mhurhangee/ep-ind-claims huggingface dataset:
A firearm with dual-acting safety mechanism comprising: a longitudinal axis; a frame; a striking member movably disposed in the frame, the striking member moveable between a rearward cocked position and a forward firing position; a sear pivotably disposed in the frame, the sear configured to hold the striking member in the rearward cocked position; a trigger mechanism comprising a trigger and trigger bar operably coupled to sear, the trigger bar movable to actuate the sear for releasing the striking member from the cocked position via a trigger pull to discharge the firearm; a manually-operated safety mechanism comprising at least one manually movable first actuator lever (100, 120) pivotably mounted to the firearm and operably interfaced with the trigger bar, characterized in that the safety mechanism further comprises a pivotably movable safety rocker operably coupled with the first actuator lever (100, 120), the safety rocker engageable with the trigger bar and actuatable via moving the first actuator lever; wherein the safety mechanism is changeable via moving the first actuator lever (100, 120) between: a fire position in which the sear engages the trigger bar to discharge the firearm in response to the trigger pull; and a safe position in which the first actuator lever (100, 120) disengages the trigger bar from the sear and rotates the safety rocker to block movement of the trigger bar each of which prevents the firearm from being discharged in response to the trigger pull. a longitudinal axis; a frame; a striking member movably disposed in the frame, the striking member moveable between a rearward cocked position and a forward firing position; a sear pivotably disposed in the frame, the sear configured to hold the striking member in the rearward cocked position; a trigger mechanism comprising a trigger and trigger bar operably coupled to sear, the trigger bar movable to actuate the sear for releasing the striking member from the cocked position via a trigger pull to discharge the firearm; a manually-operated safety mechanism comprising at least one manually movable first actuator lever (100, 120) pivotably mounted to the firearm and operably interfaced with the trigger bar, characterized in that the safety mechanism further comprises a pivotably movable safety rocker operably coupled with the first actuator lever (100, 120), the safety rocker engageable with the trigger bar and actuatable via moving the first actuator lever; wherein the safety mechanism is changeable via moving the first actuator lever (100, 120) between: a fire position in which the sear engages the trigger bar to discharge the firearm in response to the trigger pull; and a safe position in which the first actuator lever (100, 120) disengages the trigger bar from the sear and rotates the safety rocker to block movement of the trigger bar each of which prevents the firearm from being discharged in response to the trigger pull.
A composition in the form of a gel for preparing a food product, the composition comprising: a) water in the amount of 30 to 70 % (by weight of the total composition), b) flavourings in the amount of 1 to 40 % (by weight of the total composition), c) salt in the amount of 10 to 25 % (by weight of the total composition), and d) gelling agents in the amount of 0.15 to 12 % (by weight of the total composition), wherein the gelling agents comprise at least agar and xanthan. a) water in the amount of 30 to 70 % (by weight of the total composition), b) flavourings in the amount of 1 to 40 % (by weight of the total composition), c) salt in the amount of 10 to 25 % (by weight of the total composition), and d) gelling agents in the amount of 0.15 to 12 % (by weight of the total composition),
A sensor device for measuring a temperature in a photovoltaic laminate structure, the sensor device comprising: a capillary for being embedded in the laminate structure between two layers thereof; a medium arranged within the capillary; and an optical fiber extending through the capillary and surrounded by the medium, wherein at least a portion of the optical fiber has temperature-dependent transmission characteristics; and a strain sensor configured to measure strain in proximity to the portion of the optical fiber with temperature-dependent transmission characteristics, wherein in proximity means within a distance of the diameter of the capillary, wherein the strain sensor is another optical fiber with strain-dependent transmission characteristics arranged outside the capillary. a capillary for being embedded in the laminate structure between two layers thereof; a medium arranged within the capillary; and an optical fiber extending through the capillary and surrounded by the medium, wherein at least a portion of the optical fiber has temperature-dependent transmission characteristics; and a strain sensor configured to measure strain in proximity to the portion of the optical fiber with temperature-dependent transmission characteristics, wherein in proximity means within a distance of the diameter of the capillary, wherein the strain sensor is another optical fiber with strain-dependent transmission characteristics arranged outside the capillary.
A composition comprising microcapsules, which comprise a polyurea shell and a core, wherein the core comprises pendimethalin and the shell comprises a polymerization product of c) a tetramethylxylylene diisocyanate, and d) a polyamine with at least three amine groups, and where the polymerization product comprises less than 5 wt% of further isocyanate monomers in polymerized form, based on the weight of the tetramethylxylylene diisocyanate. c) a tetramethylxylylene diisocyanate, and d) a polyamine with at least three amine groups, and
A method for scaling a vector, the method comprising: receiving, by at least one processor, components of a vector, wherein each of the components of the vector comprises at least an exponent; determining, by the at least one processor, a maximum exponent out of respective exponents of the components of the vector; and scaling, by an arithmetic logic unit of the at least one processor, the vector, including for each exponent of the respective exponents of the components of the vector: setting the respective component to zero if the respective component is zero or a denormal number; and subtracting the maximum exponent from the exponent of the respective component if the respective component is not zero and is not a denormal number. receiving, by at least one processor, components of a vector, wherein each of the components of the vector comprises at least an exponent; determining, by the at least one processor, a maximum exponent out of respective exponents of the components of the vector; and scaling, by an arithmetic logic unit of the at least one processor, the vector, including for each exponent of the respective exponents of the components of the vector: setting the respective component to zero if the respective component is zero or a denormal number; and subtracting the maximum exponent from the exponent of the respective component if the respective component is not zero and is not a denormal number. setting the respective component to zero if the respective component is zero or a denormal number; and subtracting the maximum exponent from the exponent of the respective component if the respective component is not zero and is not a denormal number.
A thermoplastic resin composition, comprising: 17 to 49 % by weight of a base resin comprising, in a weight ratio of 1:1.5 to 1:4, an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (A-1) containing alkyl acrylate rubber having an average particle diameter of 0.05 μm to 0.2 μm as determined by the method defined in the description and an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (A-2) containing alkyl acrylate rubber having an average particle diameter of more than 0.2 μm and less than or equal to 0.7 μm as determined by the method defined in the description; and 51 to 83 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer having a weight average molecular weight of 50,000 to 200,000 g/mol as determined by the method defined in the description, wherein the thermoplastic resin composition has a melt index (220 °C, 10 kg) of 14 to 36 g/10 min. 17 to 49 % by weight of a base resin comprising, in a weight ratio of 1:1.5 to 1:4, an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (A-1) containing alkyl acrylate rubber having an average particle diameter of 0.05 μm to 0.2 μm as determined by the method defined in the description and an alkyl acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer (A-2) containing alkyl acrylate rubber having an average particle diameter of more than 0.2 μm and less than or equal to 0.7 μm as determined by the method defined in the description; and 51 to 83 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer having a weight average molecular weight of 50,000 to 200,000 g/mol as determined by the method defined in the description, wherein the thermoplastic resin composition has a melt index (220 °C, 10 kg) of 14 to 36 g/10 min.
A mechanical power amplifier assembly including a motor at the input, a pump actuated by the motor, a distributor powered by the pump, a first cylinder, a second cylinder, the cylinders being communicating and connected to the distributor, a rack-and-pinion system coupled to the cylinders, a reduction stage coupled to said system, and an alternator at the output, the rack-and-pinion system including a first rack secured to the rod of the first cylinder, a second rack secured to the rod of the second cylinder, a first pinion cooperating with said first rack, a second pinion cooperating with said second rack, and a transmission shaft coupled to each of said pinions according to a single direction of rotation S, the other direction of rotation being freewheeling.
An image forming apparatus provided with a user interface, comprising: a first reception unit adapted to receive authentication information input using the user interface; a second reception unit adapted to receive a connection request transmitted from an information processing apparatus when the information processing apparatus and image forming apparatus are connected by a connection interface; a determination unit adapted to determine whether or not a user has been authenticated by the image forming apparatus based on the authentication information received by said first reception unit, when said second reception unit receives the connection request; and a control unit adapted to permit execution of processing from the information processing apparatus if it is determined by said determination unit that the user has been authenticated by the image forming apparatus, and refuse execution of processing from the information processing apparatus if it is not determined by said determination unit that that the user has been authenticated by the image forming apparatus. a first reception unit adapted to receive authentication information input using the user interface; a second reception unit adapted to receive a connection request transmitted from an information processing apparatus when the information processing apparatus and image forming apparatus are connected by a connection interface; a determination unit adapted to determine whether or not a user has been authenticated by the image forming apparatus based on the authentication information received by said first reception unit, when said second reception unit receives the connection request; and a control unit adapted to permit execution of processing from the information processing apparatus if it is determined by said determination unit that the user has been authenticated by the image forming apparatus, and refuse execution of processing from the information processing apparatus if it is not determined by said determination unit that that the user has been authenticated by the image forming apparatus.
A method of operating a scanning force microscope, the method comprising: evacuating at least some air from an enclosed chamber, the enclosed chamber containing at least a probe tip and a sample scanner of the scanning force microscope; introducing a damping-reducing gas into the enclosed chamber after evacuation of air from the enclosed chamber without increasing pressure within the enclosed chamber to one atmospheric pressure, the damping-reducing gas being gas exhibiting less damping on a vibrating cantilever than air, wherein introducing the damping-reducing gas into the enclosed chamber includes introducing helium into the enclosed chamber until the pressure in the enclosed chamber is between 10.1 kPa and 50.7 kPa (0.1 and 0.5 atmosphere) so that a temperature of microscope elements within the enclosed chamber is +/- 5 K (+/- 5°C) of a temperature of the microscope elements when operated in ambient environment; and engaging a sample on the sample scanner using the probe tip in a reduced damping environment with the damping-reducing gas within the enclosed chamber at a pressure below one atmospheric pressure to measure properties of the sample. evacuating at least some air from an enclosed chamber, the enclosed chamber containing at least a probe tip and a sample scanner of the scanning force microscope; introducing a damping-reducing gas into the enclosed chamber after evacuation of air from the enclosed chamber without increasing pressure within the enclosed chamber to one atmospheric pressure, the damping-reducing gas being gas exhibiting less damping on a vibrating cantilever than air, wherein introducing the damping-reducing gas into the enclosed chamber includes introducing helium into the enclosed chamber until the pressure in the enclosed chamber is between 10.1 kPa and 50.7 kPa (0.1 and 0.5 atmosphere) so that a temperature of microscope elements within the enclosed chamber is +/- 5 K (+/- 5°C) of a temperature of the microscope elements when operated in ambient environment; and engaging a sample on the sample scanner using the probe tip in a reduced damping environment with the damping-reducing gas within the enclosed chamber at a pressure below one atmospheric pressure to measure properties of the sample.
A cylinder head body for a single cylinder bolt system, comprising at least two branch bodies of cylinder head body, a cooperative positioning structure (4, 41, 42) and a fixed connection structure (7, 71) are provided between two adjacent branch bodies (1, 2) of cylinder head body of the at least two branch bodies (1, 2) of cylinder head body, the branch body (1, 2) of cylinder head body has a cylindrical branch body structure, the cylindrical branch body structures of the at least two branch bodies (1, 2) of cylinder head body are cooperatively positioned by means of the cooperative positioning structure (4, 41, 42) and are detachably connected by means of the fixed connection structure (7, 71) to form a barrel characterised in that the cooperative positioning structure comprises a rabbet cooperatively formed by a concave rabbet and a convex rabbet provided on the butting end faces of two adjacent branch bodies of cylinder head body of the at least two branch bodies of cylinder head body, respectively; or the cooperative positioning structure comprises a plurality of cooperating bosses and grooves respectively provided on the butting end faces of two adjacent branch bodies of cylinder head body of the at least two branch bodies of cylinder head body.
A system for indicating bottoming contact between an inner wall of a fluid carrying conduit and a distal tip of a process measurement probe, the system comprising: the fluid carrying conduit; a process device having the process measurement probe configured for insertion into the fluid carrying conduit; an insertion mechanism coupled to the process measurement probe and configured to apply force to insert the process measurement probe into the fluid carrying conduit; and a bottoming indicator configured to provide an indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit as a function of an insertion related force or pressure; wherein the bottoming indicator includes at least one spring, wherein one end of the spring is fixed to a reference feature configured as a plate so that the spring is compressed in response to application of the force from the insertion mechanism to insert the process measurement probe, the system being characterized in that the bottoming indicator further includes a visual marker which moves relative to the reference feature when proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit is achieved, wherein the spring is located on one side of the reference feature opposite to the visual marker, and wherein the movement of the visual marker relative to the reference feature provides a visual indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit. the fluid carrying conduit; a process device having the process measurement probe configured for insertion into the fluid carrying conduit; an insertion mechanism coupled to the process measurement probe and configured to apply force to insert the process measurement probe into the fluid carrying conduit; and a bottoming indicator configured to provide an indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit as a function of an insertion related force or pressure; wherein the bottoming indicator includes at least one spring, wherein one end of the spring is fixed to a reference feature configured as a plate so that the spring is compressed in response to application of the force from the insertion mechanism to insert the process measurement probe, the system being characterized in that the bottoming indicator further includes a visual marker which moves relative to the reference feature when proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit is achieved, wherein the spring is located on one side of the reference feature opposite to the visual marker, and wherein the movement of the visual marker relative to the reference feature provides a visual indication of proper bottoming of the distal tip of the process measurement probe against the inner wall of the fluid carrying conduit.
A compound of the formula: wherein R 70 and R 71 are independently selected from haloalkyl, aralkyl, optionally substituted aryl and optionally substituted heteroaryl; c is 0 or an integer of 1-3; R 72 -R 78 and R 80 -R 86 are independently selected from alkyl, cycloalkyl, alkenyl, cycloalkenyl, heterocyclyl, aryl and heteroaryl, each optionally substituted; trialkylsiloxy; aryldialkylsiloxy; alkyldiarylsiloxy and triarylsiloxy; and if c is 0, then R 74 and R 82 are independently selected from haloalkyl, aralkyl, optionally substituted aryl and optionally substituted heteroaryl. R 70 and R 71 are independently selected from haloalkyl, aralkyl, optionally substituted aryl and optionally substituted heteroaryl; c is 0 or an integer of 1-3; R 72 -R 78 and R 80 -R 86 are independently selected from alkyl, cycloalkyl, alkenyl, cycloalkenyl, heterocyclyl, aryl and heteroaryl, each optionally substituted; trialkylsiloxy; aryldialkylsiloxy; alkyldiarylsiloxy and triarylsiloxy; and if c is 0, then R 74 and R 82 are independently selected from haloalkyl, aralkyl, optionally substituted aryl and optionally substituted heteroaryl.
Device for handling bulk containers, having a steel frame design comprising steel beams (4, 5, 10, 11, 12, 13, 14) which are welded to one another and a rectangular upper steel frame, wherein the steel frame construction can be connected to a load handling means (2, 22) of a container conveying device (1, 21) and to which a device for receiving the container is arranged which allows emptying of the container by rotation, wherein the upper steel frame is welded to a further, likewise rectangular, steel frame which is arranged perpendicular to the upper steel frame and on which a rotating device for turning a carrying device is arranged, characterized in that the carrying device has two fork tines running parallel with one another which can be inserted into fork pockets in the container.
A valve for controlling a flow through a pipe, namely a power tube of a light rail system, having a diameter, the valve being coupleable to the pipe and comprising: a valve body positionable adjacent to the pipe, where the valve body has a diameter that is approximately one-half the diameter of the pipe; a valve stem engaged with the valve body; vanes (18, 20) engaged with the valve stem, the valve stem and the vanes (18, 20) being configured to fold into a z-shape, such that the z-shape fits within the valve body when the valve is in an open position; and a valve cap having a saddle shape, wherein the cap is rotated 90° between the open position of the valve and a closed position of the valve, wherein the valve cap has a concave shape in the direction of flow when the valve is in the open position and has a convex shape in the direction of flow when the valve is in the closed position. a valve body positionable adjacent to the pipe, where the valve body has a diameter that is approximately one-half the diameter of the pipe; a valve stem engaged with the valve body; vanes (18, 20) engaged with the valve stem, the valve stem and the vanes (18, 20) being configured to fold into a z-shape, such that the z-shape fits within the valve body when the valve is in an open position; and a valve cap having a saddle shape, wherein the cap is rotated 90° between the open position of the valve and a closed position of the valve, wherein the valve cap has a concave shape in the direction of flow when the valve is in the open position and has a convex shape in the direction of flow when the valve is in the closed position.
A heat-insulation sheet, comprising: a first silica xerogel layer that includes a first silica xerogel; a second silica xerogel layer that includes a second silica xerogel; and a composite layer that is located between the first silica xerogel layer and the second silica xerogel layer, and that includes at least one type of unwoven fabric fibers and a third silica xerogel, wherein the third silica xerogel is located in a spatial volume of the unwoven fabric fibers, and the first silica xerogel layer and the second silica xerogel layer do not include the unwoven fabric fibers. a first silica xerogel layer that includes a first silica xerogel; a second silica xerogel layer that includes a second silica xerogel; and a composite layer that is located between the first silica xerogel layer and the second silica xerogel layer, and that includes at least one type of unwoven fabric fibers and a third silica xerogel, wherein the third silica xerogel is located in a spatial volume of the unwoven fabric fibers, and the first silica xerogel layer and the second silica xerogel layer do not include the unwoven fabric fibers.