mhurhangee/ep-ind-claims huggingface dataset:
A method for finding a target conveying capacity of a pumping system having at least one pump for conveying a temperature-control medium through at least one temperature-control channel (4, 5) of a molding tool by means of the at least one pump, wherein a) a control at least of one temperature-control volume flow through the at least one temperature-control channel (4, 5) is carried out according to a control variable by using at least one throttle as an actuating element such that the at least one temperature-control volume flow remains substantially constant, b) a conveying flow of the pumping system is measured, c) the at least one pump starting from a starting conveying capacity independent of the control of the at least one temperature-control volume flow is driven such that a conveying capacity of the pumping system is reduced to a reduced conveying capacity, and d) then it is checked whether the conveying flow remains substantially constant and, i. if this is the case, the reduced conveying capacity is determined to be the target conveying capacity or, ii. if this is not the case despite the control of the at least one temperature-control volume flow, the starting conveying capacity is determined to be the target conveying capacity. a) a control at least of one temperature-control volume flow through the at least one temperature-control channel (4, 5) is carried out according to a control variable by using at least one throttle as an actuating element such that the at least one temperature-control volume flow remains substantially constant, b) a conveying flow of the pumping system is measured, c) the at least one pump starting from a starting conveying capacity independent of the control of the at least one temperature-control volume flow is driven such that a conveying capacity of the pumping system is reduced to a reduced conveying capacity, and d) then it is checked whether the conveying flow remains substantially constant and, i. if this is the case, the reduced conveying capacity is determined to be the target conveying capacity or, ii. if this is not the case despite the control of the at least one temperature-control volume flow, the starting conveying capacity is determined to be the target conveying capacity. i. if this is the case, the reduced conveying capacity is determined to be the target conveying capacity or, ii. if this is not the case despite the control of the at least one temperature-control volume flow, the starting conveying capacity is determined to be the target conveying capacity.
An ion exchanger comprising: a porous positive ion exchanger having binder particles and particles of positive ion exchange resin and formed into a sheet shape; and a porous negative ion exchanger having binder particles and particles of negative ion exchange resin and formed into a sheet shape, wherein the positive ion exchanger and the negative ion exchanger are bonded to each other to form an interface, and capacity of the negative ion exchanger is greater than that of the positive ion exchanger. a porous positive ion exchanger having binder particles and particles of positive ion exchange resin and formed into a sheet shape; and a porous negative ion exchanger having binder particles and particles of negative ion exchange resin and formed into a sheet shape, wherein the positive ion exchanger and the negative ion exchanger are bonded to each other to form an interface, and capacity of the negative ion exchanger is greater than that of the positive ion exchanger.
A mold device, comprising: a shaft mechanism that is provided on at least one of a first mold and a second mold, the first mold and the second mold forming a molding space having a nested structure; and an ejection portion that is provided on at least one of the first mold and the second mold, the ejection portion ejecting a pressurized fluid from an ejection device of pressurized fluid to the molding space, wherein the shaft mechanism includes: a shaft body for extruding a molded article (124, 210, 216) that is molded from a resin injected into the molding space; a ring-shaped elastic member for supporting the shaft body, an opening of a groove formed in a circumferential direction of the ring-shaped elastic member being oriented toward the molding space; and a ring-shaped member fitted into the opening of the groove of the ring-shaped elastic member, and wherein a surface of the mold device subjected to fluid pressurization is embossed. a shaft mechanism that is provided on at least one of a first mold and a second mold, the first mold and the second mold forming a molding space having a nested structure; and an ejection portion that is provided on at least one of the first mold and the second mold, the ejection portion ejecting a pressurized fluid from an ejection device of pressurized fluid to the molding space, wherein the shaft mechanism includes: a shaft body for extruding a molded article (124, 210, 216) that is molded from a resin injected into the molding space; a ring-shaped elastic member for supporting the shaft body, an opening of a groove formed in a circumferential direction of the ring-shaped elastic member being oriented toward the molding space; and a ring-shaped member fitted into the opening of the groove of the ring-shaped elastic member, and wherein a surface of the mold device subjected to fluid pressurization is embossed. a shaft body for extruding a molded article (124, 210, 216) that is molded from a resin injected into the molding space; a ring-shaped elastic member for supporting the shaft body, an opening of a groove formed in a circumferential direction of the ring-shaped elastic member being oriented toward the molding space; and a ring-shaped member fitted into the opening of the groove of the ring-shaped elastic member, and wherein a surface of the mold device subjected to fluid pressurization is embossed.
Additive composition for control and inhibition of polymerization of styrene, wherein the composition comprises amine and quinone methide, and wherein said amine is selected from the group comprising tri isopropanol amine (TIPA), propoxylated ethylene diamine, triethanol amine, tributyl amine, diethanol amine, mono ethanol amine, and combination thereof
A process for producing a composition comprising the following: A) an ethylene-based polymer that has a density greater than, or equal to, 0.940 g/cc and a melt index of from greater than, or equal to, 2.0 g/10 min to less than, or equal to, 70.0 g/10 min, and B) an ethylene homopolymer, formed by polymerizing a reaction mixture comprising ethylene, using a free-radical, high pressure polymerization process; and wherein component is polymerized in a polymerization configuration comprising at least one reactor, at least one separator, and at least one pelletizer, and wherein component is added to a molten stream of component, after component exits the separator and before component is solidified in the pelletizer. A) an ethylene-based polymer that has a density greater than, or equal to, 0.940 g/cc and a melt index of from greater than, or equal to, 2.0 g/10 min to less than, or equal to, 70.0 g/10 min, and B) an ethylene homopolymer, formed by polymerizing a reaction mixture comprising ethylene, using a free-radical, high pressure polymerization process; and wherein component is polymerized in a polymerization configuration comprising at least one reactor, at least one separator, and at least one pelletizer, and wherein component is added to a molten stream of component, after component exits the separator and before component is solidified in the pelletizer. wherein component is polymerized in a polymerization configuration comprising at least one reactor, at least one separator, and at least one pelletizer, and wherein component is added to a molten stream of component, after component exits the separator and before component is solidified in the pelletizer.
Handheld work apparatus comprising a first assembly, a second assembly and at least one anti-vibration element, wherein the anti-vibration element comprises a coil spring, wherein a first end of the coil spring forms a fastening eyelet, at which the coil spring has a reduced outer diameter (e), wherein the first end of the coil spring is fixed to the first assembly by a fastening screw, wherein the fastening screw extends through the fastening eyelet and the head projects into the inside of the coil spring, and wherein a second end of the coil spring is screwed onto a connecting piece of the second assembly, wherein the head of the fastening screw has an engagement contour, wherein the second assembly has an opening, which extends through the connecting piece and through which the engagement contour in the head of the fastening screw is accessible for a tool, wherein the inner diameter (a) of the opening is smaller than the outer diameter (b) of the head of the fastening screw, wherein the connecting piece projects into the interior of the coil spring, wherein the connecting piece has a front end arranged in the interior of the coil spring, and wherein the distance (f) between the fastening eyelet and the front end of the connecting piece in the non-loaded state of the work apparatus is less than the length (g) of the fastening screw, characterized in that the distance (p) of a support surface of the fastening eyelet, which is intended to bear on the first assembly, from the front end of the connecting piece is greater than the length (g) of the fastening screw.
A method for protecting sensitive data in a storage device having wear leveling, comprising: receiving a write command with an associated sensitive write signal indicating that sensitive data is associated with the write command, wherein a distinct pattern in data being written by the write command comprises the sensitive write signal, and wherein the sensitive data is further associated with at least one address pointing to a storage location within an initial physical storage block; and executing the write command by: writing to at least one storage location within an available physical storage block, pointing the at least one address to the at least one storage location within the available physical storage block, and erasing the initial physical storage block to complete execution of the write command. receiving a write command with an associated sensitive write signal indicating that sensitive data is associated with the write command, wherein a distinct pattern in data being written by the write command comprises the sensitive write signal, and wherein the sensitive data is further associated with at least one address pointing to a storage location within an initial physical storage block; and executing the write command by: writing to at least one storage location within an available physical storage block, pointing the at least one address to the at least one storage location within the available physical storage block, and erasing the initial physical storage block to complete execution of the write command. writing to at least one storage location within an available physical storage block, pointing the at least one address to the at least one storage location within the available physical storage block, and erasing the initial physical storage block to complete execution of the write command.
A differently configurable vehicle seat (1a, 1b, 1c; 101a, 101b, 101c), comprising: a frame (2, 102); a backrest (10, 110) coupled to the frame (2, 102); and a seating unit (11, 111) comprising a seating base (12, 13; 112) and an articulated kinematic mechanism for connecting the seating base (12, 13; 112) to the frame (2, 102), in such a way that the seating base (12, 13; 112) is movable between a withdrawn position, wherein a side of the seating base (12, 13; 112) is substantially adjacent to the backrest (10, 110), so as to allow a passenger to sit on the seating base (12, 13; 112), and an extended position, wherein the seating base (12, 13; 112) is positioned at a predetermined distance from the backrest (10, 110), so as to allow the passenger to rest his/her legs on the seating base (12, 13; 112); characterized in that the seat (1a, 1b, 1c; 101a, 101b, 101c) comprises a seating support fixed to the frame (2, 102) and positioned in such a way that, when the seating base (12, 13; 112) is in the withdrawn position, the seating support is beneath the seating base (12, 13; 112); and in such a way that, when the seating base (12, 13; 112) is in the extended position, the seating support is positioned between the backrest (10, 110) and the seating base (12, 13; 112). a frame (2, 102); a backrest (10, 110) coupled to the frame (2, 102); and a seating unit (11, 111) comprising a seating base (12, 13; 112) and an articulated kinematic mechanism for connecting the seating base (12, 13; 112) to the frame (2, 102), in such a way that the seating base (12, 13; 112) is movable between a withdrawn position, wherein a side of the seating base (12, 13; 112) is substantially adjacent to the backrest (10, 110), so as to allow a passenger to sit on the seating base (12, 13; 112), and an extended position, wherein the seating base (12, 13; 112) is positioned at a predetermined distance from the backrest (10, 110), so as to allow the passenger to rest his/her legs on the seating base (12, 13; 112); characterized in that the seat (1a, 1b, 1c; 101a, 101b, 101c) comprises a seating support fixed to the frame (2, 102) and positioned in such a way that, when the seating base (12, 13; 112) is in the withdrawn position, the seating support is beneath the seating base (12, 13; 112); and in such a way that, when the seating base (12, 13; 112) is in the extended position, the seating support is positioned between the backrest (10, 110) and the seating base (12, 13; 112).
A process for producing metallic structures from bundles of nanowires, comprising the following steps: (a) providing a composition comprising metallic nanowires and at least one solvent; (b) structuring the composition on a substrate by contacting a structure template with the composition before or after the contacting of the composition with a surface; (c) at least partly removing the solvent while the structure template is in contact with the surface under formation of bundels of parallel aligned nanowires on the surface. (a) providing a composition comprising metallic nanowires and at least one solvent; (b) structuring the composition on a substrate by contacting a structure template with the composition before or after the contacting of the composition with a surface; (c) at least partly removing the solvent while the structure template is in contact with the surface under formation of bundels of parallel aligned nanowires on the surface.
A defibrillator system (106, 200) comprising; a portable external defibrillator (108, 212); a sensor configured to collect chest compression parameters; a video camera (105, 107, 204) configured to acquire a video of a subject being treated by the defibrillator (102, 202); a data collection unit configured to collect a plurality of types of real-time subject monitoring data associated with the subject, wherein the plurality of types of data includes the chest compression parameters; a communications unit configured to establish a communication channel between the defibrillator system and an emergency response center (116, 206); and a processing unit configured to: cause transmission of identifiers of the plurality of types of data to the emergency response center (116, 206); receive from the emergency response center (116, 206) a selection of at least one of the plurality of types of data; determine the available bandwidth of the communication channel; compare available bandwidth of the communication channel to a threshold bandwidth, wherein if the available bandwidth exceeds the threshold bandwidth, cause transmission of both the video of the subject and the selected types of data associated with the subject; and if the available bandwidth is less than the threshold bandwidth, cause transmission of only the selected types of data associated with the subject. cause transmission of identifiers of the plurality of types of data to the emergency response center (116, 206); receive from the emergency response center (116, 206) a selection of at least one of the plurality of types of data; determine the available bandwidth of the communication channel; compare available bandwidth of the communication channel to a threshold bandwidth, wherein if the available bandwidth exceeds the threshold bandwidth, cause transmission of both the video of the subject and the selected types of data associated with the subject; and if the available bandwidth is less than the threshold bandwidth, cause transmission of only the selected types of data associated with the subject. if the available bandwidth exceeds the threshold bandwidth, cause transmission of both the video of the subject and the selected types of data associated with the subject; and if the available bandwidth is less than the threshold bandwidth, cause transmission of only the selected types of data associated with the subject.
An airless tire including a cylindrical tread in contact with a ground, an axle fixing section having a smaller circumference than the tread and disposed as an inside concentric circle of the tread, and a spoke buffer connecting the tread and the axle fixing section and providing a buffering function, characterized in that the spoke buffer comprises a plurality of radial walls (31, 32) extending from the cylindrical tread to the axle fixing section, including a plurality of protrusions (31a, 31b, 32a, 32b) and radially arranged; and a plurality of connecting walls (33, 34) disposed between the radial walls (31, 32) to connect the radial walls (31, 32), the radial walls (31, 32) being divided into first radial walls and second radial walls, each first radial wall comprising a plurality of right protrusions projecting to the right side of the first radial wall and a left protrusion projecting to the left side of the first radial wall between the right protrusions, each second radial wall comprising a plurality of left protrusions projecting to the left side of the second wall and a right protrusion projecting to the right side of the second wall between the left protrusions, the first radial walls and the second radial walls being alternately arranged and radially arranged, and the connecting walls (33, 34) being divided into first connecting walls and second connecting walls, each first connecting wall connecting a right protrusion of a first radial wall and a left protrusion of a second radial wall on the left side of the first radial wall, each second connecting wall connecting a left protrusion of the first radial wall and a right protrusion of a second radial wall on the right side of the first radial wall, so that when load is applied to the tire, the connecting walls (33, 34) are compressed together to pull protrusions of other radial walls connected to the connecting walls (33, 34).
A method of protecting a direct injection fuel injector in a multi-fuel engine, said method comprising: selectively operating said multi-fuel engine with at least one of a directly injected fuel introduced through said direct injection fuel injector and a second fuel; when fuelling said multi-fuel engine with said second fuel, selectively commanding a fuel system protection technique when determining that at least one of said direct injection fuel injector requires cooling, an age of directly injected fuel is above a predetermined value, transmission status has changed, an engine shutdown event has occurred and driving pattern recognition predicts an engine shutdown event will occur, wherein said fuel system protection technique comprises: (a) suspending fuelling with said second fuel and injecting said directly injected fuel for a first predetermined number of engine cycles; (b) switching back to fuelling said multi-fuel engine with said second fuel for a second predetermined number of engine cycles before a vehicle operator has perceived a torque disturbance; wherein said first and second predetermined number of engine cycles are selected to keep torque disturbances below a predetermined threshold value; and repeating steps (a) and (b) such that dormant and old fuel is purged and combusted in said multi-fuel engine and a temperature of said direct injection fuel injector decreases. selectively operating said multi-fuel engine with at least one of a directly injected fuel introduced through said direct injection fuel injector and a second fuel; when fuelling said multi-fuel engine with said second fuel, selectively commanding a fuel system protection technique when determining that at least one of said direct injection fuel injector requires cooling, an age of directly injected fuel is above a predetermined value, transmission status has changed, an engine shutdown event has occurred and driving pattern recognition predicts an engine shutdown event will occur, wherein said fuel system protection technique comprises: (a) suspending fuelling with said second fuel and injecting said directly injected fuel for a first predetermined number of engine cycles; (b) switching back to fuelling said multi-fuel engine with said second fuel for a second predetermined number of engine cycles before a vehicle operator has perceived a torque disturbance; (a) suspending fuelling with said second fuel and injecting said directly injected fuel for a first predetermined number of engine cycles; (b) switching back to fuelling said multi-fuel engine with said second fuel for a second predetermined number of engine cycles before a vehicle operator has perceived a torque disturbance; wherein said first and second predetermined number of engine cycles are selected to keep torque disturbances below a predetermined threshold value; and repeating steps (a) and (b) such that dormant and old fuel is purged and combusted in said multi-fuel engine and a temperature of said direct injection fuel injector decreases.