mhurhangee/ep-ind-claims huggingface dataset:
A centrifuge configured to separate blood components from blood by rotation about a rotational axis, comprising a generally annular low-G wall, and a generally annular high-G wall located farther from the rotational axis than the low G-wall, - wherein the high-G wall includes a first projection extending toward the low-G wall and oriented at an angle with respect to the rotational axis, so as to form a constricted passage along the low-G wall, - the low-G wall includes a second projection extending toward the high-G wall and oriented substantially perpendicular to the rotational axis to form a further constricted passage along the high-G wall, - one end of the first projection is substantially angularly aligned with one end of the second projection, which mutually angularly aligned ends of the first projection and the second projection are arranged at substantially the same axial position. - wherein the high-G wall includes a first projection extending toward the low-G wall and oriented at an angle with respect to the rotational axis, so as to form a constricted passage along the low-G wall, - the low-G wall includes a second projection extending toward the high-G wall and oriented substantially perpendicular to the rotational axis to form a further constricted passage along the high-G wall, - one end of the first projection is substantially angularly aligned with one end of the second projection, which mutually angularly aligned ends of the first projection and the second projection are arranged at substantially the same axial position.
A cooling integrated assembly, comprising: a cooling assembly, and a valve assembly, wherein, the cooling assembly has a first connecting port and a second connecting port, the valve assembly and the cooling assembly are fixedly arranged; the valve assembly comprises a connecting block and a valve core assembly, the connecting block has a mounting hole, and at least part of the valve core assembly is located in the mounting hole; the valve assembly comprises a first fluid passage, and one end of the first fluid passage is a first end port of the connecting block, the other end of the first fluid passage is a second end port of the connecting block, the second end port of the connecting block is located on an inner end surface of the connecting block, the inner end surface faces the cooling assembly, the first connecting port is in communication with the second end port of the connecting block, and a flow area of the first fluid passage is equal to or greater than zero, and is configured to switch between zero and a specified flow area of the first fluid passage; the cooling assembly comprises a bottom plate and a circulation plate, and the bottom plate is fitted with the circulation plate, the cooling assembly comprises a second fluid passage, the second fluid passage is located between the bottom plate and the circulation plate, the second fluid passage is in communication with the first connecting port and the second connecting port, a refrigerant is circulatable in the first fluid passage and the second fluid passage. a cooling assembly, and a valve assembly, wherein, the cooling assembly has a first connecting port and a second connecting port, the valve assembly and the cooling assembly are fixedly arranged; the valve assembly comprises a connecting block and a valve core assembly, the connecting block has a mounting hole, and at least part of the valve core assembly is located in the mounting hole; the valve assembly comprises a first fluid passage, and one end of the first fluid passage is a first end port of the connecting block, the other end of the first fluid passage is a second end port of the connecting block, the second end port of the connecting block is located on an inner end surface of the connecting block, the inner end surface faces the cooling assembly, the first connecting port is in communication with the second end port of the connecting block, and a flow area of the first fluid passage is equal to or greater than zero, and is configured to switch between zero and a specified flow area of the first fluid passage; the cooling assembly comprises a bottom plate and a circulation plate, and the bottom plate is fitted with the circulation plate, the cooling assembly comprises a second fluid passage, the second fluid passage is located between the bottom plate and the circulation plate, the second fluid passage is in communication with the first connecting port and the second connecting port, a refrigerant is circulatable in the first fluid passage and the second fluid passage.
A field-effect transistor with temperature sensing comprising: a gate; a source contact; a drain contact; characterized by a source field plate coupled to the source contact; a first pair of contact tabs (210a, 210b) connected to the source field plate and separated by a first distance for applying a probe current through the source field plate; and a second pair of contact tabs (212a, 212b) connected to the source field plate and separated by a second distance for sensing a voltage across a region of the source field plate through which the probe current flows, wherein the source field plate has a temperature-sensitive resistance. a gate; a source contact; a drain contact; characterized by a source field plate coupled to the source contact; a first pair of contact tabs (210a, 210b) connected to the source field plate and separated by a first distance for applying a probe current through the source field plate; and a second pair of contact tabs (212a, 212b) connected to the source field plate and separated by a second distance for sensing a voltage across a region of the source field plate through which the probe current flows, wherein the source field plate has a temperature-sensitive resistance.
Wheel lubrication controlling device, comprising: - a sensor, adapted to be installed on a railway vehicle, and - a processing component comprising: - an acquisition module, adapted to acquire a sensor information measured by the sensor, and - a command module, adapted to be connected to a lubricator and to generate a lubrication instruction for the lubricator as a function of the sensor information, wherein - the sensor is a vibration sensor adapted to measure vibrations of said railway vehicle, - the command module is adapted to generate the lubrication instruction as a function of the sensor information representing the measured vibrations; and - the processing component comprises a filtering module adapted to filter the sensor information from the acquisition module, characterised in that the sensor is adapted to measure vibrations of the wheels in an axial direction along a central axis of the wheels, the filtering module being adapted to filter the sensor information depending on its frequency by forming a band-pass filter, the command module being configured for generating a lubrication instruction corresponding to a release instruction if an amplitude of the filtered sensor information exceeds a predetermined upper threshold, the release instruction being adapted to be interpreted by the lubricator as a command to distribute lubricant. - a sensor, adapted to be installed on a railway vehicle, and - a processing component comprising: - an acquisition module, adapted to acquire a sensor information measured by the sensor, and - a command module, adapted to be connected to a lubricator and to generate a lubrication instruction for the lubricator as a function of the sensor information, wherein - an acquisition module, adapted to acquire a sensor information measured by the sensor, and - a command module, adapted to be connected to a lubricator and to generate a lubrication instruction for the lubricator as a function of the sensor information, wherein - the sensor is a vibration sensor adapted to measure vibrations of said railway vehicle, - the command module is adapted to generate the lubrication instruction as a function of the sensor information representing the measured vibrations; and - the processing component comprises a filtering module adapted to filter the sensor information from the acquisition module, characterised in that the sensor is adapted to measure vibrations of the wheels in an axial direction along a central axis of the wheels, the filtering module being adapted to filter the sensor information depending on its frequency by forming a band-pass filter, the command module being configured for generating a lubrication instruction corresponding to a release instruction if an amplitude of the filtered sensor information exceeds a predetermined upper threshold, the release instruction being adapted to be interpreted by the lubricator as a command to distribute lubricant.
A solid oxide fuel cell system comprising: a fuel cell stack including a fuel electrode and an oxidant electrode; a combustion unit provided to start the system and configured to supply a combustion gas to the oxidant electrode of the fuel cell stack, the combustion gas containing an inert gas as a component; a combustion gas flow passage configured to supply part of the combustion gas discharged from the combustion unit to the fuel electrode of the fuel cell stack; a combustion gas container disposed in the middle of the combustion gas flow passage and configured to contain the combustion gas; a control unit configured to supply part of the combustion gas discharged from the combustion unit to the oxidant electrode of the fuel cell stack and cause the combustion gas container to contain the other part of the combustion gas discharged from the combustion unit at the time of starting the system, and perform control in such a way as to fill the combustion gas contained in the combustion gas container into the fuel electrode of the fuel cell stack at the time of stopping the system. a fuel cell stack including a fuel electrode and an oxidant electrode; a combustion unit provided to start the system and configured to supply a combustion gas to the oxidant electrode of the fuel cell stack, the combustion gas containing an inert gas as a component; a combustion gas flow passage configured to supply part of the combustion gas discharged from the combustion unit to the fuel electrode of the fuel cell stack; a combustion gas container disposed in the middle of the combustion gas flow passage and configured to contain the combustion gas; a control unit configured to supply part of the combustion gas discharged from the combustion unit to the oxidant electrode of the fuel cell stack and cause the combustion gas container to contain the other part of the combustion gas discharged from the combustion unit at the time of starting the system, and perform control in such a way as to fill the combustion gas contained in the combustion gas container into the fuel electrode of the fuel cell stack at the time of stopping the system.
A no-back device comprising: a flange arranged to receive torque via a shaft; a ratchet assembly comprising a ratchet wheel arranged parallel to the flange; and a braking assembly comprising a resistance wheel, which is sandwiched between the flange and the ratchet wheel, and a braking device, which acts on the resistance wheel to generate a resistive angular force reacting against torque exerted on the resistance wheel, the resistance wheel comprising a plurality of rollable thrust members to transfer axial load directly from the flange to the ratchet wheel, characterised in that the braking device comprises a follower arranged to roll, under bias from a spring in the braking device, on a cam surface extending around a circumferential perimeter of the resistance wheel, and whereby radial displacement of the follower energises the spring to generate resistive angular force. a flange arranged to receive torque via a shaft; a ratchet assembly comprising a ratchet wheel arranged parallel to the flange; and a braking assembly comprising a resistance wheel, which is sandwiched between the flange and the ratchet wheel, and a braking device, which acts on the resistance wheel to generate a resistive angular force reacting against torque exerted on the resistance wheel, the resistance wheel comprising a plurality of rollable thrust members to transfer axial load directly from the flange to the ratchet wheel, characterised in that the braking device comprises a follower arranged to roll, under bias from a spring in the braking device, on a cam surface extending around a circumferential perimeter of the resistance wheel, and whereby radial displacement of the follower energises the spring to generate resistive angular force.
Method for determining the climatic conditions of a day so as to control at least one device for supplying natural energy for a room of a building, characterized in that the method comprises the steps of: - obtaining a temperature outside the building at sunrise, - comparing the outside temperature obtained with a first predetermined threshold, - determining the climatic conditions for the day as a function of the result of the comparing of the outside temperature obtained with the first predetermined threshold lying between 15 and 17 degrees Celsius, - determining at least one control parameter of the at least one device for supplying natural energy as a function of the climatic conditions determined. - obtaining a temperature outside the building at sunrise, - comparing the outside temperature obtained with a first predetermined threshold, - determining the climatic conditions for the day as a function of the result of the comparing of the outside temperature obtained with the first predetermined threshold lying between 15 and 17 degrees Celsius, - determining at least one control parameter of the at least one device for supplying natural energy as a function of the climatic conditions determined.
A system for supporting resource isolation in a multi-core architecture, comprising: a processor, wherein the processor comprises multiple processing cores, and the multiple processing cores comprise a start-time primary core and at least one start-time secondary core; and memory space, wherein the memory space comprises a shared memory segment and memory segments (121, 122) of the processing cores; running information and run-time entry addresses of the processing cores are stored in the shared memory segment; the running information comprises a mapping relationship between each processing core and each operating system, and sizes and start addresses of the memory segments; and the run-time entry addresses of the processing cores are used to indicate, in respective corresponding memory segments, storage addresses of kernel images of operating systems that the processing cores need to run; wherein the processor separately stores, according to the running information, the kernel images of the operating systems (1,2) that the processing cores need to run, into the memory segments of the processing cores, and separately writes the run-time entry addresses of the processing cores into the shared memory segment; and processing cores to be started separately obtain respective run-time entry addresses, and run the kernel images of the operating systems stored in respective memory segments. a processor, wherein the processor comprises multiple processing cores, and the multiple processing cores comprise a start-time primary core and at least one start-time secondary core; and memory space, wherein the memory space comprises a shared memory segment and memory segments (121, 122) of the processing cores; running information and run-time entry addresses of the processing cores are stored in the shared memory segment; the running information comprises a mapping relationship between each processing core and each operating system, and sizes and start addresses of the memory segments; and the run-time entry addresses of the processing cores are used to indicate, in respective corresponding memory segments, storage addresses of kernel images of operating systems that the processing cores need to run; wherein the processor separately stores, according to the running information, the kernel images of the operating systems (1,2) that the processing cores need to run, into the memory segments of the processing cores, and separately writes the run-time entry addresses of the processing cores into the shared memory segment; and processing cores to be started separately obtain respective run-time entry addresses, and run the kernel images of the operating systems stored in respective memory segments.
A textile product comprising individual elements which are interconnected by a textile technique and retain at least one decorative or functional element (2, 2', 2", 12, 12', 22) between them, wherein the at least one decorative or functional element (2, 2', 22) has at least one continuous peripheral notch as a depression for receiving the individual elements, characterised by at least one magnet as a decorative or functional element (2, 2", 12, 12').
A method for receiving a data signal by a user equipment, UE, in a multiple-user multiple-input multiple-output, MU-MIMO, wireless communication system, the method comprising: receiving downlink control information, DCI; identifying, from the DCI, one or more demodulation reference signal, DM-RS, ports assigned to the UE, and identifying, from a single bit field in the DCI, a physical downlink shared channel, PDSCH, energy per resource element, EPRE, to DM-RS EPRE ratio and whether the data signal is mapped to at least one resource element, RE, of DM-RS code division multiplexing, CDM, group unassigned to the UE; and identifying (925,930) the data signal intended for the LTE in a resource block in a downlink subframe using the DM-RS ports assigned to the UE and the PDSCH EPRE to DM-RS EPRE ratio, wherein the resource block in the downlink subframe includes data for multiple users in the wireless communication system. receiving downlink control information, DCI; identifying, from the DCI, one or more demodulation reference signal, DM-RS, ports assigned to the UE, and identifying, from a single bit field in the DCI, a physical downlink shared channel, PDSCH, energy per resource element, EPRE, to DM-RS EPRE ratio and whether the data signal is mapped to at least one resource element, RE, of DM-RS code division multiplexing, CDM, group unassigned to the UE; and identifying (925,930) the data signal intended for the LTE in a resource block in a downlink subframe using the DM-RS ports assigned to the UE and the PDSCH EPRE to DM-RS EPRE ratio, wherein the resource block in the downlink subframe includes data for multiple users in the wireless communication system.
A vehicle control system for a vehicle (Ve) having an engine (1, 61, 71) that generates power by burning fuel, and a purification system that purifies exhaust gas, comprising: a controller configured to operate the vehicle (Ve) autonomously without requiring a manual operation, and configured to execute a removal control to remove deposition from the purification system; characterized in that the controller is configured to obtain an amount of deposition on the purification system, determine a presence of a passenger in the vehicle (Ve), and execute the removal control when an amount of the deposition on the purification system exceeds a threshold value (α, β); and the threshold value (α, β) includes a first threshold value (α) used in a case that the vehicle (Ve) is propelled while carrying a passenger, and a second threshold value (β) used in a case that the vehicle is propelled autonomously without carrying a passenger that is smaller than the first threshold value (α). a controller configured to operate the vehicle (Ve) autonomously without requiring a manual operation, and configured to execute a removal control to remove deposition from the purification system; characterized in that the controller is configured to obtain an amount of deposition on the purification system, determine a presence of a passenger in the vehicle (Ve), and execute the removal control when an amount of the deposition on the purification system exceeds a threshold value (α, β); and the threshold value (α, β) includes a first threshold value (α) used in a case that the vehicle (Ve) is propelled while carrying a passenger, and a second threshold value (β) used in a case that the vehicle is propelled autonomously without carrying a passenger that is smaller than the first threshold value (α).
WC attachment having - a shower device and - a water safety device, which is connected by a conduit to the shower device, and having - a channel for discharging leakage from the water safety device, wherein the WC attachment has a cover, characterized - in that a maintenance opening is formed in the cover and is aligned with the water safety device. - a shower device and - a water safety device, which is connected by a conduit to the shower device, and having - a channel for discharging leakage from the water safety device, wherein the WC attachment has a cover, - in that a maintenance opening is formed in the cover and is aligned with the water safety device.
An implantable neurostimulator comprising: a pulse generator configured to deliver electrical therapeutic stimulation in a manner that results in creation and propagation in both afferent and efferent directions of action potentials within neuronal fibers comprising a patient's cervical vagus nerve and to store operating modes of the pulse generator in a recordable i Z memory, wherein a maintainance dose tuned to restore cardiac autonomic balance through continuously-cycling, intermittent and periodic electrical pulses to be used if no tachyarrhythmia is present is parametrically defined in the recordable memory, and an enhanced dose tuned to prevent initiation of or disrupt tachyarrhythmia upon the patient's awakening from a sleep state through at least one of continuously-cycling, intermittent and periodic electrical pulses is parametrically defined in the recordable memory and wherein the maintenance dose of the electrical therapeutic stimulation is at a lower intensity than the enhanced dose; and a sensor (31, 32, 33) configured to monitor the patient's physiological state, and at least a pair of helical electrodes electrically coupled to the pulse generator via a nerve stimulation therapy lead; and wherein the pulse generator is configured to deliver for a period of time the enhanced dose to the vagus nerve through the at least one pair of helical electrodes upon sensing the patient's awakening from a sleep state. a pulse generator configured to deliver electrical therapeutic stimulation in a manner that results in creation and propagation in both afferent and efferent directions of action potentials within neuronal fibers comprising a patient's cervical vagus nerve and to store operating modes of the pulse generator in a recordable i Z memory, wherein a maintainance dose tuned to restore cardiac autonomic balance through continuously-cycling, intermittent and periodic electrical pulses to be used if no tachyarrhythmia is present is parametrically defined in the recordable memory, and an enhanced dose tuned to prevent initiation of or disrupt tachyarrhythmia upon the patient's awakening from a sleep state through at least one of continuously-cycling, intermittent and periodic electrical pulses is parametrically defined in the recordable memory and wherein the maintenance dose of the electrical therapeutic stimulation is at a lower intensity than the enhanced dose; and a sensor (31, 32, 33) configured to monitor the patient's physiological state, and at least a pair of helical electrodes electrically coupled to the pulse generator via a nerve stimulation therapy lead; and wherein the pulse generator is configured to deliver for a period of time the enhanced dose to the vagus nerve through the at least one pair of helical electrodes upon sensing the patient's awakening from a sleep state.