mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a processor including a memory to store a secure key; logic to enable a zeroize state of the processor, the zeroize state being a security disabled fault state; logic to enable a clear state of the processor, the clear state to enable a non-secure processing function and to disable a security function; logic to enable a transition from the zeroize state to the clear state; logic to enable a full secure state of the processor, the full secure state to enable a secure processing function; logic to enable a transition from the full secure state to the zeroize state, wherein the transition from the full secure state to the zeroize state includes erasing the secure key in memory; logic to enable a transition from the clear state to the full secure state; logic to enable a temporary secure state of the processor, the temporary secure state to enable a testing function; logic to transition from the temporary secure state to the clear state, wherein transition to the clear state from the temporary secure state is enabled based on a reset pulse and includes erasing the secure key in memory; logic to enable a non-volatile secure state of the processor, the non-volatile secure state to enable the testing function; and logic to transition from the non-volatile secure state to the clear state, wherein transition to the clear state from the non-volatile secure state is enabled based on a power loss and includes erasing the secure key in memory. a processor including a memory to store a secure key; logic to enable a zeroize state of the processor, the zeroize state being a security disabled fault state; logic to enable a clear state of the processor, the clear state to enable a non-secure processing function and to disable a security function; logic to enable a transition from the zeroize state to the clear state; logic to enable a full secure state of the processor, the full secure state to enable a secure processing function; logic to enable a transition from the full secure state to the zeroize state, wherein the transition from the full secure state to the zeroize state includes erasing the secure key in memory; logic to enable a transition from the clear state to the full secure state; logic to enable a temporary secure state of the processor, the temporary secure state to enable a testing function; logic to transition from the temporary secure state to the clear state, wherein transition to the clear state from the temporary secure state is enabled based on a reset pulse and includes erasing the secure key in memory; logic to enable a non-volatile secure state of the processor, the non-volatile secure state to enable the testing function; and logic to transition from the non-volatile secure state to the clear state, wherein transition to the clear state from the non-volatile secure state is enabled based on a power loss and includes erasing the secure key in memory.
A method for control of vehicle body tilting of a railway vehicle to tilt a vehicle body by introducing compressed air from an air tank into a pair of left and right air springs supporting the vehicle body on a bogie when the railway vehicle travels along a curve, characterized in that the method comprises: detecting pressure of compressed air in the air tank; driving a compressor that supplies compressed air to the air tank when detecting a pressure drop in the air tank to or below a first threshold level in association with introduction of compressed air into the air springs; and limiting an amount of compressed air to be introduced from the air tank into the air springs to a level equal to or lower than an amount of compressed air to be supplied from the compressor to the air tank while continuing the introduction of compressed air from the air tank into the air springs so as to ensure that the air tank pressure is maintained at a level equal to or higher than a minimum level required for braking actuation of the railway vehicle. detecting pressure of compressed air in the air tank; driving a compressor that supplies compressed air to the air tank when detecting a pressure drop in the air tank to or below a first threshold level in association with introduction of compressed air into the air springs; and limiting an amount of compressed air to be introduced from the air tank into the air springs to a level equal to or lower than an amount of compressed air to be supplied from the compressor to the air tank while continuing the introduction of compressed air from the air tank into the air springs so as to ensure that the air tank pressure is maintained at a level equal to or higher than a minimum level required for braking actuation of the railway vehicle.
A power supply comprising: a power switching element; a control circuit to output a control signal for controlling opening or closing of the power switching element; and a gate drive circuit to open or close the power switching element in accordance with the control signal, wherein the gate drive circuit comprises: a first inductive circuit comprising a number of windings and connected to a supply voltage source (Vdd), a second inductive circuit comprising a number of windings and connected to an input stage of the power switching element, a first switching circuit to control current flowing through the first inductive circuit, and a second switching circuit to control current flowing through the second inductive circuit, wherein the gate drive circuit transfers electrical energy from the input stage of the power switching element to the supply voltage source (Vdd) and transfers energy from the supply voltage source (Vdd) to the input stage of the power switching element, using the first and second inductive circuits (L1 and L2), and wherein the gate drive circuit turns on and off the first switching circuit and the second switching circuit alternately during a charge time (Tcharge) and turns on the second switching circuit after turning on the first switching circuit, for increasing a voltage at the input stage of the power switching element. a power switching element; a control circuit to output a control signal for controlling opening or closing of the power switching element; and a gate drive circuit to open or close the power switching element in accordance with the control signal, wherein the gate drive circuit comprises: a first inductive circuit comprising a number of windings and connected to a supply voltage source (Vdd), a second inductive circuit comprising a number of windings and connected to an input stage of the power switching element, a first switching circuit to control current flowing through the first inductive circuit, and a second switching circuit to control current flowing through the second inductive circuit, a first inductive circuit comprising a number of windings and connected to a supply voltage source (Vdd), a second inductive circuit comprising a number of windings and connected to an input stage of the power switching element, a first switching circuit to control current flowing through the first inductive circuit, and a second switching circuit to control current flowing through the second inductive circuit, wherein the gate drive circuit transfers electrical energy from the input stage of the power switching element to the supply voltage source (Vdd) and transfers energy from the supply voltage source (Vdd) to the input stage of the power switching element, using the first and second inductive circuits (L1 and L2), and wherein the gate drive circuit turns on and off the first switching circuit and the second switching circuit alternately during a charge time (Tcharge) and turns on the second switching circuit after turning on the first switching circuit, for increasing a voltage at the input stage of the power switching element.
A processing device for a nonaqueous electrolyte secondary battery having electrodes accommodated together with a nonaqueous electrolyte in a battery case, the electrodes including a cathode plate and an anode plate arranged on opposite sides of a separator, for melting and diffusing metallic foreign bodies immixed in the electrodes, the processing device comprising: a space reducing unit for reducing a space in the uncharged electrodes which is configured to bring the cathode plate into contact with the metallic foreign bodies immixed in the electrodes; and a potential holding unit configured to hold a cathode potential at a melting potential of the metallic foreign bodies for a predetermined period of time in the state where the foreign bodies contact the cathode plate, the melting potential of the metallic foreign bodies being lower than a charge-discharge cathode potential for use in charging and discharging the nonaqueous electrolyte secondary battery. a space reducing unit for reducing a space in the uncharged electrodes which is configured to bring the cathode plate into contact with the metallic foreign bodies immixed in the electrodes; and a potential holding unit configured to hold a cathode potential at a melting potential of the metallic foreign bodies for a predetermined period of time in the state where the foreign bodies contact the cathode plate, the melting potential of the metallic foreign bodies being lower than a charge-discharge cathode potential for use in charging and discharging the nonaqueous electrolyte secondary battery.
An operating method of a femto base station, BS (121, 220, 320), in a mobile communication system where the femto BS (121, 220, 320) and a macro BS (111,210, 310) coexist, the method comprising: receiving, from the macro BS (111, 210, 310), a notification message including paging resource information of the macro BS (111, 210, 310), generating a paging message; and sending, to a user equipment, UE (100, 200, 300), based on the paging resource information, the generated paging message over a frequency assignment, FA, of the macro BS (111, 210, 310), wherein the notification message indicates that the UE (100, 200, 300) is a closed subscriber group, CSG, UE registered to the femto BS (121, 220, 320) and allowed to access the femto BS (121, 220, 320) and that the UE (100, 200, 300) is located in a service coverage area of the macro BS (111,210, 310), and the generated paging message is sent to the UE (100, 200, 300) upon determining based on the notification message that the UE (100, 200, 300) is allowed to access the femto BS (121, 220, 320) and is located in the service coverage area of the macro BS (111, 210, 310). receiving, from the macro BS (111, 210, 310), a notification message including paging resource information of the macro BS (111, 210, 310), generating a paging message; and sending, to a user equipment, UE (100, 200, 300), based on the paging resource information, the generated paging message over a frequency assignment, FA, of the macro BS (111, 210, 310), wherein the notification message indicates that the UE (100, 200, 300) is a closed subscriber group, CSG, UE registered to the femto BS (121, 220, 320) and allowed to access the femto BS (121, 220, 320) and that the UE (100, 200, 300) is located in a service coverage area of the macro BS (111,210, 310), and the generated paging message is sent to the UE (100, 200, 300) upon determining based on the notification message that the UE (100, 200, 300) is allowed to access the femto BS (121, 220, 320) and is located in the service coverage area of the macro BS (111, 210, 310).
An apparatus, being configured for obtaining a plurality of micrografts from a donor site for transfer to a recipient site, comprising: a plurality of hollow tubes configured to simultaneously obtain the plurality of micrografts, wherein the hollow tubes comprise at least two points provided at a distal end thereof to facilitate insertion of the hollow tubes into the donor site; wherein an inner diameter of the at least one tube is less than about 1 mm; the apparatus including a stop provided on an outer portion of and 2. at a distance from the distal end of at least one of the hollow tubes, said stop allowing insertion of the tube up to a depth proximal to a dermal/fatty layer junction of the skin; wherein at least one section of the at least one hollow tube is structured to be inserted into the donor site up to the dermal/fatty layer junction of the skin, and the plurality of hollow tubes are structured to be withdrawn without rotating from the donor site to remove a plurality of micrografts therefrom. a plurality of hollow tubes configured to simultaneously obtain the plurality of micrografts, wherein the hollow tubes comprise at least two points provided at a distal end thereof to facilitate insertion of the hollow tubes into the donor site; wherein an inner diameter of the at least one tube is less than about 1 mm; the apparatus including a stop provided on an outer portion of and 2. at a distance from the distal end of at least one of the hollow tubes, said stop allowing insertion of the tube up to a depth proximal to a dermal/fatty layer junction of the skin; wherein at least one section of the at least one hollow tube is structured to be inserted into the donor site up to the dermal/fatty layer junction of the skin, and the plurality of hollow tubes are structured to be withdrawn without rotating from the donor site to remove a plurality of micrografts therefrom.
A system for inspecting a subsea pipeline, the system is characterised by: a submersible magnetometric tomography method module mounted on a remotely operated vehicle movable adjacent the subsea pipeline for detecting a defect along the subsea pipeline; and means (110, 104, 114, 140) for determining a position of the submersible MTM module, thereby determining a position of the defect. a submersible magnetometric tomography method module mounted on a remotely operated vehicle movable adjacent the subsea pipeline for detecting a defect along the subsea pipeline; and means (110, 104, 114, 140) for determining a position of the submersible MTM module, thereby determining a position of the defect.
A motorized snow or ice vehicle comprising • a body, • a sliding surface at the bottom of said body, • a first wheel or endless track at one side of the vehicle and a second wheel or endless track at the opposite side of the vehicle, both attached to the outside of the body, and • a seat, wherein a first motor is attached to one side of the body and a second motor is attached to the opposite side of the body, wherein the first motor is in drive connection with the first wheel or endless track and the second motor is in drive connection with the second wheel or endless track, wherein the vehicle further comprises a first accelerator control for the first motor and a second accelerator control for the second motor, wherein first accelerator control and second accelerator control are working independently of each other, characterized in that the wheels (3, 3') or endless tracks (4, 4') are attached to the body at the rear of the vehicle and wherein the sliding surface at the bottom of the body is in the front of the vehicle, wherein the whole sliding surface of the vehicle is at the bottom of said body and formed by said body such that the sliding surface is always touching the ground. • a body, • a sliding surface at the bottom of said body, • a first wheel or endless track at one side of the vehicle and a second wheel or endless track at the opposite side of the vehicle, both attached to the outside of the body, and • a seat, a first motor is attached to one side of the body and a second motor is attached to the opposite side of the body, wherein the first motor is in drive connection with the first wheel or endless track and the second motor is in drive connection with the second wheel or endless track, wherein the vehicle further comprises a first accelerator control for the first motor and a second accelerator control for the second motor, wherein first accelerator control and second accelerator control are working independently of each other, characterized in that the wheels (3, 3') or endless tracks (4, 4') are attached to the body at the rear of the vehicle and wherein the sliding surface at the bottom of the body is in the front of the vehicle, wherein the whole sliding surface of the vehicle is at the bottom of said body and formed by said body such that the sliding surface is always touching the ground.
Computer-implemented method for detecting a corneal vertex, wherein a frontal image of a head and a lateral image of the head are provided, said images being calibrated to one another, wherein the position of the corneal vertex in space is determined from the frontal image and the lateral image by means of a geometric determination of position, characterized in that the position of the corneal vertex in space is determined to a first approximation as a point of intersection q between a first visual ray of a lateral camera recording the lateral image, which first visual ray is tangential to the cornea, and a second visual ray of a frontal camera recording the frontal image, which second visual ray is directed at the pupil.
A heat recuperator for a radiant tube burner having a burner pipe and an exhaust pipe, the burner being positioned at the inlet of the burner pipe, the recuperator being positioned at the outlet of the exhaust pipe, and comprising a heat exchanger positioned inside a connecting pipe designed to be connected to the exhaust pipe so as to perform counter-current preheating of the combustion air by part of the flue gases, the exchanger comprising: - an outbound section for directing the air that is to be preheated toward a ferrule (6, 6', 6";) positioned at the end of the recuperator at the flue gas inlet end, - and a return section (7, 7") opening toward a line supplying the burner with air, the ferrule (6, 6', 6") defining a path for reversing the direction of flow of the combustion air and directing it toward the return section, the assembly being designed so that part of the flue gases is entrained by and mixed with the combustion air, the heat exchanger occupying just part of the cross section of the connecting pipe, the other part remaining free for the passage of the flue gases toward a discharge, characterized in that: - the outbound section of the exchanger comprises a plurality of exchanger tubes which are parallel to the axis of the connecting pipe, for the passage of the combustion air, the flue gases exchanging heat with the air across the exchanger tubes, the two fluids having parallel flows in opposite directions, - the exchanger tubes open to the inside of the ferrule (6, 6', 6"), - the air circuit is configured in a "hairpin" shape, the exchanger tubes of the outbound section being situated radially on the outside of the the return section (7, 7",). - an outbound section for directing the air that is to be preheated toward a ferrule (6, 6', 6";) positioned at the end of the recuperator at the flue gas inlet end, - and a return section (7, 7") opening toward a line supplying the burner with air, the ferrule (6, 6', 6") defining a path for reversing the direction of flow of the combustion air and directing it toward the return section, - the outbound section of the exchanger comprises a plurality of exchanger tubes which are parallel to the axis of the connecting pipe, for the passage of the combustion air, the flue gases exchanging heat with the air across the exchanger tubes, the two fluids having parallel flows in opposite directions, - the exchanger tubes open to the inside of the ferrule (6, 6', 6"), - the air circuit is configured in a "hairpin" shape, the exchanger tubes of the outbound section being situated radially on the outside of the the return section (7, 7",).
A histone deacetylase inhibitor (HDACi) for use in the treatment of a subject with melanoma characterized in that the melanoma is a BRAF-mutation or a NRAS-mutation harboring melanoma that has acquired resistance to a BRAF inhibitor and/or a MEK inhibitor, wherein the treatment with the HDACi does not involve the simultaneous treatment with a BRAF inhibitor and/or a MEK inhibitor, and wherein the HDACi and the BRAF inhibitor and/or MEK inhibitor are not therapeutically effective at the same time in said subject.
A method for determining a cause of an error event of a medical diagnosis device, the method comprising the steps performed by a medical data management apparatus of: obtaining image data (410, 510) by capturing images of a user input unit (922, 924, 926, 928, 1022, 1024, 1026, 1122, 1124, 1126, 1222, 1224, 1226, 1228, 1230) of a medical diagnosis device, images of inside an operating room where the medical diagnosis device is located, and/or images of an object located in the operating room; sensing an error event of the medical diagnosis device wherein the sensing comprises sensing generation of the error event by receiving an error event notification signal from the medical diagnosis device or by analyzing the obtained image data; extracting image data (430, 530) from the obtained image data corresponding to a first period of time associated with a time at which the error event is sensed; obtaining log data (330, 450, 560) corresponding to the extracted image data based on the first period of time, from a console device that is configured for controlling the medical diagnosis device; and transmitting (340, 460, 570, 710) the image data and the log data to an external server, wherein the method further comprises the step of the external server analyzing the received image data and log data so as to check a cause and type of the error event generated in the medical diagnosis device. obtaining image data (410, 510) by capturing images of a user input unit (922, 924, 926, 928, 1022, 1024, 1026, 1122, 1124, 1126, 1222, 1224, 1226, 1228, 1230) of a medical diagnosis device, images of inside an operating room where the medical diagnosis device is located, and/or images of an object located in the operating room; sensing an error event of the medical diagnosis device wherein the sensing comprises sensing generation of the error event by receiving an error event notification signal from the medical diagnosis device or by analyzing the obtained image data; extracting image data (430, 530) from the obtained image data corresponding to a first period of time associated with a time at which the error event is sensed; obtaining log data (330, 450, 560) corresponding to the extracted image data based on the first period of time, from a console device that is configured for controlling the medical diagnosis device; and transmitting (340, 460, 570, 710) the image data and the log data to an external server, wherein the method further comprises the step of the external server analyzing the received image data and log data so as to check a cause and type of the error event generated in the medical diagnosis device.