mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining an untensioned product length (L 0 ) of a web moving through a printing press under tension, comprising, using a controller : determining a tensioned repeat length of the web in a span of the printing press while the web is moving through the printing press under tension; determining an elastic strain of the web in the span of the printing press while the web is moving through the printing press under tension; and calculating an untensioned product length of the web in the span of the printing press while the web is moving through the printing press under tension as a function of the tensioned repeat length and the elastic strain, wherein the step of determining the elastic strain comprises measuring, with a sensor , a tension in the span, determining a stiffness of the web, and calculating the elastic strain as a function of the tension and the stiffness. determining a tensioned repeat length of the web in a span of the printing press while the web is moving through the printing press under tension; determining an elastic strain of the web in the span of the printing press while the web is moving through the printing press under tension; and calculating an untensioned product length of the web in the span of the printing press while the web is moving through the printing press under tension as a function of the tensioned repeat length and the elastic strain, wherein the step of determining the elastic strain comprises measuring, with a sensor , a tension in the span, determining a stiffness of the web, and calculating the elastic strain as a function of the tension and the stiffness.
A polyolefin-based resin wrap film comprising a polyolefin-based resin, wherein the polyolefin-based resin comprises a polyethylene-based resin and has a density of 0.860 to 0.960 g/cm 3 , measured according to JIS K7112; wherein the content of the polyethylene-based resin is 70 to 100% by mass based on 100% by mass of the polyolefin-based resin; wherein the wrap film is torn in a machine direction when being torn in the machine direction; the wrap film is torn in a transverse direction when being torn in the transverse direction; the wrap film is torn either in the machine direction or in the transverse direction when being torn in a direction at 45° to the machine direction; an acute angle formed by a tearing direction and a cut line when the wrap film is torn in a direction at 45° to the machine direction is 30 to 60°; and a tear strength when the wrap film is torn in a direction at 45° to the machine direction is 10 g or lower measured using an Elmendorf tear strength tester according to JIS K7128, except for cutting a 10-mm score on the film of 60 mm x 60 mm and tearing the film in a direction at 45° to the machine direction, wherein the thickness of the wrap film is 5.0 to 15.0 μm, measured according to ASTM E-252, wherein a machine-direction shrinkage factor (Smd) thereof determined by the following formula and a transverse-direction shrinkage factor (Std) thereof determined by the following formula satisfy Smd ≥ 2.5 times, Std ≥ 2.5 times, Smd x Std ≥ 10 times and Std/Smd = 0.5 to 10: machine-direction shrinkage factor Smd = 100 / 100 − α md and transverse-direction shrinkage factor Std = 100 / 100 − α td wherein in the above formulae and , αmd represents a maximum thermal shrinkage (%) in the machine direction; and αtd represents a maximum thermal shrinkage (%) in the transverse direction, the maximum thermal shrinkage being measured according to ASTM D-1204; wherein a gel fraction thereof is 10 to 60% by mass measured according to ASTM D-2765; wherein a melting point thereof in differential scanning calorimetry is 80 to 123°C; and wherein the wrap film is obtained by a method comprising an extrusion step and a stretching step, wherein the stretching step is a step of biaxially stretching the extruded polyolefin resin.
Method (M) of manufacturing a sanitary tub , with the steps: cutting and/or milling (M4) tub components from a foam and assembling the tub components to form a tub body , or cutting and/or milling (M4') a tub body in one piece from a foam ; and coating (M5) the tub body with a flexible tub body sheathing , wherein the method also comprises: three-dimensional detecting (M1) of the external shape of a person , preparing (M2) a computer-readable dataset representing the recorded external shape of the person , and computer-aided controlling (M3) of the cutting and/or milling (M4, M4') of the tub components or the tub body based on the prepared dataset for manufacturing a partially or entirely anatomically shaped resting area in the tub body in the region of the tub interior . cutting and/or milling (M4) tub components from a foam and assembling the tub components to form a tub body , or cutting and/or milling (M4') a tub body in one piece from a foam ; and coating (M5) the tub body with a flexible tub body sheathing , wherein the method also comprises: three-dimensional detecting (M1) of the external shape of a person , preparing (M2) a computer-readable dataset representing the recorded external shape of the person , and computer-aided controlling (M3) of the cutting and/or milling (M4, M4') of the tub components or the tub body based on the prepared dataset for manufacturing a partially or entirely anatomically shaped resting area in the tub body in the region of the tub interior . three-dimensional detecting (M1) of the external shape of a person , preparing (M2) a computer-readable dataset representing the recorded external shape of the person , and computer-aided controlling (M3) of the cutting and/or milling (M4, M4') of the tub components or the tub body based on the prepared dataset for manufacturing a partially or entirely anatomically shaped resting area in the tub body in the region of the tub interior .
Method for evaluating the movement of an elevator car within a hoistway, comprising the steps of - gathering movement data of at least one component involved in moving the elevator car by means of a rotation encoder or acceleration sensor, - reading values of at least one identification marker that is installed in the hoistway and which the elevator car can pass by or arrive at when moving, - transmitting simultaneously the movement data of the rotation encoder or acceleration sensor, and the values of the identification marker to a controller, characterized in the method further comprising the steps of - picking up two signal values of the at least one identification marker that indicate a defined length of the at least one identification marker, - sampling at least two movement data readings responsive to the receipt of the two signal values, and - calibrating the movement data by calculating a conversion factor, wherein the conversion factor is based on the two picked up signal values of the at least one identification marker and the at least two movement data readings. - gathering movement data of at least one component involved in moving the elevator car by means of a rotation encoder or acceleration sensor, - reading values of at least one identification marker that is installed in the hoistway and which the elevator car can pass by or arrive at when moving, - transmitting simultaneously the movement data of the rotation encoder or acceleration sensor, and the values of the identification marker to a controller, - picking up two signal values of the at least one identification marker that indicate a defined length of the at least one identification marker, - sampling at least two movement data readings responsive to the receipt of the two signal values, and - calibrating the movement data by calculating a conversion factor, wherein the conversion factor is based on the two picked up signal values of the at least one identification marker and the at least two movement data readings.
A tank , in particular a fuel tank, for receiving a liquid in a motor vehicle, comprising • an outer wall that forms an internal space for receiving the liquid, • at least one volume element situated in the internal space for receiving gas, in particular air, • a gas-guiding line between the volume element and the surroundings of the tank for changing the volume of the volume element , and • at least one stabilizing assembly for minimizing stresses at kinks of the volume element when evacuating the volume element , characterized in that , • the stabilizing assembly has a coating of the volume element on its inner side and/or outer side, wherein the coating includes an elastic material, wherein the volume element is made of a film, wherein the coating includes fluororubber (FKM), acrylonitrile butadiene rubber (NBR), or fluorosilicone rubber (FVMQ). • an outer wall that forms an internal space for receiving the liquid, • at least one volume element situated in the internal space for receiving gas, in particular air, • a gas-guiding line between the volume element and the surroundings of the tank for changing the volume of the volume element , and • at least one stabilizing assembly for minimizing stresses at kinks of the volume element when evacuating the volume element , characterized in that , • the stabilizing assembly has a coating of the volume element on its inner side and/or outer side, wherein the coating includes an elastic material, wherein the volume element is made of a film, wherein the coating includes fluororubber (FKM), acrylonitrile butadiene rubber (NBR), or fluorosilicone rubber (FVMQ).
A three-dimensional printer comprising: a first material vessel configured to discharge first material through a first feeder as build material; a second material vessel configured to discharge second material through a second feeder as build material; a dilute-phase pneumatic conveying system configured to receive the first and second materials discharged from the first and second material vessels, and to mix the first and second materials in-line; and a controller configured to adjust operation of the first feeder and the second feeder to maintain the build material as having a specified ratio of the first material to the second material, wherein the 3D printer is to form a 3D object from the build material. a first material vessel configured to discharge first material through a first feeder as build material; a second material vessel configured to discharge second material through a second feeder as build material; a dilute-phase pneumatic conveying system configured to receive the first and second materials discharged from the first and second material vessels, and to mix the first and second materials in-line; and a controller configured to adjust operation of the first feeder and the second feeder to maintain the build material as having a specified ratio of the first material to the second material, wherein the 3D printer is to form a 3D object from the build material.
Cleaning machine suitable for automated cleaning of flat shelves of racks managed with logistics robots, comprising a supporting unit for arrangement on a managing logistics robot that can move in and out of a shelf compartment and at least one function module having a holder for a wiping unit and arranged on the supporting unit , said wiping unit comprising a strip-like cloth which is guided from a supply roll via said wiping unit to a storage roll and the cloth being guided over a tapered deflection roller and the wiping unit being designed in such a way that it can be pulled over the shelf surface while touching the shelf surface.
Film laminate comprising at least one compact decorative layer with a lacquer layer on the upper side and a foam layer on the underside, where the density of the foam layer is above 500 kg/m 3 and the foam layer is based on a polymer composition which comprises a) 15 to 60 parts by weight of at least one thermoplastic vulcanizate (TPV) b) 15 to 35 parts by weight of at least one high melt strength polyolefin (HMS polyolefin) and c) 30 to 60 parts by weight of at least one low density polyethylene (LDPE), where the proportions of a), b) and c) give a total of 100. a) 15 to 60 parts by weight of at least one thermoplastic vulcanizate (TPV) b) 15 to 35 parts by weight of at least one high melt strength polyolefin (HMS polyolefin) and c) 30 to 60 parts by weight of at least one low density polyethylene (LDPE),
Hose line for transporting drinking-water, with - a flexible inner layer of plastics material which can be acted upon by the fluid to be transported, and - at least one reinforcing band , running helically around the hose axis (x) and on the outside around the inner layer , said band being made of a rigid plastics material coextruded with the inner layer , wherein the reinforcing band has an at least substantially semicircular cross-section, the straight side of which is connected to the material of the inner layer , wherein the hose line is constructed from a corresponding extruded profile having at least two components which is wound helically and merely on its outer edges is welded to form a tube geometry forming the inner layer , and wherein the welded edges of the extruded profile are oriented obliquely to the hose line axis (x), as a result of which the welding surface is enlarged compared with a perpendicular orientation of these edges . - a flexible inner layer of plastics material which can be acted upon by the fluid to be transported, and - at least one reinforcing band , running helically around the hose axis (x) and on the outside around the inner layer , said band being made of a rigid plastics material coextruded with the inner layer ,
A method performed by a sensor signal processing unit for detecting a configuration of parking slots based on radar detections , the method comprising; receiving (S1) a plurality of radar detections from a radar-based sensor system , generating (S4) a representation of a spatial distribution of a set of coordinates associated with the radar detections, characterized in detecting (S5) the configuration of parking slots based on a Fourier transform of the representation of spatial distribution. receiving (S1) a plurality of radar detections from a radar-based sensor system , generating (S4) a representation of a spatial distribution of a set of coordinates associated with the radar detections, characterized in detecting (S5) the configuration of parking slots based on a Fourier transform of the representation of spatial distribution.
Process for dyeing keratin fibers, in particular human keratin fibers such as the hair, comprising the application to said fibers of a composition comprising (i) one or more copolymers derived from the polymerization of at least one crotonic acid monomer or crotonic acid derivative and of at least one vinyl ester monomer, (ii) one or more amino silicones, the total amount of amino silicone(s) ranging from 0.1% to 15% by weight relative to the total weight of the composition, and (iii) one or more pigments; and wherein the total amount of silicone(s) ranges from 0.1% to 15% by weight relative to the total weight of the composition.
Method for generating an asynchronous trigger signal (T) in a position measuring device , having a position detection unit , a processor unit and an interface unit , wherein the position measuring device is connectable to sequent electronics via the interface unit and a bidirectional data transmission channel for the purpose of communication, having the following steps: • generating a synchronous data stream (S_DS) from an asynchronous data stream (A_DS), which arrives at the position measuring device from the direction of the sequent electronics , by sampling the asynchronous data stream (A_DS) in the temporal framework of an operating clock signal (CLK), • generating a gate signal (G) on determination of an enable condition for the output of the trigger signal (T) by evaluating the synchronous data stream (S_DS), and • generating the trigger signal (T) when the gate signal (G) is present and when a signal edge of the asynchronous data stream (A_DS) occurs. • generating a synchronous data stream (S_DS) from an asynchronous data stream (A_DS), which arrives at the position measuring device from the direction of the sequent electronics , by sampling the asynchronous data stream (A_DS) in the temporal framework of an operating clock signal (CLK), • generating a gate signal (G) on determination of an enable condition for the output of the trigger signal (T) by evaluating the synchronous data stream (S_DS), and • generating the trigger signal (T) when the gate signal (G) is present and when a signal edge of the asynchronous data stream (A_DS) occurs.
A method for studying constituents of a nucleic acid molecular complex by labelling the molecules belonging to the same complex with at least one set of molecular constructs, wherein each member of the set comprises a Unique Identifying Sequence (UIS) comprising degenerate bases, which UIS is a nucleic acid sequence unique for each member of the set, and at least one 5'-Common Tag Sequence (5'-CTS) at the 5' end, and at least one 3'-Common Tag Sequence (3'-CTS) at the 3' end which common tag sequences are nucleic acid sequences common to all members of the set, by: - ligating the 5'-CTS and the 3'-CTS to each other to form a circular DNA, wherein the 5'-CTS and the 3'-CTS are designed to be complementary to adjacent sequences in a nucleic acid molecule of the nucleic acid molecular complex, - amplifying the circular DNA by Rolling Circle Amplification to obtain clones of the UIS and CTS, - attaching the molecular construct to the complex by allowing the 5'-CTS and the 3'-CTS to hybridize to the nucleic acid molecule, - labelling the molecules belonging to the same complex by using the molecular construct as primers or templates in a nucleic acid polymerization reaction, and - analyzing the composition of the molecular complex by analyzing the combinations of UISs and CTSs. - ligating the 5'-CTS and the 3'-CTS to each other to form a circular DNA, wherein the 5'-CTS and the 3'-CTS are designed to be complementary to adjacent sequences in a nucleic acid molecule of the nucleic acid molecular complex, - amplifying the circular DNA by Rolling Circle Amplification to obtain clones of the UIS and CTS, - attaching the molecular construct to the complex by allowing the 5'-CTS and the 3'-CTS to hybridize to the nucleic acid molecule, - labelling the molecules belonging to the same complex by using the molecular construct as primers or templates in a nucleic acid polymerization reaction, and - analyzing the composition of the molecular complex by analyzing the combinations of UISs and CTSs.
A cartridge having a front end and a rear end and capable of connecting to a game apparatus by inserting the cartridge, the front end first, into a cartridge insertion slot of the game apparatus, the cartridge comprising a plurality of terminals electrically connected to terminals of the game apparatus in the cartridge insertion slot, wherein, the plurality of terminals include a clock terminal configured to receive a clock signal from the game apparatus, and a strobe terminal configured to output a strobe signal to the game apparatus, and a direction in which the cartridge is inserted into or removed from the cartridge insertion slot is a first direction, characterized by the strobe terminal and the clock terminal are arranged sequentially in the first direction, and the clock terminal is closer to the front end of the cartridge than the strobe terminal is to the front end of the cartridge. a plurality of terminals electrically connected to terminals of the game apparatus in the cartridge insertion slot, wherein, the plurality of terminals include a clock terminal configured to receive a clock signal from the game apparatus, and a strobe terminal configured to output a strobe signal to the game apparatus, and a direction in which the cartridge is inserted into or removed from the cartridge insertion slot is a first direction, characterized by the strobe terminal and the clock terminal are arranged sequentially in the first direction, and the clock terminal is closer to the front end of the cartridge than the strobe terminal is to the front end of the cartridge.
An electronic device comprising: a data storage storing information on a ringtone assigned to a function of the electronic device ; a speaker for outputting the ringtone assigned to the function of the electronic device ; a microphone for receiving sound of a ringtone output by another electronic device ; and a controller configured to: compare the sound of a ringtone being output by another electronic device and received via the microphone with the ringtone assigned to the function of the electronic device ; and cause an alert to be output by the electronic device when the ringtone output by another electronic device is the same as the ringtone assigned to the function of the electronic device . a data storage storing information on a ringtone assigned to a function of the electronic device ; a speaker for outputting the ringtone assigned to the function of the electronic device ; a microphone for receiving sound of a ringtone output by another electronic device ; and a controller configured to: compare the sound of a ringtone being output by another electronic device and received via the microphone with the ringtone assigned to the function of the electronic device ; and cause an alert to be output by the electronic device when the ringtone output by another electronic device is the same as the ringtone assigned to the function of the electronic device .
A method of manufacturing SiO 2 used for a glass preform, the method comprising: transporting a liquid of a raw material compound comprising an organic silicon compound in a liquid state to a gasifier through a liquid-sending flow path by pressurizing the liquid of the raw material compound using a pressurization gas from a liquid container storing the liquid of the raw material compound ; deaerating a dissolved gas from the pressurized liquid of the raw material compound in a deaeration device positioned in the middle of the liquid-sending flow path ; controlling a flow rate of the deaerated liquid of the raw material compound using a mass flow controller positioned in the middle of the liquid-sending flow path and between the deaeration device and the gasifier ; gasifying the liquid of the raw material compound in the gasifier transported through the mass flow controller ; and combusting the gasified raw material compound using a burner to generate SiO 2 , wherein, during the deaerating of the dissolved gas , a specific surface area of the raw material compound , which is a vacuum exposure area per unit volume of a raw material liquid, is 0.75 mm -1 or more, and a vacuum exposure time of the raw material compound is 18 seconds or longer. transporting a liquid of a raw material compound comprising an organic silicon compound in a liquid state to a gasifier through a liquid-sending flow path by pressurizing the liquid of the raw material compound using a pressurization gas from a liquid container storing the liquid of the raw material compound ; deaerating a dissolved gas from the pressurized liquid of the raw material compound in a deaeration device positioned in the middle of the liquid-sending flow path ; controlling a flow rate of the deaerated liquid of the raw material compound using a mass flow controller positioned in the middle of the liquid-sending flow path and between the deaeration device and the gasifier ; gasifying the liquid of the raw material compound in the gasifier transported through the mass flow controller ; and combusting the gasified raw material compound using a burner to generate SiO 2 , wherein, during the deaerating of the dissolved gas , a specific surface area of the raw material compound , which is a vacuum exposure area per unit volume of a raw material liquid, is 0.75 mm -1 or more, and a vacuum exposure time of the raw material compound is 18 seconds or longer.