mhurhangee/patent-ind-claim-en huggingface dataset:
An aviation gasoline formulation comprising: at least 20 volume percent of aviation alkylate composition; a manganese-containing compound; and one to 50 volume percent of aromatic composition, wherein the aromatic composition includes a branched aromatic composition that is an aromatic functional group covalently bonded to a branched alkyl group, wherein the branched aromatic composition comprises 1 to 25 volume percent of the aviation gasoline formulation and the manganese-containing compound is an organomanganese and incorporated in the aviation gasoline in an amount from 1 mg Mn/L to 500 mg Mn/L. at least 20 volume percent of aviation alkylate composition; a manganese-containing compound; and one to 50 volume percent of aromatic composition, wherein the aromatic composition includes a branched aromatic composition that is an aromatic functional group covalently bonded to a branched alkyl group, wherein the branched aromatic composition comprises 1 to 25 volume percent of the aviation gasoline formulation and the manganese-containing compound is an organomanganese and incorporated in the aviation gasoline in an amount from 1 mg Mn/L to 500 mg Mn/L.
A device for use in cardiopulmonary bypass, the device comprising a cannula (1; 2) configured to be positioned in at least one of a right atrium , a superior vena cava , or an inferior vena cava of a patient, the cannula having a first end, a second end, and a longitudinal axis extending between the first end and the second end, the cannula comprising: a first section at the first end, the first section comprising an outer wall and having at least one opening therethrough; a second section connected to the first section along the longitudinal axis, the second section (30; 30') comprising an outer wall and having at least one opening therethrough; and a third section connected to the second section (30; 30') along the longitudinal axis on a side of the second section (30; 30') opposite the first section , the third section comprising an outer wall and having at least one opening therethrough; wherein in a first configuration, the openings in each of the first section , the second section (30; 30'), and the third section are respectively open to inner spaces defined by the first section , the second section (30; 30'), and the third section ; characterized in that , in a second configuration, the at least one opening in the second section (30; 30') is occluded by the device to restrict communication with the inner space defined by the second section (30; 30', while the openings in the first section and the third section remain open to the inner spaces defined by the first section and the third section , respectively. a first section at the first end, the first section comprising an outer wall and having at least one opening therethrough; a second section connected to the first section along the longitudinal axis, the second section (30; 30') comprising an outer wall and having at least one opening therethrough; and a third section connected to the second section (30; 30') along the longitudinal axis on a side of the second section (30; 30') opposite the first section , the third section comprising an outer wall and having at least one opening therethrough; wherein in a first configuration, the openings in each of the first section , the second section (30; 30'), and the third section are respectively open to inner spaces defined by the first section , the second section (30; 30'), and the third section ; characterized in that , in a second configuration, the at least one opening in the second section (30; 30') is occluded by the device to restrict communication with the inner space defined by the second section (30; 30', while the openings in the first section and the third section remain open to the inner spaces defined by the first section and the third section , respectively.
An infrared imaging system comprising: a focal plane array, FPA configured to capture radiation from a scene and generate infrared image data based on the radiation, wherein the FPA further captures radiation from an element associated with the infrared imaging system during capture of the radiation from the scene; a first temperature sensor configured to determine a temperature of the FPA; and a processing circuit configured to: determine a temperature associated with the element based at least in part on a multiplication of the temperature of the FPA with a first parameter and a multiplication of a rate of change of the temperature of the FPA with a second parameter; and determine a temperature associated with an object in the scene based on the infrared image data, the temperature associated with the element, and the temperature of the FPA. a focal plane array, FPA configured to capture radiation from a scene and generate infrared image data based on the radiation, wherein the FPA further captures radiation from an element associated with the infrared imaging system during capture of the radiation from the scene; a first temperature sensor configured to determine a temperature of the FPA; and a processing circuit configured to: determine a temperature associated with the element based at least in part on a multiplication of the temperature of the FPA with a first parameter and a multiplication of a rate of change of the temperature of the FPA with a second parameter; and determine a temperature associated with an object in the scene based on the infrared image data, the temperature associated with the element, and the temperature of the FPA. determine a temperature associated with the element based at least in part on a multiplication of the temperature of the FPA with a first parameter and a multiplication of a rate of change of the temperature of the FPA with a second parameter; and determine a temperature associated with an object in the scene based on the infrared image data, the temperature associated with the element, and the temperature of the FPA.
A multi-axis compliant end-effector for attachment to a robotic device , the end-effector comprising: a compliant contact probe configured to determine by contact an actual location of a workpiece feature ; at least one translational joint and at least one rotational joint associated with the compliant contact probe , and configured to passively align the compliant contact probe with the workpiece feature ; and a number of magnetic detents configured to retain the compliant contact probe in a substantially neutral orientation when the compliant contact probe is not passively aligned with the workpiece feature . a compliant contact probe configured to determine by contact an actual location of a workpiece feature ; at least one translational joint and at least one rotational joint associated with the compliant contact probe , and configured to passively align the compliant contact probe with the workpiece feature ; and a number of magnetic detents configured to retain the compliant contact probe in a substantially neutral orientation when the compliant contact probe is not passively aligned with the workpiece feature .
A method of preventing access to users of an access control system, said access control system comprising a plurality of card readers (210-i) associated with one or more doors (220-i), each of the card readers (210-i) being able to communicate with an access controller , said access controller including or being associated with a database device and being configured to, in response to an access card being read by any of the card readers (210-i), make a determination according to the access privileges of the access card stored in the database device , said method being characterized by : dividing a plurality of card readers into one or more groups of card readers; reading a first management card at a first card reader; identifying all card readers of a first group which the first card reader belongs to; updating the database device to indicate that access via each of the card readers of the first group of card readers is forbidden; after updating the database device to indicate that the access via any card reader in the first group of card readers is forbidden, reading an access card at any card reader in the first group; and responsive to reading the access card at any card reader in the first group of card readers, determining by the access controller that the access is forbidden regardless of access privileges associated with the access card in the database device . dividing a plurality of card readers into one or more groups of card readers; reading a first management card at a first card reader; identifying all card readers of a first group which the first card reader belongs to; updating the database device to indicate that access via each of the card readers of the first group of card readers is forbidden; after updating the database device to indicate that the access via any card reader in the first group of card readers is forbidden, reading an access card at any card reader in the first group; and responsive to reading the access card at any card reader in the first group of card readers, determining by the access controller that the access is forbidden regardless of access privileges associated with the access card in the database device .
A multiprocessor system, comprising: a plurality of processors , each comprising a plurality of processor ports; a plurality of data memory routers , each comprising a plurality of communication ports, a first memory, and a routing engine; wherein the plurality of processors and the plurality of data memory routers are coupled together in an interspersed fashion, wherein the plurality of data memory routers form a primary interconnection network; a plurality of interface units , wherein each interface unit is coupled to a respective processor and a respective data memory router ; wherein the plurality of interface units are coupled together to form a secondary interconnection network; a bus controller coupled to at least a first interface unit and a second interface unit, wherein the bus controller is configured to send data to the first bus interface unit, and receive data from the second bus interface unit; wherein the bus controller is configured to arbitrate requests for access to at least the first and second interface units; a processor interface block coupled to the bus controller and also coupled to a first data memory router associated with the first interface unit, wherein the processor interface block is configured to allow any of a plurality of processors in the multiprocessor system to use the primary interconnection network to access the secondary interconnection network through the first data memory router. a plurality of processors , each comprising a plurality of processor ports; a plurality of data memory routers , each comprising a plurality of communication ports, a first memory, and a routing engine; wherein the plurality of processors and the plurality of data memory routers are coupled together in an interspersed fashion, wherein the plurality of data memory routers form a primary interconnection network; a plurality of interface units , wherein each interface unit is coupled to a respective processor and a respective data memory router ; wherein the plurality of interface units are coupled together to form a secondary interconnection network; a bus controller coupled to at least a first interface unit and a second interface unit, wherein the bus controller is configured to send data to the first bus interface unit, and receive data from the second bus interface unit; wherein the bus controller is configured to arbitrate requests for access to at least the first and second interface units; a processor interface block coupled to the bus controller and also coupled to a first data memory router associated with the first interface unit, wherein the processor interface block is configured to allow any of a plurality of processors in the multiprocessor system to use the primary interconnection network to access the secondary interconnection network through the first data memory router.
A method for heat dissipation using a hygroscopic working fluid comprising: removing heat from a process heat exchanger to absorb thermal energy for dissipation using the hygroscopic working fluid ; flowing an ambient air stream from outside a compartment of a fluid-air contactor to inside the compartment of the fluid-air contactor, wherein the ambient air stream comprises the ambient atmosphere; flowing a gas stream from outside the compartment of the fluid-air contactor to the inside of the compartment, such that the inside of the compartment of the fluid-air contactor comprises a mixture comprising the ambient air stream and the gas stream ; flowing the hygroscopic working fluid into the compartment of the fluid-air contactor sufficiently to transfer moisture inside the compartment between the hygroscopic working fluid and the mixture comprising the ambient air stream and the gas stream and to transfer thermal energy from the hygroscopic working fluid to the mixture comprising the ambient air stream and the gas stream ; and Z characterized by Z maintaining the hygroscopic working fluid to prevent crystallization of the desiccant from the desiccant-based hygroscopic working fluid, the maintaining comprising storing excess moisture in the hygroscopic fluid gained from the mixture comprising the ambient air stream and the gas stream in the compartment of the fluid-air contactor during minimum daily ambient temperatures. Z removing heat from a process heat exchanger to absorb thermal energy for dissipation using the hygroscopic working fluid ; flowing an ambient air stream from outside a compartment of a fluid-air contactor to inside the compartment of the fluid-air contactor, wherein the ambient air stream comprises the ambient atmosphere; flowing a gas stream from outside the compartment of the fluid-air contactor to the inside of the compartment, such that the inside of the compartment of the fluid-air contactor comprises a mixture comprising the ambient air stream and the gas stream ; flowing the hygroscopic working fluid into the compartment of the fluid-air contactor sufficiently to transfer moisture inside the compartment between the hygroscopic working fluid and the mixture comprising the ambient air stream and the gas stream and to transfer thermal energy from the hygroscopic working fluid to the mixture comprising the ambient air stream and the gas stream ; and Z characterized by Z maintaining the hygroscopic working fluid to prevent crystallization of the desiccant from the desiccant-based hygroscopic working fluid, the maintaining comprising storing excess moisture in the hygroscopic fluid gained from the mixture comprising the ambient air stream and the gas stream in the compartment of the fluid-air contactor during minimum daily ambient temperatures. Z
A rotor blade for a turbomachine , comprising: an airfoil defining at least one cooling passage , the airfoil further defining a camber line extending from a leading edge to a trailing edge ; and a tip shroud coupled to the airfoil , the tip shroud and the airfoil defining a core fluidly coupled to the at least one cooling passage , the core comprising a plurality of outlet apertures , each of the plurality of outlet apertures comprising an opening defined in an exterior surface of the tip shroud , characterized in that a first outlet aperture of the plurality of outlet apertures is oriented to exhaust cooling fluid through the opening of the first outlet aperture in a direction that is within 15 degrees of parallel to the camber line at the trailing edge and in that a second outlet aperture (160") of the plurality of outlet apertures is oriented to exhaust cooling fluid through the opening (161") of the second outlet aperture (160") in a direction that is greater than 15 degrees from parallel to the camber line at the trailing edge . an airfoil defining at least one cooling passage , the airfoil further defining a camber line extending from a leading edge to a trailing edge ; and a tip shroud coupled to the airfoil , the tip shroud and the airfoil defining a core fluidly coupled to the at least one cooling passage , the core comprising a plurality of outlet apertures , each of the plurality of outlet apertures comprising an opening defined in an exterior surface of the tip shroud , characterized in that a first outlet aperture of the plurality of outlet apertures is oriented to exhaust cooling fluid through the opening of the first outlet aperture in a direction that is within 15 degrees of parallel to the camber line at the trailing edge and in that a second outlet aperture (160") of the plurality of outlet apertures is oriented to exhaust cooling fluid through the opening (161") of the second outlet aperture (160") in a direction that is greater than 15 degrees from parallel to the camber line at the trailing edge .
A method for controlling a machine with a dual path electronically controlled hydrostatic transmission, the machine comprising: an engine and a dual path electronically controlled hydrostatic transmission, the hydrostatic transmission including an input device and a drive system , the drive system having two pumps and two motors , wherein the two motors are configured for driving right and left wheels , the input device providing drive commands for the pumps and motors of the drive system ; the method comprising the following steps: providing a drive command from the input device to the pumps and motors ; determining an error signal from one or more of the system operating parameters: reference engine speed, actual engine speed, hydraulic oil temperature, engine governor droop signal; determining a control value based on the error signal, using the control value for determining load control pump and load control motor factor values, wherein the load control pump and load control motor factor values provide precise control of pump and motor displacements modifying the drive commands for the pumps and the motors of the drive system with said load control pump and load control motor factor values; and applying the modified drive commands to the pumps and the motors of the drive system to prevent the engine from stalling.. providing a drive command from the input device to the pumps and motors ; determining an error signal from one or more of the system operating parameters: reference engine speed, actual engine speed, hydraulic oil temperature, engine governor droop signal; determining a control value based on the error signal, using the control value for determining load control pump and load control motor factor values, wherein the load control pump and load control motor factor values provide precise control of pump and motor displacements modifying the drive commands for the pumps and the motors of the drive system with said load control pump and load control motor factor values; and applying the modified drive commands to the pumps and the motors of the drive system to prevent the engine from stalling..
A device for unloading particulate material from a reactor tube of a catalytic reactor comprising an array of substantially vertically aligned reactor tubes, the device comprising: an air lance (11, 111-113) for loosening the particulate material inside the reactor tube using pressurized air; an air lance unit for feeding the air lance (11, 111-113) in and out of the reactor tube ; and a flexible guide tube (12, 121-123) on one end releasably connected to the air lance unit and on the other end connectable to a first cleaned reactor tube (7, 71-73) for guiding the air lance (11, 111-113) from the reactor tube via the air lance unit to the first cleaned reactor tube (7, 71-73) for storing a part of the air lance that has not been fed into the reactor tube within the first cleaned reactor tube (7, 71-73), wherein the first cleaned reactor tube (7, 71-73) is a reactor tube that has been unloaded and/or cleaned prior to unloading the particulate material from the reactor tube , and wherein flexibility of the flexible guide tube (12, 121-123) and flexibility of the air lance (11, 111-113) allow the guide tube (12, 121-123) to bend when the air lance unit is moved to another reactor tube. an air lance (11, 111-113) for loosening the particulate material inside the reactor tube using pressurized air; an air lance unit for feeding the air lance (11, 111-113) in and out of the reactor tube ; and a flexible guide tube (12, 121-123) on one end releasably connected to the air lance unit and on the other end connectable to a first cleaned reactor tube (7, 71-73) for guiding the air lance (11, 111-113) from the reactor tube via the air lance unit to the first cleaned reactor tube (7, 71-73) for storing a part of the air lance that has not been fed into the reactor tube within the first cleaned reactor tube (7, 71-73),
Support system for raised floors comprising. - a base intended to be placed on a surface, - a lower element coupled with the base , and - an upper element coupled with the lower element and intended to support floor elements, wherein said base has a concave housing shaped as a portion of a segment of a sphere; and said lower element has a bottom wall shaped as a portion of a segment of a sphere, in such manner that the lower element is coupled with the base in spherical coupling mode characterized in that said base comprises locking teeth upwardly protruding from said concave housing of the base for engaging into seats situated in said bottom wall of said lower element, so that a motion of the lower element is blocked with respect to the base . - a base intended to be placed on a surface, - a lower element coupled with the base , and - an upper element coupled with the lower element and intended to support floor elements,
A device for producing a stator for an electrical machine, wherein the device has a segment feed (A) for feeding stator segments , a substantially hollow-cylindrical press (B) for pressing the stator segments and a housing feed (C) for feeding stator housings, wherein the device has a mandrel for collecting the stator segments , wherein the mandrel has a first region (3.1), a second region (3.2) and a third region (3.3), in the axial direction (R), wherein the first region (3.1) has a first radius that is substantially constant in the axial direction (R), the second region (3.2) has a second radius that is substantially constant in the axial direction (R), and the third region (3.3) has a third radius that is substantially constant in the axial direction (R), wherein the first radius is greater than the second radius and the second radius is greater than the third radius. wherein the mandrel has a first region (3.1), a second region (3.2) and a third region (3.3), in the axial direction (R), wherein the first region (3.1) has a first radius that is substantially constant in the axial direction (R), the second region (3.2) has a second radius that is substantially constant in the axial direction (R), and the third region (3.3) has a third radius that is substantially constant in the axial direction (R), wherein the first radius is greater than the second radius and the second radius is greater than the third radius.
An autonomous household appliance configured for performing at least one household task, wherein the autonomous household appliance comprises at least one task unit arranged for performing the household task, wherein the autonomous household appliance further comprises an interface element having at least one wire-bound coupling means , wherein the interface element is configured for releasably and temporarily coupling the autonomous household appliance to at least one smart device , wherein the autonomous household appliance is configured for accessing at least one sensor device of the at least one smart device via the interface element and characterized in that the autonomous household appliance is configured for making use of at least one item of sensor information retrieved by the sensor device when performing the household task.