mhurhangee/ep-ind-claims huggingface dataset:
Device for fastening a peripheral device to a screen of a cash register system, having a housing comprising a first housing part and a second housing part, and having an adapter, accommodated at least partly in the housing and connected to the housing, for fastening the device to the screen, wherein the first housing part comprises a first recess and a second recess, wherein the first housing part at least one fastening element for fastening a peripheral device-specific cover (100, 110, 120, 130, 140) for the partial and/or complete closure of the first recess via a detachable and reproducible connection, wherein the peripheral device (102, 112) can be fastened to the cover (100, 110, 120, 130, 140), and wherein the first housing part is designed in such a way that all peripheral device-specific covers (100, 110, 120, 130, 140) from a predetermined group of covers (100, 110, 120, 130, 140) for the partial and/or complete closure of the recess can optionally be fastened thereto.
An insulation panel (1, 21, 25, 31) comprising a polymer foam core sandwiched between a front facer bonded to a front face thereof and a rear facer bonded to a rear face thereof, characterized in that the polymer foam core is further sandwiched between an exposed resiliently deformable insulation layer of mineral wool bonded to a first side thereof and an exposed resiliently deformable insulation layer of mineral wool bonded to a second side thereof.
An in vitro method for reprogramming a human or animal somatic cell that exhibits a first differentiated state or phenotype to a cell that exhibits a second differentiated state or phenotype, wherein said second differentiated state or phenotype is an induced pluripotent stem (iPSC) differentiated state or phenotype, comprising: a) introducing into the cell that exhibits a first differentiated state or phenotype a purified RNA preparation comprising in vitro-synthesized modified mRNA molecules that encode at least one reprogramming factor or iPSC induction factor selected from the group consisting of KLF4, LIN28, c-MYC, L-MYC, N-MYC, NANOG, OCT4, SOX2, OCT3, SOX1, SOX3, SOX15, KLF1, KLF2, and KLF5, and b) culturing the cell under conditions wherein the cell is reprogrammed to an iPSC that exhibits said second differentiated state; wherein - the modified mRNA molecules contain at least one modified nucleoside selected from the group consisting of: pseudouridine (Ψ), and/or 5-methylcytidine in place of at least a portion of the corresponding unmodified canonical nucleoside, and - said purified RNA preparation is free of an amount of RNA contaminant molecules that would activate an immune response in said somatic cells sufficient to prevent generation of said reprogrammed cells. a) introducing into the cell that exhibits a first differentiated state or phenotype a purified RNA preparation comprising in vitro-synthesized modified mRNA molecules that encode at least one reprogramming factor or iPSC induction factor selected from the group consisting of KLF4, LIN28, c-MYC, L-MYC, N-MYC, NANOG, OCT4, SOX2, OCT3, SOX1, SOX3, SOX15, KLF1, KLF2, and KLF5, and b) culturing the cell under conditions wherein the cell is reprogrammed to an iPSC that exhibits said second differentiated state; - the modified mRNA molecules contain at least one modified nucleoside selected from the group consisting of: pseudouridine (Ψ), and/or 5-methylcytidine in place of at least a portion of the corresponding unmodified canonical nucleoside, and - said purified RNA preparation is free of an amount of RNA contaminant molecules that would activate an immune response in said somatic cells sufficient to prevent generation of said reprogrammed cells.
A method for determining a spatial property of a measurement object (30, 53, 192, 193), the method comprising: providing a measurement low coherence interference signal (150, 156, 170, 190) obtained from the measurement object (30, 53, 192, 193) using an interferometer; obtaining a plurality of reference low coherence interference signals from a reference object, from the measurement object, or from a combination thereof; preparing (118, 120) an interference signal template (180, 210, 215) from the plurality of reference low coherence interference signals, wherein preparing the interference signal template comprises reducing or removing spatial dependent properties from the plurality of reference low coherence interference signals; and determining a spatial property of the measurement object based upon the measurement low coherence interference signal and the interference signal template (180, 210, 215), wherein the interference signal template is indicative of a response of the interferometer. providing a measurement low coherence interference signal (150, 156, 170, 190) obtained from the measurement object (30, 53, 192, 193) using an interferometer; obtaining a plurality of reference low coherence interference signals from a reference object, from the measurement object, or from a combination thereof; preparing (118, 120) an interference signal template (180, 210, 215) from the plurality of reference low coherence interference signals, wherein preparing the interference signal template comprises reducing or removing spatial dependent properties from the plurality of reference low coherence interference signals; and determining a spatial property of the measurement object based upon the measurement low coherence interference signal and the interference signal template (180, 210, 215), wherein the interference signal template is indicative of a response of the interferometer.
A method for producing a grain-oriented electrical steel sheet comprising a series of steps heating a steel slab having a component composition comprising C: 0.020 to 0.10 mass%, Si: 2.0 to 4.0 mass%, Mn: 0.005 to 0.50 mass%, Al: less than 0.010 mass%, N, S and Se: less than 0.0050 mass% each, and optionally one or more selected from Cr: 0.01 to 0.50 mass%, Cu: 0.01 to 0.50 mass%, Ni: 0.01 to 0.50 mass%, Bi: 0.005 to 0.50 mass%, B: 0.0002 to 0.0025 mass%, Nb: 0.0010 to 0.0100 mass%, Sn: 0.010 to 0.400 mass%, Sb: 0.010 to 0.150 mass%, Mo: 0.010 to 0.200 mass%, P: 0.010 to 0.150 mass%, V: 0.0005 to 0.0100 mass% and Ti: 0.0005 to 0.0100 mass%, and the remainder being Fe and inevitable impurities to a temperature of not higher than 1280°C, hot rolling the slab to form a hot-rolled sheet, subjecting the hot-rolled sheet to a hot-band annealing, and then a single cold rolling or two or more cold rollings having an intermediate annealing between each cold rolling to form a cold-rolled sheet having a final sheet thickness, subjecting the cold-rolled sheet to a primary recrystallization annealing combined with a decarburization annealing, applying an annealing separator onto a surface of the steel sheet, and subjecting the steel sheet to a finish annealing and a flattening annealing, wherein a rapid cooling is conducted at an average cooling rate of not less than 200°C/s from 800°C to 300°C in a cooling process from a maximum achieving temperature in at least one process of the hot-band annealing and the intermediate annealing. heating a steel slab having a component composition comprising C: 0.020 to 0.10 mass%, Si: 2.0 to 4.0 mass%, Mn: 0.005 to 0.50 mass%, Al: less than 0.010 mass%, N, S and Se: less than 0.0050 mass% each, and optionally one or more selected from Cr: 0.01 to 0.50 mass%, Cu: 0.01 to 0.50 mass%, Ni: 0.01 to 0.50 mass%, Bi: 0.005 to 0.50 mass%, B: 0.0002 to 0.0025 mass%, Nb: 0.0010 to 0.0100 mass%, Sn: 0.010 to 0.400 mass%, Sb: 0.010 to 0.150 mass%, Mo: 0.010 to 0.200 mass%, P: 0.010 to 0.150 mass%, V: 0.0005 to 0.0100 mass% and Ti: 0.0005 to 0.0100 mass%, and the remainder being Fe and inevitable impurities to a temperature of not higher than 1280°C, hot rolling the slab to form a hot-rolled sheet, subjecting the hot-rolled sheet to a hot-band annealing, and then a single cold rolling or two or more cold rollings having an intermediate annealing between each cold rolling to form a cold-rolled sheet having a final sheet thickness, subjecting the cold-rolled sheet to a primary recrystallization annealing combined with a decarburization annealing, applying an annealing separator onto a surface of the steel sheet, and subjecting the steel sheet to a finish annealing and a flattening annealing, wherein a rapid cooling is conducted at an average cooling rate of not less than 200°C/s from 800°C to 300°C in a cooling process from a maximum achieving temperature in at least one process of the hot-band annealing and the intermediate annealing.
Safety brake for braking or holding a lift cage at a brake web, comprising: - a brake eccentric with a central bearing bore, - a brake housing and - a bearing axle, which is arranged in or at the brake housing, for mounting the brake eccentric, wherein the bearing axle has over a first segment region (18.1) a bearing surface compatible with the cylindrical bearing bore of the brake eccentric, characterised in that the bearing axle in a remaining segment region (18.2) is set back so that the brake eccentric is displaceable in a displacement direction perpendicular to the bearing axle. - a brake eccentric with a central bearing bore, - a brake housing and - a bearing axle, which is arranged in or at the brake housing, for mounting the brake eccentric, wherein the bearing axle has over a first segment region (18.1) a bearing surface compatible with the cylindrical bearing bore of the brake eccentric,
A method for producing a food product comprising hydrolysed starch, said method comprising the steps of: a) Providing a starting material which comprises starch, b) Providing as ingredients: water, fat, at least one amylolytic enzyme and optionally one or more other ingredients, wherein fat is added in an amount comprised between 1 and 40% w/w, for example between 2 and 25% w/w, for example between 5 and 20% w/w, for example between 5 and 18% w/w of the solids composition, c) Mixing the starting material of step a) and the ingredients of step b) d) adjusting the temperature of the mixture of step c) to a temperature which leads to gelatinization of the starch in said mixture, and e) simultaneously to step d), subjecting said mixture of step c) to high shear mixing, wherein said high shear mixing is achieved by use of a Ring Layer Mixer, f) Incubating the mixture of step e) such that the desired degree of hydrolysis is achieved, g) Optionally heat-treating the mixture obtained by previous steps; h) Optionally cooling the mixture obtained by previous steps; i) Drying the mixture which was obtained by previous steps; thereby obtaining a food product comprising hydrolysed starch. a) Providing a starting material which comprises starch, b) Providing as ingredients: water, fat, at least one amylolytic enzyme and optionally one or more other ingredients, wherein fat is added in an amount comprised between 1 and 40% w/w, for example between 2 and 25% w/w, for example between 5 and 20% w/w, for example between 5 and 18% w/w of the solids composition, c) Mixing the starting material of step a) and the ingredients of step b) d) adjusting the temperature of the mixture of step c) to a temperature which leads to gelatinization of the starch in said mixture, and e) simultaneously to step d), subjecting said mixture of step c) to high shear mixing, wherein said high shear mixing is achieved by use of a Ring Layer Mixer, f) Incubating the mixture of step e) such that the desired degree of hydrolysis is achieved, g) Optionally heat-treating the mixture obtained by previous steps; h) Optionally cooling the mixture obtained by previous steps; i) Drying the mixture which was obtained by previous steps; thereby obtaining a food product comprising hydrolysed starch.
Candle wax comprising a mixture of a candle wax base and a polymer, wherein the polymer comprises units having formula: wherein X is selected from the group consisting of ethyl, 1-propyl, 2-propyl, 1-butyl, 2-butyl, 3-butyl, 2-methyl-1-propyl, 1-methyl-1-propyl, 2-methyl-2-propyl, pentyl, methylbutyl, 2-methylbutyl, methyl maleic anhydride or ethyl maleic anhydride, or alkylene-imine, preferably ethylene-imine; Y is selected from the group consisting of -O-, -S-, -NH-, -C(=O)NH-wherein if X is ethylene-imine, Y is C=O; Z is C 10 - C 40 alkyl group, preferably unbranched and is preferably C 14, C 16, C 18, C 20 or C 22 alkyl group, wherein n>3. X is selected from the group consisting of ethyl, 1-propyl, 2-propyl, 1-butyl, 2-butyl, 3-butyl, 2-methyl-1-propyl, 1-methyl-1-propyl, 2-methyl-2-propyl, pentyl, methylbutyl, 2-methylbutyl, methyl maleic anhydride or ethyl maleic anhydride, or alkylene-imine, preferably ethylene-imine; Y is selected from the group consisting of -O-, -S-, -NH-, -C(=O)NH-wherein if X is ethylene-imine, Y is C=O; Z is C 10 - C 40 alkyl group, preferably unbranched and is preferably C 14, C 16, C 18, C 20 or C 22 alkyl group, wherein n>3.
A method for inactivating a virus, comprising a step of exposing a virus to a solution containing a virus inactivating agent, wherein the virus inactivating agent is a virus inactivating agent for inactivating viruses in a liquid phase comprising as active ingredients a protein denaturant and the proteolytic enzyme pfu protease S.
Three-pole adapter plug having on a first side an earthed German type three wire plug plug with two pins (31, 33) and two earth conductors (23, 24), in particular a hybrid plug according to the standard CEE 7/7 with an additional contact sleeve (49.5) for a FR earth pin, and on a second side, opposite to the first side, the adapter has a socket for at least one plug of British standard, the housing (41,43) for the adapter plug forming an earthed insertion body and contact sleeves (45.3, 47.3, 49.3) for plug pins to British standards being arranged within the earthed insertion body, whereas the contact sleeve (49.3) for the earth pin of British standard is arranged in the same plane of symmetry as said earth conductors of the earthed plug, characterised in that the contact sleeves (45.3, 47.3, 49.3) for a three-pole UK plug are accommodated completely within the closed earthed insertion body, whereas the plug housing of the earthed insertion body at least in the region of the UK neutral conductor and UK phase contact sleeves (45.3, 47.3), the earthed insertion body has a shape that differs from a cylinder.
An information processing apparatus comprising: a screen configured to display information; a coordinate input unit configured to receive coordinates instructed by a user to the screen; a control unit (120, 190) configured to determine a user instruction based on a track of a user input via the coordinate input unit and to control an operation of the screen in accordance with a determination result; and the control unit configured to determine which one of division of the screen, a size change of divided screens, or another screen operation the user has instructed, based on the track of the user input via the coordinate input unit; characterized in that handles (4502, 4503) which are for performing an operation of moving a boundary are provided at both ends of the boundary of the screen, and the control unit is configured to perform divided screen size changing processing in accordance with the track when the track starts from one of the handles (4502, 4503), to perform screen dividing processing in accordance with the track when the track starts at a part other than the handles on the boundary of the screen, and to scroll the screen or perform another behavior when the track starts inside one of the divided screens. a screen configured to display information; a coordinate input unit configured to receive coordinates instructed by a user to the screen; a control unit (120, 190) configured to determine a user instruction based on a track of a user input via the coordinate input unit and to control an operation of the screen in accordance with a determination result; and the control unit configured to determine which one of division of the screen, a size change of divided screens, or another screen operation the user has instructed, based on the track of the user input via the coordinate input unit; characterized in that handles (4502, 4503) which are for performing an operation of moving a boundary are provided at both ends of the boundary of the screen, and the control unit is configured to perform divided screen size changing processing in accordance with the track when the track starts from one of the handles (4502, 4503), to perform screen dividing processing in accordance with the track when the track starts at a part other than the handles on the boundary of the screen, and to scroll the screen or perform another behavior when the track starts inside one of the divided screens.
Method for determining the position of a track-bound vehicle, in particular a rail vehicle, by means of objects at known positions along the route of the vehicle, in which, in order to determine the position of the vehicle in relation to the respective object by means of radar, the respective speed of the vehicle is ascertained by means of recording the frequency shift of a received reflected radar signal and the respective object is recorded, characterised in that when recording the respective object, a distance value of the vehicle in relation to the object is ascertained by means of recording the signal transit time of the received reflected radar signal, the speed of the vehicle is determined by means of recording the frequency shift of a further received reflected radar signal that follows after a period of time (Td), a further distance value of the vehicle in relation to the object is ascertained by means of recording the signal transit time of the further received reflected radar signal and if a difference between the distance values (d1,d2) matches a path length calculated from the ascertained speeds (v1,v2) and the period of time (Td), then the further distance value is used to determine the position of the vehicle.
An optical pressure sensor comprising: a sensor head comprising a pressure sensing Fabry-Perot optical cavity and at least one temperature sensing Fabry-Perot optical cavity; and an interrogator optically coupled to the sensor head, and arranged to generate at least one signal representing pressure at the sensor head responsive to the pressure sensing optical cavity, the signal representing pressure being temperature corrected by the interrogator responsive to the temperature sensing optical cavity, characterised in that: the interrogator comprises a first optical analyser arranged to detect response of the pressure sensing optical cavity to pressure at the sensor head, and a second optical analyser arranged to detect response of the at least one temperature sensing optical cavity to temperature at the sensor head; the first optical analyzer is arranged to detect response of the pressure sensing optical cavity to pressure at the sensing head and output a corresponding signal at a first rate; and the second optical analyzer is arranged to detect response of the temperature sensing optical cavity to temperature at the sensing head and output a corresponding signal at a second rate, wherein the first rate is faster than the second rate. a sensor head comprising a pressure sensing Fabry-Perot optical cavity and at least one temperature sensing Fabry-Perot optical cavity; and an interrogator optically coupled to the sensor head, and arranged to generate at least one signal representing pressure at the sensor head responsive to the pressure sensing optical cavity, the signal representing pressure being temperature corrected by the interrogator responsive to the temperature sensing optical cavity, characterised in that: the interrogator comprises a first optical analyser arranged to detect response of the pressure sensing optical cavity to pressure at the sensor head, and a second optical analyser arranged to detect response of the at least one temperature sensing optical cavity to temperature at the sensor head; the first optical analyzer is arranged to detect response of the pressure sensing optical cavity to pressure at the sensing head and output a corresponding signal at a first rate; and the second optical analyzer is arranged to detect response of the temperature sensing optical cavity to temperature at the sensing head and output a corresponding signal at a second rate, the interrogator comprises a first optical analyser arranged to detect response of the pressure sensing optical cavity to pressure at the sensor head, and a second optical analyser arranged to detect response of the at least one temperature sensing optical cavity to temperature at the sensor head; the first optical analyzer is arranged to detect response of the pressure sensing optical cavity to pressure at the sensing head and output a corresponding signal at a first rate; and the second optical analyzer is arranged to detect response of the temperature sensing optical cavity to temperature at the sensing head and output a corresponding signal at a second rate, wherein the first rate is faster than the second rate.
Method for simultaneous capture of image data at multiple depths of a sample, using an imaging device, the imaging device comprising an imaging sensor configured to image an oblique cross-section of the sample for generating different optical path lengths from the sample to the sensor and acquiring image data at multiple depths of the sample, the imaging sensor having: a first pixel line comprising a plurality of pixels (415, 416), a second pixel line comprising a plurality of pixels (418, 419), the first and second pixel lines have a different optical path length to the sample along the optical axis of the imaging device, the first pixel line and the second pixel line are offset with respect to each other along the scan direction by an offset (305a-305c, 402, 403), the method comprising the steps of scanning the sample along a scan direction (X') which is substantially perpendicular to the optical axis and perpendicular to a main extension direction of the first and second pixel lines, wherein during scanning the sample the method carries out the steps of: capturing a first image of the sample from the first pixel line, simultaneously capturing a second image of the sample from the first pixel line and capturing a third image of the sample from the second pixel line, continuing capturing images of the sample from the second pixel line, stopping capturing images of the sample from the first pixel line. a first pixel line comprising a plurality of pixels (415, 416), a second pixel line comprising a plurality of pixels (418, 419), the first and second pixel lines have a different optical path length to the sample along the optical axis of the imaging device, the first pixel line and the second pixel line are offset with respect to each other along the scan direction by an offset (305a-305c, 402, 403), the method comprising the steps of capturing a first image of the sample from the first pixel line, simultaneously capturing a second image of the sample from the first pixel line and capturing a third image of the sample from the second pixel line, continuing capturing images of the sample from the second pixel line, stopping capturing images of the sample from the first pixel line.
A valve body formed by additive manufacture and having a plurality of ports and a thermally conductive heating wire embedded in the valve body to which electric power is applied to cause the thermally conductive heating wire to generate heat in the valve body, wherein a channel is defined within the valve body around one or more of the plurality of ports during additive manufacture of the valve body, the heating wire located within the channel.