mhurhangee/ep-ind-claims huggingface dataset:
A multi-level electrical distribution control system associated with an electrical distribution grid, the multi-level electrical distribution control system comprising: a first distribution network node controller, DNNC, component at a distribution side including a first DNNC data component configured to access electrical distribution grid data related to the electrical distribution grid or electrical distribution control system data related to the electrical distribution control system, the first DNNC component being configured to store therein said electrical distribution grid data or electrical distribution control system data; and a second DNNC component at the distribution side including a second DNNC data component configured to access electrical distribution grid data related to the electrical distribution grid or electrical distribution control system data related to the electrical distribution control system, the second DNNC component being configured to store therein said electrical distribution grid data or electrical distribution control system data; wherein the first DNNC component is communicatively coupled to the second DNNC component; wherein the first DNNC component is configured to directly access electrical distribution grid data or electrical distribution control system data stored in the second DNNC component by way of the first DNNC data component; and wherein the second DNNC component is configured to directly access electrical distribution grid data or electrical distribution control system data stored in the first DNNC component by way of the second DNNC data component. a first distribution network node controller, DNNC, component at a distribution side including a first DNNC data component configured to access electrical distribution grid data related to the electrical distribution grid or electrical distribution control system data related to the electrical distribution control system, the first DNNC component being configured to store therein said electrical distribution grid data or electrical distribution control system data; and a second DNNC component at the distribution side including a second DNNC data component configured to access electrical distribution grid data related to the electrical distribution grid or electrical distribution control system data related to the electrical distribution control system, the second DNNC component being configured to store therein said electrical distribution grid data or electrical distribution control system data; wherein the first DNNC component is communicatively coupled to the second DNNC component; wherein the first DNNC component is configured to directly access electrical distribution grid data or electrical distribution control system data stored in the second DNNC component by way of the first DNNC data component; and wherein the second DNNC component is configured to directly access electrical distribution grid data or electrical distribution control system data stored in the first DNNC component by way of the second DNNC data component.
A protocol configuration options transmission method which relates to the transmission of protocol configuration options in a network according to a system architecture evolution, comprising: a user equipment sends a non-access-stratum security mode completion message to a mobility management entity after receiving a non-access-stratum security mode command message sent by the mobility management entity, characterised in that the non-access-stratum security mode completion message carries protocol configuration options; and the mobility management entity obtains the protocol configuration options from the non-access-stratum security mode completion message received. a user equipment sends a non-access-stratum security mode completion message to a mobility management entity after receiving a non-access-stratum security mode command message sent by the mobility management entity, characterised in that the non-access-stratum security mode completion message carries protocol configuration options; and the mobility management entity obtains the protocol configuration options from the non-access-stratum security mode completion message received.
An X-ray inspection system comprising: a work passage; an X-ray source provided at one side of the work passage; an X-ray detection sensor provided at the other side thereof; a cooling container housing the X-ray source; a heat radiating device; a conduit (35a, 35b) connecting the inside of the cooling container and the heat radiating device; a pump for circulating a cooling medium between the inside of the cooling container and the heat radiating device through the conduit, the cooling container being placed in an upper housing space inside a housing, the heat radiating device being placed outside the housing; and an electric circuit (41, 42), including a heat producing circuit component, being placed in the upper housing space, along with the cooling container wherein the cooling medium supplied to the cooling container suppresses temperature rise of the cooling container housing the X-ray source, characterized in that the cooling container serves as a cooling device capable of suppressing temperature rise in the upper housing space and also suppressing temperature rise of said circuit component even though heat is emitted by the heat producing circuit component.
A directionally biodegradable metallic ligating clip, said ligating clip is made of biodegradable metal, comprising an upper arm for closing blood vessels, a lower arm and a tail structure for closing blood vessels; wherein before their closing, the upper arm, the lower arm and the tail structure are adapted to form a V- shape structure, wherein the upper arm and the lower arm are designed with self-lock structures at their ends, wherein when using the clip, a blood vessel is placed between the upper arm and the lower arm of the V -shaped structure, and the upper arm and lower arm are pressed to gradually decrease an included angle between the arms until the self-lock structures of the upper arm and the lower arm are interlocked and closed mutually; said clip being characterized in that: said tail structure is an O-type and in that an inner and an outer surface of said upper arm and lower arm have different microstructures and potentials, wherein the inner surface refers to the part of ligating clip near the blood vessel, and the outer surface refers to the part of the ligating clip farther away from the blood vessel, wherein a grain size in said outer surfaces is larger than a grain size in said inner surfaces, and the outer surface has a lower degradation potential than the inner surface, so as to realize a directional degradation in a direction from the outer surface to the inner surface after the closure of said clip. said tail structure is an O-type and in that an inner and an outer surface of said upper arm and lower arm have different microstructures and potentials, wherein the inner surface refers to the part of ligating clip near the blood vessel, and the outer surface refers to the part of the ligating clip farther away from the blood vessel, wherein a grain size in said outer surfaces is larger than a grain size in said inner surfaces, and the outer surface has a lower degradation potential than the inner surface, so as to realize a directional degradation in a direction from the outer surface to the inner surface after the closure of said clip.
A method for operating a memory die (160, 200) comprising a memory array (170, 370) and a memory controller (155, 165, 260), the method comprising: receiving (405; 515; 1005; 1105), at a memory device (310; 510; 710; 805) comprising the memory die (160; 200), a command from a host device (305; 505; 705; 905); identifying (410; 520; 1010; 1110) a set of valid commands for a memory array (170; 370) of the memory die (160; 200); determining (410; 525; 1015; 1115) that the command is absent from the set of valid commands based at least in part on evaluating the command and the set of valid commands; setting a mode register to a value based at least in part on determining that the command is absent from the set of valid commands, the value indicating a safe mode of operation for the memory die (160; 200); the safe mode allowing execution of a read command and restricting execution of a write command, and blocking (415; 530;1020; 1120) by the memory controller (155; 165; 260) of the memory die (160; 200), based at least in part on determining that the command is absent from the set of valid commands, the command from being decoded into an instruction and an address by the memory controller (155, 165; 260) of the memory die (160, 200), wherein the memory controller of the memory die is configured to perform both read and write operations on the array of the memory die. receiving (405; 515; 1005; 1105), at a memory device (310; 510; 710; 805) comprising the memory die (160; 200), a command from a host device (305; 505; 705; 905); identifying (410; 520; 1010; 1110) a set of valid commands for a memory array (170; 370) of the memory die (160; 200); determining (410; 525; 1015; 1115) that the command is absent from the set of valid commands based at least in part on evaluating the command and the set of valid commands; setting a mode register to a value based at least in part on determining that the command is absent from the set of valid commands, the value indicating a safe mode of operation for the memory die (160; 200); the safe mode allowing execution of a read command and restricting execution of a write command, and blocking (415; 530;1020; 1120) by the memory controller (155; 165; 260) of the memory die (160; 200), based at least in part on determining that the command is absent from the set of valid commands, the command from being decoded into an instruction and an address by the memory controller (155, 165; 260) of the memory die (160, 200), wherein the memory controller of the memory die is configured to perform both read and write operations on the array of the memory die.
An electronic device with a device base for mounting the electronic device on a support, wherein at least one pivot arm is partially received in a receptacle of the device base and partially protrudes from the device base, which pivot arm is adjustable about a pivot axis (x) parallel to a contact side of the device base, wherein in a first setting position of the pivot arm a first attachment means is arranged outside the receptacle, and wherein in a second setting position of the pivot arm a second attachment means differing from the first attachment means is arranged outside the receptacle, characterized in that a recess opening into the receptacle is formed on a side wall of the device base, into which a locking piece is inserted, which is adjustable parallel to the pivot axis (x) between a release position, in which it releases the pivot arm, and a locking position, in which it fixes the pivot arm optionally in the first or the second setting position.
Parallel-shaft gearbox comprising a device for detecting positions of an internal control device,the detecting device having a rotating selection member which bears a mobile target, cooperating with a sensor that is fixed on the gearbox to detect the selection position of the rotating member from among at least three distinct angular selection positions, wherein, furthermore, the sensor bears a piston that moves under the thrust of the target over a linear retraction travel where multiple adjacent portions corresponding to the successive angular selection positions of the rotating member are identified, characterized in that the travel of the piston between its extended position and its retracted position comprises three portions corresponding respectively to a first gear line selection position, a neutral position in which no line of gears is selected, and a second gear line selection position, and in that the sensor sends to a control unit of the gearbox: - a first, selection signal allowing gear switching on a first line of gears when the piston is completely retracted, - a second signal, of detection of an intermediate position between two lines of gears when the piston is at mid-travel, and - a third, selection signal allowing gear switching on a second line of gears when the piston is completely extended. - a first, selection signal allowing gear switching on a first line of gears when the piston is completely retracted, - a second signal, of detection of an intermediate position between two lines of gears when the piston is at mid-travel, and - a third, selection signal allowing gear switching on a second line of gears when the piston is completely extended.
A district public water supply pipe network system compatible for source side water for ground source heat pump system and reclaimed water, comprising: a reclaimed water outlet of a sewage treatment system; a water supply main pipe connected with the reclaimed water outlet of a sewage treatment system; a plurality of energy stations (13, 22) and transmission and distribution stations which are connected with the water supply main pipe; a water return main pipe which is arranged between adjacent energy stations (13, 22); distribution pipe networks (44, 56, 61) which are connected with the corresponding energy stations (13, 22) or the transmission and distribution stations respectively; at least one user side water supply system which is connected with the corresponding distribution pipe network; the energy station (13, 22) comprises a plurality of shallow geothermal energy exchange systems (14, 21,17, 25) which are configured to exchange heat with shallow geothermal energy sources; the energy station (13,22) further comprises a distribution side which comprises an outlet, the outlet at the distribution side of the energy station (13, 22) is connected with the water supply main pipe of the corresponding distribution pipe network through a distribution water pump (46, 53, 59) and a water supply distribution pipe (47, 54, 60) of the distribution pipe network; the energy station (13, 22) is connected with the water return main pipe of corresponding distribution pipe network by a water return distribution pipe (48, 49, 50, 55) of the distribution pipe network. a reclaimed water outlet of a sewage treatment system; a water supply main pipe connected with the reclaimed water outlet of a sewage treatment system; a plurality of energy stations (13, 22) and transmission and distribution stations which are connected with the water supply main pipe; a water return main pipe which is arranged between adjacent energy stations (13, 22); distribution pipe networks (44, 56, 61) which are connected with the corresponding energy stations (13, 22) or the transmission and distribution stations respectively; at least one user side water supply system which is connected with the corresponding distribution pipe network; the energy station (13, 22) comprises a plurality of shallow geothermal energy exchange systems (14, 21,17, 25) which are configured to exchange heat with shallow geothermal energy sources; the energy station (13,22) further comprises a distribution side which comprises an outlet, the outlet at the distribution side of the energy station (13, 22) is connected with the water supply main pipe of the corresponding distribution pipe network through a distribution water pump (46, 53, 59) and a water supply distribution pipe (47, 54, 60) of the distribution pipe network; the energy station (13, 22) is connected with the water return main pipe of corresponding distribution pipe network by a water return distribution pipe (48, 49, 50, 55) of the distribution pipe network.
A gearbox assembly comprising a gearbox, a drive shaft arranged to be driven by the gearbox and a drive shaft coupling that couples the drive shaft and the gearbox, the gearbox assembly further comprising a gearbox oil cooling assembly for cooling the gearbox, the gearbox oil cooling assembly comprising: a heat exchanger to receive and cool an oil from the gearbox and having an air inlet; an impeller axially disposed between the heat exchanger and the drive shaft coupling, wherein the impeller is operatively coupled to, and arranged to be rotated by, the drive shaft by being operatively coupled to the drive shaft coupling; and an exhaust duct operatively coupled to the heat exchanger and disposed radially outwardly around the impeller, wherein the gearbox oil cooling assembly defines an airflow pathway through which air passes through the air inlet, the impeller and through the exhaust duct according to the rotation of the impeller to cool the oil in the heat exchanger, and wherein the drive shaft coupling, the impeller, the exhaust duct, the heat exchanger, and the gearbox are disposed in an axially stacked arrangement, characterized in that the gearbox oil cooling assembly further comprises a first tube and a second tube, wherein the oil is routed to the heat exchanger within the first tube and the oil is returned to the gearbox within the second tube, and wherein the first tube and the second tube are disposed at an internal location relative to the gearbox and the heat exchanger. a heat exchanger to receive and cool an oil from the gearbox and having an air inlet; an impeller axially disposed between the heat exchanger and the drive shaft coupling, wherein the impeller is operatively coupled to, and arranged to be rotated by, the drive shaft by being operatively coupled to the drive shaft coupling; and an exhaust duct operatively coupled to the heat exchanger and disposed radially outwardly around the impeller, wherein the gearbox oil cooling assembly defines an airflow pathway through which air passes through the air inlet, the impeller and through the exhaust duct according to the rotation of the impeller to cool the oil in the heat exchanger, and wherein the drive shaft coupling, the impeller, the exhaust duct, the heat exchanger, and the gearbox are disposed in an axially stacked arrangement, characterized in that the gearbox oil cooling assembly further comprises a first tube and a second tube, wherein the oil is routed to the heat exchanger within the first tube and the oil is returned to the gearbox within the second tube, and wherein the first tube and the second tube are disposed at an internal location relative to the gearbox and the heat exchanger.
A ceramic substrate, comprising: a flat plate-shaped insulating base comprising a ceramic; a first brazing material layer provided on a first main surface of the insulating base; a second brazing material layer provided on a second main surface of the insulating base; a circuit plate comprising a metal and being fixed through the first brazing material layer to the insulating base on a first main surface-side; and a heat dissipation plate comprising a metal and being fixed through the second brazing material layer to the insulating base on a second main surface-side, wherein a thickness of one of the heat dissipation plate and the circuit plate is larger than a thickness of the other, wherein when the thickness of the heat dissipation plate is larger than the thickness of the circuit plate, a thickness of the first brazing material layer is larger than a thickness of the second brazing material layer, and wherein when the thickness of the circuit plate is larger than the thickness of the heat dissipation plate, the thickness of the second brazing material layer is larger than the thickness of the first brazing material layer. a flat plate-shaped insulating base comprising a ceramic; a first brazing material layer provided on a first main surface of the insulating base; a second brazing material layer provided on a second main surface of the insulating base; a circuit plate comprising a metal and being fixed through the first brazing material layer to the insulating base on a first main surface-side; and a heat dissipation plate comprising a metal and being fixed through the second brazing material layer to the insulating base on a second main surface-side, wherein a thickness of one of the heat dissipation plate and the circuit plate is larger than a thickness of the other, wherein when the thickness of the heat dissipation plate is larger than the thickness of the circuit plate, a thickness of the first brazing material layer is larger than a thickness of the second brazing material layer, and wherein when the thickness of the circuit plate is larger than the thickness of the heat dissipation plate, the thickness of the second brazing material layer is larger than the thickness of the first brazing material layer.
A demodulation circuit, comprising: a modulation ratio enhancement unit (21, 41) for increasing a modulation ratio of a current signal being amplitude shift keying modulated with signal data, wherein the modulation ratio is a ratio of an amplitude of the current signal to a maximum value of the current signal; and a demodulation unit (22, 23, 24, 25) for demodulating the signal data from the current signal, of which the modulation ratio is increased by the modulation ratio enhancement unit; wherein said modulation ratio enhancement unit is further configured to detect the maximum value of said current signal, and to subtract a subtraction current from the current signal, the subtraction current being a current of the maximum value multiplied by a constant. a modulation ratio enhancement unit (21, 41) for increasing a modulation ratio of a current signal being amplitude shift keying modulated with signal data, wherein the modulation ratio is a ratio of an amplitude of the current signal to a maximum value of the current signal; and a demodulation unit (22, 23, 24, 25) for demodulating the signal data from the current signal, of which the modulation ratio is increased by the modulation ratio enhancement unit; wherein said modulation ratio enhancement unit is further configured to detect the maximum value of said current signal, and to subtract a subtraction current from the current signal, the subtraction current being a current of the maximum value multiplied by a constant.