mhurhangee/ep-ind-claims huggingface dataset:
Device for production of electrical, mechanical or hydraulic energy by using wind or fluid flow energy, which device includes at least one rotor, where the wind or fluid flow results in the rotor rotating around its axis, at least a bottom profile defining the lower boundary of the rotor of the device and at least one wing defining the upper boundary of the rotor of the device, whereby: the rotor is axially connected to a generator, said rotor designed as a cross-flow turbine, where the blades of the rotor are peripherally located providing an open space between the central axis of the rotor and the blades, and said blades configured to allow the fluid flow to pass through from both opposite sides of the rotor axis, and the wing is edge positioned and has two sides, wherein the chord of said edge positioned wing is oriented towards the rotor and toward the bottom profile, wherein the edge positioned wing blocks a part of the wind or fluid flow over the rotor and causes the wind or fluid to flow around the edge positioned wing thereby increasing a pressure difference between the front and rear side of the rotor said pressure difference drives the wind or fluid through the rotor. the rotor is axially connected to a generator, said rotor designed as a cross-flow turbine, where the blades of the rotor are peripherally located providing an open space between the central axis of the rotor and the blades, and said blades configured to allow the fluid flow to pass through from both opposite sides of the rotor axis, and the wing is edge positioned and has two sides, wherein the chord of said edge positioned wing is oriented towards the rotor and toward the bottom profile, wherein the edge positioned wing blocks a part of the wind or fluid flow over the rotor and causes the wind or fluid to flow around the edge positioned wing thereby increasing a pressure difference between the front and rear side of the rotor said pressure difference drives the wind or fluid through the rotor.
A thermosetting composition comprising: a thermosetting compound; and a hexagonal boron nitride D, wherein the thermosetting compound contains a cyanate compound A and/or a maleimide compound B, and a modified polyphenylene ether C having a substituent with a carbon-carbon unsaturated double bond at at least one terminal, and a content of the hexagonal boron nitride D is 0.1 parts by mass or more and 15 parts by mass or less based on 100 parts by mass of the thermosetting compound. a thermosetting compound; and a hexagonal boron nitride D, wherein the thermosetting compound contains a cyanate compound A and/or a maleimide compound B, and a modified polyphenylene ether C having a substituent with a carbon-carbon unsaturated double bond at at least one terminal, and a content of the hexagonal boron nitride D is 0.1 parts by mass or more and 15 parts by mass or less based on 100 parts by mass of the thermosetting compound.
Method for calculating an examination parameter for a computed tomography examination of an area of interest of a patient, comprising: - Receiving a topogram of the area of interest of the patient, - Determining fat distribution information by applying a trained machine learning algorithm onto the topogram, - Calculating the examination parameter for the computed tomography examination of the area of interest of the patient based on the fat distribution information, characterised in that the fat distribution information comprises distribution information regarding visceral fat of the patient and distribution information regarding subcutaneous fat of the patient. - Receiving a topogram of the area of interest of the patient, - Determining fat distribution information by applying a trained machine learning algorithm onto the topogram, - Calculating the examination parameter for the computed tomography examination of the area of interest of the patient based on the fat distribution information, characterised in that the fat distribution information comprises distribution information regarding visceral fat of the patient and distribution information regarding subcutaneous fat of the patient.
A daughterboard (6, 109) comprising a substrate (6, 109), a radio circuit and a monopole antenna (9, 100, 101, 102), characterized in that the radio circuit is disposed between first (14, 108) and second (13, 104) points on the monopole antenna (9, 100, 101, 102) having a predetermined relative impedance difference and neither of which points is at zero impedance (ground).
A mobile device (100; 100'), comprising a processing device, a random access memory, an embedded mass storage device comprising a controller and a non-volatile flash memory, characterised by: a first interface between the processing device and the random access memory, the first interface supporting access of the processing device to the random access memory, a second interface between the controller and the flash memory of the embedded mass storage device, the second interface supporting access of the controller to the flash memory, and a third interface between the controller and the processing device, the third interface supporting access of the controller to the random access memory. a first interface between the processing device and the random access memory, the first interface supporting access of the processing device to the random access memory, a second interface between the controller and the flash memory of the embedded mass storage device, the second interface supporting access of the controller to the flash memory, and a third interface between the controller and the processing device, the third interface supporting access of the controller to the random access memory.
A combination of an antibody against the cancer stem cell marker LGR5 and a checkpoint inhibitor, for use in a method of treating a tumour in a subject, wherein the LGR5 antibody comprises a heavy chain CDR1 having amino acids GYSFTAYW (SEQ ID NO:1), a heavy chain CDR2 having amino acids ILPGSDST (SEQ ID NO:2), a heavy chain CDR3 having amino acids ARSGYYGSSQY (SEQ ID NO:3), a light chain CDR1 having amino acids ESVDSYGNSF (SEQ ID NO:4), a light chain CDR2 having amino acids LTS (SEQ ID NO:5), and a light chain CDR3 having amino acids QQNAEDPRT (SEQ ID NO:6), and wherein the immune checkpoint inhibitor is an antibody inhibitor of PD-1. a heavy chain CDR2 having amino acids ILPGSDST (SEQ ID NO:2), a heavy chain CDR3 having amino acids ARSGYYGSSQY (SEQ ID NO:3), a light chain CDR1 having amino acids ESVDSYGNSF (SEQ ID NO:4), a light chain CDR2 having amino acids LTS (SEQ ID NO:5), and a light chain CDR3 having amino acids QQNAEDPRT (SEQ ID NO:6), and wherein the immune checkpoint inhibitor is an antibody inhibitor of PD-1.
A method of detecting sand ingress within a wellbore, the method comprising: obtaining a sample data set, wherein the sample data set is a sample of an acoustic signal originating within a wellbore comprising a fluid, and wherein the sample data set is representative of the acoustic signal across a frequency spectrum; determining a plurality of frequency domain features of the sample data set over a plurality of depth ranges; determining a presence of sand ingress at a first depth range of the plurality of depth ranges within the wellbore based on determining that the plurality of frequency domain features over the first depth range match a sand ingress signature; determining a presence of sand migration along a second depth range of the plurality of depths within the wellbore based on determining that the plurality of frequency domain features over the second depth range match a sand migration signature; and identifying a sand ingress location from the formation as being within the second depth range. obtaining a sample data set, wherein the sample data set is a sample of an acoustic signal originating within a wellbore comprising a fluid, and wherein the sample data set is representative of the acoustic signal across a frequency spectrum; determining a plurality of frequency domain features of the sample data set over a plurality of depth ranges; determining a presence of sand ingress at a first depth range of the plurality of depth ranges within the wellbore based on determining that the plurality of frequency domain features over the first depth range match a sand ingress signature; determining a presence of sand migration along a second depth range of the plurality of depths within the wellbore based on determining that the plurality of frequency domain features over the second depth range match a sand migration signature; and identifying a sand ingress location from the formation as being within the second depth range.
An alignment arrangement for X-ray imaging, comprising - a tube attachment with a first light projection device; - a detector attachment with a second light projection device; wherein the tube attachment is configured to mount the first light projection device to an X-ray tube; wherein the detector attachment is configured to connect the second light projection device to an X-ray detector; wherein the first light projection device is adapted to generate a first light pattern on a projection surface; wherein the second light projection device is adapted to generate a second light pattern on the projection surface; wherein the first light pattern is in a predetermined spatial relation with the second light pattern on the projection surface in the event that the tube attachment and detector attachment are correctly spatially arranged relative to each other. - a tube attachment with a first light projection device; - a detector attachment with a second light projection device;
Multilayer plastic film, in particular multilayer plastic composite film, based on plastic recyclate (recycled plastic), wherein the plastic film comprises a layered composite of at least three film layers (1a, 1b, 1c) bonded to one another, in particular bonded and/or coextruded by means of coextrusion, wherein the plastic film and/or the layer composite comprises a first outer film layer and a second outer film layer and a carrier film layer arranged between the first outer film layer and the second outer film layer, wherein the plastic film has a plastic recyclate content of at least 80 wt.% (% by weight), based on the plastic film, wherein the plastic film comprises at least substantially only one single plastic grade according to DIN EN ISO 11469, said plastic grade having a grade purity of at least 90 wt.%, wherein the ratio of the layer thicknesses of first outer film layer / carrier film layer / second outer film layer varies in the range of 10 - 35: 40 - 60: 10 - 35, with at least two of the film layers (1a, 1b, 1c) each having different mechanical properties. wherein the plastic film comprises a layered composite of at least three film layers (1a, 1b, 1c) bonded to one another, in particular bonded and/or coextruded by means of coextrusion, wherein the plastic film and/or the layer composite comprises a first outer film layer and a second outer film layer and a carrier film layer arranged between the first outer film layer and the second outer film layer, wherein the plastic film has a plastic recyclate content of at least 80 wt.% (% by weight), based on the plastic film, wherein the plastic film comprises at least substantially only one single plastic grade according to DIN EN ISO 11469, said plastic grade having a grade purity of at least 90 wt.%, wherein the ratio of the layer thicknesses of first outer film layer / carrier film layer / second outer film layer varies in the range of 10 - 35: 40 - 60: 10 - 35, with at least two of the film layers (1a, 1b, 1c) each having different mechanical properties.
Centrifugal compressor impeller, consisting of an impeller disc having blades and a shroud disc, characterized in that the shroud disc and the blades are connected to one another only in the outer region of the blades to approximately one-third of the total contact surface between the blades and the shroud disc, so that the actual connection surface between the blades and the shroud disc is substantially smaller than the total contact surface between the blades and the shroud disc.
Method for detecting damage during the operation of a gas turbine, comprising the following steps: - calculation of an average value (T avg,k) of individual temperature measurement values (T i,k) over a predetermined sampling period (t k) of an ensemble of temperature sensors (S i) in or on the gas turbine, - calculation of the individual temperature differences (ΔT i,k) between the average value (T avg,k) and the individual temperature measurement values (T i,k) over the predetermined sampling period (t k), - calculation of the individual temperature differences (ΔT i,k) for chronologically successive sampling periods (t k) over a predetermined time interval (dt 1), - compilation of a first distribution (D 1) by dividing the temperature differences (ΔT i,k) assigned to one temperature sensor (S i) for the predetermined time interval (dt 1) into temperature difference intervals (dT i,j); - comparison of the first distribution (D 1) with a second distribution (D 2) of temperature differences (ΔT i,k) likewise divided into temperature difference intervals (dT i,j), - generation of an operating signal on the basis of a negative outcome of the comparison, - wherein the second distribution (D 2) relates to temperature differences (ΔT i,k) of the same temperature sensor (S i), which are divided into the same temperature difference intervals (dT i,j) but which were calculated for a different time interval (dt 2). - calculation of an average value (T avg,k) of individual temperature measurement values (T i,k) over a predetermined sampling period (t k) of an ensemble of temperature sensors (S i) in or on the gas turbine, - calculation of the individual temperature differences (ΔT i,k) between the average value (T avg,k) and the individual temperature measurement values (T i,k) over the predetermined sampling period (t k), - calculation of the individual temperature differences (ΔT i,k) for chronologically successive sampling periods (t k) over a predetermined time interval (dt 1), - compilation of a first distribution (D 1) by dividing the temperature differences (ΔT i,k) assigned to one temperature sensor (S i) for the predetermined time interval (dt 1) into temperature difference intervals (dT i,j); - comparison of the first distribution (D 1) with a second distribution (D 2) of temperature differences (ΔT i,k) likewise divided into temperature difference intervals (dT i,j), - generation of an operating signal on the basis of a negative outcome of the comparison, - wherein the second distribution (D 2) relates to temperature differences (ΔT i,k) of the same temperature sensor (S i), which are divided into the same temperature difference intervals (dT i,j) but which were calculated for a different time interval (dt 2).
An antifog optical article characterized in that a water-absorbing layer based on urethane having a polyoxyethylene chain represented as -(CH 2 CH 2 O)n- or acrylic resin having a polyoxyethylene chain represented as -(CH 2 CH 2 O)n- is formed on a surface of a glass or plastic base material, a water-repellent layer based on at least one of amino-modified silicone and mercapto-modified silicone is formed on a surface of the water-absorbing layer, and a contact angle with respect to water on a surface of the water-repellent layer is set equal to or larger than 100 degrees.
A method for producing furfural from biomass material containing pentosan: (a) providing a biomass containing pentosan; (b) contacting the biomass with a solution containing at least one α-hydroxysulfonic acid thereby hydrolyzing the biomass to produce a product stream containing at least one C 5 -carbohydrate compound in monomeric and/or oligomeric form, and α-hydroxysulfonic acid; (c) separating at least a portion of the α-hydroxysulfonic acid from the product stream containing at least one C 5 -carbohydrate compound to provide an acid-removed product stream containing the at least one C 5 -carbohydrate compound and recovering the α-hydroxysulfonic acid in its component form; (d) separating a liquid stream containing said at least one C 5 -carbohydrate compound and a wet solid stream containing remaining biomass from the acid-removed product; (e) dehydrating the C 5 -carbohydrate compound in at least a first portion of the liquid stream in the presence of a dehydration acid, in a biphasic reaction medium comprising an aqueous phase and a water-immiscible organic phase, at a temperature in the range of from about 100°C to about 250°C; (f) separating an organic phase stream containing furfural and an aqueous stream containing the acid from the dehydration product stream; (g) recycling at least a portion of the aqueous stream or a second portion of the liquid stream to step (b); (h) recovering furfural from the organic phase stream. (a) providing a biomass containing pentosan; (b) contacting the biomass with a solution containing at least one α-hydroxysulfonic acid thereby hydrolyzing the biomass to produce a product stream containing at least one C 5 -carbohydrate compound in monomeric and/or oligomeric form, and α-hydroxysulfonic acid; (c) separating at least a portion of the α-hydroxysulfonic acid from the product stream containing at least one C 5 -carbohydrate compound to provide an acid-removed product stream containing the at least one C 5 -carbohydrate compound and recovering the α-hydroxysulfonic acid in its component form; (d) separating a liquid stream containing said at least one C 5 -carbohydrate compound and a wet solid stream containing remaining biomass from the acid-removed product; (e) dehydrating the C 5 -carbohydrate compound in at least a first portion of the liquid stream in the presence of a dehydration acid, in a biphasic reaction medium comprising an aqueous phase and a water-immiscible organic phase, at a temperature in the range of from about 100°C to about 250°C; (f) separating an organic phase stream containing furfural and an aqueous stream containing the acid from the dehydration product stream; (g) recycling at least a portion of the aqueous stream or a second portion of the liquid stream to step (b); (h) recovering furfural from the organic phase stream.
A method of forming a vacuum insulated structure comprising steps of: i) providing a plurality of outer walls attached together to define a structural envelope, the structural envelope having an insulation port and a vacuum port in communication with a cavity defined within the structural envelope; ii) attaching an expanding device to two opposing outer walls of the structural envelope; iii) expanding the cavity of the structural envelope by pulling the two opposing outer walls of the structural envelope away from one another to define an expanded state of the structural envelope, the expanded state defining an expanded interior volume; iv) disposing an insulating material within the cavity via the insulation port, wherein the insulating material occupies substantially all of the cavity in the expanded state; v) closing and sealing the insulation port; vi) expressing gas from the cavity via the vacuum port, wherein the expression of gas at least partially collapses the structural envelope to a final state of the structural envelope, the final state of the structural envelope defining a final interior volume, the final interior volume being less than the expanded interior volume, and wherein the final state of the structural envelope defines a densified state of the insulating material within the cavity; and vii) closing the vacuum port to hermetically seal the cavity. i) providing a plurality of outer walls attached together to define a structural envelope, the structural envelope having an insulation port and a vacuum port in communication with a cavity defined within the structural envelope; ii) attaching an expanding device to two opposing outer walls of the structural envelope; iii) expanding the cavity of the structural envelope by pulling the two opposing outer walls of the structural envelope away from one another to define an expanded state of the structural envelope, the expanded state defining an expanded interior volume; iv) disposing an insulating material within the cavity via the insulation port, wherein the insulating material occupies substantially all of the cavity in the expanded state; v) closing and sealing the insulation port; vi) expressing gas from the cavity via the vacuum port, wherein the expression of gas at least partially collapses the structural envelope to a final state of the structural envelope, the final state of the structural envelope defining a final interior volume, the final interior volume being less than the expanded interior volume, and wherein the final state of the structural envelope defines a densified state of the insulating material within the cavity; and vii) closing the vacuum port to hermetically seal the cavity.
Cell connector for interconnecting at least two conductors and/or stranded wires, the cell connector being composed of at least one substantially strip-shaped element, comprising at least five portions (4.1, 4.2, 4.3, 4.4, 4.5) arranged one behind the other on the strip-shaped element in a longitudinal direction, characterized in that a first portion (4.1) forms a first half (5.1) of a closure element, a second portion (4.2) forms a first clamping surface (6.1), a third portion (4.3) forms a deflection element, a fourth portion (4.4) forms a second clamping surface (6.2) and a fifth portion (4.5) forms a second half (5.2) of the closure element, and the third portion (4.3) being designed to allow the first portion (4.1) and the second portion (4.2) to be folded over relative to the fourth portion (4.4) and fifth portion (4.5) about a folding axis in a width direction running orthogonally to the longitudinal direction and running through the third portion (4.3), so that, in a folded up state of the strip-shaped element, at least a portion of the first and the second clamping surface (6.1, 6.2) lie opposite one another substantially in a thickness direction running orthogonally to the longitudinal direction and the width direction and thus form a receptacle for the conductors and/or stranded wires and, in the folded up state of the strip-shaped element, the first portion (4.1) and the fifth portion (4.5) can be interconnected in order to fix the at least one strip-shaped element in the folded up state. at least five portions (4.1, 4.2, 4.3, 4.4, 4.5) arranged one behind the other on the strip-shaped element in a longitudinal direction, characterized in that a first portion (4.1) forms a first half (5.1) of a closure element, a second portion (4.2) forms a first clamping surface (6.1), a third portion (4.3) forms a deflection element, a fourth portion (4.4) forms a second clamping surface (6.2) and a fifth portion (4.5) forms a second half (5.2) of the closure element, and the third portion (4.3) being designed to allow the first portion (4.1) and the second portion (4.2) to be folded over relative to the fourth portion (4.4) and fifth portion (4.5) about a folding axis in a width direction running orthogonally to the longitudinal direction and running through the third portion (4.3), so that, in a folded up state of the strip-shaped element, at least a portion of the first and the second clamping surface (6.1, 6.2) lie opposite one another substantially in a thickness direction running orthogonally to the longitudinal direction and the width direction and thus form a receptacle for the conductors and/or stranded wires and, in the folded up state of the strip-shaped element, the first portion (4.1) and the fifth portion (4.5) can be interconnected in order to fix the at least one strip-shaped element in the folded up state.