mhurhangee/patent-ind-claim-en huggingface dataset:
A method for decomposing nicotine, the method comprising a step (a) of irradiating ultraviolet light (L1) in a target room allowing smoking, characterized in that ultraviolet light (L1) with a main peak wavelength of 200 nm to 230 nm is irradiated to decompose the nicotine.
A method for producing a helical body, in particular an electrical coil, from an electrically conductive material, in which first the material, in a strand shape, is wound around a mandrel to form a helix having a multitude of turns , then, prior to exerting a pressure, the mandrel and the helix are placed into a die , and a base plate fixedly connected to the mandrel is connected to the die by way of a form-locked connection, in particular a bayonet catch, and then a pressure is exerted on the helix in an axial direction thereof, which results in a deformation and a compression of the cross-sections of the individual turns in the axial direction of the helix.
A floating chemical dispenser for containing and dispensing chemicals to treat a body of water, the dispenser comprising; a float positioned at an upper end of the dispenser; a container having a top and a bottom, the top of the container being adjacent to the float and optionally connected thereto by a retaining collar , the container defining in an interior compartment configured to hold a chemical, the container defining at least one aperture positioned to receive water from the outside environment for combining with a chemical and dispensing the chemical into a body of water; an end cap attached to the bottom of the container , the end cap being held on the container by a retaining device, the end cap defining at least one orifice and being rotatable in relation to the container , the end cap being rotatable between a closed position and a chemical dispensing position, wherein, when in the chemical dispensing position, the at least one orifice is aligned with the aperture on the container; a locking device that prevents the end cap from rotating when enabled; and, extra weight placed off-center in the container , in the float , in the end cap or, if present, in the retaining collar , wherein the extra weight provides the dispenser with a center of gravity such that the chemical dispenser floats upright when containing the chemical to treat the body of water, and to tip over and float in a horizontal position when the chemical has been fully dissolved or has been exhausted. a float positioned at an upper end of the dispenser; a container having a top and a bottom, the top of the container being adjacent to the float and optionally connected thereto by a retaining collar , the container defining in an interior compartment configured to hold a chemical, the container defining at least one aperture positioned to receive water from the outside environment for combining with a chemical and dispensing the chemical into a body of water; an end cap attached to the bottom of the container , the end cap being held on the container by a retaining device, the end cap defining at least one orifice and being rotatable in relation to the container , the end cap being rotatable between a closed position and a chemical dispensing position, wherein, when in the chemical dispensing position, the at least one orifice is aligned with the aperture on the container; a locking device that prevents the end cap from rotating when enabled; and, extra weight placed off-center in the container , in the float , in the end cap or, if present, in the retaining collar , wherein the extra weight provides the dispenser with a center of gravity such that the chemical dispenser floats upright when containing the chemical to treat the body of water, and to tip over and float in a horizontal position when the chemical has been fully dissolved or has been exhausted.
A method of manufacturing a fluid-filled chamber defining an interior void and formed from an upper polymer barrier portion , a lower polymer barrier portion , and a sidewall barrier portion that extends around the periphery of the fluid-filled chamber and between the upper polymer barrier portion and the lower polymer barrier portion , the method comprising: knitting a tensile member , utilizing yarn, to have a shape of the chamber; and locating the tensile member within the interior void and bonding the tensile member to the upper polymer barrier portion and the lower polymer barrier portion, characterized in that : the step of knitting further includes: utilizing a flat-knitting machine; and finishing at least one edge of the tensile member such that ends of the yarn are substantially absent from the edge. knitting a tensile member , utilizing yarn, to have a shape of the chamber; and locating the tensile member within the interior void and bonding the tensile member to the upper polymer barrier portion and the lower polymer barrier portion, characterized in that : the step of knitting further includes: utilizing a flat-knitting machine; and finishing at least one edge of the tensile member such that ends of the yarn are substantially absent from the edge. the step of knitting further includes: utilizing a flat-knitting machine; and finishing at least one edge of the tensile member such that ends of the yarn are substantially absent from the edge.
Operation control method of a vibration screen provided with two rotating shafts equipped with eccentric weights arranged in parallel and with a vibration generator provided with motors (Ma, Mb) so as to drive in rotation the two rotating shafts independently, wherein a threshold based on throughput of work supplied to the vibration screen is preset and after the driven state of the two rotating shafts becomes steady, a transmission of rotary drive force to one of the rotating shafts is stopped, and (i) if the throughput of work supplied to the vibration screen is smaller than the threshold, the rotating shaft with the transmission of rotary drive force stopped is rotated together interlocked with the other rotating shaft by the vibration generated by the rotating of the other rotating shaft, and (ii) if the throughput of work supplied to the vibration screen becomes larger than the threshold, the transmission of rotary drive force to the rotating shaft to which the transmission of rotary drive force was stopped is started so as to drive in rotation the two rotating shafts ; characterized in that the transmission of rotary drive force is temporarily stopped for a short time when the rotating shaft is started, thereby starting the rotating shaft through pendulum action of the rotating shaft equipped with eccentric weight .
A computer-implemented method for creating traffic information for a specialized type of vehicle, including undersized vehicles, such as mopeds, scooters, Segway personal transports, or the like, and oversized vehicles, such as delivery trucks and tractor-trailers, the method comprising: receiving initial driving information for a generic type of vehicle along a planned traffic route, wherein the generic type of vehicle travels along the planned traffic route in larger numbers than the specialized type of vehicle; determining , for the specialized type of vehicle along the planned traffic route, an adjustment to the initial driving information of the generic type of vehicle along the planned traffic route; creating specialized driving information based on the initial driving information and the adjustment that was determined; and causing the specialized driving information relating to the planned traffic route for the specialized type of vehicle to be provided. receiving initial driving information for a generic type of vehicle along a planned traffic route, wherein the generic type of vehicle travels along the planned traffic route in larger numbers than the specialized type of vehicle; determining , for the specialized type of vehicle along the planned traffic route, an adjustment to the initial driving information of the generic type of vehicle along the planned traffic route; creating specialized driving information based on the initial driving information and the adjustment that was determined; and causing the specialized driving information relating to the planned traffic route for the specialized type of vehicle to be provided.
Mobile fence element , comprising a base with at least one recess for a lifting device and at least two pillars between which a flat structure is arranged, wherein each of the pillars is inserted into a receiving groove or in a receiving bore of the base and fixed therein and the base on one side, on the side of the mobile fence element to be shielded, has a channel designed as an open receiving groove for receiving cables or tensioning ropes, which extends continuously along the entire length of the base , characterised in that the channel running on the side to be shielded runs horizontally, i.e. transversely to the alignment of the flat structure and is closed by a releasably fixed cover .
A method comprising: receiving, by a first robotic device , a first time-parameterized path for the first robotic device; receiving, by the first robotic device, an indication of a second robotic device having a second time-parameterized path that overlaps with the first time-parameterized path at a first location , characterized in that the first and second time-parameterized paths approach the first location from different directions; executing, by the first robotic device, a first portion of the first time-parameterized path before reaching the first location; determining, by the first robotic device, a first rate of progress of the first robotic device which indicates how far the first robotic device is ahead of or behind schedule on the first portion of the first time-parameterized path; receiving, by the first robotic device, a communication signal from the second robotic device indicating a second rate of progress of the second robotic device along the second time-parameterized path, wherein the second rate of progress indicates how far the second robotic device is ahead of or behind schedule on the second time-parameterized path; determining a difference between the first rate of progress and the second rate of progress; and modifying, by the first robotic device, execution of the first time-parameterized path based on the determined difference. receiving, by a first robotic device , a first time-parameterized path for the first robotic device; receiving, by the first robotic device, an indication of a second robotic device having a second time-parameterized path that overlaps with the first time-parameterized path at a first location , characterized in that the first and second time-parameterized paths approach the first location from different directions; executing, by the first robotic device, a first portion of the first time-parameterized path before reaching the first location; determining, by the first robotic device, a first rate of progress of the first robotic device which indicates how far the first robotic device is ahead of or behind schedule on the first portion of the first time-parameterized path; receiving, by the first robotic device, a communication signal from the second robotic device indicating a second rate of progress of the second robotic device along the second time-parameterized path, wherein the second rate of progress indicates how far the second robotic device is ahead of or behind schedule on the second time-parameterized path; determining a difference between the first rate of progress and the second rate of progress; and modifying, by the first robotic device, execution of the first time-parameterized path based on the determined difference.
Adjustable guide device for a sliding element , such as a sliding door, comprising a mounting part , which has a mounting body mountable on the floor, a guide member which is rotatably connected to the mounting part and which is intended to co-operate with the underside of the sliding element , and a locking element by means of which the connection between the mounting part and the guide member is fixable or releasable, wherein the guide member comprises a guide body which has a guide column aligned along a guide axis (y) and a guide foot connected thereto and resting on the upper side of the mounting body , which guide foot is connected to the mounting body by a bolt-shaped joint element about a pivot axis (x) spaced from the guide axis (y) and is rotatable between two end positions and is fixable by means of the locking element , characterised in that the underside of the guide foot has a structured first contact surface which bears against a structured second contact surface provided on the upper side of the mounting body , and in that the first and the second contact surfaces (123; 143) have structural elements which, after the mounting part and the guide member have been connected, engage positively with one another selectively in one of a plurality of rotational positions between the two end positions.
Device plug for latching into an opening of a device housing plate and for receiving a device socket , having a device plug housing , a device plug interior , and an electrical contact element which leads from the device plug interior to an outer area, wherein the device plug housing comprises an external device arrangement and two plate latching elements, three plate latching elements, four plate latching elements, or further plate latching elements , wherein each plate latching element respectively comprises a partially circumferential gap such that the plate latching element is in each case designed as a resilient element, and the respective gap is designed in such a way that a gap width between the plate latching element and the outer device arrangement for receiving the device housing plate is designed so that, during a latching process into the opening of the device housing plate by way of contact between the plate latching element and the device housing cover forming the opening, the plate latching element is resiliently guided into the device plug interior and is resiliently retained when latched, wherein the gap width substantially receives a portion of the device housing cover, and the device plug, which is designed as an injection-moulded part, comprises a resiliently acting socket latching apparatus , and the resiliently acting socket latching apparatus is formed by a partially circumferential socket latching gap, wherein the plate latching elements and the resiliently acting socket latching apparatus, or further resiliently acting socket latching apparatuses, are integrally formed by way of the device plug housing, characterized in that a partially circumferential socket latching gap in each case shares a recess with a respective portion of the partially circumferential gap of two plate latching elements.
A saw auxiliary device including a chainsaw , including a base element guidable along a wood surface , at which a mounting device is provided, at which the chainsaw is quick-releasably settable, characterized in that the chainsaw is set by means of the mounting device with a top flank of a bar of the chainsaw as a front flank, wherein at least one retaining device is provided at the base element for avoiding that the base element or the entire device is excessively lifted off from the wood surface of the wood to be cut in undesired manner.
Profiled part for rigid load-bearing parts of a vehicle body, comprising - an inner profile designed as an extruded profile, and comprising - at least one reinforcing layer , which consists of fibre-reinforced plastics material and which is applied to the inner profile , characterised in that the inner profile comprises an outer layer , which comprises a matrix material for a fibre-reinforced plastics material, wherein the outer layer preferably comprises the same material or consists of the same material comprised by the reinforcing layer as a matrix material, and an inner gas-tight layer , as well as a layer located between the layers and . - an inner profile designed as an extruded profile, and comprising - at least one reinforcing layer , which consists of fibre-reinforced plastics material and which is applied to the inner profile ,
A process for designing an internal turbine engine component comprising: operating a test rig incorporating a physical morphing component having a first geometry and generating a data set of empirically determined component performance parameters corresponding to the first geometry; providing the data set of empirically determined component performance parameters to a computational optimization system and automatically determining a geometry optimization of the morphing component; altering the geometry of the morphing component to match the geometry optimization; and reiterating operating the test rig and providing the data set of empirically determined component performance parameters. operating a test rig incorporating a physical morphing component having a first geometry and generating a data set of empirically determined component performance parameters corresponding to the first geometry; providing the data set of empirically determined component performance parameters to a computational optimization system and automatically determining a geometry optimization of the morphing component; altering the geometry of the morphing component to match the geometry optimization; and reiterating operating the test rig and providing the data set of empirically determined component performance parameters.
A high-brightness luminescent yarn (50",50"'), which is a strip, the luminescent yarn (50", 50"') having a cross-section in the form of a rectangle, the cross-section of the luminescent yarn (50", 50"') being a multilayered structure and including: a main body formed of a substrate material ; and at least one luminescent surface layer formed of a luminescent layer and including multiple luminescent particles capable of absorbing energy and emitting luminescence, the at least one luminescent surface layer being positioned on at least one surface of the main body ; wherein each luminescent surface layer comprises multiple microcapsule luminescent granules , each microcapsule luminescent granule comprising one or multiple of the luminescent particles and an enclosure layer , the enclosure layer enclosing the one or multiple luminescent particles of the respective microcapsule luminescent granule , the enclosure layer being transparent; wherein at least one surface of the main body is formed with at least one colored layer and the at least one luminescent surface layer being positioned on the outer side of the colored layer , the at least one luminescent surface layer being positioned on at least one of the top face and the bottom face of the main body ; and wherein two lateral faces of the luminescent yarn (50", 50"') are plane faces (P). a main body formed of a substrate material ; and at least one luminescent surface layer formed of a luminescent layer and including multiple luminescent particles capable of absorbing energy and emitting luminescence, the at least one luminescent surface layer being positioned on at least one surface of the main body ; wherein each luminescent surface layer comprises multiple microcapsule luminescent granules , each microcapsule luminescent granule comprising one or multiple of the luminescent particles and an enclosure layer , the enclosure layer enclosing the one or multiple luminescent particles of the respective microcapsule luminescent granule , the enclosure layer being transparent; wherein at least one surface of the main body is formed with at least one colored layer and the at least one luminescent surface layer being positioned on the outer side of the colored layer , the at least one luminescent surface layer being positioned on at least one of the top face and the bottom face of the main body ; and wherein two lateral faces of the luminescent yarn (50", 50"') are plane faces (P).
An automatic verification method executing in a startup procedure of a host electronic device , comprising: calculating (S205) specific to at least one system information in the host electronic device to obtain a set of verification values in the startup procedure when the host electronic device is booted up; comparing (S207) at least one verification value from the set of verification values with at least one preset verification value from a set of preset verification values according to a preset condition and obtaining a comparison result; decapsulating (S213) a key if the comparison result indicates conformity; decrypting (S215) at least one system program of the at least one system information in the host electronic device with the key to complete the startup procedure; after completing the startup procedure, re-calculating (S303) according to the changed at least one system information in a proxy device to obtain a new set of preset verification values before the at least one system information in the host electronic device is desired to be changed; providing (S305) the new set of preset verification values for the host electronic device to substitute the original set of preset verification values; re-encapsulating (S307) the key with the new set of preset verification values; and changing (S309) the at least one system information in the host electronic device . calculating (S205) specific to at least one system information in the host electronic device to obtain a set of verification values in the startup procedure when the host electronic device is booted up; comparing (S207) at least one verification value from the set of verification values with at least one preset verification value from a set of preset verification values according to a preset condition and obtaining a comparison result; decapsulating (S213) a key if the comparison result indicates conformity; decrypting (S215) at least one system program of the at least one system information in the host electronic device with the key to complete the startup procedure; after completing the startup procedure, re-calculating (S303) according to the changed at least one system information in a proxy device to obtain a new set of preset verification values before the at least one system information in the host electronic device is desired to be changed; providing (S305) the new set of preset verification values for the host electronic device to substitute the original set of preset verification values; re-encapsulating (S307) the key with the new set of preset verification values; and changing (S309) the at least one system information in the host electronic device .
A composite sheet comprising at least two adjacent fibrous monolayers of unidirectionally aligned high tenacity polyethylene fibers, whereby the direction of orientation between the polyethylene fibers of said two fibrous layers differs by at least 80° and up to 90°, the fibers having a tenacity of at least 1.5 N/tex, said fibers being in a matrix comprising a homopolymer or copolymer of ethylene and wherein said homopolymer or copolymer of ethylene has a density as measured according to ISO1183 of between 870 to 980 kg/m 3 , said composite sheet having an areal density of between 50 and 500 g/m 2 , characterised in that the composite sheet has an areal density normalized in-plane shear force measured at 25°C evaluated according to the method "bias extension test" described in the methods section of the description of at least 0.40 N.m 2 .g -1 and lower than 5.0 N.m 2 .g -1 at 10 mm clamp displacement and an areal density normalized in-plane shear force measured at 110°C and clamp displacement of 10 mm of at least 0.03 N.m 2 .g -1 and lower than 0.20 N.m 2 .g -1 also evaluated according to the method "bias extension test".