mhurhangee/ep-ind-claims huggingface dataset:
Device for measuring system states, wherein the device is configured to map sections of an executable file being executed as a process into separate segments in a system memory; segment every library used by the process and load the segmented libraries and corresponding permissions into the system memory; obtain a plurality of measurements for the process of all areas of the system memory during runtime of the system and of the mapped segments; maintain each measurement individually in a measurement log; generate and anchor a fingerprint of the measurement log in a security module, and generate and send a system state report including the anchored fingerprint and the measurement log.
Combination of a scale (32, 34) with a cash register with a common customer display device, wherein the scale includes a load cell and an evaluation unit (32, 32a) and the cash register includes a data processing unit built into an electronic box (10, 10a, 10b) wherein the data processing unit is at least connected with a visual device control unit (22, 22a), characterized by a multiplexer (28; 58), wherein one data input (30; 66) thereof can be supplied with load data of the scale (32; 34) and the other input (26; 56) thereof can be supplied with price and/or product data output by the data processing unit, wherein the one data input (30, 66) is configured such that it is switched active by a multiplex switching signal, when the load data have a value different from zero.
A multistage hammer mill comprising: a plurality of milling stages arranged concentrically about each other; the plurality of milling stages arranged so that substantially all material in a first inner most of the milling stages passes through at least one subsequent adjacent milling stage, the plurality of milling stages including a first milling stage and a second milling stage, a central feed opening enabling material flow into a primary impact zone of the first milling stage; the first milling stage comprising an impact mechanism and a first screen arrangement, the impact mechanism located in the primary impact zone and arranged to impact material entering the primary impact zone and accelerate the impacted material in a radial outward direction, the impact mechanism being capable of rotating about a rotation axis, the first screen arrangement disposed circumferentially about and radially spaced from the impact mechanism the first screen arrangement being provided with a plurality of apertures through which impacted material of a first size range can pass; the second milling stage comprising a second screen arrangement disposed circumferentially about and radially spaced from the first screen arrangement, the second screen arrangement being provided with a plurality of apertures through impacted material of a second size range can pass, the second size range being the same as or different to the first size range, and one or more impact elements disposed between the first screen arrangement and the second screen arrangement. a plurality of milling stages arranged concentrically about each other; the plurality of milling stages arranged so that substantially all material in a first inner most of the milling stages passes through at least one subsequent adjacent milling stage, the plurality of milling stages including a first milling stage and a second milling stage, a central feed opening enabling material flow into a primary impact zone of the first milling stage; the first milling stage comprising an impact mechanism and a first screen arrangement, the impact mechanism located in the primary impact zone and arranged to impact material entering the primary impact zone and accelerate the impacted material in a radial outward direction, the impact mechanism being capable of rotating about a rotation axis, the first screen arrangement disposed circumferentially about and radially spaced from the impact mechanism the first screen arrangement being provided with a plurality of apertures through which impacted material of a first size range can pass; the second milling stage comprising a second screen arrangement disposed circumferentially about and radially spaced from the first screen arrangement, the second screen arrangement being provided with a plurality of apertures through impacted material of a second size range can pass, the second size range being the same as or different to the first size range, and one or more impact elements disposed between the first screen arrangement and the second screen arrangement.
A packaging unit for a substrate, comprising: - a tray, - a substrate, and - a lid, wherein the substrate is placed in the tray, wherein a metal deposit is applied to a surface of the substrate, and an adhesive point is arranged on the metal deposit, and wherein the lid is placed on the tray and has at least one projection which contacts the substrate outside the adhesive point and fixes the substrate in a direction perpendicular to the surface of the substrate, wherein at least two substrates are placed as a stack in the tray, and wherein a spacer is inserted between the substrates in such a way that the spacer contacts the substrate only outside the adhesive point, wherein the tray and the spacer are configured so that the adhesive point that is directed upwards in the vertical direction does not come into contact with an inner side of the lid or a substrate placed thereupon. - a tray, - a substrate, and - a lid,
A hybrid chain belt (10, 60) for engagement with teeth of a sprocket comprising a toothed belt (56, 156) having a top surface, a first side surface, a second side surface, a bottom surface, and a plurality of teeth (57, 157) which extend from at least one of the top surface or the bottom surface, the hybrid chain belt characterized in that: a plurality of pairs of plates (52, 82, 182), each pair of plates comprising a plate (52, 82, 182) on the first side surface and a plate (52, 82, 182) on the second side surface of the toothed belt (56, 156), each plate (52, 82, 182) having at least one aperture; and a plurality of pins, each pin extending through the aperture of a plate (52, 82, 182) on the first side surface of the toothed belt (56, 156), through the toothed belt (56, 156), through the second side surface of the toothed belt (56, 156), and through the aperture of a plate (52, 82, 182) on the second side surface of the toothed belt (56, 156); wherein the plurality of plates (52, 82, 182) have a height which is greater than the height of the teeth (57, 157) of the toothed belt (56, 156) such that the plurality of plates (52, 82, 182) engage, in use, a sliding surface of a guide or tensioner arm. a plurality of pairs of plates (52, 82, 182), each pair of plates comprising a plate (52, 82, 182) on the first side surface and a plate (52, 82, 182) on the second side surface of the toothed belt (56, 156), each plate (52, 82, 182) having at least one aperture; and a plurality of pins, each pin extending through the aperture of a plate (52, 82, 182) on the first side surface of the toothed belt (56, 156), through the toothed belt (56, 156), through the second side surface of the toothed belt (56, 156), and through the aperture of a plate (52, 82, 182) on the second side surface of the toothed belt (56, 156); wherein the plurality of plates (52, 82, 182) have a height which is greater than the height of the teeth (57, 157) of the toothed belt (56, 156) such that the plurality of plates (52, 82, 182) engage, in use, a sliding surface of a guide or tensioner arm.
A personal ventilation device comprising: a first duct segment and a second duct segment both held by a support structure that is configured to be mounted on a wearer of the personal ventilation device; and a first nozzle mounted to the first duct segment and a second nozzle mounted to the second duct segment, wherein the first and second nozzles are configured to be disposed proximate to opposite sides of the midsagittal plane of the face of the wearer from one another, and wherein the device is configured so that the first nozzle directs airflow from the first duct segment across the face of the wearer to form a control volume for a breathing space of the wearer, and the second nozzle draws the airflow that is emitted from the first nozzle into the second duct to collect used air and enable a unidirectional flow direction across the midsagittal plane of the face of the wearer. a first duct segment and a second duct segment both held by a support structure that is configured to be mounted on a wearer of the personal ventilation device; and a first nozzle mounted to the first duct segment and a second nozzle mounted to the second duct segment, wherein the first and second nozzles are configured to be disposed proximate to opposite sides of the midsagittal plane of the face of the wearer from one another, and wherein the device is configured so that the first nozzle directs airflow from the first duct segment across the face of the wearer to form a control volume for a breathing space of the wearer, and the second nozzle draws the airflow that is emitted from the first nozzle into the second duct to collect used air and enable a unidirectional flow direction across the midsagittal plane of the face of the wearer.
A computational storage device for receiving an external execution command from a host, the computational storage device comprising: a nonvolatile memory configured to store data; and a storage controller (CTRL) configured to perform a storage function and to control a plurality of applications to be executed based on the data, wherein the storage function comprises writing data, reading data, and managing storage space of the nonvolatile memory, wherein the storage controller (CTRL) comprises: a processor; and a memory comprising a program slot configured to store a user program (Pgm), wherein the computational storage device is configured to store a said user program (Pgm) in a said program slot based on a said external execution command that identifies a said program slot and includes an operation time and parameter data (para_D), wherein the computational storage device is configured to generate an event signal (event_s) at the operation time, the event signal (event_s) based on the identified program slot and the parameter data (para_D), wherein the processor is configured to drive an internal operating system to execute the user program (Pgm) stored in the identified program slot based on the event signal (event_s), the user program (Pgm) to control an application (APP_i) among the plurality of applications in response to the nonvoltatile memory performing a first operation on the stored data, wherein each said application (APP_i) is different from programs that perform the storage function of the storage controller (CTRL). a nonvolatile memory configured to store data; and a storage controller (CTRL) configured to perform a storage function and to control a plurality of applications to be executed based on the data, wherein the storage function comprises writing data, reading data, and managing storage space of the nonvolatile memory, wherein the storage controller (CTRL) comprises: a processor; and a memory comprising a program slot configured to store a user program (Pgm), a processor; and a memory comprising a program slot configured to store a user program (Pgm), wherein the computational storage device is configured to store a said user program (Pgm) in a said program slot based on a said external execution command that identifies a said program slot and includes an operation time and parameter data (para_D), wherein the computational storage device is configured to generate an event signal (event_s) at the operation time, the event signal (event_s) based on the identified program slot and the parameter data (para_D), wherein the processor is configured to drive an internal operating system to execute the user program (Pgm) stored in the identified program slot based on the event signal (event_s), the user program (Pgm) to control an application (APP_i) among the plurality of applications in response to the nonvoltatile memory performing a first operation on the stored data, wherein each said application (APP_i) is different from programs that perform the storage function of the storage controller (CTRL).
A device for storing rotational energy comprising - a mass body rotatably supported about an axis of rotation for storing rotational energy, wherein the mass body has a first support section and a second support section; - a rotational energy source cooperating with the mass body or the first support section for providing rotational energy to be stored; - a rotational energy consumer cooperating with the mass body or the second support section for removing the stored rotational energy; - a first variator arranged between the rotational energy source and the first support section for variably setting the translation ratio between the rotational energy source and the mass body and in particular the first support section; and - a second variator arranged between the mass body or the second support section and the rotational energy consumer for variably setting the translation ratio between the mass body and in particular the second support section and the rotational energy consumer, characterized in that the first variator and/or the second variator is/are configured as a hydraulic machine. - a mass body rotatably supported about an axis of rotation for storing rotational energy, wherein the mass body has a first support section and a second support section; - a rotational energy source cooperating with the mass body or the first support section for providing rotational energy to be stored; - a rotational energy consumer cooperating with the mass body or the second support section for removing the stored rotational energy; - a first variator arranged between the rotational energy source and the first support section for variably setting the translation ratio between the rotational energy source and the mass body and in particular the first support section; and - a second variator arranged between the mass body or the second support section and the rotational energy consumer for variably setting the translation ratio between the mass body and in particular the second support section and the rotational energy consumer,
A process for obtaining an optically active vicinal diol, which process includes the steps of: providing a meso -epoxide; creating a reaction mixture by mixing with the meso-epoxide a Yarrowia lipolytica cell comprising an exogenous nucleic acid encoding, and capable of expressing, a heterologous polypeptide or a functional fragment thereof, having enantioselective epoxide hydrolase activity; incubating the reaction mixture; and recovering from the reaction mixture an enantiopure, or a substantially enantiopure, vicinal diol. providing a meso -epoxide; creating a reaction mixture by mixing with the meso-epoxide a Yarrowia lipolytica cell comprising an exogenous nucleic acid encoding, and capable of expressing, a heterologous polypeptide or a functional fragment thereof, having enantioselective epoxide hydrolase activity; incubating the reaction mixture; and recovering from the reaction mixture an enantiopure, or a substantially enantiopure, vicinal diol.
A control system which controls at least one unmanned craft arranged in a specific area, characterized by comprising: area-priority integration means (22; 15) configured to calculate an integrated area-priority by integrating a designated-area priority calculated based on a priority of an externally-designated area that is an operator's input, and a detected area-priority calculated based on sensing information, including a position of the unmanned craft and a sensing range of the unmanned craft, detected by a sensor mounted on the unmanned craft; and control means (23; 16) configured to determine where the unmanned craft is to be positioned in the specific area based on the integrated area-priority calculated by the area-priority integration means (22; 15), and deliver, to the unmanned craft, a control signal for controlling the unmanned craft to move to a corresponding position. area-priority integration means (22; 15) configured to calculate an integrated area-priority by integrating a designated-area priority calculated based on a priority of an externally-designated area that is an operator's input, and a detected area-priority calculated based on sensing information, including a position of the unmanned craft and a sensing range of the unmanned craft, detected by a sensor mounted on the unmanned craft; and control means (23; 16) configured to determine where the unmanned craft is to be positioned in the specific area based on the integrated area-priority calculated by the area-priority integration means (22; 15), and deliver, to the unmanned craft, a control signal for controlling the unmanned craft to move to a corresponding position.
A pouring structure for a battery pack, characterized by comprising: an inlet port provided in a battery pack which supplies electric power to an electric motor for driving an electric vehicle, the inlet port allowing water or fire extinguishing agent to be poured into the battery pack; a closure member (30, 41) closing the inlet port; and a bracket configured to cover and fix the closure member and having a mounting portion formed so as to be partly open, wherein the closure member is securely connected to the inlet port with use of the bracket by inserting a fastening member into the mounting portion and fastening the bracket to either a vehicle body or the battery pack, the inlet port is an intake port through which air is introduced into the battery pack, the closure member is constituted by an intake duct connecting the intake port and an interior of a vehicle compartment with each other, and a duct fixing member securely connecting the intake duct to the intake port, and the bracket is configured such that a space is provided between the duct fixing member and each side wall of the bracket. an inlet port provided in a battery pack which supplies electric power to an electric motor for driving an electric vehicle, the inlet port allowing water or fire extinguishing agent to be poured into the battery pack; a closure member (30, 41) closing the inlet port; and a bracket configured to cover and fix the closure member and having a mounting portion formed so as to be partly open, wherein the closure member is securely connected to the inlet port with use of the bracket by inserting a fastening member into the mounting portion and fastening the bracket to either a vehicle body or the battery pack, the inlet port is an intake port through which air is introduced into the battery pack, the closure member is constituted by an intake duct connecting the intake port and an interior of a vehicle compartment with each other, and a duct fixing member securely connecting the intake duct to the intake port, and the bracket is configured such that a space is provided between the duct fixing member and each side wall of the bracket.
A can comprising an at least partially electrically conductive body, in particular made of aluminum, wherein on the end wall of the can a closure region is at least partially delimited by a predetermined breaking edge and wherein the can has an opening element, wherein the opening element in its starting position bears at least partially flatly against the end wall of the can and is connected with the end wall at at least one point, - wherein when the opening element is pivoted relative to the can from the starting position into an opening position, the closure region tears away from the predetermined breaking edge and forms an opening for emptying the contents of the can in the intermediate area delimited by the predetermined breaking edge, - wherein the opening element has a metallic basic body, which has a loop at one end region with an electrical interruption, - wherein the antenna and a transponder chip which is connected to said antenna are provided, - wherein the antenna bears at least partially, in particular, completely, against the basic body and is electrically insulated from the basic body, and - wherein the antenna is arranged such that it is free of interruptions, at least partially along the loop which is electrically interrupted by the interruption, characterized in that the antenna is arranged on the side of the opening element facing the end wall in the starting position. - wherein when the opening element is pivoted relative to the can from the starting position into an opening position, the closure region tears away from the predetermined breaking edge and forms an opening for emptying the contents of the can in the intermediate area delimited by the predetermined breaking edge, - wherein the opening element has a metallic basic body, which has a loop at one end region with an electrical interruption, - wherein the antenna and a transponder chip which is connected to said antenna are provided, - wherein the antenna bears at least partially, in particular, completely, against the basic body and is electrically insulated from the basic body, and - wherein the antenna is arranged such that it is free of interruptions, at least partially along the loop which is electrically interrupted by the interruption,
Method for determining the torque setpoint (C sp) of a motor vehicle engine, comprising steps during which: - a value of the depression of an accelerator pedal of the vehicle by a driver of the vehicle is determined; - a value of the speed of the engine is determined; and - said torque setpoint (C sp) is determined from a set of parameters comprising at least said value of depression of the pedal and said value of speed, characterized in that said torque setpoint (C sp) is determined as being equal to the sum: - of a first value of engine torque (C mot), determined as a function of the value of the depression of the accelerator pedal by the driver and of the speed of the engine, said first value being able to accelerate the vehicle at a predetermined value of reference acceleration (a ref) when the mass of the vehicle is equal to a predetermined reference mass (m ref) and when the vehicle is travelling on a road having a zero slope (α); and - of all or some of a value of differential torque (TQ diff), determined as a function of the real current mass (m) of the vehicle and of the real current slope (α) of the road on which the vehicle is travelling, said differential torque (TQ diff) being determined such that, when the engine torque is equal to the sum of the first value of torque (C mot) and of all of the differential torque (TQ diff), the vehicle is accelerated at the value of reference acceleration (a ref), without said value of depression of the pedal being modified. - a value of the depression of an accelerator pedal of the vehicle by a driver of the vehicle is determined; - a value of the speed of the engine is determined; and - said torque setpoint (C sp) is determined from a set of parameters comprising at least said value of depression of the pedal and said value of speed, characterized in that - of a first value of engine torque (C mot), determined as a function of the value of the depression of the accelerator pedal by the driver and of the speed of the engine, said first value being able to accelerate the vehicle at a predetermined value of reference acceleration (a ref) when the mass of the vehicle is equal to a predetermined reference mass (m ref) and when the vehicle is travelling on a road having a zero slope (α); and - of all or some of a value of differential torque (TQ diff), determined as a function of the real current mass (m) of the vehicle and of the real current slope (α) of the road on which the vehicle is travelling, said differential torque (TQ diff) being determined such that, when the engine torque is equal to the sum of the first value of torque (C mot) and of all of the differential torque (TQ diff), the vehicle is accelerated at the value of reference acceleration (a ref), without said value of depression of the pedal being modified.