mhurhangee/patent-ind-claim-en huggingface dataset:
A nucleic acid molecule comprising: (a) a first polynucleotide having at least 95% nucleotide sequence identity to the nucleotide sequence set forth in SEQ ID NO: 2; and (b) a second polynucleotide having the nucleotide sequence set forth in SEQ ID NO: 4; wherein (a) and (b) are joined 5'-3' in this order either contiguously or wherein 1-10 linker nucleotides are present between the first and second polynucleotides, and wherein said nucleic acid molecule is capable of promoting transcription of an operably-linked heterologous polynucleotide in a mammalian cell. (a) a first polynucleotide having at least 95% nucleotide sequence identity to the nucleotide sequence set forth in SEQ ID NO: 2; and (b) a second polynucleotide having the nucleotide sequence set forth in SEQ ID NO: 4;
A method for quality control of a packaging system, said method comprising receiving a record of packaging identification data, said record of packaging identification data being related to a package, identifying and receiving a record of machine data using said record of packaging identification data; the method being characterized in that said record of machine data is related to a machine set up used when producing said package; and in that it further comprises the steps of: identifying a packaging quality parameter to be checked based on said record of machine data, and requesting a record of packaging quality data related to said packaging quality parameter. identifying a packaging quality parameter to be checked based on said record of machine data, and requesting a record of packaging quality data related to said packaging quality parameter.
System for automatic coupling and release of at least a first vehicle and of a second vehicle travelling on the railway network comprising: - at least a first hooking group of the first vehicle and at least a second hooking group of the second vehicle ; and - at least one vertical alignment apparatus (11a, 51a, 211; 251, 311, 351) for vertical alignment of said at least one first and at least a second hooking group (10, 210, 250; 50, 310, 350); Characterized in that the first and at least a second hooking group (10, 210, 250; 50, 310, 350) comprises: - male-female interlocking coupling means (18; 58; 218, 258; 318, 358) for coupling and releasing each other; - at least two sensors (19, 20; 59, 60) coupled logically two by two and positioned at 45° each other configured to detect the positions of the coupling means (18; 58; 218; 258; 318; 358) during the coupling of the vehicles, their horizontal and vertical distances and the range of variation of these distances in real time, and to communicate them to an informatic system present on each vehicle configured to control the coupling means (18; 58; 218; 258; 318; 358); and - at least one pair of cameras (25a, 25b; 65a, 65b) configured to send images of the occurred coupling to the informatic system present in the station or on the locomotive and to determine the certification of the occurred coupling. - at least a first hooking group of the first vehicle and at least a second hooking group of the second vehicle ; and - at least one vertical alignment apparatus (11a, 51a, 211; 251, 311, 351) for vertical alignment of said at least one first and at least a second hooking group (10, 210, 250; 50, 310, 350); - male-female interlocking coupling means (18; 58; 218, 258; 318, 358) for coupling and releasing each other; - at least two sensors (19, 20; 59, 60) coupled logically two by two and positioned at 45° each other configured to detect the positions of the coupling means (18; 58; 218; 258; 318; 358) during the coupling of the vehicles, their horizontal and vertical distances and the range of variation of these distances in real time, and to communicate them to an informatic system present on each vehicle configured to control the coupling means (18; 58; 218; 258; 318; 358); and - at least one pair of cameras (25a, 25b; 65a, 65b) configured to send images of the occurred coupling to the informatic system present in the station or on the locomotive and to determine the certification of the occurred coupling.
A tire pressure sensor 1.1 having a pressure transducer , a transmitter , and a housing supporting the pressure transducer and the transmitter , which is configured to be fastened on an air inlet end of a tire valve ; wherein 1.2 the housing has a sleeve part , which has an end-side internal thread for screwing the sleeve part onto the tire valve ; characterized in that the housing furthermore comprises a receptacle part , in which or on which the pressure transducer and the transmitter are arranged and which, in the installed state, is attached to the sleeve part so it is pivotable in relation to the sleeve part . 1.1 having a pressure transducer , a transmitter , and a housing supporting the pressure transducer and the transmitter , which is configured to be fastened on an air inlet end of a tire valve ; wherein 1.2 the housing has a sleeve part , which has an end-side internal thread for screwing the sleeve part onto the tire valve ; characterized in that the housing furthermore comprises a receptacle part , in which or on which the pressure transducer and the transmitter are arranged and which, in the installed state, is attached to the sleeve part so it is pivotable in relation to the sleeve part .
An identification apparatus comprising: irradiation means configured to irradiate at least one sample with light; light collecting means for collecting scattered light from the at least one sample ; a plurality of spectroscopic elements configured to disperse light from the light collecting means ; imaging means that includes a plurality of light detection elements arrayed in a row direction and a column direction and to which Raman spectra from the plurality of spectroscopic elements are projected, whereby the plurality of spectroscopic elements disperse the light collected by the collecting means along the row direction ; and acquisition means for acquiring spectral information about the at least one sample based on an output signal from the imaging means , whereby the plurality of spectroscopic elements are arranged to project respective Raman spectra corresponding to the at least one sample to the imaging means in such a way that an intermediate Raman spectral band is not projected in at least one of the row direction or the column direction . irradiation means configured to irradiate at least one sample with light; light collecting means for collecting scattered light from the at least one sample ; a plurality of spectroscopic elements configured to disperse light from the light collecting means ; imaging means that includes a plurality of light detection elements arrayed in a row direction and a column direction and to which Raman spectra from the plurality of spectroscopic elements are projected, whereby the plurality of spectroscopic elements disperse the light collected by the collecting means along the row direction ; and acquisition means for acquiring spectral information about the at least one sample based on an output signal from the imaging means , whereby the plurality of spectroscopic elements are arranged to project respective Raman spectra corresponding to the at least one sample to the imaging means in such a way that an intermediate Raman spectral band is not projected in at least one of the row direction or the column direction .
A reception device comprising: a communication unit configured to receive a Time Text Markup Language, TTML, subtitle data storage packet storing TTML subtitle data as payload of a MPEG Media Transport, MMT, packet defined in the MPEG MMT format, and a signaling message recorded in MMT package table, MPT, defined in the MMT format and including subtitle display control information corresponding to the TTML subtitle data; and a data processing unit configured to conduct subtitle display control by use of the TTML subtitle data and the signaling message, wherein the subtitle display control information includes a time mode, TMD, identifier, the time mode identifier is an identifier identifying one of a mode of a plurality of time control modes used for controlling the subtitle display timing, said plurality of time control modes comprising modes of determining subtitle display timing by use of description data of the display timing recorded in the TTML subtitle data plus mode-dependent timing information and modes of determining subtitle display timing without the use of said description data of the TTML subtitle data, and the data processing unit is further configured to selectively conduct subtitle display timing control using description data of the TTML subtitle data or subtitle display timing control not using description data of the TTML subtitle data depending on the time mode identifier. a communication unit configured to receive a Time Text Markup Language, TTML, subtitle data storage packet storing TTML subtitle data as payload of a MPEG Media Transport, MMT, packet defined in the MPEG MMT format, and a signaling message recorded in MMT package table, MPT, defined in the MMT format and including subtitle display control information corresponding to the TTML subtitle data; and a data processing unit configured to conduct subtitle display control by use of the TTML subtitle data and the signaling message, wherein the subtitle display control information includes a time mode, TMD, identifier, the time mode identifier is an identifier identifying one of a mode of a plurality of time control modes used for controlling the subtitle display timing, said plurality of time control modes comprising modes of determining subtitle display timing by use of description data of the display timing recorded in the TTML subtitle data plus mode-dependent timing information and modes of determining subtitle display timing without the use of said description data of the TTML subtitle data, and the data processing unit is further configured to selectively conduct subtitle display timing control using description data of the TTML subtitle data or subtitle display timing control not using description data of the TTML subtitle data depending on the time mode identifier.
A method for producing a water jacket spacer that is assembled into the inside of a water jacket (WJ) provided in a water-cooled internal combustion engine in order to control the flow of cooling water, wherein the water jacket spacer has a side wall part in which a plurality of arc-like peripheral surface parts are connected through a waist part ; a prescribed resin material is injection molded by using a molding die for injection molding; and after mold opening and ejecting, cooling is done while leaving a runner being connected to gates in a shape of teeth of a comb, and thereafter, the runner is cut off, characterized in that the prescribed resin material is injection molded by using a molding die for injection molding in which resin flow channels are designed so that a plurality of the gates are arranged along the longitudinal direction at a position corresponding to the outer peripheral surface of the side wall part and corresponding to the arc-like peripheral surface parts or the waist part , the outer peripheral surface of the side wall being a surface of the side wall opposite a surface of the side wall facing a bore wall (BW) of the water-cooled internal combustion engine when the water jacket spacer is assembled into the inside of a water jacket (WJ).
A population of lymphocyte-targeting liposomes for use in a therapeutic method in a subject, wherein the population comprises (a) lymphocyte-targeting liposomes comprising a lymphocyte specific ligand, wherein the lymphocyte specific ligand is a cytokine that stimulates lymphocytes; and (b) lymphocyte-targeting liposomes comprising an antibody or antibody fragment that binds to CD137, CTLA-4 or PD-1; and wherein said population of lymphocyte-targeting liposomes is administered to the subject in need thereof by repeated systemic administration.
A wind turbine nacelle configured for mounting on a wind turbine tower and housing a rotor-supporting assembly defining a rotational axis, the nacelle comprising: - a main unit arranged to be connected to a wind turbine tower and housing the rotor-supporting assembly, the main unit comprising a first side wall and a second side wall on opposite sides of the rotational axis and a rear wall extending transverse to the rotational axis between the side walls, and - at least two separate auxiliary units , wherein - the main unit and a first of the at least two auxiliary units are assembled at a first interface, - the main unit and a second of the at least two auxiliary units are assembled at a second interface, and - both the first and the second interfaces are in a first wall being one of the first side wall, the second side wall, or the rear wall, wherein auxiliary units are arranged along the rear wall and one or both of the first and second side walls. - a main unit arranged to be connected to a wind turbine tower and housing the rotor-supporting assembly, the main unit comprising a first side wall and a second side wall on opposite sides of the rotational axis and a rear wall extending transverse to the rotational axis between the side walls, and - at least two separate auxiliary units , - the main unit and a first of the at least two auxiliary units are assembled at a first interface, - the main unit and a second of the at least two auxiliary units are assembled at a second interface, and - both the first and the second interfaces are in a first wall being one of the first side wall, the second side wall, or the rear wall,
A method of determining a trajectory of motion of a vehicle in a predetermined region, wherein the predetermined region comprises a plurality of sub-regions, the method being executed by one or more processors , the method comprising determining an occupancy hypothesis of the predetermined region, wherein the occupancy hypothesis indicates occupied sub-regions of the plurality of sub-regions and non-occupied sub-regions of the plurality of sub-regions; determining a utility value for each sub-region of the predetermined region; determining the trajectory of motion which crosses at least one sub-region of the non-occupied sub-regions, based on a function of the utility values of the least one sub-region of the non-occupied sub-regions crossed by the trajectory of motion and by maximizing a utility of motion of the vehicle , wherein the utility of motion of the vehicle is indicated by a function of the utility values of the sub-regions crossed by the trajectory of motion; wherein the utility value of each sub-region of the non-occupied sub-regions is further determined according to an intended direction of motion of the vehicle . determining an occupancy hypothesis of the predetermined region, wherein the occupancy hypothesis indicates occupied sub-regions of the plurality of sub-regions and non-occupied sub-regions of the plurality of sub-regions; determining a utility value for each sub-region of the predetermined region; determining the trajectory of motion which crosses at least one sub-region of the non-occupied sub-regions, based on a function of the utility values of the least one sub-region of the non-occupied sub-regions crossed by the trajectory of motion and by maximizing a utility of motion of the vehicle , wherein the utility of motion of the vehicle is indicated by a function of the utility values of the sub-regions crossed by the trajectory of motion; wherein the utility value of each sub-region of the non-occupied sub-regions is further determined according to an intended direction of motion of the vehicle .
A polymer composition comprising at least the following components A) 70 to 97 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) 50 to 95 wt.-% of polypropylene; a2) 5 to 50 wt.-% of polyethylene; B) 3 to 30 wt.-% based on the overall weight of the polymer composition of a copolymer of propylene and 1-hexene, comprising b1) 30 to 70 wt.-% of a first random copolymer of propylene and 1-hexene; and b2) 30 to 70 wt.-% of a second random copolymer of propylene and 1-hexene having a higher 1-hexene content than the first random propylene copolymer b1); with the provisos that • the weight proportions of components a1) and a2) add up to 100 wt.-%; • the weight proportions of components b1) and b2) add up to 100 wt.-%; • component A) has a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range from 1.0 to 50.0 g/10 min; • component B) has a 1-hexene content in the range of 2.0 to 8.0 wt.-% based on the overall weight of component B); and • the polymer composition is free from plastomers being an elastomeric copolymer of ethylene and 1-octene having a density in the range from 0.860 to 0.930 g/cm 3 . A) 70 to 97 wt.-% based on the overall weight of the polymer composition of a polymer blend, comprising a1) 50 to 95 wt.-% of polypropylene; a2) 5 to 50 wt.-% of polyethylene; a1) 50 to 95 wt.-% of polypropylene; a2) 5 to 50 wt.-% of polyethylene; B) 3 to 30 wt.-% based on the overall weight of the polymer composition of a copolymer of propylene and 1-hexene, comprising b1) 30 to 70 wt.-% of a first random copolymer of propylene and 1-hexene; and b2) 30 to 70 wt.-% of a second random copolymer of propylene and 1-hexene having a higher 1-hexene content than the first random propylene copolymer b1); b1) 30 to 70 wt.-% of a first random copolymer of propylene and 1-hexene; and b2) 30 to 70 wt.-% of a second random copolymer of propylene and 1-hexene having a higher 1-hexene content than the first random propylene copolymer b1); • the weight proportions of components a1) and a2) add up to 100 wt.-%; • the weight proportions of components b1) and b2) add up to 100 wt.-%; • component A) has a MFR 2 (230°C, 2.16 kg) determined according to ISO 1133 in the range from 1.0 to 50.0 g/10 min; • component B) has a 1-hexene content in the range of 2.0 to 8.0 wt.-% based on the overall weight of component B); and • the polymer composition is free from plastomers being an elastomeric copolymer of ethylene and 1-octene having a density in the range from 0.860 to 0.930 g/cm 3 .
An alkaline battery comprising a gasket, the gasket being formed by injection molding a resin composition and having a thin wall portion in part, wherein the resin composition is a polyamide 610 resin composition containing a polyamide 610 resin as a main component and a molding aid such as a crystal nucleating agent and a release agent, the polyamide 610 resin having a viscosity number in a range of 80 ml/g or more and 145 ml/g or less, wherein the polyamide 610 resin is a copolycondensation polymer of sebacic acid and hexamethylenediamine, wherein the polyamide 610 resin composition is one in which a regenerated material of the same kind of a polyamide 610 resin composition once used for injection molding is used partially or as a whole of the material, and wherein the viscosity number is a value obtained at 25 °C by measuring a solution obtained by dissolving the polyamide 610 resin to 96% sulfuric acid as a solvent so that the polyamide 610 resin concentration is 1%, and calculating the measurement value according to the ISO 307 standard (JIS K 6933). the resin composition is a polyamide 610 resin composition containing a polyamide 610 resin as a main component and a molding aid such as a crystal nucleating agent and a release agent, the polyamide 610 resin having a viscosity number in a range of 80 ml/g or more and 145 ml/g or less, wherein the polyamide 610 resin is a copolycondensation polymer of sebacic acid and hexamethylenediamine, wherein the polyamide 610 resin composition is one in which a regenerated material of the same kind of a polyamide 610 resin composition once used for injection molding is used partially or as a whole of the material, and wherein the viscosity number is a value obtained at 25 °C by measuring a solution obtained by dissolving the polyamide 610 resin to 96% sulfuric acid as a solvent so that the polyamide 610 resin concentration is 1%, and calculating the measurement value according to the ISO 307 standard (JIS K 6933).
A method for treating or preventing microbial diseases and infestations in a plant comprising: applying a photocatalytic composition comprising titanium dioxide (TiO 2 ) nanoparticles doped with zinc (Zn) and Si, wherein the addition of the doping agent increases the absorbance of light across the range of 200 nm to 500 nm, and wherein the absorbance of light of wavelengths longer than 450 nm is less than 50% the absorbance of light of wavelengths shorter than 350 nm, to the surface of a plant.
A method of adding a non-inherent component to a device key of a networked device , the method comprising: receiving a device key of the networked device, wherein the networked device is a network node in a nodal geographic network having multiple network nodes and wherein the multiple network nodes are connected with each other, and the device key comprises one or more device identifying attributes of the networked device in the nodal geographic network; identifying location information of the networked device in the nodal geographic network, wherein the location information represents a geographic relationship between the networked device and other network nodes of the nodal geographic network; assigning a position attribute to the networked device according to the identified location information of the networked device in the nodal geographic network; adding the position attribute to the device key as the non-inherent component for the networked device, and storing the device key, wherein each node in the nodal geographical network comprises a device key and has a network address associated, and when a new networked device is added between two existing nodes, the method further comprises: retrieving device key components of device keys to discover the resulting network geography; and setting a network address to the new networked device, wherein network addresses of the original network nodes remain unchanged. receiving a device key of the networked device, wherein the networked device is a network node in a nodal geographic network having multiple network nodes and wherein the multiple network nodes are connected with each other, and the device key comprises one or more device identifying attributes of the networked device in the nodal geographic network; identifying location information of the networked device in the nodal geographic network, wherein the location information represents a geographic relationship between the networked device and other network nodes of the nodal geographic network; assigning a position attribute to the networked device according to the identified location information of the networked device in the nodal geographic network; adding the position attribute to the device key as the non-inherent component for the networked device, and storing the device key, wherein each node in the nodal geographical network comprises a device key and has a network address associated, and when a new networked device is added between two existing nodes, the method further comprises: retrieving device key components of device keys to discover the resulting network geography; and setting a network address to the new networked device, wherein network addresses of the original network nodes remain unchanged. retrieving device key components of device keys to discover the resulting network geography; and setting a network address to the new networked device, wherein network addresses of the original network nodes remain unchanged.