mhurhangee/ep-ind-claims huggingface dataset:
An information transmission method, comprising: receiving, by a terminal device, first resource indication information, wherein the first resource indication information is used to indicate a first time domain resource, the first time domain resource at least partially overlaps a second time domain resource, and the second time domain resource is used to carry a first uplink signal, and the first resource indication information indicates that at least a part of the second time domain resource is occupied by a second uplink signal, wherein the first uplink signal is periodic channel state information, CSI, or a periodic random access signal; detecting, by the terminal device, first indication information, wherein the first indication information is used to indicate a transmission attribute of the first time domain resource, and the first indication information comprises slot format information; and in response to the slot format information being detected successfully and the slot format information indicating that the transmission direction of the first time domain resource is an uplink transmission direction, sending, by the terminal device, the first uplink signal; or in response to failing to detect the slot format information, sending, by the terminal device, the first uplink signal. receiving, by a terminal device, first resource indication information, wherein the first resource indication information is used to indicate a first time domain resource, the first time domain resource at least partially overlaps a second time domain resource, and the second time domain resource is used to carry a first uplink signal, and the first resource indication information indicates that at least a part of the second time domain resource is occupied by a second uplink signal, wherein the first uplink signal is periodic channel state information, CSI, or a periodic random access signal; detecting, by the terminal device, first indication information, wherein the first indication information is used to indicate a transmission attribute of the first time domain resource, and the first indication information comprises slot format information; and in response to the slot format information being detected successfully and the slot format information indicating that the transmission direction of the first time domain resource is an uplink transmission direction, sending, by the terminal device, the first uplink signal; or in response to failing to detect the slot format information, sending, by the terminal device, the first uplink signal.
A process for recovering valuable metals from spent lithium ion batteries comprising cobalt, comprising the steps of: a) shredding the lithium ion batteries into particles of a preferable size, in water, with water level well above the level of the batteries being shredded to obtain a slurry and shredded plastic and Teflon matrix; b) removing the plastic and Teflon matrix that floats on the water in step a); c) wet screening the slurry obtained in step a) through a sieve of at least fifty mesh size to separate particles of varying sizes; wherein coarser particles containing copper, aluminum and protection circuit modules form screened slurry containing solids are retained by the sieve and collected, and finer particles containing lithium and cobalt are aggregated; d) filtering the lithium and cobalt containing aggregate of step c) through a filter press to obtain a wash liquor containing lithium and a residue containing cobalt, metal impurities and organic matrix; e) drying the residue of step d) and roasting the dried residue at 900 °C to obtain cobalt oxide; f) washing and filtering the cobalt oxide of step e) with dilute acid solution at pH range 2.0 to 3.0 to obtain pure cobalt oxide and filtrate; g) treating the wash liquor of step d) with saturated solution of soda ash at pH range 11 to 11.5 and temperature ranging from 80 to 120 °C for 3-6 hours to obtain lithium carbonate precipitate and supernatant. a) shredding the lithium ion batteries into particles of a preferable size, in water, with water level well above the level of the batteries being shredded to obtain a slurry and shredded plastic and Teflon matrix; b) removing the plastic and Teflon matrix that floats on the water in step a); c) wet screening the slurry obtained in step a) through a sieve of at least fifty mesh size to separate particles of varying sizes; wherein coarser particles containing copper, aluminum and protection circuit modules form screened slurry containing solids are retained by the sieve and collected, and finer particles containing lithium and cobalt are aggregated; d) filtering the lithium and cobalt containing aggregate of step c) through a filter press to obtain a wash liquor containing lithium and a residue containing cobalt, metal impurities and organic matrix; e) drying the residue of step d) and roasting the dried residue at 900 °C to obtain cobalt oxide; f) washing and filtering the cobalt oxide of step e) with dilute acid solution at pH range 2.0 to 3.0 to obtain pure cobalt oxide and filtrate; g) treating the wash liquor of step d) with saturated solution of soda ash at pH range 11 to 11.5 and temperature ranging from 80 to 120 °C for 3-6 hours to obtain lithium carbonate precipitate and supernatant.
Method for producing a micromechanical solid electrolyte sensor device, comprising the following steps: a) providing a micromechanical carrier substrate having a front side and a rear side; b) applying a layer construction on the front side, wherein the layer construction has a first porous electrode, a second porous electrode and a solid electrolyte embedded between the first porous electrode and the second porous electrode, in such a way that the first porous electrode and the second porous electrode are contactable from the front side; and c) introducing a continuous cavity into the carrier substrate, such that the cavity defines at least one membrane region of a membrane formed by the layer construction, d) introducing an opening for a plated-through hole into the solid electrolyte; e) forming a plated-through hole through the opening by means of a rear electrode contact being electrically linked to the first electrode layer through the opening; f) wherein, after carrying out method step c), the first electrode layer is removed in the membrane region at least partly through the cavity and is replaced wholly or partly by at least one porous electrode material. a) providing a micromechanical carrier substrate having a front side and a rear side; b) applying a layer construction on the front side, wherein the layer construction has a first porous electrode, a second porous electrode and a solid electrolyte embedded between the first porous electrode and the second porous electrode, in such a way that the first porous electrode and the second porous electrode are contactable from the front side; and c) introducing a continuous cavity into the carrier substrate, such that the cavity defines at least one membrane region of a membrane formed by the layer construction, d) introducing an opening for a plated-through hole into the solid electrolyte; e) forming a plated-through hole through the opening by means of a rear electrode contact being electrically linked to the first electrode layer through the opening; f) wherein, after carrying out method step c), the first electrode layer is removed in the membrane region at least partly through the cavity and is replaced wholly or partly by at least one porous electrode material.
Method for heating and shaping thermoplastic plates, wherein said thermoplastic plates are heated by means of thermal conduction in a heating apparatus that comprises a first surface contacting tool and a second surface contacting tool that is spaced from said first surface contacting tool, wherein the first surface contacting tool and/or the second surface contacting tool can be heated, said method having the steps: a) placing the thermoplastic plate into the heating device between the two surface contacting tools (10, 12), wherein an auxiliary sheet (3, 4) is placed or is to be placed between the contacting surface of the respective heatable surface contacting tool (10, 12) and the surface of the thermoplastic plate that is facing said respective heatable surface contacting tool, b) reducing the spacing (d) between the two surface contacting tools (10, 12) to a predetermined gap size, c) heating the heatable surface contacting tool or the heatable surface contacting tools, wherein the melting temperature of the auxiliary sheet (3, 4) is higher than the melting temperature of the thermoplastic plate, said melting temperature of the auxiliary sheet being higher than the melting temperature of the thermoplastic plate to the extent that the auxiliary sheet (3, 4) adheres to the thermoplastic plate but does not remain adhered to the allocated surface contacting tool (10, 12), and d) subjecting the thermoplastic plate to a shaping procedure in a shaping tool immediately after heating the thermoplastic plate by means of steps a), b) and c), wherein during the shaping procedure, the thermoplastic plate deforms in a plastic manner and the auxiliary sheet (3, 4) facilitates the material that is to be shaped sliding along a forming surface of the shaping tool. a) placing the thermoplastic plate into the heating device between the two surface contacting tools (10, 12), wherein an auxiliary sheet (3, 4) is placed or is to be placed between the contacting surface of the respective heatable surface contacting tool (10, 12) and the surface of the thermoplastic plate that is facing said respective heatable surface contacting tool, b) reducing the spacing (d) between the two surface contacting tools (10, 12) to a predetermined gap size, c) heating the heatable surface contacting tool or the heatable surface contacting tools, wherein the melting temperature of the auxiliary sheet (3, 4) is higher than the melting temperature of the thermoplastic plate, said melting temperature of the auxiliary sheet being higher than the melting temperature of the thermoplastic plate to the extent that the auxiliary sheet (3, 4) adheres to the thermoplastic plate but does not remain adhered to the allocated surface contacting tool (10, 12), and d) subjecting the thermoplastic plate to a shaping procedure in a shaping tool immediately after heating the thermoplastic plate by means of steps a), b) and c), wherein during the shaping procedure, the thermoplastic plate deforms in a plastic manner and the auxiliary sheet (3, 4) facilitates the material that is to be shaped sliding along a forming surface of the shaping tool.
A method for automatically sending a multimedia file, the method comprising: activating, a function of automatically sending the multimedia file; obtaining a voice feature of each object in the multimedia file; wherein obtaining the voice feature of each object in the multimedia file comprises: dividing the multimedia file into segments in a time domain, and converting a time domain signal corresponding to a voice in each segment of the multimedia file into a respective frequency domain signal; obtaining a corresponding voice feature from the frequency domain signal of the voice; identifying the obtained voice feature of each object by an index and storing the voice feature identified by the index; and upon completion of a voice feature analysis, outputting a sequence array formed by indexes of voice features of all objects; searching for a match between the obtained voice feature of each object in the multimedia file and a voice feature of each contact in a voice parameter database; and when a match is found, automatically sending the multimedia file to a matching contact in a data service manner when a data service of a mobile terminal is activated; or automatically sending the multimedia file to the matching contact in a messaging manner when a data service of a mobile terminal is not activated. activating, a function of automatically sending the multimedia file; obtaining a voice feature of each object in the multimedia file; wherein obtaining the voice feature of each object in the multimedia file comprises: dividing the multimedia file into segments in a time domain, and converting a time domain signal corresponding to a voice in each segment of the multimedia file into a respective frequency domain signal; obtaining a corresponding voice feature from the frequency domain signal of the voice; identifying the obtained voice feature of each object by an index and storing the voice feature identified by the index; and upon completion of a voice feature analysis, outputting a sequence array formed by indexes of voice features of all objects; dividing the multimedia file into segments in a time domain, and converting a time domain signal corresponding to a voice in each segment of the multimedia file into a respective frequency domain signal; obtaining a corresponding voice feature from the frequency domain signal of the voice; identifying the obtained voice feature of each object by an index and storing the voice feature identified by the index; and upon completion of a voice feature analysis, outputting a sequence array formed by indexes of voice features of all objects; searching for a match between the obtained voice feature of each object in the multimedia file and a voice feature of each contact in a voice parameter database; and when a match is found, automatically sending the multimedia file to a matching contact in a data service manner when a data service of a mobile terminal is activated; or automatically sending the multimedia file to the matching contact in a messaging manner when a data service of a mobile terminal is not activated.
An integrated circuit comprising: a timing circuit to provide a plurality of delayed data signals, during a time interval used to transfer a signal representing a bit of information, in response to a clock signal; and a first adjustable impedance circuit including, a first select circuit (311, 321) to provide a first delayed data signal from the plurality of delayed data signals in response to a first signal indicating a selection of the first delayed data signal, the first select circuit (311, 321) adjusts the polarity of the first delayed data signal in response to a second signal indicating a selection of the polarity, and a driver circuit (313, 323) to provide an adjustable impedance in response to a third signal indicating a first impedance value so that the first delayed data signal is adjusted at an output. a timing circuit to provide a plurality of delayed data signals, during a time interval used to transfer a signal representing a bit of information, in response to a clock signal; and a first adjustable impedance circuit including, a first select circuit (311, 321) to provide a first delayed data signal from the plurality of delayed data signals in response to a first signal indicating a selection of the first delayed data signal, the first select circuit (311, 321) adjusts the polarity of the first delayed data signal in response to a second signal indicating a selection of the polarity, and a driver circuit (313, 323) to provide an adjustable impedance in response to a third signal indicating a first impedance value so that the first delayed data signal is adjusted at an output.
Cooling module for an electric or hybrid motor vehicle, said cooling module being intended to have an airflow passing through it and comprising: - a fairing forming an internal channel through which the airflow passes between an upstream end and a downstream end opposite each other, said fairing comprising at least one heat exchanger (24, 26, 28, 29), - a first collector housing arranged downstream of the fairing in a longitudinal direction of the cooling module from the front to the rear of said cooling module, said first collector housing comprising a guide wall facing the heat exchanger downstream of the fairing, said guide wall being intended to guide the airflow towards a tangential turbomachine configured so as to generate said airflow, said tangential turbomachine comprising a volute comprising an outlet for the airflow, characterized in that it comprises at least one deflector grille arranged at the outlet of the volute, said deflector grille extending an outer edge of the outlet and extending on an inclined plane oriented towards the guide wall, said deflector grille comprising a series of superimposed blades each extending along a transverse axis perpendicular to the longitudinal direction of the cooling module, said blades being rotatable about their transverse axis between a closed position and an open position. - a fairing forming an internal channel through which the airflow passes between an upstream end and a downstream end opposite each other, said fairing comprising at least one heat exchanger (24, 26, 28, 29), - a first collector housing arranged downstream of the fairing in a longitudinal direction of the cooling module from the front to the rear of said cooling module, said first collector housing comprising a guide wall facing the heat exchanger downstream of the fairing, said guide wall being intended to guide the airflow towards a tangential turbomachine configured so as to generate said airflow, said tangential turbomachine comprising a volute comprising an outlet for the airflow,
A power generation system with closed loop voltage control of an output voltage of said power generation system to a voltage set point, comprising: a modulation monitor and control unit (MMCU 20) including a monitor configured to monitor a voltage output to loads on a power grid, the power grid having a plurality of connections including unused connections to which a load is not connected and used connections to which a load is connected; a (31, 32, 33) configured to detect a voltage modulation about the mean of said voltage set point on the power grid; and a controller configured to receive signals from the detector and to control connections to the power grid by outputting a disable signal to cause disabling of power to the unused connections in accordance with the detected voltage modulation exceeding a first threshold and disabling power to the used connections in accordance with the detected voltage modulation exceeding a second threshold, the used connections being disabled one at a time at a first time interval each for a period given by a second time interval, and outputting a reenable signal to cause restoration of power to the used connections and to the unused connections in accordance with the detected voltage modulation being less than a third threshold. a modulation monitor and control unit (MMCU 20) including a monitor configured to monitor a voltage output to loads on a power grid, the power grid having a plurality of connections including unused connections to which a load is not connected and used connections to which a load is connected; a (31, 32, 33) configured to detect a voltage modulation about the mean of said voltage set point on the power grid; and a controller configured to receive signals from the detector and to control connections to the power grid by outputting a disable signal to cause disabling of power to the unused connections in accordance with the detected voltage modulation exceeding a first threshold and disabling power to the used connections in accordance with the detected voltage modulation exceeding a second threshold, the used connections being disabled one at a time at a first time interval each for a period given by a second time interval, and outputting a reenable signal to cause restoration of power to the used connections and to the unused connections in accordance with the detected voltage modulation being less than a third threshold.
A computer implemented method for updating and refining the X, Y positions of an ocean bottom node for use in creating a seismic survey through the use of data that has been sensed and collected by the node after emission from an energy shot source and in regard to energy intensity and energy arrival time at the node, comprising the steps of: a) conditioning the data retrieved from the node; b) performing a position estimation routine on the conditioned data, comprising computing the standard deviation of a traveltime error of all traces within a first predetermined distance of a model node position; c) performing a position estimation sub-routine on the conditioned data to determine a refined position of the node, comprising comparing the computed standard deviation of the model node position with a computed, new standard deviation of a current node position, and if the new standard deviation is lower, then assigning it as the new best standard deviation and the current position as the new best position, but if the new standard deviation is greater than the previous best then not changing the best position and standard deviation; d) performing a post-position processing of the data; and e) outputting the data. a) conditioning the data retrieved from the node; b) performing a position estimation routine on the conditioned data, comprising computing the standard deviation of a traveltime error of all traces within a first predetermined distance of a model node position; c) performing a position estimation sub-routine on the conditioned data to determine a refined position of the node, comprising comparing the computed standard deviation of the model node position with a computed, new standard deviation of a current node position, and if the new standard deviation is lower, then assigning it as the new best standard deviation and the current position as the new best position, but if the new standard deviation is greater than the previous best then not changing the best position and standard deviation; d) performing a post-position processing of the data; and e) outputting the data.
A vapor compression system, comprising: - a first conduit fluidly coupling a liquid collection portion of a condenser and an evaporator, wherein the first conduit is configured to direct a first flow of refrigerant from the condenser to a first inlet of the evaporator; and - a second conduit fluidly coupling the liquid collection portion of the condenser and the evaporator, wherein the second conduit is configured to direct a second flow of refrigerant from the condenser to a second inlet of the evaporator via gravitational force, and wherein the first inlet is disposed above the second inlet relative to a vertical dimension of the evaporator. - a first conduit fluidly coupling a liquid collection portion of a condenser and an evaporator, wherein the first conduit is configured to direct a first flow of refrigerant from the condenser to a first inlet of the evaporator; and - a second conduit fluidly coupling the liquid collection portion of the condenser and the evaporator,