2, NH(C=NH)NH 2, NHR 6, NR 6 R 7, + N(R 6) 3 and N-heterocycle; R 2 is selected from the group consisting of H and alkyl; R 3 is selected from the group consisting of H, OH, NO 2, NH 2 and NHR 9; R 4 is selected from the group consisting of H, CH 3, CH 2 OH, and CH 2 O-C(=O)-CH(R 8)NR 6 R 7; R 5 is selected from the group consisting of H, OH, =O, and OC(=O)CH(R 8)NR 6 R 7 each R 6, R 7, and R 8 is independently selected from the group consisting of H, alkyl, aralkyl, and aryl; R 9 is C(=O)-(CH 2) m R 10, wherein m is an integer from 5 to 10; R 10 is H, alkyl, cycloalkyl, or heterocycle; X is selected from the group consisting of O, NH, and S; Y is CH 2 or NH; and wherein at least one of R 4 and R 5 comprises an ester moiety;
Compound containing the structure Red-R-M, wherein: - Red is a redox center; - R is a bridging group; and - M is a monomer giving rise to an electronically conductive polymer, wherein the redox center contains a group selected from the group consisting of: arylenebisimides, indolizines. - Red is a redox center; - R is a bridging group; and - M is a monomer giving rise to an electronically conductive polymer,
A chemical reactor comprising a plurality of heat-exchange plates defining, between them, reaction compartments, in which reactor each heat-exchange plate comprises two walls (2a, 2b) defining, between them, at least one heat-exchange space, the respective walls (2a, 2b) being fixed to one another by joining regions, and the reactor also comprises at least one device for injection of substance into the reaction compartments, said substance-injecting device passing through the heat-exchange plates in respective joining regions of the plates.