mhurhangee/ep-ind-claims huggingface dataset:
Equipment for recovering humate substances from mineral coal raw material, provided with depository for the raw-material, and a mixer suitable for mixing the raw-material and the reagent, and provided with an ozonizing chamber, an ozone generator and a mechano-chemical activator, characterized by having attached to the raw- material depository a dryer, sealed from the environment and suitable for drying the raw material, and the dryer is attached, through a transporter, sealed from the environment, to a closed mixer, suitable for the mixing of the mineral coal base material with the solid state alkali reagent, and where a closed solid alkali feeder is attached to mixer, and through a transporter, sealed from the environment, the closed ozonizing chamber is also attached to mixer, where the chamber has an ozone inlet hole attached to the ozone generator, and the outlet hole of the chamber is attached to the mechano-chemical activator, sealed from the environment and the conduits attaching the said units to each other are sealed from the environment.
An air-conditioning apparatus comprising: a refrigerant circuit in which a compressor, a heat-source-side heat exchanger, an expansion unit, and a load-side heat exchanger are connected by refrigerant pipes, and refrigerant flows, the compressor being configured to compress the refrigerant, the heat-source-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a heat-source heat medium, the expansion unit being configured to expand the refrigerant, the load-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a load heat medium; a heat medium circuit in which a flow control valve and the heat-source-side heat exchanger are connected by a heat medium pipe, and the heat-source heat medium flows, the flow control valve being configured to regulate a flow rate of the heat-source heat medium; a controller including a storage unit configured to store data indicating a defined maximum flow rate and a defined minimum flow rate of the heat-source heat medium that flows in the heat medium circuit; and a flow rate sensor provided at the heat medium pipe and configured to detect a flow rate of the heat-source heat medium that flows in the heat medium circuit, wherein the controller further includes an opening-degree setting unit configured to set a maximum opening degree and a minimum opening degree of the flow control valve, based on the flow rate detected by the flow rate sensor and the defined maximum flow rate and the defined minimum flow rate both stored as the data in the storage unit. a refrigerant circuit in which a compressor, a heat-source-side heat exchanger, an expansion unit, and a load-side heat exchanger are connected by refrigerant pipes, and refrigerant flows, the compressor being configured to compress the refrigerant, the heat-source-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a heat-source heat medium, the expansion unit being configured to expand the refrigerant, the load-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a load heat medium; a heat medium circuit in which a flow control valve and the heat-source-side heat exchanger are connected by a heat medium pipe, and the heat-source heat medium flows, the flow control valve being configured to regulate a flow rate of the heat-source heat medium; a controller including a storage unit configured to store data indicating a defined maximum flow rate and a defined minimum flow rate of the heat-source heat medium that flows in the heat medium circuit; and a flow rate sensor provided at the heat medium pipe and configured to detect a flow rate of the heat-source heat medium that flows in the heat medium circuit, wherein the controller further includes an opening-degree setting unit configured to set a maximum opening degree and a minimum opening degree of the flow control valve, based on the flow rate detected by the flow rate sensor and the defined maximum flow rate and the defined minimum flow rate both stored as the data in the storage unit.
An agent for use as a medicament for the treatment of cervical dysplasia, comprising a recombinant genetically modified replication-defective E-deleted adenovirus in non-HPV-infected cells, wherein the agent is administered locally and externally in the region of the portio and cervical uteri.
A picking device for piece goods, with at least one rack row, with at least one rack with a plurality of inclined shelves, arranged one above the other, and each extending in one plane, with a plurality of storage bays, and at least one retrieval device, by way of which piece goods can be retrieved, wherein at least one shelf comprises a frame structure, a plurality of parallel bay partition walls, a plurality of parallel bay floors, and a plurality of arrester devices coupled to a control device, wherein in each case two bay partition walls and a bay floor define an elongated storage bay with a loading end and a retrieval end, wherein an arrester device is arranged at each of the retrieval ends, and a support device, on which the bay floor rests, is assigned to each bay floor, and wherein a retaining means is assigned to each bay floor, which retaining means prevents the bay floor from slipping in the longitudinal direction (x) of the bearing bay when the bay floor is resting on the support device, characterised in that, the bay partition walls are of a T-form design, wherein the two legs represent support sections, wherein each pair of support sections of two adjacent bay partition walls form a support device of a bay floor, wherein the support devices are designed such that the bay floors are mounted so that they can move along a vertical axis of the storage bays extending orthogonally to the plane of the fixed bay floors, so that a further bay floor can be pushed between the resting bay floor and the support device, and characterised in that, a retaining plate is arranged at the loading end, wherein a section of the said retaining plate, which is designed parallel to the plane of the fixed bay floors, slightly overlaps the latter, and comprises a plurality of retainers projecting from the bay floors, wherein such a retainer is assigned to each bay floor, wherein the retaining means are designed as openings, which act together with the retainers to prevent the bay floor from slipping in the longitudinal direction of the bearing bays.
Electrical connection of two thick-walled metal bodies (3, 4), each provided with a pilot hole, by means of a metal screw, wherein the screw has a screw head and a screw shank adjoining the latter and wherein, in the state of use of the screw, the latter is arranged in the pilot holes aligned axially with respect to one another and, starting from the screw head, the first metal body is arranged first and followed by the second metal body, wherein, starting from the screw head, the screw shank has a contoured section, a thread-forming section arranged after the contoured section, and a constriction arranged between the contoured section and the thread-forming section, and in that a thread of the thread-forming section has a core diameter that is smaller than a diameter of the pilot holes and an external diameter that is larger than the diameter of the pilot holes, and in that an external diameter of the constriction is smaller than the core diameter of the thread of the thread-forming section, and in that the contoured section is provided with contour elements and an envelope of the contour elements has an external diameter, which lies between the core diameter and the outer diameter of the thread of the thread-forming section, and in that a length of the contoured section extending along the screw shank is smaller than a thickness of the first metal body, and in that, in the state of use of the screw, the constriction is arranged in the transition region between the first and the second metal body (3, 4) and that a material hardness of the screw is greater than a material hardness of the metal bodies (3, 4).
A frequency-generating circuit, comprising: a frequency synthesizer circuit, generating a radio-frequency clock signal (CK_RF) according to a reference clock signal (CK_REF) and a channel number (Nc); and a controller, coupled to the frequency synthesizer circuit, generating a power-down control signal for controlling at least a portion of the frequency synthesizer circuit to power down, wherein the frequency synthesizer circuit comprises an accumulator for generating an accumulated value (V_acu) according to the channel number (Nc), and the frequency synthesizer circuit generates the radio-frequency clock signal (CK_RF) according to the reference clock signal (CK_REF) and the accumulated value (V_acu), and wherein the controller maintains the accumulated value (V_acu) of the accumulator when the portion of the frequency synthesizer circuit powers down. a frequency synthesizer circuit, generating a radio-frequency clock signal (CK_RF) according to a reference clock signal (CK_REF) and a channel number (Nc); and a controller, coupled to the frequency synthesizer circuit, generating a power-down control signal for controlling at least a portion of the frequency synthesizer circuit to power down, wherein the frequency synthesizer circuit comprises an accumulator for generating an accumulated value (V_acu) according to the channel number (Nc), and the frequency synthesizer circuit generates the radio-frequency clock signal (CK_RF) according to the reference clock signal (CK_REF) and the accumulated value (V_acu), and wherein the controller maintains the accumulated value (V_acu) of the accumulator when the portion of the frequency synthesizer circuit powers down.
Method for diagnosing blood coagulation abnormalities, comprising the following successive steps: a) placing a whole blood sample in a receptacle containing two pairs of electrodes connected to an apparatus generating an electric current; b) incubating this sample for 60 to 180 seconds in the presence of calcium; c) adding, to this sample, tissue factor in a concentration sufficient for triggering blood coagulation; d) measuring the variation in impedance between the electrodes as a function of time for a period of between 10 and 30 minutes starting from step (c) and generating a curve of the impedance values as a function of time; e) comparing the value of the area under the curve generated in step (d) with a value of an area under the reference curve. a) placing a whole blood sample in a receptacle containing two pairs of electrodes connected to an apparatus generating an electric current; b) incubating this sample for 60 to 180 seconds in the presence of calcium; c) adding, to this sample, tissue factor in a concentration sufficient for triggering blood coagulation; d) measuring the variation in impedance between the electrodes as a function of time for a period of between 10 and 30 minutes starting from step (c) and generating a curve of the impedance values as a function of time; e) comparing the value of the area under the curve generated in step (d) with a value of an area under the reference curve.
An organic-inorganic composite particle comprising: a) a primary composite particle comprising: i) an inorganic particle, and ii) a plurality of polymer particles attached to said inorganic particle; and b) a polymer layer encapsulating said primary composite particle. a) a primary composite particle comprising: i) an inorganic particle, and ii) a plurality of polymer particles attached to said inorganic particle; and i) an inorganic particle, and ii) a plurality of polymer particles attached to said inorganic particle; and b) a polymer layer encapsulating said primary composite particle.
A method of generating a multiplexed primary synchronization signal, the method comprising: - generating a Constant Amplitude Zero Auto-Correlation, CAZAC, sequence with a length of 36; - repeating the CAZAC sequence two times within one orthogonal frequency division multiplexing, OFDM, symbol of a time domain; - performing a Discrete Fourier Transformation, DFT, operation or Fast Fourier Transformation, FFT, operation on the CAZAC sequences; - circular shifting in a frequency domain the CAZAC sequences to avoid the DC subcarrier (S1704-2); - performing an Inverse Discrete Fourier Transformation, IDFT, operation for the circularly shifted CAZAC sequences or performing an Inverse Fast Fourier Transformation, IFFT, operation for the circularly shifted CAZAC sequences; - generating a primary synchronization signal consisting of the circular shifted CAZAC sequences on which the IDFT operation or the IFFT operation has been performed; - multiplexing the generated primary synchronization signal with a secondary synchronization signal by a Time Division Multiplexing, TDM, scheme in a specific time duration; and - transmitting the multiplexed primary synchronization signal. - generating a Constant Amplitude Zero Auto-Correlation, CAZAC, sequence with a length of 36; - repeating the CAZAC sequence two times within one orthogonal frequency division multiplexing, OFDM, symbol of a time domain; - performing a Discrete Fourier Transformation, DFT, operation or Fast Fourier Transformation, FFT, operation on the CAZAC sequences; - circular shifting in a frequency domain the CAZAC sequences to avoid the DC subcarrier (S1704-2); - performing an Inverse Discrete Fourier Transformation, IDFT, operation for the circularly shifted CAZAC sequences or performing an Inverse Fast Fourier Transformation, IFFT, operation for the circularly shifted CAZAC sequences; - generating a primary synchronization signal consisting of the circular shifted CAZAC sequences on which the IDFT operation or the IFFT operation has been performed; - multiplexing the generated primary synchronization signal with a secondary synchronization signal by a Time Division Multiplexing, TDM, scheme in a specific time duration; and - transmitting the multiplexed primary synchronization signal.
A gear motor (1, 1A) comprising: a speed reducer having a plurality of speed reducer casings (11g, 11h, 15d); and a motor including a motor casing (11f, 11e) and a stator core supported by the motor casing (11f, 11e); wherein the speed reducer and the motor are connected to each other and to a device-outside-mating member, and wherein, a connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) is provided through the plurality of speed reducer casings (11g, 11h, 15d) and the motor casing (11f, 11e); and the gear motor (1, 1A) comprising: a connection member that is inserted into the connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) and connects the speed reducer casings (11g, 11h, 15d) and the motor casing (11f, 11e), characterized in that an outer periphery of the connection member is in direct contact with the stator core of the motor and reaches the speed reducer casing, which is connected to the device-outside-mating member, among the speed reducer casings (11g, 11h, 15d), such that heat of the stator core is transferred to the device-outside-mating member through the connection member, and the connection member is configured to function as a heat exhaust path through which heat is transferred to the device-outside-mating member. a speed reducer having a plurality of speed reducer casings (11g, 11h, 15d); and a motor including a motor casing (11f, 11e) and a stator core supported by the motor casing (11f, 11e); wherein the speed reducer and the motor are connected to each other and to a device-outside-mating member, and wherein, a connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) is provided through the plurality of speed reducer casings (11g, 11h, 15d) and the motor casing (11f, 11e); and the gear motor (1, 1A) comprising: a connection member that is inserted into the connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) and connects the speed reducer casings (11g, 11h, 15d) and the motor casing (11f, 11e), characterized in that an outer periphery of the connection member is in direct contact with the stator core of the motor and reaches the speed reducer casing, which is connected to the device-outside-mating member, among the speed reducer casings (11g, 11h, 15d), such that heat of the stator core is transferred to the device-outside-mating member through the connection member, and the connection member is configured to function as a heat exhaust path through which heat is transferred to the device-outside-mating member. a connection member that is inserted into the connection hole (11d5, 11e4, 11f1, 15d1, 11g2, 11h5) and connects the speed reducer casings (11g, 11h, 15d) and the motor casing (11f, 11e), characterized in that an outer periphery of the connection member is in direct contact with the stator core of the motor and reaches the speed reducer casing, which is connected to the device-outside-mating member, among the speed reducer casings (11g, 11h, 15d), such that heat of the stator core is transferred to the device-outside-mating member through the connection member, and the connection member is configured to function as a heat exhaust path through which heat is transferred to the device-outside-mating member.
Front hood for a vehicle, comprising a latch bar which extends transversely to the vehicle longitudinal direction and comprises a latch element, the latch bar being connected to the front hood at at least two mutually spaced fastening points, characterized in that the latch bar comprises at least one predetermined breaking point.
A method for controlling a gain of a multi-stage equalizer of a serial data receiver, applied to the serial data receiver, the serial data receiver comprising the multi-stage equalizer, wherein the method comprises the step of: Step S1, enabling the serial data receiver to receive a set of serial data; and is characterized by the steps of: Step S2, selecting a plurality of continuous data sequences from the set of serial data according to a preset first rule, the preset first rule comprising setting a plurality of sequence length values for the set of serial data, selecting a sequence length value from the plurality of sequence length values according to a preset second rule; and selecting current continuous data sequences from the set of serial data according to the selected sequence length value, wherein data in the continuous data sequences comprises a plurality of consecutive values 0 and a plurality of consecutive values 1; Step S3, extracting a predetermined bit from each of the plurality of continuous data sequences; Step S4, calculating an equalization gain identifier corresponding to each of the plurality of continuous data sequences according to a predetermined bit in each of the plurality of continuous data sequences; Step S5, obtaining an optimized equalization gain identifier through calculation according to each of the equalization gain identifiers; and Step S6, controlling a gain value of the multi-stage equalizer according to the optimized equalization gain identifier. Step S2, selecting a plurality of continuous data sequences from the set of serial data according to a preset first rule, the preset first rule comprising setting a plurality of sequence length values for the set of serial data, selecting a sequence length value from the plurality of sequence length values according to a preset second rule; and selecting current continuous data sequences from the set of serial data according to the selected sequence length value, wherein data in the continuous data sequences comprises a plurality of consecutive values 0 and a plurality of consecutive values 1; Step S3, extracting a predetermined bit from each of the plurality of continuous data sequences; Step S4, calculating an equalization gain identifier corresponding to each of the plurality of continuous data sequences according to a predetermined bit in each of the plurality of continuous data sequences; Step S5, obtaining an optimized equalization gain identifier through calculation according to each of the equalization gain identifiers; and Step S6, controlling a gain value of the multi-stage equalizer according to the optimized equalization gain identifier.
A method for use in a Universal Mobile Telecommunications System, UMTS, user equipment for establishing a circuit switched call, the user equipment being in a Cell Forward Access Channel, CELL_FACH, state, a Cell Paging Channel, CELL_PCH, state or a UTRAN Registration Area Paging Channel, URA_PCH, state, the method comprising: receiving (220, 222, 312, 412, 620, 622, 712, 812, 920, 922, 1012, 1112) an indication from a network element that a circuit switched call is pending; determining that the network element does not support fast transition to a CELL_DCH state 122; in response to the indication and to the determination that the network element does not support fast transition to the CELL_DCH state 122; tearing down a Radio Resource Controller, RRC, connection; sending (224, 230, 320, 414, 440, 630, 720, 930, 1020, 1140) to the network element a radio resource control connection request, RRCConnectionRequest, message (930, 1020, 1140) to facilitate the user equipment to transition to a Cell Dedicated Channel, CELL_DCH, state, the message including an indication that the circuit switched call is pending; and receiving a confirmation that the user equipment is transitioned to CELL_DCH state; and in response to receiving the confirmation, establishing (240, 340, 420, 450, 640, 740, 850, 940, 1040, 1150) the circuit switched call. receiving (220, 222, 312, 412, 620, 622, 712, 812, 920, 922, 1012, 1112) an indication from a network element that a circuit switched call is pending; determining that the network element does not support fast transition to a CELL_DCH state 122; in response to the indication and to the determination that the network element does not support fast transition to the CELL_DCH state 122; tearing down a Radio Resource Controller, RRC, connection; sending (224, 230, 320, 414, 440, 630, 720, 930, 1020, 1140) to the network element a radio resource control connection request, RRCConnectionRequest, message (930, 1020, 1140) to facilitate the user equipment to transition to a Cell Dedicated Channel, CELL_DCH, state, the message including an indication that the circuit switched call is pending; and receiving a confirmation that the user equipment is transitioned to CELL_DCH state; and in response to receiving the confirmation, establishing (240, 340, 420, 450, 640, 740, 850, 940, 1040, 1150) the circuit switched call. tearing down a Radio Resource Controller, RRC, connection; sending (224, 230, 320, 414, 440, 630, 720, 930, 1020, 1140) to the network element a radio resource control connection request, RRCConnectionRequest, message (930, 1020, 1140) to facilitate the user equipment to transition to a Cell Dedicated Channel, CELL_DCH, state, the message including an indication that the circuit switched call is pending; and receiving a confirmation that the user equipment is transitioned to CELL_DCH state; and in response to receiving the confirmation, establishing (240, 340, 420, 450, 640, 740, 850, 940, 1040, 1150) the circuit switched call.
A last (1, 101) for obtaining a shell of a boot provided with a rigid sole and, in the toe region, at least one metal plate (5a, 5b), characterized in that it comprises a main body with which an insert (11, 111) is slideably associated, at said toe region, and can slide with respect to said main body along a plane that is inclined by a different angle to the normal angle of extraction of said last (1, 101) from said shell, at least two bevel-free first pins (17a, 17b) protruding downward from said insert (11, 111) and interacting selectively with said at least one metal plate (5a, 5b).