mhurhangee/patent-ind-claim-en huggingface dataset:
Method of manufacturing a roof tile from clay, comprising the following steps: - Providing the moist, unprocessed clay , - Drying the clay to a defined moisture content, - Grinding the dried clay into a clay material of crushed grain in a mill , - separating out an undersize grain whose grain size is below 0.1 mm, and separating out an oversize grain whose grain size is above 0.6 mm, - introducing the clay material into a pressing mold which reproduces the shape of the roofing tile , and - pressing the clay material in the pressing mold , wherein the clay material is compacted, wherein the grain size of the clay material is from 0.1 mm to 0.6 mm. - Providing the moist, unprocessed clay , - Drying the clay to a defined moisture content, - Grinding the dried clay into a clay material of crushed grain in a mill , - separating out an undersize grain whose grain size is below 0.1 mm, and separating out an oversize grain whose grain size is above 0.6 mm, - introducing the clay material into a pressing mold which reproduces the shape of the roofing tile , and - pressing the clay material in the pressing mold , wherein the clay material is compacted, wherein
A sheet-fed press , wherein the sheet-fed press has at least two units (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) configured as modules (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) and wherein a module (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) is understood as a respective unit (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) or a structure composed of a plurality of units (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000), which is configured as a machine unit that is produced and/or installed as a separate entity, and wherein each of the at least two modules (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) has at least one drive (M100; M200; M300; M400; M401; M500; M550; M600; M601; M700; M800; M801; M900; M1000) dedicated uniquely to it, which serves to effect the transport of sheets through this respective module (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) and/or through at least one active region of this respective module (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000), and wherein at least one of the at least two modules (500; 600) is configured as a non-impact coating module , and wherein at least one additional of the two modules (100; 200; 300; 400; 500; 550; 600; 700; 800; 900; 1000) has at least one drying system or drying device and wherein the sheet-fed printing press has a transport path provided for the transport of sheets , and wherein at least the section of the transport path provided for the sheets which is defined by the non-impact coating module is at least substantially flat and/or extends substantially horizontally, characterized in that at least one non-impact coating module has at least four coating positions , to each of which a respective coating medium is assigned, and in that each of the uniquely dedicated drives (M100; M200; M300; M400; M401; M500; M550; M600; M601; M700; M800; M801; M900; M1000) is configured as a position-controlled electric motor (M100; M200; M300; M400; M401; M500; M550; M600; M601; M700; M800; M801; M900; M1000) and in that the at least one drying system or drying device has at least one energy emitting device configured as an infrared radiation source .
Device for managing an installation for providing electricity for premises , such as residential premises, which comprises - a transmitter , located in a central meter of said installation and capable of sending information about the current tariff wirelessly, - at least one receiver , installed in said premises , capable of receiving said information, as well as - at least one indicator which is capable of signalling the current tariff in said premises in particular in said at least one receiver , the current tariff coming from the central meter , the device being characterised in that the at least one receiver and the at least on indicator are independent of an electric consumer unit of the electrical installation and are thus both mounted together in a displaceable autonomous component which does not have any wired connection. - a transmitter , located in a central meter of said installation and capable of sending information about the current tariff wirelessly, - at least one receiver , installed in said premises , capable of receiving said information, as well as - at least one indicator which is capable of signalling the current tariff in said premises in particular in said at least one receiver ,
A harvesting machine comprising: a harvesting part that is provided forward of a machine body , and is configured to harvest crops in a farm field; and a plurality of crop sensors that are provided in the harvesting part at intervals in a left-right direction, and are configured to detect the presence of crops upon coming into contact with the crops, wherein a conveying part that is configured to convey crops from the harvesting part toward the machine body is coupled to a rear portion of the harvesting part , the harvesting part including: a lateral conveying member that is configured to be driven to rotate about an axis (P2) that extends in a left-right direction so as to convey crops toward an entrance of the conveying part in a left-right direction of the harvesting part ; and a frame member that supports the lateral conveying member so as to be rotatable, and to which the conveying part is coupled, and the crop sensors are provided on the frame member , characterized in that the crop sensors are provided on a portion that is located below the lateral conveying member , of the frame member . a harvesting part that is provided forward of a machine body , and is configured to harvest crops in a farm field; and a plurality of crop sensors that are provided in the harvesting part at intervals in a left-right direction, and are configured to detect the presence of crops upon coming into contact with the crops, wherein a conveying part that is configured to convey crops from the harvesting part toward the machine body is coupled to a rear portion of the harvesting part , the harvesting part including: a lateral conveying member that is configured to be driven to rotate about an axis (P2) that extends in a left-right direction so as to convey crops toward an entrance of the conveying part in a left-right direction of the harvesting part ; and a frame member that supports the lateral conveying member so as to be rotatable, and to which the conveying part is coupled, and a lateral conveying member that is configured to be driven to rotate about an axis (P2) that extends in a left-right direction so as to convey crops toward an entrance of the conveying part in a left-right direction of the harvesting part ; and a frame member that supports the lateral conveying member so as to be rotatable, and to which the conveying part is coupled, and the crop sensors are provided on the frame member , characterized in that the crop sensors are provided on a portion that is located below the lateral conveying member , of the frame member .
Method for coating a bore wall of a bore in a workpiece , in particular a cylinder bore in an engine block, in which - a coating lance of a coating device is introduced into the bore from one side of the workpiece whilst releasing coating particles, wherein the bore wall is provided with a coating , - wherein, before coating, an annular protective ring , which protrudes axially with respect to the side of the workpiece , is designed on the edge of the bore directly on the workpiece , characterized in that - the protective ring is formed by chipless shaping of a ductile material of the workpiece . - a coating lance of a coating device is introduced into the bore from one side of the workpiece whilst releasing coating particles, wherein the bore wall is provided with a coating , - wherein, before coating, an annular protective ring , which protrudes axially with respect to the side of the workpiece , is designed on the edge of the bore directly on the workpiece , characterized in that - the protective ring is formed by chipless shaping of a ductile material of the workpiece .
A method for producing a cast metal part , in particular a housing of an electric motor stator, a housing for power electronics components, a battery tray or a battery housing, comprising the following steps: producing a cooling channel , introducing the cooling channel into a casting tool , filling the casting tool with a casting material , and unmoulding the cast part, characterised in that said producing of the cooling channel includes the following steps: a) providing two metal sheets , b) applying a release agent to at least one area of the sheets, c) heating the sheets, d) roll welding the sheets, and e) applying pressure such that a channel is formed in the area provided with the release agent, wherein steps b) and c) can also be performed simultaneously or in reverse order, and wherein when pressure is applied to form the channel at least one abutment is arranged such that the outer skin of the channel abuts against it and thus assumes a profile corresponding to the abutment. producing a cooling channel , introducing the cooling channel into a casting tool , filling the casting tool with a casting material , and unmoulding the cast part, said producing of the cooling channel includes the following steps: a) providing two metal sheets , b) applying a release agent to at least one area of the sheets, c) heating the sheets, d) roll welding the sheets, and e) applying pressure such that a channel is formed in the area provided with the release agent, a) providing two metal sheets , b) applying a release agent to at least one area of the sheets, c) heating the sheets, d) roll welding the sheets, and e) applying pressure such that a channel is formed in the area provided with the release agent, wherein steps b) and c) can also be performed simultaneously or in reverse order, and wherein when pressure is applied to form the channel at least one abutment is arranged such that the outer skin of the channel abuts against it and thus assumes a profile corresponding to the abutment.
A system for estimating traffic signal timing, comprising a computer processor and a non-transitory computer readable medium containing instructions directing the system to execute steps characterized by : extracting one or more trajectories of a plurality of vehicles from probe data; matching the one or more trajectories of the plurality of vehicles to a map, wherein the map comprises one or more intersections and the one or more trajectories pass through the one or more intersections; estimating red to green transition times of a traffic signal at a first one of the one or more intersections using trajectories of the plurality of vehicles passing the first one of the one or more intersections; and computing a signal timing estimation of the traffic signal by determining a plurality of parameters that maximize a scoring function, wherein the plurality of parameters include duration of green phases of incoming links to the intersection and an offset to account for an unknown starting time of a signal cycle of the traffic signal, and wherein the scoring function is based on a minimum of a square of a difference between red to green transition times based on the plurality of parameters and the estimated red to green transition times. extracting one or more trajectories of a plurality of vehicles from probe data; matching the one or more trajectories of the plurality of vehicles to a map, wherein the map comprises one or more intersections and the one or more trajectories pass through the one or more intersections; estimating red to green transition times of a traffic signal at a first one of the one or more intersections using trajectories of the plurality of vehicles passing the first one of the one or more intersections; and computing a signal timing estimation of the traffic signal by determining a plurality of parameters that maximize a scoring function, wherein the plurality of parameters include duration of green phases of incoming links to the intersection and an offset to account for an unknown starting time of a signal cycle of the traffic signal, and wherein the scoring function is based on a minimum of a square of a difference between red to green transition times based on the plurality of parameters and the estimated red to green transition times.
A method of preparing a catalyst for oxidative dehydrogenation, the method comprising: a first step of preparing an aqueous iron-metal precursor solution by dissolving a trivalent cation iron Fe precursor and a divalent cation zinc Zn precursor in distilled water; a second step of obtaining a slurry of an iron-metal oxide by reacting the aqueous iron-metal precursor solution with ammonia water in a coprecipitation bath to form an iron-metal oxide and then filtering the iron-metal oxide; and a third step of heating the iron-metal oxide slurry, wherein a mole ratio of ions of the ammonia water supplied in the second step to iron-metal cations in the aqueous iron-metal precursor solution is 100 : 23 to 100 : 25, wherein, before the filtering of the iron-metal oxide obtained in the second step, stirring and aging steps are further performed, wherein, when the filtering is performed, washing is not performed, and wherein a concentration of the ammonia water is 20 to 30 % by weight. a first step of preparing an aqueous iron-metal precursor solution by dissolving a trivalent cation iron Fe precursor and a divalent cation zinc Zn precursor in distilled water; a second step of obtaining a slurry of an iron-metal oxide by reacting the aqueous iron-metal precursor solution with ammonia water in a coprecipitation bath to form an iron-metal oxide and then filtering the iron-metal oxide; and a third step of heating the iron-metal oxide slurry, wherein a mole ratio of ions of the ammonia water supplied in the second step to iron-metal cations in the aqueous iron-metal precursor solution is 100 : 23 to 100 : 25, wherein, before the filtering of the iron-metal oxide obtained in the second step, stirring and aging steps are further performed, wherein, when the filtering is performed, washing is not performed, and wherein a concentration of the ammonia water is 20 to 30 % by weight. wherein a mole ratio of ions of the ammonia water supplied in the second step to iron-metal cations in the aqueous iron-metal precursor solution is 100 : 23 to 100 : 25, wherein, before the filtering of the iron-metal oxide obtained in the second step, stirring and aging steps are further performed, wherein, when the filtering is performed, washing is not performed, and wherein a concentration of the ammonia water is 20 to 30 % by weight.
A mid-turbine frame ("MTF") for a jet engine comprising: an annular structure formed from a plurality of adjacent segments that include a plurality of radially outward segment portions and radially inward segment portions; a vane that extends between the radially outward segment portions and the radially inward segment portions; a perforated structure that is disposed radially outward of the radially outward segment portions, wherein each of a plurality of perforations in the perforated structure are configured to receive cooling air; and characterised by a seal clamping the annular structure to the perforated structure , and the seal coupling adjacent ones of the plurality of radially outward segment portions. an annular structure formed from a plurality of adjacent segments that include a plurality of radially outward segment portions and radially inward segment portions; a vane that extends between the radially outward segment portions and the radially inward segment portions; a perforated structure that is disposed radially outward of the radially outward segment portions, wherein each of a plurality of perforations in the perforated structure are configured to receive cooling air; and characterised by a seal clamping the annular structure to the perforated structure , and the seal coupling adjacent ones of the plurality of radially outward segment portions.
A biodegradable and compostable composition comprising: (i) 15-70 % by weight of at least one biodegradable and/or decayable aromatic polyester; (ii) 10-40 % by weight of dolomite and/or calcium carbonate particles having a polished surface; (iii) 0-30 % by weight of starch of vegetable origin; (iv) 1-5 % by weight of at least one oil of vegetable origin and/or at least one polyol; (v) 5-30 % by weight of an additive chosen from hydrated magnesium silicate such as talcum powder; (vi) 0-50 % by weight of at least one aliphatic polyester. (i) 15-70 % by weight of at least one biodegradable and/or decayable aromatic polyester; (ii) 10-40 % by weight of dolomite and/or calcium carbonate particles having a polished surface; (iii) 0-30 % by weight of starch of vegetable origin; (iv) 1-5 % by weight of at least one oil of vegetable origin and/or at least one polyol; (v) 5-30 % by weight of an additive chosen from hydrated magnesium silicate such as talcum powder; (vi) 0-50 % by weight of at least one aliphatic polyester.
A printing apparatus having a wireless direct communication function and a reservation function for reserving a received print job, comprising: a setting unit configured to set whether or not to use the reservation function; a determination unit configured to determine whether or not the print job received by the printing apparatus is a print job received by the wireless direct communication function; and a control unit configured to print the received print job; characterized in that the determination unit determines, based on destination address information of the received print job, whether or not the print job received by the printing apparatus is a print job received by the wireless direct communication function, and if it is determined based on destination address information of the received print job by said determination unit that the received print job is a print job received by the wireless direct communication function, the control unit prints the received print job without reserving the received print job even in a case where use of the reservation function has been set by said setting unit . a setting unit configured to set whether or not to use the reservation function; a determination unit configured to determine whether or not the print job received by the printing apparatus is a print job received by the wireless direct communication function; and a control unit configured to print the received print job; characterized in that the determination unit determines, based on destination address information of the received print job, whether or not the print job received by the printing apparatus is a print job received by the wireless direct communication function, and if it is determined based on destination address information of the received print job by said determination unit that the received print job is a print job received by the wireless direct communication function, the control unit prints the received print job without reserving the received print job even in a case where use of the reservation function has been set by said setting unit .
Device for the production of ring-shaped permanent magnets through electric discharge sintering, encompassing multiple tool elements that define a ring-shaped cavity to hold a magnetisable metallic powder and a controllable electric impulse current generator , in which at least two of the tool elements form electrodes and are electrically connected to the impulse current generator and the tool elements encompass at least one outer mould delimiting the cavity in the radial direction to the outside, and two means of compression that can be moved axially relative to each other delimiting the cavity in the axial direction, in which force is or can be applied to at least one of the means of compression in the direction of the cavity , characterised by the cavity in the radial direction to the inside being delimited by a core arranged coaxially to the outer mould , in which the outer mould and the core form the electrodes and the means of compression electrically insulating the electrodes against each other.
A method for reconstructing an image based on spectral image data acquired for at least two different effective energies, wherein the spectral image data is acquired from a spectral Computed Tomography, CT, system, and wherein the method comprises: - obtaining (S1) a first set of spectral image data related to an object to be imaged and a second set of spectral image data related to a calibration phantom including at least one reference material; - performing (S2) basis decomposition based on the first set of spectral image data to provide estimated basis images of the object to be imaged with respect to associated basis functions; - performing (S3) basis decomposition based on the second set of spectral image data to provide calibrated estimates of reference basis coefficients corresponding to said at least one reference material; and - determining (S4) image values representing the object to be imaged based on a system model of an imaging system to be emulated, the estimated basis images and their associated basis functions, and the calibrated estimates of reference basis coefficients, wherein the imaging system to be emulated is a conventional non-spectral CT system, wherein the determined image values are represented by modified synthetic Hounsfield units, which are Hounsfield units determined based on basis decomposition and with respect to the calibrated estimates of reference basis coefficients. - obtaining (S1) a first set of spectral image data related to an object to be imaged and a second set of spectral image data related to a calibration phantom including at least one reference material; - performing (S2) basis decomposition based on the first set of spectral image data to provide estimated basis images of the object to be imaged with respect to associated basis functions; - performing (S3) basis decomposition based on the second set of spectral image data to provide calibrated estimates of reference basis coefficients corresponding to said at least one reference material; and - determining (S4) image values representing the object to be imaged based on a system model of an imaging system to be emulated, the estimated basis images and their associated basis functions, and the calibrated estimates of reference basis coefficients, wherein the imaging system to be emulated is a conventional non-spectral CT system, wherein the determined image values are represented by modified synthetic Hounsfield units, which are Hounsfield units determined based on basis decomposition and with respect to the calibrated estimates of reference basis coefficients.
A physical quantity measuring device comprising; a chip package ; and a casing ; characterized in that the chip package is molded from a polymeric resin and includes a first measuring unit measuring a first physical quantity of a gas to be measured taken from a main passage , a second measuring unit measuring a second physical quantity of the gas to be measured taken from the main passage , and a signal processing unit being connected to the first and second measuring units , the signal processing unit processing signals transmitted from at least the first and second measuring units , the chip package being configured to dispose the signal processing unit between the first and second measuring units , the casing fixedly stores the chip package , and including a first bypass passage allowing the gas to be measured taken from the main passage , to flow in the first measuring unit , and a second bypass passage allowing the gas to be measured taken from the main passage , to flow in the second measuring unit , and the casing having a cooling unit allowing the gas to be measured from the main passage to flow between the first measuring unit and the second measuring unit , and cooling the signal processing unit .