mhurhangee/patent-ind-claim-en huggingface dataset:
Process for producing polylactide (PLA) from a lactide mixture by means of polymerization, where the lactide mixture to be processed is introduced into an extruder, and mixed with at least one catalyst and the finished PLA is taken off at the end, characterized in that - the lactide mixture passes continuously through a plurality of segments of a planetary gear extruder having a modular construction, where measurements and targeted control of the reactions proceeding in the planetary gear extruder are carried out in the segments in such a way that the temperature can be set by means of heating and/or cooling as a function of temperature values to be tested via sensors and the pressure can be set variably via a controllable offtake of gas and/or a controllable extruder speed and/or a static alterability of the planetary gears and/or an alterable metering rate of the lactide mixture and/or an alterable mixing ratio of the lactide mixture as a function of pressure values to be tested via sensors, - an offtake of gas which presents a fire hazard is carried out at least in a subregion of the planetary gear extruder in an explosion-protected zone , - at least one catalyst is introduced directly into the planetary gear extruder during the rolling process, - additives for influencing the final properties are introduced directly into the planetary gear extruder during the rolling process. - the lactide mixture passes continuously through a plurality of segments of a planetary gear extruder having a modular construction, where measurements and targeted control of the reactions proceeding in the planetary gear extruder are carried out in the segments in such a way that the temperature can be set by means of heating and/or cooling as a function of temperature values to be tested via sensors and the pressure can be set variably via a controllable offtake of gas and/or a controllable extruder speed and/or a static alterability of the planetary gears and/or an alterable metering rate of the lactide mixture and/or an alterable mixing ratio of the lactide mixture as a function of pressure values to be tested via sensors, - an offtake of gas which presents a fire hazard is carried out at least in a subregion of the planetary gear extruder in an explosion-protected zone , - at least one catalyst is introduced directly into the planetary gear extruder during the rolling process, - additives for influencing the final properties are introduced directly into the planetary gear extruder during the rolling process.
A scrambling code sequence generation apparatus, wherein the apparatus comprises: • a determining module , configured to determine a scrambling code sequence based on a configuration parameter of a transmission reception point, TRP, wherein different TRPs correspond to different configuration parameters, wherein the configuration parameter comprises: at least one of an identification code of a user equipment, a slot number corresponding to a resource on which the data is located, a cell identification code, or a parameter used to indicate a codeword sequence number, wherein the configuration parameter further comprises a target parameter, and different TRPs correspond to different target parameters, wherein the target parameter comprises a Quasi Co-Location, QCL, indication parameter; and • a processing module , configured to scramble or descramble data by using the scrambling code sequence determined by the determining module . • a determining module , configured to determine a scrambling code sequence based on a configuration parameter of a transmission reception point, TRP, wherein different TRPs correspond to different configuration parameters, wherein the configuration parameter comprises: at least one of an identification code of a user equipment, a slot number corresponding to a resource on which the data is located, a cell identification code, or a parameter used to indicate a codeword sequence number, wherein the configuration parameter further comprises a target parameter, and different TRPs correspond to different target parameters, wherein the target parameter comprises a Quasi Co-Location, QCL, indication parameter; and wherein the configuration parameter comprises: at least one of an identification code of a user equipment, a slot number corresponding to a resource on which the data is located, a cell identification code, or a parameter used to indicate a codeword sequence number, wherein the configuration parameter further comprises a target parameter, and different TRPs correspond to different target parameters, wherein the target parameter comprises a Quasi Co-Location, QCL, indication parameter; and different TRPs correspond to different target parameters, wherein the target parameter comprises a Quasi Co-Location, QCL, indication parameter; and • a processing module , configured to scramble or descramble data by using the scrambling code sequence determined by the determining module .
A method to mitigate radio frequency interference, RFI, in weather radar data, comprising: computing l p norms of radials of weather radar data to construct an l p norm profile of the weather radar data as a function of azimuth angle, the weather radar data comprising Level 2 or higher weather radar data in polar format, wherein each l p norm comprises an l 0 norm, a Manhattan Distance, or a Euclidian Norm; determining that a given radial in the weather radar data is an RFI radial based on the l p norm profile of the weather radar data, wherein determining that the given radial in the weather radar data is the RFI radial based on the l p norm profile of the weather radar data includes determining that a convolution of a derivative of the l p norm profile with a RFI kernel exceeds a threshold at an azimuth angle of the given radial, wherein the RFI kernel is a kernel that is associated with or indicative of RFI; and displaying an image from the weather radar data in which at least one of: the RFI radial is identified in the image as including RFI; or the RFI radial is omitted from the image, wherein Level 2 weather radar data refers to and includes data resulting from processing and creating data from Level 1 weather radar data and wherein Level 1 weather radar data refers to and includes time series of complex voltage samples of radar returns generated by a radar system. computing l p norms of radials of weather radar data to construct an l p norm profile of the weather radar data as a function of azimuth angle, the weather radar data comprising Level 2 or higher weather radar data in polar format, wherein each l p norm comprises an l 0 norm, a Manhattan Distance, or a Euclidian Norm; determining that a given radial in the weather radar data is an RFI radial based on the l p norm profile of the weather radar data, wherein determining that the given radial in the weather radar data is the RFI radial based on the l p norm profile of the weather radar data includes determining that a convolution of a derivative of the l p norm profile with a RFI kernel exceeds a threshold at an azimuth angle of the given radial, wherein the RFI kernel is a kernel that is associated with or indicative of RFI; and displaying an image from the weather radar data in which at least one of: the RFI radial is identified in the image as including RFI; or the RFI radial is omitted from the image, the RFI radial is identified in the image as including RFI; or the RFI radial is omitted from the image, wherein Level 2 weather radar data refers to and includes data resulting from processing and creating data from Level 1 weather radar data and wherein Level 1 weather radar data refers to and includes time series of complex voltage samples of radar returns generated by a radar system.
A pneumatic tire comprising a member formed from a vulcanized rubber having a makeup for which a change rate R (%) defined by the following equation is not greater than 60% when: a cylindrical test piece (outer diameter: 78 mm, inner diameter: 34 mm, width in an axial direction thereof: 18 mm) formed from the vulcanized rubber and a testing device including a grinding plate having one linear projection (an equilateral triangle shape with a side length of 5 mm in a cross-sectional view, a radius of curvature of a distal end portion (R) is 0.01 mm) are prepared; the test piece is rotated in a circumferential direction thereof at a rotation speed of 60 rpm and a slip angle of 0° in a state where a surface of the grinding plate on which the linear projection is formed is pressed against an outer peripheral surface of the test piece and a load of 0.8 kgf is applied to the test piece , thereby conducting a wear test; and a wear amount per unit time (unit: cm 3 /min) is obtained by dividing a wear volume (unit: cm 3 ), which is obtained by dividing a mass change of the test piece measured before and after the wear test by a specific gravity of the vulcanized rubber, by a total rotation time (unit: min) of the test piece , change rate R % = Ca − Ci / Ca × 100 , where Ci is a wear amount obtained in a wear test in a nitrogen atmosphere (room temperature, oxygen concentration: 0.1% by volume or less, relative humidity: 15%), and Ca is a wear amount obtained in a wear test in an air atmosphere (room temperature, oxygen concentration: 21% by volume, relative humidity: 50%).
A composition comprising at least one siloxane-oxyalkylene copolymer with at least one alkyl ester of fatty acid wherein the copolymer has the general formula MD x D' y M wherein M represents (CH 3 ) 3 SiO 1/2 or R(CH 3 ) 2 SiO 1/2 , D represents (CH 3 ) 2 SiO 2/2 , D' represents (CH 3 )RSiO 2/2 , R is a polyether-containing substituent, and the value of x+y is from 50 to 220, and the ratio x/y is from 5 to 15 inclusive, wherein the composition further comprises at least one diluent, wherein the diluent comprises dipropylene glycol and methyl ester of rapeseed oil.
A tissue fixation construct comprising: a first fastener comprising: a generally flat, circular first body ; and a generally cylindrical, solid first post fixedly coupled to a center of the first body and extending perpendicular to the first body , the first post comprising a threaded distal end and a non-threaded proximal end , a length of the first post selected to extend through a bone graft and a portion of bone; a second fastener comprising: a generally flat, circular second body ; and a generally cylindrical, solid second post fixedly coupled to a center of the second body and extending perpendicular to the second body ; and a cannulation extending through the second body and the second post ; wherein at least a portion of the cannulation is threaded to engage the threaded distal end of the first post of the first fastener , characterized in that a length of flexible cable is coupled to the distal end of the first post , wherein the flexible cable is configured to be pulled through the cannulation of the second fastener . a first fastener comprising: a generally flat, circular first body ; and a generally cylindrical, solid first post fixedly coupled to a center of the first body and extending perpendicular to the first body , the first post comprising a threaded distal end and a non-threaded proximal end , a length of the first post selected to extend through a bone graft and a portion of bone; a generally flat, circular first body ; and a generally cylindrical, solid first post fixedly coupled to a center of the first body and extending perpendicular to the first body , the first post comprising a threaded distal end and a non-threaded proximal end , a length of the first post selected to extend through a bone graft and a portion of bone; a second fastener comprising: a generally flat, circular second body ; and a generally cylindrical, solid second post fixedly coupled to a center of the second body and extending perpendicular to the second body ; and a cannulation extending through the second body and the second post ; a generally flat, circular second body ; and a generally cylindrical, solid second post fixedly coupled to a center of the second body and extending perpendicular to the second body ; and a cannulation extending through the second body and the second post ; wherein at least a portion of the cannulation is threaded to engage the threaded distal end of the first post of the first fastener , characterized in that a length of flexible cable is coupled to the distal end of the first post , wherein the flexible cable is configured to be pulled through the cannulation of the second fastener .
Electrical connector comprising - a housing that houses at least one first conductive component configured so as to be integrated in a first low-voltage electrical line and at least one second conductive component configured so as to be integrated in a second low-voltage electrical line, - at least one electrically insulating element and at least one electrically conductive element , inserted between the first conductive component and the second conductive component , the electrically insulating element consisting of a material having a melting temperature less than or equal to the melting temperature of at least one of the materials forming the housing , and characterized in that - the electrically conductive element exerts an elastic force on the electrically insulating element that is suitable for deforming the electrically insulating element , when the electrically insulating element has a temperature greater than or equal to its melting temperature and establishing an electrical connection between the first conductive component and the second conductive component . - a housing that houses at least one first conductive component configured so as to be integrated in a first low-voltage electrical line and at least one second conductive component configured so as to be integrated in a second low-voltage electrical line, - at least one electrically insulating element and at least one electrically conductive element , inserted between the first conductive component and the second conductive component , the electrically insulating element consisting of a material having a melting temperature less than or equal to the melting temperature of at least one of the materials forming the housing , and characterized in that the electrically insulating element consisting of a material having a melting temperature less than or equal to the melting temperature of at least one of the materials forming the housing , and characterized in that - the electrically conductive element exerts an elastic force on the electrically insulating element that is suitable for deforming the electrically insulating element , when the electrically insulating element has a temperature greater than or equal to its melting temperature and establishing an electrical connection between the first conductive component and the second conductive component .
Internal combustion engine, preferably a two-stroke engine , in particular for a propulsion system, comprising: at least two cylinders , each comprising a combustion chamber having an inlet for a fuel and an outlet for an exhaust gas with an outlet valve , an exhaust gas receiver for collecting the exhaust gas of the cylinders , wherein the engine comprises at least one separation device downstream of the combustion chambers , the separation device being formed by multiple valves, the separation device being arranged before or after an exhaust gas receiver, wherein the engine comprises a control unit configured for operating the separation device , namely for setting the valves, wherein a first component exhaust line and a second component exhaust line are connected to the at least one separation device , wherein the at least one separation device is configured to separate the exhaust gas from the combustion chambers into two streams, namely a first gas stream for the first component exhaust line and a second gas stream for the second component exhaust line and wherein a first SCR-reactor is arranged in the first component exhaust line downstream of the separation device the second component exhaust line and the first component exhaust lines are separate from each other at least until the first SCR reactor , characterized in that, the first SCR reactor has a maximal capacity of 80% or less, preferably 60% or 50% or less, of a full load outflow rate of the at least two cylinders , and wherein while during a discharge phase the exhaust gas has a temperature gradient because a concentration of the combustion gas is initially higher and drops over time, and while a first exhaust gas stream discharged during a first phase of the combustion cycle has a first temperature and a second exhaust gas stream discharged during the first phase of the combustion cycle has a second temperature, which is lower than the first temperature, the separation device is configured to separate a part of the exhaust gas discharged first with relatively more combustion gas and thus a higher temperature from a part discharged later with relatively more scavenging air and a lower temperature, , wherein the separation device is configured to separate the first gas stream by timing an opening and closing of the valves for the first component and second component exhaust lines , dependent on a temperature of the exhaust gas in the cylinders , a crank angle, a time, or a pressure in the cylinders .
A system, comprising: an enterprise network comprising an enterprise DNS server and an end user client, the end user client being located remote from the enterprise DNS server; the end user client being configured to direct a DNS request, the DNS request being a request to resolve a hostname, directly onto the public Internet to a DNS service platform operated by a service provider on behalf of the enterprise, the DNS service platform comprising a plurality of platform DNS servers distributed around the Internet; a first platform DNS server configured to receive the DNS requests at an IP address; upon a determination that the hostname is an internal hostname of the enterprise, based on an internal configuration at the first platform DNS server, the first platform DNS server is configured to forward the end user client's DNS request to a second platform DNS server located closer to the enterprise DNS server; the second platform DNS server configured to relay the end user client's DNS request to the enterprise DNS server via a secure tunnel through the enterprise network perimeter, the secure tunnel having been established between the second platform DNS server and machine executing software, the software provided by the service provider to the enterprise for the purpose of establishing the secure tunnel; the enterprise DNS server configured to receive the end user client's DNS request, which is for internal hostname, and generate a DNS answer, which is returned to the end user client via the secure tunnel, the second platform DNS server, and the first platform DNS server. an enterprise network comprising an enterprise DNS server and an end user client, the end user client being located remote from the enterprise DNS server; the end user client being configured to direct a DNS request, the DNS request being a request to resolve a hostname, directly onto the public Internet to a DNS service platform operated by a service provider on behalf of the enterprise, the DNS service platform comprising a plurality of platform DNS servers distributed around the Internet; a first platform DNS server configured to receive the DNS requests at an IP address; upon a determination that the hostname is an internal hostname of the enterprise, based on an internal configuration at the first platform DNS server, the first platform DNS server is configured to forward the end user client's DNS request to a second platform DNS server located closer to the enterprise DNS server; the second platform DNS server configured to relay the end user client's DNS request to the enterprise DNS server via a secure tunnel through the enterprise network perimeter, the secure tunnel having been established between the second platform DNS server and machine executing software, the software provided by the service provider to the enterprise for the purpose of establishing the secure tunnel; the enterprise DNS server configured to receive the end user client's DNS request, which is for internal hostname, and generate a DNS answer, which is returned to the end user client via the secure tunnel, the second platform DNS server, and the first platform DNS server.
An thrust reverser system comprising: a sleeve configured to move between a first position and a second position, wherein the sleeve exposes a cascade when in the second position; at least one linear electric motor (228; 600) comprising a base connected to an engine structure, and a member directly connected to the sleeve and configured to be linearly moved relative to the base by using electro-magnetic forces to cause the sleeve to move between the first position and the second position; a controller configured to control operation of the at least one linear electric motor to move the sleeve between the first position and the second position; and a load cell disposed within the base and configured to send load information to the controller, wherein the controller is further configured to use the load information to maintain a desired load on the at least one linear electric motor. a sleeve configured to move between a first position and a second position, wherein the sleeve exposes a cascade when in the second position; at least one linear electric motor (228; 600) comprising a base connected to an engine structure, and a member directly connected to the sleeve and configured to be linearly moved relative to the base by using electro-magnetic forces to cause the sleeve to move between the first position and the second position; a base connected to an engine structure, and a member directly connected to the sleeve and configured to be linearly moved relative to the base by using electro-magnetic forces to cause the sleeve to move between the first position and the second position; a controller configured to control operation of the at least one linear electric motor to move the sleeve between the first position and the second position; and a load cell disposed within the base and configured to send load information to the controller, wherein the controller is further configured to use the load information to maintain a desired load on the at least one linear electric motor.