mhurhangee/ep-ind-claims huggingface dataset:
A hybrid system control method, the hybrid system comprising an internal combustion engine, variable speed means for varying and outputting a rotational velocity of the internal combustion engine, electric means for electrically driving drive wheels (22L, 22R), a battery for the electric means, control means that has a map for deciding target torques of the internal combustion engine and the electric means and is for command-controlling the internal combustion engine and the electric means on the basis of the map, and in the map, there are defined a maximum torque line that demarcates an upper limit torque that the electric means is capable of supplying and a margin torque line that is a predetermined margin lower than the maximum torque line, the maximum torque line and the margin torque line being defined as a function of at least a vehicle velocity and a battery state-of-charge, the control method comprising the steps of: detecting an accelerator stroke position, the vehicle velocity and the battery state-of-charge; performing electric travel by the electric means when the position on the map determined by the detected accelerator stroke position, vehicle velocity and battery state-of-charge is in a torque position below the margin torque line; initiating startup processing of the engine in order to transition to hybrid travel when the position on the map becomes a torque position on or above the margin torque line; and setting the target torque of the engine and the target torque of the electric means and command-controlling the engine and the electric means in order to achieve a torque corresponding to the detected accelerator stroke position when the position on the map becomes a torque position exceeding the maximum torque line. detecting an accelerator stroke position, the vehicle velocity and the battery state-of-charge; performing electric travel by the electric means when the position on the map determined by the detected accelerator stroke position, vehicle velocity and battery state-of-charge is in a torque position below the margin torque line; initiating startup processing of the engine in order to transition to hybrid travel when the position on the map becomes a torque position on or above the margin torque line; and setting the target torque of the engine and the target torque of the electric means and command-controlling the engine and the electric means in order to achieve a torque corresponding to the detected accelerator stroke position when the position on the map becomes a torque position exceeding the maximum torque line.
An image forming apparatus (100, 100') having a plurality of operation modes, comprising: a communication interface unit arranged to communicate with an external apparatus (10-1, 10-2, 10-3, 10-4); a controller arranged to perform authentication of the external apparatus while maintaining a power saving mode when a job performance command is received from the external apparatus when an operation mode of the image forming apparatus is the power saving mode; and a function unit arranged to convert an operation mode of the image forming apparatus according to the authentication result and to perform a function corresponding to the job performance command wherein the controller comprises: a main CPU arranged to control the function unit in a normal mode; and an auxiliary CPU arranged to perform the authentication of the external apparatus, and wherein the auxiliary CPU is arranged to perform the authentication by comparing address information of the external apparatus with pre-stored address information of the external apparatus, wherein the address information is at least one of an IP address and a MAC address of the external apparatus. a communication interface unit arranged to communicate with an external apparatus (10-1, 10-2, 10-3, 10-4); a controller arranged to perform authentication of the external apparatus while maintaining a power saving mode when a job performance command is received from the external apparatus when an operation mode of the image forming apparatus is the power saving mode; and a function unit arranged to convert an operation mode of the image forming apparatus according to the authentication result and to perform a function corresponding to the job performance command wherein the controller comprises: a main CPU arranged to control the function unit in a normal mode; and an auxiliary CPU arranged to perform the authentication of the external apparatus, and wherein the auxiliary CPU is arranged to perform the authentication by comparing address information of the external apparatus with pre-stored address information of the external apparatus, wherein the address information is at least one of an IP address and a MAC address of the external apparatus. a main CPU arranged to control the function unit in a normal mode; and an auxiliary CPU arranged to perform the authentication of the external apparatus, and wherein the auxiliary CPU is arranged to perform the authentication by comparing address information of the external apparatus with pre-stored address information of the external apparatus, wherein the address information is at least one of an IP address and a MAC address of the external apparatus.
A device for tempering objects, in particular for drying coated vehicle bodies or body parts, having a) a housing; b) a tempering tunnel accommodated in the housing, wherein the objects can be conveyed through the tempering tunnel by means of a transport system; c) a tempering device for tempering the objects using a tempered gaseous fluid, the tempering device comprising fluid nozzles (46; 66) by means of which a jet of fluid can be discharged onto the objects in each case; d) a suction system by means of which tunnel atmosphere can be suctioned through at least one suction opening, whereby a base current is generated in the tempering tunnel in the direction towards the at least one suction opening; e) a convection device by means of which a convection current, which supports the base current, can be generated in addition to the base current; wherein f) the convection device comprises one or more injector nozzles by means of which gaseous fluid can be blown into the tempering tunnel; g) the at least one injector nozzle is arranged on a side of the tempering tunnel which is opposite the at least one suction opening; and h) the at least one suction opening is arranged on the floor and the at least one injector nozzle is arranged in an upper region near to or on the ceiling of the tempering tunnel, such that the convection current can act over a large area of the tunnel cross-section. a) a housing; b) a tempering tunnel accommodated in the housing, wherein the objects can be conveyed through the tempering tunnel by means of a transport system; c) a tempering device for tempering the objects using a tempered gaseous fluid, the tempering device comprising fluid nozzles (46; 66) by means of which a jet of fluid can be discharged onto the objects in each case; d) a suction system by means of which tunnel atmosphere can be suctioned through at least one suction opening, whereby a base current is generated in the tempering tunnel in the direction towards the at least one suction opening; e) a convection device by means of which a convection current, which supports the base current, can be generated in addition to the base current; wherein f) the convection device comprises one or more injector nozzles by means of which gaseous fluid can be blown into the tempering tunnel; g) the at least one injector nozzle is arranged on a side of the tempering tunnel which is opposite the at least one suction opening; and h) the at least one suction opening is arranged on the floor and the at least one injector nozzle is arranged in an upper region near to or on the ceiling of the tempering tunnel, such that the convection current can act over a large area of the tunnel cross-section.
A system for loading pharmaceutical into a pharmaceutical delivery device (201, 650) comprising: a cartridge including a cylindrical reservoir (202, 302, 402, 602, 1002, 1102) having a longitudinal axis and containing the pharmaceutical; a cartridge bay (204, 604) in the pharmaceutical delivery device, said bay sized and shaped to receive said cartridge with said cylindrical reservoir rotated in any of a first orientation and a second orientation rotated around said longitudinal axis; a first interference element (218, 618, 917) comprising a slot on said cartridge and a second complementary interference element (208, 308, 408, 608, 908) comprising a protrusion on said delivery device, characterized in that the second complementary interference element (208, 308, 408, 608, 908) is longitudinally displaced by said cartridge after the cartridge is fully received within the bay, there is an unlocked orientation in which the first interference element (218, 618, 917) does not interlock with the second complementary interface element (208, 308, 408, 608, 908) when said cartridge is fully received within said bay, and a locked orientation in which the first interference element interlocks with the second complementary interface element when said cartridge is fully received within said bay, and a driver imparts a torque to a threaded element that is connected to a plunger (286, 1086, 1186) within the cartridge, wherein rotation of the driver rotates the cartridge from the unlocked-orientation to the locked-orientation. a cartridge including a cylindrical reservoir (202, 302, 402, 602, 1002, 1102) having a longitudinal axis and containing the pharmaceutical; a cartridge bay (204, 604) in the pharmaceutical delivery device, said bay sized and shaped to receive said cartridge with said cylindrical reservoir rotated in any of a first orientation and a second orientation rotated around said longitudinal axis; a first interference element (218, 618, 917) comprising a slot on said cartridge and a second complementary interference element (208, 308, 408, 608, 908) comprising a protrusion on said delivery device, characterized in that the second complementary interference element (208, 308, 408, 608, 908) is longitudinally displaced by said cartridge after the cartridge is fully received within the bay, there is an unlocked orientation in which the first interference element (218, 618, 917) does not interlock with the second complementary interface element (208, 308, 408, 608, 908) when said cartridge is fully received within said bay, and a locked orientation in which the first interference element interlocks with the second complementary interface element when said cartridge is fully received within said bay, and a driver imparts a torque to a threaded element that is connected to a plunger (286, 1086, 1186) within the cartridge, wherein rotation of the driver rotates the cartridge from the unlocked-orientation to the locked-orientation.
A therapeutic anoscope for treating a hemorrhoid in a subject while avoiding trauma associated with removing a rectal tissue, the anoscope comprising: a cylindrical, or substantially cylindrical, anoscope body having a lumen, a proximal opening (616, 812a), a distal end (618, 812b) configured for a first point of entry into an anus of a subject, and a side window having a shutter and pinching surfaces (856, 861) to form a fold in a rectal tissue orally to a hemorrhoid and gently secure the fold with a limited pressure above a dentate line in a subject; wherein, - the anoscope body is configured for: providing a length sufficient to position the pinching surfaces (856, 861) above the dentate line in the subject; and, providing a volume in the lumen sufficient for receiving the fold of the rectal tissue for an occluding of a vascular supply to the hemorrhoid; - the shutter is configured for: opening the window to allow the rectal tissue to enter the window during a treatment of a hemorrhoid in the subject; creating the fold in the rectal tissue orally to the hemorrhoid; and, gently securing the fold with the limited pressure above the dentate line to avoid a removal or a necrosis of the rectal tissue that creates a trauma to the subject; and, the anoscope functions to (i) provide a visualization of the rectal tissue without an image transmission through optic fibers and (ii) facilitate an ischemic regression of the hemorrhoid through the occluding to treat the hemorrhoid in a manner that provides substantially less post procedural pain to the subject than a hemorrhoid treatment procedure that does not avoid the removal or the necrosis of the rectal tissue fold. a cylindrical, or substantially cylindrical, anoscope body having a lumen, a proximal opening (616, 812a), a distal end (618, 812b) configured for a first point of entry into an anus of a subject, and a side window having a shutter and pinching surfaces (856, 861) to form a fold in a rectal tissue orally to a hemorrhoid and gently secure the fold with a limited pressure above a dentate line in a subject; wherein, providing a length sufficient to position the pinching surfaces (856, 861) above the dentate line in the subject; and, providing a volume in the lumen sufficient for receiving the fold of the rectal tissue for an occluding of a vascular supply to the hemorrhoid; opening the window to allow the rectal tissue to enter the window during a treatment of a hemorrhoid in the subject; creating the fold in the rectal tissue orally to the hemorrhoid; and, gently securing the fold with the limited pressure above the dentate line to avoid a removal or a necrosis of the rectal tissue that creates a trauma to the subject; and, the anoscope functions to (i) provide a visualization of the rectal tissue without an image transmission through optic fibers and (ii) facilitate an ischemic regression of the hemorrhoid through the occluding to treat the hemorrhoid in a manner that provides substantially less post procedural pain to the subject than a hemorrhoid treatment procedure that does not avoid the removal or the necrosis of the rectal tissue fold.
A stent delivery system, comprising: a core member within a catheter having a distal segment; first and second restraints coupled to the core member distal segment and axially spaced apart from each other to provide an axial gap, the first and second restraints each having an outer profile that tapers radially inwardly in directions away from the gap; and a stent engagement component at least partially disposed in the axial gap between the first and second restraints such that the component is slidably and rotatably coupled to the core member distal segment. a core member within a catheter having a distal segment; first and second restraints coupled to the core member distal segment and axially spaced apart from each other to provide an axial gap, the first and second restraints each having an outer profile that tapers radially inwardly in directions away from the gap; and a stent engagement component at least partially disposed in the axial gap between the first and second restraints such that the component is slidably and rotatably coupled to the core member distal segment.
A transportable access control unit for being positioned as part of a boundary between a first area and a second area so as to secure and control access from the first area to the second area, the transportable access control unit comprising: a rectangular-shape container, wherein the container is a portable standard international shipping container; at least one passing room disposed in the container allowing entry into a second, secured area from a first area, having at least a first passing room opening, and at least a second passing room opening, and a walkway in-between, wherein the first and second passing room openings are on the opposite longitudinal sides of the rectangular-shape container; the passing room having at least one barrier device located in the walkway but not connected to the first opening or the second opening, defining a first space between the first passing room opening and the barrier device, and a second space between the barrier device and the second passing room opening, characterised in that the barrier device is controllable to selectively remain locked or closed to prevent the person from entering the secured area if not authorised, and to allow the person to pass into the secured area if authorised. a rectangular-shape container, wherein the container is a portable standard international shipping container; at least one passing room disposed in the container allowing entry into a second, secured area from a first area, having at least a first passing room opening, and at least a second passing room opening, and a walkway in-between, wherein the first and second passing room openings are on the opposite longitudinal sides of the rectangular-shape container; the passing room having at least one barrier device located in the walkway but not connected to the first opening or the second opening, defining a first space between the first passing room opening and the barrier device, and a second space between the barrier device and the second passing room opening, characterised in that the barrier device is controllable to selectively remain locked or closed to prevent the person from entering the secured area if not authorised, and to allow the person to pass into the secured area if authorised.
A Ziegler-Natta catalyzed ethylene alpha-olefin copolymer, comprising: a density of 0.870g/cc to 0.958g/cc; a melt index ratio of from 10 to 40; and a polydispersity index (Mw/Mn) of between 2.5 and 8.0; wherein the copolymer displays a broader and more evenly-distributed Temperature Raising Elution Fractionation (TREF) fraction distribution than a copolymer of comparable density produced using a single-site catalyst. a density of 0.870g/cc to 0.958g/cc; a melt index ratio of from 10 to 40; and a polydispersity index (Mw/Mn) of between 2.5 and 8.0; wherein the copolymer displays a broader and more evenly-distributed Temperature Raising Elution Fractionation (TREF) fraction distribution than a copolymer of comparable density produced using a single-site catalyst.
A method for detecting suppressor failure of a suppressor fluidically coupled to a chromatography column, the method comprising: flowing an eluent from the chromatography column to a suppressor; applying electrical current to and from a negative and a positive electrode of the suppressor; measuring the voltage across the negative and positive electrodes of the suppressor; calculating a monitored value as one of: a) the time derivative of the voltage, b) the time derivative of the moving average voltage, wherein the moving average voltage is the average voltage of 2 to 20 measurements, c) the moving average of the time derivative of the voltage, wherein the moving average of the time derivative is the average time derivative of 2 to 20 time derivatives, d) the moving average of the time derivative of the moving average of the voltage, e) the higher time derivative of the voltage, preferably the second time derivative of the voltage, f) the higher time derivative of the moving average voltage, and g) the moving average of the higher time derivative of the voltage; and upon detecting the monitored value above a threshold value determining that there is a suppressor failure. flowing an eluent from the chromatography column to a suppressor; applying electrical current to and from a negative and a positive electrode of the suppressor; measuring the voltage across the negative and positive electrodes of the suppressor; calculating a monitored value as one of: a) the time derivative of the voltage, b) the time derivative of the moving average voltage, wherein the moving average voltage is the average voltage of 2 to 20 measurements, c) the moving average of the time derivative of the voltage, wherein the moving average of the time derivative is the average time derivative of 2 to 20 time derivatives, d) the moving average of the time derivative of the moving average of the voltage, e) the higher time derivative of the voltage, preferably the second time derivative of the voltage, f) the higher time derivative of the moving average voltage, and g) the moving average of the higher time derivative of the voltage; and a) the time derivative of the voltage, b) the time derivative of the moving average voltage, wherein the moving average voltage is the average voltage of 2 to 20 measurements, c) the moving average of the time derivative of the voltage, wherein the moving average of the time derivative is the average time derivative of 2 to 20 time derivatives, d) the moving average of the time derivative of the moving average of the voltage, e) the higher time derivative of the voltage, preferably the second time derivative of the voltage, f) the higher time derivative of the moving average voltage, and g) the moving average of the higher time derivative of the voltage; and upon detecting the monitored value above a threshold value determining that there is a suppressor failure.
A method for identifying transgenic maize plants, comprising: (a) obtaining maize plant embryogenic callus cells transformed with a DNA segment comprising a nucleic acid sequence of interest; (b) regenerating a plurality of germline-transformed maize plants or differentiated maize plant parts from the cells without first selecting or screening, or both, for the presence of said DNA segment prior to obtaining regenerated shoots or whole plantlets, wherein the regenerated plants or differentiated plant parts are non-chimeric with respect to the presence of the DNA segment; and (c) identifying at least a first transgenic maize plant or transgenic differentiated plant part from the plurality of maize plants or differentiated maize plant parts. (a) obtaining maize plant embryogenic callus cells transformed with a DNA segment comprising a nucleic acid sequence of interest; (b) regenerating a plurality of germline-transformed maize plants or differentiated maize plant parts from the cells without first selecting or screening, or both, for the presence of said DNA segment prior to obtaining regenerated shoots or whole plantlets, wherein the regenerated plants or differentiated plant parts are non-chimeric with respect to the presence of the DNA segment; and (c) identifying at least a first transgenic maize plant or transgenic differentiated plant part from the plurality of maize plants or differentiated maize plant parts.