mhurhangee/ep-ind-claims huggingface dataset:
A circulating video recording apparatus for recording video data from a plurality of video sources, comprising a recording device having a video data area and an arrangement information area, wherein the video data area includes a plurality of blocks having the same size of 1 MB or more, wherein the arrangement information area stores arrangement information indicating a location at which each block of the video data area is arranged on the recording device, wherein each of the plurality of blocks stores video data of a plurality of frames, and some blocks among the plurality of blocks include an index area storing index information of a respective block and a plurality of past consecutive blocks with respect to the respective block, wherein the index information is configured to index data stored in the corresponding block, wherein the video data area is divided for each video source, and wherein, in the circulating video recording apparatus, when a write destination address reaches a final address, the video data is overwritten and stored sequentially from a start address.
Method for transmitting a function command between a motor vehicle and an off-board device, wherein the function command is transmitted via a communication link between the motor vehicle and the interface device providing the off-board device, wherein an interface is provided by the interface device to provide a plurality of valid function commands, characterised in that the interface device is arranged outside the motor vehicle and outside the off-board device and is in the form of as a stationary server, and the interface is designed as a programming interface, API, or as a function-oriented programming, or as a file-oriented programming interface, or an object-oriented programming interface, or a protocol-oriented programming interface, or as a binary interface, ABI, and the function command is only transmitted between the motor vehicle and the device via the interface of the interface device, and the function command is compared in the interface device with the plurality of valid function commands and, based on this comparison, it is determined whether the function command is interface compliant, wherein the function command is forwarded only if the function command is interface compliant.
A pharmaceutical composition comprising a therapeutically effective amount of an angiotensin II receptor 1 (AT-1) antagonist for use as a medicament in the treatment of systemic hypertension in cats, wherein such angiotensin II receptor 1 (AT-1) antagonist is a sartan.
A safety protection device for Raman spectroscopy detection, comprising: a detection cavity comprising a cavity body, the cavity body having an opening end through which a sample to be detected is allowed to be placed into the detection cavity; a cover configured to cover and engage the opening end so as to form, together with the detection cavity, an explosion proof container defining a space for receiving the sample to be detected; and a sample holder which is provided within the detection cavity, wherein the detection cavity further comprises a detection opening formed in the cavity body such that a Raman detection probe is allowed to be inserted into the space through the detection opening so as to detect the sample, wherein the sample holder comprises: a base mounted within the detection cavity and having a detection region on which the sample to be detected is to be placed; and a shielding plate connected with the base, the shielding plate being configured such that the detection opening and the detection region are located on opposite sides of the shielding plate and having an open pore aligned with the detection opening so that the Raman detection probe is allowed to pass through the detection opening and the open pore that are aligned with each other so as to be located near the detection region. a detection cavity comprising a cavity body, the cavity body having an opening end through which a sample to be detected is allowed to be placed into the detection cavity; a cover configured to cover and engage the opening end so as to form, together with the detection cavity, an explosion proof container defining a space for receiving the sample to be detected; and a sample holder which is provided within the detection cavity, wherein the detection cavity further comprises a detection opening formed in the cavity body such that a Raman detection probe is allowed to be inserted into the space through the detection opening so as to detect the sample, wherein the sample holder comprises: a base mounted within the detection cavity and having a detection region on which the sample to be detected is to be placed; and a shielding plate connected with the base, the shielding plate being configured such that the detection opening and the detection region are located on opposite sides of the shielding plate and having an open pore aligned with the detection opening so that the Raman detection probe is allowed to pass through the detection opening and the open pore that are aligned with each other so as to be located near the detection region. a base mounted within the detection cavity and having a detection region on which the sample to be detected is to be placed; and a shielding plate connected with the base, the shielding plate being configured such that the detection opening and the detection region are located on opposite sides of the shielding plate and having an open pore aligned with the detection opening so that the Raman detection probe is allowed to pass through the detection opening and the open pore that are aligned with each other so as to be located near the detection region.
A rolling mill equipped with at least one reel (10A, 10B) comprising a spindle for winding and/or unwinding a strip during the rolling operations, said reel (10A, 10B) being fitted with at least one outboard bearing support for supporting said spindle, said outboard bearing support comprising: - a fixed part; - a movable part, comprising a support element adapted to support said spindle; - drive means, which are associated with said movable part in such a way as to move said movable part relative to said fixed part and cause it to rotate about at least one rotation pin, in particular said drive means being adapted to cause the movable part to switch from an open position to a closed position, and vice versa, characterized in that the outboard bearing support comprises an actuation system adapted to cause said rotation pin to move along a first axis which substantially coincides with the axis of said rotation pin, so as to prevent the movable part from moving relative to the fixed part and to take up any play of the movable part and of the rotation pin, in particular when the movable part of the outboard bearing support is in said closed position. - a fixed part; - a movable part, comprising a support element adapted to support said spindle; - drive means, which are associated with said movable part in such a way as to move said movable part relative to said fixed part and cause it to rotate about at least one rotation pin, in particular said drive means being adapted to cause the movable part to switch from an open position to a closed position, and vice versa,
A data acquisition system comprising: a head board comprising a first head processor; and a first carrier board comprising: a first terminal block communicatively coupled to the head board, a first connector, a second connector, and a third connector, wherein the first connector is configured to couple with a first acquisition module in a first simplex mode, a first dual redundancy mode, or a first triple redundancy mode, the second connector is configured to couple with a second acquisition module in the first dual redundancy mode or the first triple redundancy mode, and the third connector is configured to couple with a third acquisition module in the first triple redundancy mode; and a second terminal block communicatively coupled to the head board and to a fourth connector, wherein the fourth connector is configured to couple with the second acquisition module in the first simplex mode. a head board comprising a first head processor; and a first carrier board comprising: a first terminal block communicatively coupled to the head board, a first connector, a second connector, and a third connector, wherein the first connector is configured to couple with a first acquisition module in a first simplex mode, a first dual redundancy mode, or a first triple redundancy mode, the second connector is configured to couple with a second acquisition module in the first dual redundancy mode or the first triple redundancy mode, and the third connector is configured to couple with a third acquisition module in the first triple redundancy mode; and a second terminal block communicatively coupled to the head board and to a fourth connector, wherein the fourth connector is configured to couple with the second acquisition module in the first simplex mode. a first terminal block communicatively coupled to the head board, a first connector, a second connector, and a third connector, wherein the first connector is configured to couple with a first acquisition module in a first simplex mode, a first dual redundancy mode, or a first triple redundancy mode, the second connector is configured to couple with a second acquisition module in the first dual redundancy mode or the first triple redundancy mode, and the third connector is configured to couple with a third acquisition module in the first triple redundancy mode; and a second terminal block communicatively coupled to the head board and to a fourth connector, wherein the fourth connector is configured to couple with the second acquisition module in the first simplex mode.
Hazard warning device (11, 31), comprising a warning device housing which can be mounted onto a wall or ceiling of a room and in which at least one interior detection space, at least one sensor unit and an evaluation/control unit are arranged, the warning device housing having at least one passage for the surrounding ambient air, which leads into the detection space such that the ambient air can enter and exit the detection space, which the sensor unit detects, and comprising a mechanical adjusting means for changing an effective cross section of the at least one passage, the adjusting means having at least one cover element for the at least one passage, which cover element is fastened to the warning device housing so as to be movably guided and can be moved from an operational position to a non-operational position, and vice versa, by means of an actuator, the cover element covering the at least one passage and thus encapsulating the detection space from the ambient air surrounding the hazard warning device in the non-operational position and clearing the at least one passage in the operational position, characterised in that an electric drive motor moves the actuator, the drive motor being connected to the evaluation/control unit, which controls the drive motor and determines the position of the at least one cover element for the operational position and the non-operational position, and the evaluation/control unit being remotely operable and having a wire connection, a radio-receiving module or an infrared-receiving module by means of which the drive motor can be activated and deactivated.
A hydraulic pressure control device (1, 2) used in a brake system capable of executing anti-lock brake control and mounted to a handlebar of a straddle-type vehicle, the hydraulic pressure control device (1, 2) comprising: a master cylinder-integrated base body where a piston mounting hole where a piston of a master cylinder is provided so as to be capable of reciprocating and an internal flow path as a part of a brake fluid flow path allowing the piston mounting hole and a wheel cylinder to communicate with each other are formed; a control valve opening and closing the internal flow path and adjusting pressure of a brake fluid supplied to the wheel cylinder from the master cylinder; a pressure sensor provided in the base body and detecting the pressure of the brake fluid between the control valve and the wheel cylinder in the internal flow path; and a control device controlling the opening and closing operation of the control valve based on a detection result of the pressure sensor, characterized in that the control device is configured to output a control signal of a brake lamp of the straddle-type vehicle based on the detection result of the pressure sensor. a master cylinder-integrated base body where a piston mounting hole where a piston of a master cylinder is provided so as to be capable of reciprocating and an internal flow path as a part of a brake fluid flow path allowing the piston mounting hole and a wheel cylinder to communicate with each other are formed; a control valve opening and closing the internal flow path and adjusting pressure of a brake fluid supplied to the wheel cylinder from the master cylinder; a pressure sensor provided in the base body and detecting the pressure of the brake fluid between the control valve and the wheel cylinder in the internal flow path; and a control device controlling the opening and closing operation of the control valve based on a detection result of the pressure sensor, characterized in that the control device is configured to output a control signal of a brake lamp of the straddle-type vehicle based on the detection result of the pressure sensor.
Networked dental furnaces, comprising - several dental furnace housings, wherein each dental furnace housing comprises at least one combustion chamber, and wherein at least two of the combustion chambers are evacuable, - a vacuum pump, - a controllable distribution unit connected on the one hand to the vacuum pump and on the other hand to the evacuable combustion chambers, and - a control unit (28,30) for controlling the distribution unit according to commands given by a user. - several dental furnace housings, wherein each dental furnace housing comprises at least one combustion chamber, and wherein at least two of the combustion chambers are evacuable, - a vacuum pump, - a controllable distribution unit connected on the one hand to the vacuum pump and on the other hand to the evacuable combustion chambers, and - a control unit (28,30) for controlling the distribution unit according to commands given by a user.
Drive unit for a motor vehicle, with a differential gear for the distribution of a drive moment suppliable via a drive shaft onto two output shafts (5, 6, 17, 21) and an superposition transmission (7, 15), coupled with the differential gear, one of the output shafts (6, 17) and an additional motor (8, 16), for superimposing torques supplied by the output shaft (6, 17), the differential gear and the additional motor (8, 16), wherein the differential gear is coupled via a moment-reducing transmission device with the superposition transmission (7, 15), wherein the superposition transmission (7, 15) includes a switching apparatus controllable by a control device, wherein the superposition transmission (7, 15) in a first switching state of the switching apparatus superimposes the torques supplied by the output shaft (6, 17), the differential gear and the additional motor (8, 16) such that the distribution of the drive moment onto the output shafts (5, 6, 17, 21) depends on an additional torque applied by the additional motor (8, 16), characterised in that the superposition transmission (7, 15) in a second switching state of the switching apparatus superimposes the torques supplied by the output shaft (6, 17), the differential gear and the additional motor (8, 16) such that the additional torque is distributed equally onto both output shafts (5, 6, 17, 21).
A circuit, comprising: a plurality of memory cells (C1,..., CN), wherein each memory cell in said plurality of memory cells (C1,..., CN) includes a phase-change memory storage element coupled in series with a respective current-modulating transistor between a supply voltage node (V SUPPLY) and a reference voltage node, the current-modulating transistors being configured to receive a drive signal (DRV_GATE) at a control terminal thereof and to inject respective programming currents (I CELL) into said respective phase-change memory storage elements as a function of said drive signal (DRV_GATE); a driver circuit configured to produce said drive signal (DRV_GATE) at a common control node (N C), said common control node (N C) being coupled to the control terminals of the current-modulating transistors in the plurality of memory cells (C1,..., CN), wherein said drive signal (DRV_GATE) modulates said programming currents (I CELL) to produce SET programming current pulses and RESET programming current pulses; at least one current generator circuit (82 1, 82 2,..., 82 M) configured to inject a compensation current (I DRV_GATE) into said common control node (N C) in response to said current-modulating transistors injecting said programming currents (I CELL) into said respective phase-change memory storage elements. a plurality of memory cells (C1,..., CN), wherein each memory cell in said plurality of memory cells (C1,..., CN) includes a phase-change memory storage element coupled in series with a respective current-modulating transistor between a supply voltage node (V SUPPLY) and a reference voltage node, the current-modulating transistors being configured to receive a drive signal (DRV_GATE) at a control terminal thereof and to inject respective programming currents (I CELL) into said respective phase-change memory storage elements as a function of said drive signal (DRV_GATE); a driver circuit configured to produce said drive signal (DRV_GATE) at a common control node (N C), said common control node (N C) being coupled to the control terminals of the current-modulating transistors in the plurality of memory cells (C1,..., CN), wherein said drive signal (DRV_GATE) modulates said programming currents (I CELL) to produce SET programming current pulses and RESET programming current pulses; at least one current generator circuit (82 1, 82 2,..., 82 M) configured to inject a compensation current (I DRV_GATE) into said common control node (N C) in response to said current-modulating transistors injecting said programming currents (I CELL) into said respective phase-change memory storage elements.
A method comprising: receiving a secure access request for a secure page of memory at a secure interface control of a computer system; checking, by the secure interface control, a disable virtual address compare state associated with the secure page; disabling, by the secure interface control, a virtual address check in accessing the secure page to support mapping of a plurality of virtual addresses to a same absolute address to the secure page based on the disable virtual address compare state being set; verifying, by the secure interface control, that a secure domain of a plurality of secure domains is authorized to access a shared page based on a domain identifier; characterized by: confirming that a plurality of groups of dynamic-address-translation tables that map virtual addresses to absolute addresses is unchanged by an unsecure host configured to manage one or more of the groups of dynamic-address-translation tables for any of multiple secure domains that have access to the secure page, wherein each table mapping for a virtual address comprises multiple associated tables in the one or more groups of dynamic-address-translation tables; and terminating the secure access request based on detecting a change in the one or more groups of the dynamic-address-translation tables. receiving a secure access request for a secure page of memory at a secure interface control of a computer system; checking, by the secure interface control, a disable virtual address compare state associated with the secure page; disabling, by the secure interface control, a virtual address check in accessing the secure page to support mapping of a plurality of virtual addresses to a same absolute address to the secure page based on the disable virtual address compare state being set; verifying, by the secure interface control, that a secure domain of a plurality of secure domains is authorized to access a shared page based on a domain identifier; characterized by: confirming that a plurality of groups of dynamic-address-translation tables that map virtual addresses to absolute addresses is unchanged by an unsecure host configured to manage one or more of the groups of dynamic-address-translation tables for any of multiple secure domains that have access to the secure page, wherein each table mapping for a virtual address comprises multiple associated tables in the one or more groups of dynamic-address-translation tables; and terminating the secure access request based on detecting a change in the one or more groups of the dynamic-address-translation tables. confirming that a plurality of groups of dynamic-address-translation tables that map virtual addresses to absolute addresses is unchanged by an unsecure host configured to manage one or more of the groups of dynamic-address-translation tables for any of multiple secure domains that have access to the secure page, wherein each table mapping for a virtual address comprises multiple associated tables in the one or more groups of dynamic-address-translation tables; and terminating the secure access request based on detecting a change in the one or more groups of the dynamic-address-translation tables.
A method of controlling a water current turbine which includes a rotor assembly arranged to drive a generator, the method comprising: determining loading characteristics for the water current turbine over a range of generator rotational speed and torque combinations; receiving a power signal indicative of a desired generator output power level; determining an acceptable range of output power levels with respect to the desired generator output level, the acceptable range of output power levels being defined by a desired power quality measure; receiving a speed signal indicative of a rotational speed of the generator; producing a generator torque control signal in dependence upon the speed signal, the acceptable range of output power levels, and the determined loading characteristics of the water current turbine; and supplying the generator torque control signal to the generator, wherein the generator torque signal causes the generator to operate at a rotational speed which produces a generator output power level within the acceptable range of output power levels, and which produces a desired water current turbine loading condition. determining loading characteristics for the water current turbine over a range of generator rotational speed and torque combinations; receiving a power signal indicative of a desired generator output power level; determining an acceptable range of output power levels with respect to the desired generator output level, the acceptable range of output power levels being defined by a desired power quality measure; receiving a speed signal indicative of a rotational speed of the generator; producing a generator torque control signal in dependence upon the speed signal, the acceptable range of output power levels, and the determined loading characteristics of the water current turbine; and supplying the generator torque control signal to the generator, wherein the generator torque signal causes the generator to operate at a rotational speed which produces a generator output power level within the acceptable range of output power levels, and which produces a desired water current turbine loading condition.