mhurhangee/patent-ind-claim-en huggingface dataset:
A cleaning method for a workpiece with foreign matter adhered, the cleaning method comprising: transmitting a particle beam to the workpiece with foreign matter adhered to scan a structure of the workpiece ; comparing the structure of the workpiece and the foreign matter obtained by the scanning with a 3D model of the workpiece ; identifying cleaning points (33m1, 33m2) of the workpiece with the foreign matter adhered based on a result of the comparison; substituting a true value to a cleaning variable for the identified cleaning points (33m1, 33m2); generating a cleaning liquid jet from a main nozzle ; skipping a first cleaning section (33f3) and jumping to a next second cleaning section (33f3) if the cleaning variable corresponding to the first cleaning section (33f3) has a false value; and executing the first cleaning section (33f3) to direct the main nozzle toward the cleaning points if the cleaning variable has a true value; skipping a first retraction section (33f4) and jumping to a next second retraction section (33f4) if all the cleaning variables of the cleaning points associated with a first retraction section (33f4) have false values ; and executing, otherwise, the first retraction section (33f4). transmitting a particle beam to the workpiece with foreign matter adhered to scan a structure of the workpiece ; comparing the structure of the workpiece and the foreign matter obtained by the scanning with a 3D model of the workpiece ; identifying cleaning points (33m1, 33m2) of the workpiece with the foreign matter adhered based on a result of the comparison; substituting a true value to a cleaning variable for the identified cleaning points (33m1, 33m2); generating a cleaning liquid jet from a main nozzle ; skipping a first cleaning section (33f3) and jumping to a next second cleaning section (33f3) if the cleaning variable corresponding to the first cleaning section (33f3) has a false value; and executing the first cleaning section (33f3) to direct the main nozzle toward the cleaning points if the cleaning variable has a true value; skipping a first retraction section (33f4) and jumping to a next second retraction section (33f4) if all the cleaning variables of the cleaning points associated with a first retraction section (33f4) have false values ; and executing, otherwise, the first retraction section (33f4).
Combination comprising a composition A and a composition B, wherein the composition A contains hollow microspheres and the composition B contains a solvent for opening these hollow microspheres and the composition A and/or the composition B contains an inorganic and/or organic binder, wherein the hollow microspheres have a polymer shell and contain a blowing agent and the solvent is suitable for dissolving the polymer shell of the hollow microspheres.
An urban concentrated solar power for mounting on a roof top, comprising: (a) a heat receiver having a non-circular duct distinguishing an insulated area with an insulation layer on the outer surface of the non-circular duct and a non-insulated area, wherein the non-circular duct contains a heat transferring fluid, wherein the non-circular duct has an irradiated duct area versus a total duct area of 5% to 30%, wherein the total duct area is defined as a perimeter of the non-circular duct multiplied by a length of the non-circular duct; (b) a glass tube holding a vacuum, wherein the heat receiver is placed within the vacuum of the glass tube; (c) a vacuum pump in connection with the glass tube , wherein the vacuum pump draws or redraws the vacuum within the glass tube ; (d) a coupling with an intermediate O-ring holding an end of the glass tube ; (e) a heat shield near the intermediate O-ring and circumferentially positioned around the heat receiver and within the glass tube ; and (f) a parabolic trough to concentrate sunlight onto the non-insulated area of the non-circular duct of the heat receiver. (a) a heat receiver having a non-circular duct distinguishing an insulated area with an insulation layer on the outer surface of the non-circular duct and a non-insulated area, wherein the non-circular duct contains a heat transferring fluid, wherein the non-circular duct has an irradiated duct area versus a total duct area of 5% to 30%, wherein the total duct area is defined as a perimeter of the non-circular duct multiplied by a length of the non-circular duct; (b) a glass tube holding a vacuum, wherein the heat receiver is placed within the vacuum of the glass tube; (c) a vacuum pump in connection with the glass tube , wherein the vacuum pump draws or redraws the vacuum within the glass tube ; (d) a coupling with an intermediate O-ring holding an end of the glass tube ; (e) a heat shield near the intermediate O-ring and circumferentially positioned around the heat receiver and within the glass tube ; and (f) a parabolic trough to concentrate sunlight onto the non-insulated area of the non-circular duct of the heat receiver.
An organic light emitting diode (OLED) pixel unit , comprising an opaque region and a transparent region which are arranged side by side, wherein the opaque region comprises an opaque display element , and the transparent region comprises at least one transparent display element , wherein the opaque display element is an active matrix OLED (AMOLED) display element comprising an organic light emitting device and a thin film transistor on a substrate , the thin film transistor is configured to drive the organic light emitting device of the AMOLED display element, wherein the transparent display element is a passive matrix OLED (PMOLED) display element comprising an organic light emitting device on the substrate , the organic light emitting device of the PMOLED display element is configured to be driven by a voltage directly applied onto the organic light emitting device, and wherein a cathode of the opaque display element and a cathode of the transparent display element are made from a same material layer simultaneously and are disconnected from each other, the cathode of the opaque display element is arranged at a side of a light emitting layer of the opaque display element away from the thin film transistor of the opaque display element , and the cathode of the transparent display element is arranged at a side of a light emitting layer of the transparent display element away from the substrate . wherein the opaque display element is an active matrix OLED (AMOLED) display element comprising an organic light emitting device and a thin film transistor on a substrate , the thin film transistor is configured to drive the organic light emitting device of the AMOLED display element, wherein the transparent display element is a passive matrix OLED (PMOLED) display element comprising an organic light emitting device on the substrate , the organic light emitting device of the PMOLED display element is configured to be driven by a voltage directly applied onto the organic light emitting device, and wherein a cathode of the opaque display element and a cathode of the transparent display element are made from a same material layer simultaneously and are disconnected from each other, the cathode of the opaque display element is arranged at a side of a light emitting layer of the opaque display element away from the thin film transistor of the opaque display element , and the cathode of the transparent display element is arranged at a side of a light emitting layer of the transparent display element away from the substrate .
A WC-based cemented carbide powder consisting of: WC, Cu, and at least one of Co, Fe, and Cr, wherein a content of the WC in mass ratio is equal to or more than 40 mass%, a content of the Cu is more than 0.1 mass% and equal to or less than 25 mass%, a content of the at least one of Co, Fe, and Cr is equal to or more than 25 mass% and less than 60 mass%, and a ratio a/b of a content 'a' of the Cu and the content'b' of the at least one of Co, Fe, and Cr satisfies 0.070 ≤ a/b ≤ 1.000. WC, Cu, and at least one of Co, Fe, and Cr, wherein a content of the WC in mass ratio is equal to or more than 40 mass%, a content of the Cu is more than 0.1 mass% and equal to or less than 25 mass%, a content of the at least one of Co, Fe, and Cr is equal to or more than 25 mass% and less than 60 mass%, and a ratio a/b of a content 'a' of the Cu and the content'b' of the at least one of Co, Fe, and Cr satisfies 0.070 ≤ a/b ≤ 1.000.
A vacuum system pipe coupling comprising: a first coupling member ; a second coupling member ; a seal system to be positioned between said first and second coupling members to seal between said coupling members; and a securing system to releasably secure said first coupling member to said second coupling member, said seal system comprising an inner seal element and an outer seal element and said first coupling member being provided with a flow passage configured to conduct a pressurised gas to a space that in use is provided between said inner and outer seal elements to shield said outer seal element from fluid flowing through said pipe coupling in the event of failure of said inner seal element characterised in that said outer seal element comprises a first material and said inner seal element comprises a second material that is different to said first material, wherein said first material is a fluoroelastomer and said second material is a perflouroelastomer. a first coupling member ; a second coupling member ; a seal system to be positioned between said first and second coupling members to seal between said coupling members; and a securing system to releasably secure said first coupling member to said second coupling member, said seal system comprising an inner seal element and an outer seal element and said first coupling member being provided with a flow passage configured to conduct a pressurised gas to a space that in use is provided between said inner and outer seal elements to shield said outer seal element from fluid flowing through said pipe coupling in the event of failure of said inner seal element characterised in that said outer seal element comprises a first material and said inner seal element comprises a second material that is different to said first material, wherein said first material is a fluoroelastomer and said second material is a perflouroelastomer.
A method of assembling a container, the method comprising: providing a container , a closure , a receiving member , and a platform : the container comprising a first chamber having a sidewall extending between an open end and a closed end defining a first chamber interior, a second chamber having a sidewall extending between an open end and a closed end defining a second chamber interior; attaching the platform to the closure ; aligning the receiving member to one of the first or second chambers ; and rotatably mating the closure with the container , wherein the platform is rotatable with respect to the closure when the receiving member extends within the interior of either the first chamber or the second chamber of the container . the container comprising a first chamber having a sidewall extending between an open end and a closed end defining a first chamber interior, a second chamber having a sidewall extending between an open end and a closed end defining a second chamber interior; attaching the platform to the closure ; aligning the receiving member to one of the first or second chambers ; and rotatably mating the closure with the container , wherein the platform is rotatable with respect to the closure when the receiving member extends within the interior of either the first chamber or the second chamber of the container .
An apparatus for taking out a molded product, comprising: a vacuum suction device including a suction member operable to suck up a molded product, a vacuum generator connected to the suction member via a pipe to apply a vacuum pressure to the suction member , a pressure valve operable to control the vacuum pressure to be applied from the vacuum generator to the suction member , and a pressure detector operable to detect a pressure to be applied to the suction member ; a moving mechanism operable to move the suction member to take out the molded product from a mold of a molding machine ; a controller operable to perform operation control of the vacuum generator and the pressure valve , and drive control of the moving mechanism ; a pressure data storing section operable to store a change in the pressure detected by the pressure detector as time-series pressure data; and a suction error cause determining section operable to determine if a suction error by the suction member occurs and/or a suction error is likely to occur, and a cause thereof, wherein the suction error cause determining section determines if a suction error by the suction member occurs and/or a suction error is likely to occur, and a cause thereof on a basis of a result of comparing the time-series pressure data with predetermined time-series reference data. a vacuum suction device including a suction member operable to suck up a molded product, a vacuum generator connected to the suction member via a pipe to apply a vacuum pressure to the suction member , a pressure valve operable to control the vacuum pressure to be applied from the vacuum generator to the suction member , and a pressure detector operable to detect a pressure to be applied to the suction member ; a moving mechanism operable to move the suction member to take out the molded product from a mold of a molding machine ; a controller operable to perform operation control of the vacuum generator and the pressure valve , and drive control of the moving mechanism ; a pressure data storing section operable to store a change in the pressure detected by the pressure detector as time-series pressure data; and a suction error cause determining section operable to determine if a suction error by the suction member occurs and/or a suction error is likely to occur, and a cause thereof, wherein the suction error cause determining section determines if a suction error by the suction member occurs and/or a suction error is likely to occur, and a cause thereof on a basis of a result of comparing the time-series pressure data with predetermined time-series reference data.
A system for disinfecting a surface comprising: an illuminator including: a parabolic reflector as a reflective mirror ; and a set of ultraviolet radiation sources located within a proximity of a focus point of the parabolic reflector , the set of ultraviolet radiation sources configured to generate ultraviolet radiation directed at the parabolic reflector ; a reflective surface located adjacent to the illuminator to direct an ultraviolet radiation beam towards at least 50% of the reflective surface ; wherein the reflective surface diffusively reflects at least 30% of the ultraviolet radiation; characterized by a set of optical elements located between the illuminator and the reflective surface , the set of optical elements configured to direct the ultraviolet radiation beam towards at least 50% of the reflective surface ; wherein the set of ultraviolet radiation sources are coupled by a diffusive waveguide structure located together with the ultraviolet radiation sources in the proximity of the focal point of the parabolic reflector , wherein the set of optical elements includes a first lens and a second lens , wherein a focal length of each lens is comparable to a diameter of the ultraviolet radiation beam, and wherein the second lens is movable with respect to the first lens . an illuminator including: a parabolic reflector as a reflective mirror ; and a set of ultraviolet radiation sources located within a proximity of a focus point of the parabolic reflector , the set of ultraviolet radiation sources configured to generate ultraviolet radiation directed at the parabolic reflector ; a parabolic reflector as a reflective mirror ; and a set of ultraviolet radiation sources located within a proximity of a focus point of the parabolic reflector , the set of ultraviolet radiation sources configured to generate ultraviolet radiation directed at the parabolic reflector ; a reflective surface located adjacent to the illuminator to direct an ultraviolet radiation beam towards at least 50% of the reflective surface ; wherein the reflective surface diffusively reflects at least 30% of the ultraviolet radiation; characterized by a set of optical elements located between the illuminator and the reflective surface , the set of optical elements configured to direct the ultraviolet radiation beam towards at least 50% of the reflective surface ; wherein the set of ultraviolet radiation sources are coupled by a diffusive waveguide structure located together with the ultraviolet radiation sources in the proximity of the focal point of the parabolic reflector , wherein the set of optical elements includes a first lens and a second lens , wherein a focal length of each lens is comparable to a diameter of the ultraviolet radiation beam, and wherein the second lens is movable with respect to the first lens .
Splice module stack having a plurality of optical waveguide, fibre optic splice modules each pivotable about a common geometric pivot axis (A) with respective splice point receivers in the splice modules , which splice modules are stacked along the geometric pivot axis (A), wherein a pivot axis body implementing the pivot axis (A) has a respective clearance for each of the splice modules along the geometric pivot axis (A) so that in the geometric pivot axis (A) fibre optic cables from the splice modules can pass through the clearances and the geometric pivot axis (A), characterised in that the clearances are implemented in that the pivot axis body is divided into a plurality of separate pivot axis pins and these are separated from each other by the clearances, which pivot axis pins between adjacent splice modules each connect a retaining plate of the respective splice modules to each other.
A combined washing and drying machine, comprising a roller , a condenser comprising a hot and humid air inlet and a dry air outlet, a drying duct , a water inlet device and a drainage device , wherein the roller comprises a shell and an inner cylinder which is mounted in the shell and is driven to rotate by a motor, the hot and humid air inlet of the condenser is connected with the roller , the dry air outlet of the condenser is connected with air inlet of the drying duct , and air outlet of the drying duct is connected with the roller to form a cycle wind path; the condenser is configured to input condensed water through the water inlet device , and is configured to discharge the condensed water after heat exchange through the drainage device , and a plurality of water outlet holes are distributed in the water inlet device ; wherein the condenser comprises at least one condensing plate , a connecting member and a housing , wherein the housing is disposed on an outer wall of the roller and encloses the roller to form a receiving cavity for receiving each condensing plate , the receiving cavity being connected with the air inlet of the drying duct and the roller , wherein the water inlet device comprises at least one bar-shaped container having an opening end and a closed end, the opening end of the bar-shaped container being provided with a water inlet joint , the water flowing into an inner cavity of the bar-shaped container through the water inlet joint ; the bar-shaped container is provided with a mounting portion for matching installation with the condensing plate of the condenser , the bar-shaped container comprising a first side and a second side corresponding to two plate surfaces of the condensing plate , and the first side and the second side are respectively provided with the plurality of water outlet holes which are connected to the inner cavity of the bar-shaped container and are spaced apart along a direction from the opening end of the bar-shaped container to the closed end of the bar-shaped container , wherein the condenser comprises two condensing plates disposed opposite to and spaced apart from each other, and the two condensing plates are connected to each other by the connecting member ; characterized in that the number of the bar-shaped container is two and the two bar-shaped containers are parallelly provided, opening ends of the two bar-shaped containers are respectively connected with one water inlet joint .
Apparatus for shaping the introductory end of a tampon , comprising: - a carrying pipe for holding the tampon ; - a support wheel that carries a plurality of carrying pipes , the support wheel comprising conveying means to transport each carrying pipe ; and - a head-shaping station for shaping the introductory end of the tampon ; the head-shaping station comprising an ultrasonic device , the ultrasonic device comprising at least one head-shaping sonotrode emitting ultrasonic vibrations at a frequency between 10 kHz and 70 kHz, preferably between 20 kHz and 50 kHz, preferably 35 kHz, characterized in that the ultrasonic device comprises a first and a second head-shaping sonotrode emitting ultrasonic vibrations at a frequency between 10 kHz and 70 kHz, preferably between 20 kHz and 50 kHz, preferably 35 kHz. - a carrying pipe for holding the tampon ; - a support wheel that carries a plurality of carrying pipes , the support wheel comprising conveying means to transport each carrying pipe ; and - a head-shaping station for shaping the introductory end of the tampon ; the head-shaping station comprising an ultrasonic device , the ultrasonic device comprising at least one head-shaping sonotrode emitting ultrasonic vibrations at a frequency between 10 kHz and 70 kHz, preferably between 20 kHz and 50 kHz, preferably 35 kHz, characterized in that the ultrasonic device comprises a first and a second head-shaping sonotrode emitting ultrasonic vibrations at a frequency between 10 kHz and 70 kHz, preferably between 20 kHz and 50 kHz, preferably 35 kHz.
A front face side substrate for a thermal transfer image-receiving sheet, the front face side substrate for the thermal transfer image-receiving sheet being aible to be provided between a supporting member and a receiving layer of the thermal transfer image-receiving sheet; the front face side substrate for the thermal transfer image-receiving sheet comprising a layered structure in which a front face side layer is provided on one surface of a substrate layer and a rear face side layer is provided on another surface of the substrate layer; wherein the substrate layer comprises (A) a propylene-based polymer, (B) calcium carbonate, and (C) titanium oxide, and the weight of (A) being in the range of from not less than 70 % by weight to not more than 94.5 % by weight, the weight of (B) being in the range of from not less than 5 % by weight to not more than 28 % by weight, and the weight of (C) being in the range of from not less than 0.5 % by weight to not more than 3 % by weight, based on the assumption that the total weight of (A), (B) and (C) is 100 % by weight; the front face side layer comprises a modified propylene-based polymer, the modified propylene-based polymer being graft-modified with an unsaturated carboxylic acid or a derivative thereof; and the rear face side layer comprises a propylene-based polymer.
Vehicle treatment brush for washing and/or polishing purposes in a vehicle treatment installation, comprising a support part having a longitudinal extent and defining a pivotal axis , a plurality of brush segments arranged axially next to each other and each comprising cleaning elements , and a drive device , characterized in that at least one brush segment comprises a pivoting device with a rotary body on which the cleaning elements of the brush segment are indirectly or directly held and which is in operative connection with the drive device for driving the rotary body about a rotational axis of the brush segment that is different from the pivotal axis , wherein the support part is non-driven and the rotary body is pivotable about the pivotal axis relative to the support part by way of the pivoting device .