mhurhangee/patent-ind-claim-en huggingface dataset:
A method for preparing a polylactic acid polymer, the method comprising: performing a ring-opening polymerization of lactide in the presence of a SnHPO 3 catalyst to prepare a polylactic acid polymer, wherein a rate of change in a weight average molecular weight defined by the following Equation 1 has a positive value: Rate of change in weight average molecular weight = (M (t+30) - M(t))/M(t) * 100(%) M(t) is the weight average molecular weight of the polylactic acid polymer prepared according to the ring-opening polymerization reaction at a temperature of t°C, M (t+30) is the weight average molecular weight of the polylactic acid polymer prepared according to the ring-opening polymerization reaction at a temperature of t+30°C, and t is 150°C to 250 °C, wherein the average molecular weight is measured using GPC as indicated in the description. performing a ring-opening polymerization of lactide in the presence of a SnHPO 3 catalyst to prepare a polylactic acid polymer, wherein a rate of change in a weight average molecular weight defined by the following Equation 1 has a positive value: Rate of change in weight average molecular weight = (M (t+30) - M(t))/M(t) * 100(%) M(t) is the weight average molecular weight of the polylactic acid polymer prepared according to the ring-opening polymerization reaction at a temperature of t°C, M (t+30) is the weight average molecular weight of the polylactic acid polymer prepared according to the ring-opening polymerization reaction at a temperature of t+30°C, and t is 150°C to 250 °C, wherein the average molecular weight is measured using GPC as indicated in the description. M(t) is the weight average molecular weight of the polylactic acid polymer prepared according to the ring-opening polymerization reaction at a temperature of t°C, M (t+30) is the weight average molecular weight of the polylactic acid polymer prepared according to the ring-opening polymerization reaction at a temperature of t+30°C, and t is 150°C to 250 °C, wherein the average molecular weight is measured using GPC as indicated in the description.
A method for manufacturing a double or multi-layer mineral wool insulation , wherein on a mineral wool manufacturing line is continuously produced a mineral wool mat having a bottom side and a top side defining the main surfaces of the mineral wool mat, the fibres of which are located substantially in levels parallel with said main surfaces, wherein onto at least one of said main surfaces is brought an additional insulation layer containing recycled material, which contains shredded and/or crushed and/or pulverized mineral wool, wherein into the recycled material is mixed binding agent in a powdered form before it is brought onto said at least one main surface of the mineral wool mat , characterized in that , in the method, the layer of recycled material is compressed into a mat-like layer to a desired density wherein the degree of compression is 50% or more, before it is brought onto said at least one main surface of the mineral wool mat, and that, finally, the mineral wool insulation formed from a mineral wool mat and an additional insulation layer of recycled material added onto its at least one main surface is taken to a curing treatment .
An automated manufacturing system (1, 1/1, 1/2, 1/4, 1/5, 1/6) comprising an industrial robot and further process machines , which are arranged in a predetermined working space (4, 4/1, 4/2, 4/3, 4/4, 4/5, 4/6) of the manufacturing system (1, 1/1, 1/2, 1/4, 1/5, 1/6), wherein the working space (4, 4/1, 4/2, 4/3, 4/4, 4/5, 4/6) is defined by one or several control cabinets that are available in a standardized manner, wherein the control cabinet or cabinets are provided with doors in any arrangement , and wherein the control cabinet or cabinets are part of a side-by-side control cabinet system. wherein the working space (4, 4/1, 4/2, 4/3, 4/4, 4/5, 4/6) is defined by one or several control cabinets that are available in a standardized manner, wherein the control cabinet or cabinets are provided with doors in any arrangement , and wherein the control cabinet or cabinets are part of a side-by-side control cabinet system.
A device configured for examining pulsatile flow (S404), for deriving, based on the examined flow, a plurality of spectral characteristics and for, based on the derived characteristics, determining which one or more pulse cycles in a spectrogram are to be selected as representative of said flow, said cycles subject to the selection respectively having a plurality of specified parameters, said determining excluding from said selection a cycle, from among said cycles, if any of said specified parameters of said cycle deviates , by more than a predetermined amount, from a respective average which the device derives from said spectrogram.
Method for verifying the authenticity of one or more authentication messages in an authentication procedure between a network and a mobile device comprising: sending an authentication request through a first radio access node to a said mobile device, said radio access node being associated with first location information; said mobile device generating second location information comprising a list of location information associated with the location of said mobile device; and, said authentication request comprising first location information and the mobile device verifying the authenticity of the origin of said authentication request, or transmitting the second location information from the mobile device to the network and the network verifying the authenticity of the origin of said authentication message; and, wherein verifying the authenticity of the origin of said authentication message comprises checking if said first location information is comprised in the list constituted by the second location information. sending an authentication request through a first radio access node to a said mobile device, said radio access node being associated with first location information; said mobile device generating second location information comprising a list of location information associated with the location of said mobile device; and, said authentication request comprising first location information and the mobile device verifying the authenticity of the origin of said authentication request, or transmitting the second location information from the mobile device to the network and the network verifying the authenticity of the origin of said authentication message; and, wherein verifying the authenticity of the origin of said authentication message comprises checking if said first location information is comprised in the list constituted by the second location information.
A yarn for air bags comprising polyamide multifilament with a total fineness of 200 to 700 dtex, a single fiber fineness of 1 to 2 dtex, a strength of 8 to 10 cN/dtex, characterised in that the yarn has an elongation of 21 to 24% and a fineness unevenness of 0.5 to 1.5%, wherein the total fineness is measured according to JIS L1013 8.3.1, wherein the single fiber fineness is obtained by dividing the total fineness by the number of single fibers, wherein the number of single fibers is obtained according to the method specified in JIS L1013 8.4, wherein the strength and elongation values are obtained under constant-rate extension conditions for the standard test specified in JIS L1013 8.5.1, wherein the half value of the fineness unevenness is measured with Uster Tester Monitor C supplied by Zellweger Uster AG, wherein the INEAT mode was used to make measurements for 125 m at a yarn speed of 25 m/min. wherein the total fineness is measured according to JIS L1013 8.3.1, wherein the single fiber fineness is obtained by dividing the total fineness by the number of single fibers, wherein the number of single fibers is obtained according to the method specified in JIS L1013 8.4, wherein the strength and elongation values are obtained under constant-rate extension conditions for the standard test specified in JIS L1013 8.5.1, wherein the half value of the fineness unevenness is measured with Uster Tester Monitor C supplied by Zellweger Uster AG, wherein the INEAT mode was used to make measurements for 125 m at a yarn speed of 25 m/min.
A decorative sheet comprising: a transparent resin layer containing a crystalline polypropylene resin as a main component, wherein a value of a peak intensity ratio x represented by a following expression of the transparent resin layer is 0.55 ≤ x ≤ 0.65, 1997, 1938, and 1973 in the following expression are peak intensity values calculated from an absorption spectrum obtained by Fourier infrared spectrometry of the transparent resin layer, 1997 represents a peak intensity value at a wavenumber of 997 cm -1 , 1938 represents a peak intensity value at a wavenumber of 938 cm -1 , and 1973 represents a peak intensity value at a wavenumber of 973 cm -1 , [Expression 1] Peak intensity ratio x = 1997 − 1938 1973 − 1938 wherein the transparent resin layer contains a nano-sized nucleating agent in a state where the nucleating agent is encapsulated in a vesicle having a monolayer outer membrane, and wherein the transparent resin layer has a thickness of 20μm or more and 200μm or less. a transparent resin layer containing a crystalline polypropylene resin as a main component, wherein a value of a peak intensity ratio x represented by a following expression of the transparent resin layer is 0.55 ≤ x ≤ 0.65, 1997, 1938, and 1973 in the following expression are peak intensity values calculated from an absorption spectrum obtained by Fourier infrared spectrometry of the transparent resin layer, 1997 represents a peak intensity value at a wavenumber of 997 cm -1 , 1938 represents a peak intensity value at a wavenumber of 938 cm -1 , and 1973 represents a peak intensity value at a wavenumber of 973 cm -1 , [Expression 1] Peak intensity ratio x = 1997 − 1938 1973 − 1938 wherein the transparent resin layer contains a nano-sized nucleating agent in a state where the nucleating agent is encapsulated in a vesicle having a monolayer outer membrane, and wherein the transparent resin layer has a thickness of 20μm or more and 200μm or less. wherein the transparent resin layer contains a nano-sized nucleating agent in a state where the nucleating agent is encapsulated in a vesicle having a monolayer outer membrane, and wherein the transparent resin layer has a thickness of 20μm or more and 200μm or less.
A method of treating an exhaust gas containing methane by oxidation, the exhaust gas being produced by a natural gas engine, which method comprises: contacting the exhaust gas with a catalytic material comprising a molecular sieve and a platinum group metal (PGM) supported on the molecular sieve, wherein the molecular sieve has a framework consisting of silicon and oxygen.
A staple cartridge , comprising: a cartridge body , wherein a plurality of staple cavities are defined into the cartridge body, and wherein a longitudinal slot is defined at least partially through the cartridge body; and a plurality of staples (280a - c, 1080a - d, 1180a - d, 2012, 2612, 3412, 3512, 3612, removably positioned in the staple cavities, wherein each of said plurality of staples includes two staple legs (283a - c, 285 a - c, 2616, 2618, 6545, 6547) that extend from a crown, wherein the plurality of staples comprises a first staple and a second staple , wherein said plurality of staples are arranged so that the crowns of the staples do not cross; wherein each of the staples is deformable from an unfired configuration to a fired configuration, wherein the first staple comprises a first formed height when in the fired configuration, wherein the second staple comprises a second formed height when in the fired configuration, wherein the first formed height is different than the second formed height, and wherein the first staple is laterally offset from the second staple to provide laterally variable tissue compression within the staple array; characterized in that each of the staples is oriented at an angle relative to the longitudinal slot, and wherein the plurality of staples are arranged to form an array of angled staples within stapled tissue. a cartridge body , wherein a plurality of staple cavities are defined into the cartridge body, and wherein a longitudinal slot is defined at least partially through the cartridge body; and a plurality of staples (280a - c, 1080a - d, 1180a - d, 2012, 2612, 3412, 3512, 3612, removably positioned in the staple cavities, wherein each of said plurality of staples includes two staple legs (283a - c, 285 a - c, 2616, 2618, 6545, 6547) that extend from a crown, wherein the plurality of staples comprises a first staple and a second staple , wherein said plurality of staples are arranged so that the crowns of the staples do not cross; wherein each of the staples is deformable from an unfired configuration to a fired configuration, wherein the first staple comprises a first formed height when in the fired configuration, wherein the second staple comprises a second formed height when in the fired configuration, wherein the first formed height is different than the second formed height, and wherein the first staple is laterally offset from the second staple to provide laterally variable tissue compression within the staple array; characterized in that each of the staples is oriented at an angle relative to the longitudinal slot, and wherein the plurality of staples are arranged to form an array of angled staples within stapled tissue.
An ultrasonic mist inhaler, comprising: a liquid reservoir structure comprising a liquid chamber adapted to receive a liquid to be atomized, a sonication chamber in fluid communication with the liquid chamber , a capillary element arranged between the liquid chamber and the sonication chamber to carry a liquid from the liquid chamber to the sonication chamber , the sonication chamber comprising a means of ultrasonic vibrations having an atomization surface , and a capillary element retainer , characterised in that the capillary element retainer has a retainer body surrounding the atomization surface of the means of ultrasonic vibrations , the retainer body having a radial arm which comprises a curved portion extending to the atomization surface and a flat portion parallel to the capillary element for retaining the capillary element in surface contact with the atomization surface , the flat portion having a fork shape which minimizes the surface contact between the capillary element and the capillary element retainer , and the radial arm being flexible in order to not prevent the means of ultrasonic vibrations from vibrating to atomize the liquid carried by the capillary element . a liquid reservoir structure comprising a liquid chamber adapted to receive a liquid to be atomized, a sonication chamber in fluid communication with the liquid chamber , a capillary element arranged between the liquid chamber and the sonication chamber to carry a liquid from the liquid chamber to the sonication chamber , the sonication chamber comprising a means of ultrasonic vibrations having an atomization surface , and a capillary element retainer , characterised in that the capillary element retainer has a retainer body surrounding the atomization surface of the means of ultrasonic vibrations , the retainer body having a radial arm which comprises a curved portion extending to the atomization surface and a flat portion parallel to the capillary element for retaining the capillary element in surface contact with the atomization surface , the flat portion having a fork shape which minimizes the surface contact between the capillary element and the capillary element retainer , and the radial arm being flexible in order to not prevent the means of ultrasonic vibrations from vibrating to atomize the liquid carried by the capillary element .
A tracheostomy valve unit configured to cooperate with a tracheostomy tube insertable within a patient's trachea, the valve unit comprising: a valve body having a first end , a second end and a fluid passageway extending therethrough, the first end being configured to be operably connected with the tracheostomy tube; a rib shaped as a substantially flat plate positioned within the fluid passageway and extending between opposite inner surfaces of the valve body along a diameter thereof, the rib being contiguous with the opposite inner surfaces of the valve body ; and a flexible diaphragm positioned within the fluid passageway and being spaced from the first end of the valve body, the diaphragm having a first face and a second face opposite the first face; wherein at least a portion of an edge of the rib abuts the first face of the diaphragm; and a spacing between the diaphragm and the valve body first end is greater than a spacing between the rib and the valve body first end. a valve body having a first end , a second end and a fluid passageway extending therethrough, the first end being configured to be operably connected with the tracheostomy tube; a rib shaped as a substantially flat plate positioned within the fluid passageway and extending between opposite inner surfaces of the valve body along a diameter thereof, the rib being contiguous with the opposite inner surfaces of the valve body ; and a flexible diaphragm positioned within the fluid passageway and being spaced from the first end of the valve body, the diaphragm having a first face and a second face opposite the first face; wherein at least a portion of an edge of the rib abuts the first face of the diaphragm; and a spacing between the diaphragm and the valve body first end is greater than a spacing between the rib and the valve body first end.
Enzymatically modified isoquercitrin for use in a method for promoting saliva secretion in a human by intraoral use or oral intake.
A damping system comprising a first damping device (FDD) and a second damping device (SDD), wherein the first and second damping device each comprise: a) a cable (FC, SC) to be connected to a mass (M); b) a winch (FW, SW) for hauling in and paying out the cable; c) a sheave (FS, SS) to guide the cable from the winch to the mass; d) a measurement system for measuring a cable motion relative to the winch and for measuring a cable tension in the cable, wherein the measurement system is configured to measure the cable tension by measuring a magnitude of a load on the sheave caused by the cable tension; and; e) a control system (CS) for damping cable motion by driving the winch in dependency of the measured cable motion and the measured cable tension, wherein the control system is configured to apply a desired cable tension in the cable by driving the winch based on the measured cable tension; wherein the damping system further comprises a yaw control system (YCS) configured to adapt the desired cable tension in the cables of the first and second damping devices based on a difference between the measured cable motion of the cable (FC) of the first damping device and the measured cable motion of the cable (SC) of the second damping device in order to minimize said difference between the measured cable motion in the cables of the first and second damping device. a) a cable (FC, SC) to be connected to a mass (M); b) a winch (FW, SW) for hauling in and paying out the cable; c) a sheave (FS, SS) to guide the cable from the winch to the mass; d) a measurement system for measuring a cable motion relative to the winch and for measuring a cable tension in the cable, wherein the measurement system is configured to measure the cable tension by measuring a magnitude of a load on the sheave caused by the cable tension; and; e) a control system (CS) for damping cable motion by driving the winch in dependency of the measured cable motion and the measured cable tension, wherein the control system is configured to apply a desired cable tension in the cable by driving the winch based on the measured cable tension;
A computer-readable medium , coupled to a processing unit and containing instructions stored thereon, the instructions, when executed, cause the processing unit to perform a method of guiding cloud users on cloud managing operations, wherein the cloud users perform operations on resources of a cloud provided by a cloud provider, wherein the method comprises: acquiring (S101) a profile based on behavior data in using cloud including monitoring and recording behavior data of a cloud user related to using the cloud; acquiring (S102) running status data of a cloud resource; generating (S103) a cloud management suggestion at least according to the profile and the running status data of the cloud resource; and providing the generated cloud management suggestion to the cloud user so as to guide the cloud user on cloud management operations, wherein generating the cloud management suggestion comprises sending the profile and the running status data to a primary artificial intelligence, AI, Bot module built on an AI data platform , wherein the primary AI Bot module is configured to perform analysis on the profile and the running status data to determine whether the primary AI Bot module is able to generate the cloud management suggestion, the primary AI Bot module being further configured to directly access the AI data platform to obtain the cloud management suggestion, if it is determined that the primary AI Bot module is able to generate the cloud management suggestion, and to send the profile and the running status data to a third-party AI Bot module capable of generating the cloud management suggestion, if it is determined that the primary AI Bot module is unable to generate the cloud management suggestion. acquiring (S101) a profile based on behavior data in using cloud including monitoring and recording behavior data of a cloud user related to using the cloud; acquiring (S102) running status data of a cloud resource; generating (S103) a cloud management suggestion at least according to the profile and the running status data of the cloud resource; and providing the generated cloud management suggestion to the cloud user so as to guide the cloud user on cloud management operations, wherein generating the cloud management suggestion comprises sending the profile and the running status data to a primary artificial intelligence, AI, Bot module built on an AI data platform , wherein the primary AI Bot module is configured to perform analysis on the profile and the running status data to determine whether the primary AI Bot module is able to generate the cloud management suggestion, the primary AI Bot module being further configured to directly access the AI data platform to obtain the cloud management suggestion, if it is determined that the primary AI Bot module is able to generate the cloud management suggestion, and to send the profile and the running status data to a third-party AI Bot module capable of generating the cloud management suggestion, if it is determined that the primary AI Bot module is unable to generate the cloud management suggestion.