mhurhangee/ep-ind-claims huggingface dataset:
A system for utilizing data and computational information from on-vehicle and off-vehicle sources, the system comprising: an assigning authority engine; a remote profile manager toolset; at least one off-vehicle source comprising at least one off-vehicle content, the at least one off-vehicle source selected from a group comprising at least one database, at least one cloud source, or at least one physical structure with a communication device; and at least one on-vehicle source comprising on-vehicle data for a vehicle; wherein the assigning authority is configured to access and combine the at least one off-vehicle content and the on-vehicle data to produce a plurality of dynamic, temporal combinations of data elements and a plurality of instructions; wherein the remote profile manager toolset is configured to execute the plurality of dynamic, temporal combinations to access vehicle, timing, event, and/or positioning, VTEP, data to inform the plurality of instruction sets communicated by the assigning authority engine; wherein the remote profile manager toolset is configured to use one or more elements of the VTEP data to synchronize on-vehicle data elements or a computational output of the off-vehicle content, to generate a new information data set combination. an assigning authority engine; a remote profile manager toolset; at least one off-vehicle source comprising at least one off-vehicle content, the at least one off-vehicle source selected from a group comprising at least one database, at least one cloud source, or at least one physical structure with a communication device; and at least one on-vehicle source comprising on-vehicle data for a vehicle; wherein the assigning authority is configured to access and combine the at least one off-vehicle content and the on-vehicle data to produce a plurality of dynamic, temporal combinations of data elements and a plurality of instructions; wherein the remote profile manager toolset is configured to execute the plurality of dynamic, temporal combinations to access vehicle, timing, event, and/or positioning, VTEP, data to inform the plurality of instruction sets communicated by the assigning authority engine;
A striking tool, comprising: a cylinder casing; a piston being disposed within the cylinder casing; a striker being disposed within the cylinder casing, the striker being reciprocally movable by a change of an air pressure within an air chamber, the change of the air pressure being generated by a movement of the piston; a tip end tool to which an impact force is transmitted by reciprocal movement of the piston; a tip end tool holding member holding the tip end tool and having an attachment portion attached to the cylinder casing; a buffer member (42, 43) that sandwiches the attachment portion of the tip end tool holding member in an axial direction of the striking tool, wherein the tip end tool holding member is elastically supported in a radial direction by the buffer member; characterized in that a collar is inserted through the attachment portion of the tip end tool holding member to the cylinder casing and the buffer member (42, 43); and a bolt is inserted through the collar and engaged with the cylinder casing, wherein an inner diameter of a hole portion of the attachment portion of the tip end tool holding member to the cylinder casing is larger than an outer diameter of the collar. a cylinder casing; a piston being disposed within the cylinder casing; a striker being disposed within the cylinder casing, the striker being reciprocally movable by a change of an air pressure within an air chamber, the change of the air pressure being generated by a movement of the piston; a tip end tool to which an impact force is transmitted by reciprocal movement of the piston; a tip end tool holding member holding the tip end tool and having an attachment portion attached to the cylinder casing; a buffer member (42, 43) that sandwiches the attachment portion of the tip end tool holding member in an axial direction of the striking tool, wherein the tip end tool holding member is elastically supported in a radial direction by the buffer member; characterized in that a collar is inserted through the attachment portion of the tip end tool holding member to the cylinder casing and the buffer member (42, 43); and a bolt is inserted through the collar and engaged with the cylinder casing, wherein an inner diameter of a hole portion of the attachment portion of the tip end tool holding member to the cylinder casing is larger than an outer diameter of the collar.
A snus pouch filled with raw material chips for oral tobacco, comprising a tobacco raw material composition comprising tobacco particles, water, and an additive, and a water-soluble edible film, the tobacco raw material composition and the water-soluble edible film being laminated, wherein outer surfaces of the raw material chip for oral tobacco are composed of a surface composed of the tobacco raw material composition, and a surface composed of the film, wherein an average thickness of a layer comprising the tobacco raw material composition is 1 to 5 mm, and a thickness of the water-soluble edible film is 1/20 to 1/100 of the average thickness of the layer comprising the tobacco raw material composition.
Monitoring device of one or more physical quantities correlated to a tyre, fixable on an inner surface of said tyre, the monitoring device comprising: - an electronic unit; - an electric power supplier comprising a housing body, a first pole at a first face of the housing body and a second pole at a second face of the housing body, opposite to the first face; - an electric circuit for connecting the two poles (22, 24) to said electronic unit; - a single piece flexible support, on which the electronic unit is fixed, wherein the electronic unit comprises: at least one sensor for detecting at least one of the following physical quantities: temperature, pressure, acceleration, and deformation; a processing unit; a transceiver, wherein the housing body is fixed onto said flexible support at said first face, characterized in that the monitoring device comprises a tab integral with said flexible support at a first end of the tab and folded so that a portion of the tab is fixed to said second face of the housing body, and wherein the electric circuit comprises a connecting track extending along said tab up to electrically contact said second pole. - an electronic unit; - an electric power supplier comprising a housing body, a first pole at a first face of the housing body and a second pole at a second face of the housing body, opposite to the first face; - an electric circuit for connecting the two poles (22, 24) to said electronic unit; - a single piece flexible support, on which the electronic unit is fixed, wherein the electronic unit comprises: at least one sensor for detecting at least one of the following physical quantities: temperature, pressure, acceleration, and deformation; a processing unit; a transceiver, at least one sensor for detecting at least one of the following physical quantities: temperature, pressure, acceleration, and deformation; a processing unit; a transceiver, wherein the housing body is fixed onto said flexible support at said first face, characterized in that the monitoring device comprises a tab integral with said flexible support at a first end of the tab and folded so that a portion of the tab is fixed to said second face of the housing body, and wherein the electric circuit comprises a connecting track extending along said tab up to electrically contact said second pole.
A method for manufacturing a plurality of packages or pouches (400, 402, 404, 406), comprising the steps of: providing a first portion of web material in a machine direction; providing a second portion of web material in a machine direction; providing a reclosure between and attached to the first and second portions of web material, the reclosure being oriented in a transverse direction, characterised by the steps of: forming a plurality of machine direction seal lines (300, 302, 304, 306, 308) between the first and second portions of the web; and forming a plurality of machine direction cuts (302, 304, 306) in the first and second portions of the web along at least a portion of the machine direction seal lines (300, 302, 304, 306, 308). providing a first portion of web material in a machine direction; providing a second portion of web material in a machine direction; providing a reclosure between and attached to the first and second portions of web material, the reclosure being oriented in a transverse direction, characterised by the steps of: forming a plurality of machine direction seal lines (300, 302, 304, 306, 308) between the first and second portions of the web; and forming a plurality of machine direction cuts (302, 304, 306) in the first and second portions of the web along at least a portion of the machine direction seal lines (300, 302, 304, 306, 308). forming a plurality of machine direction seal lines (300, 302, 304, 306, 308) between the first and second portions of the web; and forming a plurality of machine direction cuts (302, 304, 306) in the first and second portions of the web along at least a portion of the machine direction seal lines (300, 302, 304, 306, 308).
Method for electric arc welding, in an ascending vertical direction, at least one steel part having a yield strength of at least 460 MPa, using a flux-cored wire comprising an outer metal sheath containing a flux, characterised in that welding is carried out by using a pulsed welding regime, and in that the flux contains a mixture of CaF 2, CaCO 3 and TiO 2.
Control device for controlling at least one function of an automotive vehicle member, comprising a capacitive detection surface configured to detect a manual command from a user, characterized in that it additionally comprises a device for detecting objects having ferromagnetic properties, said detection device comprising: - at least one magnetic field generation device, configured to generate a magnetic field at the capacitive detection surface; - at least one device for measuring the magnetic field generated by the magnetic field generation device; and - a command monitoring device, connected to the measurement device and to the capacitive detection surface and configured to monitor the control signal transmitted by the capacitive detection surface as a function of the magnetic field measured by the measurement device during the detection of the command. - at least one magnetic field generation device, configured to generate a magnetic field at the capacitive detection surface; - at least one device for measuring the magnetic field generated by the magnetic field generation device; and - a command monitoring device, connected to the measurement device and to the capacitive detection surface and configured to monitor the control signal transmitted by the capacitive detection surface as a function of the magnetic field measured by the measurement device during the detection of the command.
A free-cutting copper alloy comprising: higher than or equal to 58.5 mass% and lower than or equal to 63.5 mass% of Cu; higher than 0.4 mass% and lower than or equal to 1.0 mass% of Si; higher than or equal to 0.003 mass% and lower than or equal to 0.25 mass% of Pb; and higher than or equal to 0.005 mass% and lower than or equal to 0.19 mass% of P, with the balance being Zn and inevitable impurities, wherein, among the inevitable impurities, a total content of Fe, Mn, Co, and Cr is lower than 0.40 mass% and a total content of Sn and Al is lower than 0.40 mass%, when a Cu content is represented by [Cu] mass%, a Si content is represented by [Si] mass%, a Pb content is represented by [Pb] mass%, and a P content is represented by mass%, a relationship of 56.3 ≤ f 1 = Cu − 4.7 × Si + 0.5 × Pb − 0.5 × P ≤ 59.3 is satisfied, in constituent phases of a metallographic structure excluding non-metallic inclusions, when an area ratio of α phase is represented by (α)%, an area ratio of γ phase is represented by (γ)%, and an area ratio of β phase is represented by (β)%, relationships of 20 ≤ α ≤ 75, 25 ≤ β ≤ 80, 0 ≤ γ < 2, 20 ≤ γ 1 / 2 × 3 + β × − 0.5 × Si 2 + 1.5 × Si ≤ 78, and 33 ≤ γ 1 / 2 × 3 + β × − 0.5 × Si 2 + 1.5 × Si + Pb 1 / 2 × 33 + P 1 / 2 × 14 are satisfied, and a P-containing compound is present in the β phase. higher than or equal to 58.5 mass% and lower than or equal to 63.5 mass% of Cu; higher than 0.4 mass% and lower than or equal to 1.0 mass% of Si; higher than or equal to 0.003 mass% and lower than or equal to 0.25 mass% of Pb; and higher than or equal to 0.005 mass% and lower than or equal to 0.19 mass% of P, with the balance being Zn and inevitable impurities, wherein, among the inevitable impurities, a total content of Fe, Mn, Co, and Cr is lower than 0.40 mass% and a total content of Sn and Al is lower than 0.40 mass%, when a Cu content is represented by [Cu] mass%, a Si content is represented by [Si] mass%, a Pb content is represented by [Pb] mass%, and a P content is represented by mass%, a relationship of 56.3 ≤ f 1 = Cu − 4.7 × Si + 0.5 × Pb − 0.5 × P ≤ 59.3 is satisfied, in constituent phases of a metallographic structure excluding non-metallic inclusions, when an area ratio of α phase is represented by (α)%, an area ratio of γ phase is represented by (γ)%, and an area ratio of β phase is represented by (β)%, relationships of 20 ≤ α ≤ 75, 25 ≤ β ≤ 80, 0 ≤ γ < 2, 20 ≤ γ 1 / 2 × 3 + β × − 0.5 × Si 2 + 1.5 × Si ≤ 78, and 33 ≤ γ 1 / 2 × 3 + β × − 0.5 × Si 2 + 1.5 × Si + Pb 1 / 2 × 33 + P 1 / 2 × 14 are satisfied, and a P-containing compound is present in the β phase.
A system, comprising: a first device comprising a first processor configured to execute a firewall, and a second device comprising a second processor configured to execute a virtual machine, wherein the executing the firewall using the first processor of the first device comprises: using the firewall to decrypt an encrypted network traffic flow to generate a potential malware sample, wherein a preexisting signature does not match the potential malware sample; and sending the potential malware sample from the firewall to the virtual machine; and wherein the executing the virtual machine using the second processor of the second device comprises: analyzing the potential malware sample using the virtual machine to determine if the potential malware sample is malware; automatically generating a signature using the virtual machine if the potential malware sample is determined to be malware; and sending the signature from the virtual machine to the firewall, wherein the firewall is configured to enforce a security policy based on the signature; and a memory coupled to the first processor and configured to provide the first processor with instructions. a first device comprising a first processor configured to execute a firewall, and a second device comprising a second processor configured to execute a virtual machine, wherein the executing the firewall using the first processor of the first device comprises: using the firewall to decrypt an encrypted network traffic flow to generate a potential malware sample, wherein a preexisting signature does not match the potential malware sample; and sending the potential malware sample from the firewall to the virtual machine; and using the firewall to decrypt an encrypted network traffic flow to generate a potential malware sample, wherein a preexisting signature does not match the potential malware sample; and sending the potential malware sample from the firewall to the virtual machine; and wherein the executing the virtual machine using the second processor of the second device comprises: analyzing the potential malware sample using the virtual machine to determine if the potential malware sample is malware; automatically generating a signature using the virtual machine if the potential malware sample is determined to be malware; and sending the signature from the virtual machine to the firewall, wherein the firewall is configured to enforce a security policy based on the signature; and analyzing the potential malware sample using the virtual machine to determine if the potential malware sample is malware; automatically generating a signature using the virtual machine if the potential malware sample is determined to be malware; and sending the signature from the virtual machine to the firewall, wherein the firewall is configured to enforce a security policy based on the signature; and a memory coupled to the first processor and configured to provide the first processor with instructions.
A method for the maintenance of a ground-level power supply device for a transport vehicle, said device including: - a ground-level power supply rail; said power supply rail including electrically conductive segments and electrically insulating segments, alternating and substantially aligned; the power supply rail extending between two travel rails of the transport vehicle; - a device for detecting spatial coordinates of a vehicle; and - a supply shoe; said detection device and said supply shoe equipping a same transport vehicle, the supply shoe being able to rub against the power supply rail during a movement of said vehicle along said power supply rail; the supply shoe including a sensor (34, 60, 62) detecting vibrations of said shoe in contact with the power supply rail; the power supply device including at least one camera, allowing to visualize a position of the supply shoe relative to the supply rail or to a body of the vehicle; and the method including the following steps: - moving the transport vehicle along the power supply rail; - during said movement, measuring vibrations of the supply shoe and simultaneously detecting spatial coordinates of the vehicle; then - comparing measured vibrations of the supply shoe with a threshold value, and - determining spatial coordinates corresponding to vibrations above said threshold value; and - in parallel, recording of a video by the camera; analysis of said video so as to detect a vertical jump of the shoe or a displacement of the shoe in a direction perpendicular to the displacement of the vehicle; and correlation of a vibration of the supply shoe above the threshold value, measured by the sensor, with said jump or displacement of the shoe. - a ground-level power supply rail; said power supply rail including electrically conductive segments and electrically insulating segments, alternating and substantially aligned; the power supply rail extending between two travel rails of the transport vehicle; - a device for detecting spatial coordinates of a vehicle; and - a supply shoe; - moving the transport vehicle along the power supply rail; - during said movement, measuring vibrations of the supply shoe and simultaneously detecting spatial coordinates of the vehicle; then - comparing measured vibrations of the supply shoe with a threshold value, and - determining spatial coordinates corresponding to vibrations above said threshold value; and - in parallel, recording of a video by the camera; analysis of said video so as to detect a vertical jump of the shoe or a displacement of the shoe in a direction perpendicular to the displacement of the vehicle; and correlation of a vibration of the supply shoe above the threshold value, measured by the sensor, with said jump or displacement of the shoe.
A combined power generation system comprising: a gas turbine including a compressor configured to compress air, a combustor configured to combust a mixture of the compressed air and fuel and generate combustion gases, and a turbine section configured to rotate a turbine with the combustion gases and discharge exhaust gases; a heat recovery steam generator HRSG in which steam is generated by heat of the exhaust gases from the gas turbine; and a steam turbine driven by the steam generated by the HRSG, characterized in that the HRSG includes a plurality of heat exchangers provided to cool the compressed air by performing heat exchange between the compressed air and the exhaust gases. a gas turbine including a compressor configured to compress air, a combustor configured to combust a mixture of the compressed air and fuel and generate combustion gases, and a turbine section configured to rotate a turbine with the combustion gases and discharge exhaust gases; a heat recovery steam generator HRSG in which steam is generated by heat of the exhaust gases from the gas turbine; and a steam turbine driven by the steam generated by the HRSG, characterized in that the HRSG includes a plurality of heat exchangers provided to cool the compressed air by performing heat exchange between the compressed air and the exhaust gases.
A method of manufacturing a semiconductor device structure, the method comprising: providing a substrate having semiconductor material; forming an isolation trench in the semiconductor material; lining the isolation trench with a liner material that substantially inhibits formation of high-k (high dielectric constant) material thereon, resulting in a lined trench; at least partially filling the lined trench with an insulating material; and forming a layer of high-k gate material overlying at least a portion of the insulating material and overlying at least a portion of the semiconductor material, such that the layer of high-k gate material is divided by the liner material. providing a substrate having semiconductor material; forming an isolation trench in the semiconductor material; lining the isolation trench with a liner material that substantially inhibits formation of high-k (high dielectric constant) material thereon, resulting in a lined trench; at least partially filling the lined trench with an insulating material; and forming a layer of high-k gate material overlying at least a portion of the insulating material and overlying at least a portion of the semiconductor material, such that the layer of high-k gate material is divided by the liner material.
Nucleic acid joining method, comprising the steps of a) providing a set of at least three nucleic acid fragments to be joined, wherein the nucleic acid fragments comprise pairwise compatible ends, and wherein at least two of the nucleic acid fragments are double stranded at least in the region of the respective compatible end, and wherein each counter-strand of the respective compatible end comprises nucleotides configured for non-enzymatic removal, b) non-enzymatically removing of such nucleotides configured for non-enzymatic removal, c) mixing of the nucleic acid fragments under hybridizing conditions, wherein the nucleotides configured for non-enzymatic removal comprise a phosphorothioate backbone, and wherein the compatible ends have a length of 5 to 25 nucleotides, and wherein the number of nucleotides configured for non-enzymatic removal for each compatible end region is 5 to 25, and wherein at least one fragment comprises a double-stranded section after performing of step b). a) providing a set of at least three nucleic acid fragments to be joined, wherein the nucleic acid fragments comprise pairwise compatible ends, and wherein at least two of the nucleic acid fragments are double stranded at least in the region of the respective compatible end, and wherein each counter-strand of the respective compatible end comprises nucleotides configured for non-enzymatic removal, b) non-enzymatically removing of such nucleotides configured for non-enzymatic removal, c) mixing of the nucleic acid fragments under hybridizing conditions,