mhurhangee/ep-ind-claims huggingface dataset:
A motor vehicle, preferably commercial vehicle, with a hybrid drive unit which is connected to a traction energy network of the motor vehicle; an external interface device which has a bidirectional data interface for data exchange with an external apparatus and a high-voltage interface for the exchange of electrical energy with the external apparatus, wherein the high-voltage interface is connected to the traction energy network of the motor vehicle; and a control device which is configured to receive identification data and/or operating data from the external apparatus via a data interface, which identify an electrical energy storage unit and/or an electrically operated drive unit of the external apparatus, wherein the control device is further configured, depending on the received identification data and/or operating data, both to control an energy transmission via the high-voltage interface and to determine control data for the external apparatus and to send the control data to the external apparatus via the data interface, and wherein a) the control device is further configured to receive identification data and/or operating data of an in-vehicle electrical energy storage unit and/or of the hybrid drive unit of the vehicle; and b) depending on the received identification data and/or operating data both of the vehicle and of the external apparatus, to determine operating specifications for all available drive units (11, 15) of the motor vehicle and of the external apparatus and to transmit the operating specifications as control data to the available drive units (11, 15) of the motor vehicle and of the external apparatus; characterized in that the control device is further configured to incorporate the electrical energy storage unit identified by means of the received identification data and/or operating data and/or the electric drive unit of the external apparatus identified by means of the received identification data and/or operating data as a further energy subsystem in addition to the in-vehicle energy subsystems into a total energy management performed by the control device, if the control device detects, by means of the received identification data and/or operating data, that an external apparatus is connected to the external interface device. a) the control device is further configured to receive identification data and/or operating data of an in-vehicle electrical energy storage unit and/or of the hybrid drive unit of the vehicle; and b) depending on the received identification data and/or operating data both of the vehicle and of the external apparatus, to determine operating specifications for all available drive units (11, 15) of the motor vehicle and of the external apparatus and to transmit the operating specifications as control data to the available drive units (11, 15) of the motor vehicle and of the external apparatus;
A method for visually presenting data associated with a process plant, the method comprising: gathering a plurality of statistical process monitoring, SPM, parameters generated by a plurality of SPM blocks in a plurality of devices in the process plant, wherein each of the SPM blocks collects data in a respective device, and performs a statistical calculation on the data to determine the SPM parameters of the data; determining a correlation matrix for a set of more than two SPM parameters, wherein each element in the correlation matrix defines a correlation coefficient between a different set of two of the SPM parameters; and displaying the correlation matrix. gathering a plurality of statistical process monitoring, SPM, parameters generated by a plurality of SPM blocks in a plurality of devices in the process plant, wherein each of the SPM blocks collects data in a respective device, and performs a statistical calculation on the data to determine the SPM parameters of the data; determining a correlation matrix for a set of more than two SPM parameters, wherein each element in the correlation matrix defines a correlation coefficient between a different set of two of the SPM parameters; and displaying the correlation matrix.
A method of providing voltage protection from a voltage recovery system to a load connected to a distribution network of a utility power network, the method comprising the following steps: a) selecting a voltage protection characteristic required by the load; b) determining a fault current capability characteristic of the distribution network; c) calculating a maximum voltage improvement characteristic that a voltage recovery system can provide based at least in part on the fault current capability characteristic; d) comparing the voltage protection characteristic with the maximum voltage improvement characteristic to determine whether the voltage recovery system is capable of providing the required voltage protection characteristic; e) if the voltage protection characteristic is greater than the maximum voltage improvement characteristic, determining, from the fault current capability characteristic and the maximum voltage improvement characteristic, a line impedance value to be added to the distribution network; and f1) electrically connecting within the distribution network an electrical component having the line impedance value; f2) electrically connecting the voltage recovery system to the distribution network between the electrical component and the utility power network; and g) operating the voltage recovery device to transfer only reactive power to the distribution network; a) selecting a voltage protection characteristic required by the load; b) determining a fault current capability characteristic of the distribution network; c) calculating a maximum voltage improvement characteristic that a voltage recovery system can provide based at least in part on the fault current capability characteristic; d) comparing the voltage protection characteristic with the maximum voltage improvement characteristic to determine whether the voltage recovery system is capable of providing the required voltage protection characteristic; e) if the voltage protection characteristic is greater than the maximum voltage improvement characteristic, determining, from the fault current capability characteristic and the maximum voltage improvement characteristic, a line impedance value to be added to the distribution network; and f1) electrically connecting within the distribution network an electrical component having the line impedance value; f2) electrically connecting the voltage recovery system to the distribution network between the electrical component and the utility power network; and g) operating the voltage recovery device to transfer only reactive power to the distribution network;
A high tensile strength steel wire being in a work-hardened state, the steel composition consisting of: a carbon content ranging from 0.20 weight percent to 1.00 weight percent, a silicon content ranging from 0.05 weight percent to 2.0 weight percent, a manganese content ranging from 0.40 weight percent to 1.0 weight percent, a chromium content ranging from 0.0 weight percent to 1.0 weight percent, a sulfur and phosphor content being individually limited to 0.05 weight percent, contents of nickel, vanadium, aluminum, copper or other micro-alloying elements all being individually limited to 0.5 weight percent, the remainder being iron, said steel wire having martensitic structure, wherein at least 10 volume percent of martensite are oriented. a carbon content ranging from 0.20 weight percent to 1.00 weight percent, a silicon content ranging from 0.05 weight percent to 2.0 weight percent, a manganese content ranging from 0.40 weight percent to 1.0 weight percent, a chromium content ranging from 0.0 weight percent to 1.0 weight percent, a sulfur and phosphor content being individually limited to 0.05 weight percent, contents of nickel, vanadium, aluminum, copper or other micro-alloying elements all being individually limited to 0.5 weight percent, the remainder being iron, said steel wire having martensitic structure, wherein at least 10 volume percent of martensite are oriented.
A fan blade for a gas turbine engine comprising: an airfoil connected to a root; the airfoil including a pressure side and a suction side; at least one through hole extending through the root to at least one cavity, wherein the root includes an inner face disposed between and connected to a pair of pressure faces (47; 48) that extend from the inner face to the airfoil; and characterized in that: the suction side includes the at least one cavity; the at least one through hole extends from the inner face of the root to the at least one cavity; and the at least one through hole is plugged with a plug at the inner face. an airfoil connected to a root; the airfoil including a pressure side and a suction side; at least one through hole extending through the root to at least one cavity, wherein the root includes an inner face disposed between and connected to a pair of pressure faces (47; 48) that extend from the inner face to the airfoil; and characterized in that: the suction side includes the at least one cavity; the at least one through hole extends from the inner face of the root to the at least one cavity; and the at least one through hole is plugged with a plug at the inner face. the suction side includes the at least one cavity; the at least one through hole extends from the inner face of the root to the at least one cavity; and the at least one through hole is plugged with a plug at the inner face.
A battery module, comprising: - a housing comprising a first absorptive material configured to absorb a laser emission; - a plurality of electrochemical cells disposed in a receptacle region of the housing; - a cover (52, 54) comprising a second absorptive material configured to absorb the laser emission; and - a collar coupled to the housing and coupled to the cover (52, 54) via a laser weld, wherein the laser weld is configured to form a substantially water-tight seal between the housing and the cover (52, 54), wherein the collar comprises a transparent material configured to transmit the laser emission through the collar and toward the housing or the cover (52, 54), wherein the transparent material of the collar is more transmissive than the first absorptive material of the housing and the second absorptive material of the cover (52, 54); and wherein the collar comprises a stepped geometry such that the collar directly contacts the housing and the cover (52, 54). - a housing comprising a first absorptive material configured to absorb a laser emission; - a plurality of electrochemical cells disposed in a receptacle region of the housing; - a cover (52, 54) comprising a second absorptive material configured to absorb the laser emission; and - a collar coupled to the housing and coupled to the cover (52, 54) via a laser weld, wherein the laser weld is configured to form a substantially water-tight seal between the housing and the cover (52, 54), wherein the collar comprises a transparent material configured to transmit the laser emission through the collar and toward the housing or the cover (52, 54),
A method for handling a queued automatic call distributor call, comprising: receiving at an intermediary device a call from an endpoint of a caller over a first connection between the caller and the intermediary device, the call comprising a request for service; connecting, by the intermediary device, the call to an automatic call distributor through a second connection between the intermediary device and the automatic call distributor; determining, by the intermediary device, that the call is queued in a queue at the automatic call distributor; terminating the first connection between the intermediary device and the caller while the intermediary device maintains the second connection to hold a place in the queue for the caller; monitoring, by the intermediary device, the second connection with the automatic call distributor until receipt of an indicator at the intermediary device to reestablish a connection between the caller and the automatic call distributor; and reestablishing, by the intermediary device, the connection between the caller and the automatic call distributor, wherein the indicator comprises one of: a signal over the second connection indicating a transfer of a call to an agent; predefined speech received over the second connection indicating an answering of a call; termination of hold music over the second connection; receiving from the endpoint of the caller a request for connection. receiving at an intermediary device a call from an endpoint of a caller over a first connection between the caller and the intermediary device, the call comprising a request for service; connecting, by the intermediary device, the call to an automatic call distributor through a second connection between the intermediary device and the automatic call distributor; determining, by the intermediary device, that the call is queued in a queue at the automatic call distributor; terminating the first connection between the intermediary device and the caller while the intermediary device maintains the second connection to hold a place in the queue for the caller; monitoring, by the intermediary device, the second connection with the automatic call distributor until receipt of an indicator at the intermediary device to reestablish a connection between the caller and the automatic call distributor; and reestablishing, by the intermediary device, the connection between the caller and the automatic call distributor, wherein the indicator comprises one of: a signal over the second connection indicating a transfer of a call to an agent; predefined speech received over the second connection indicating an answering of a call; termination of hold music over the second connection; receiving from the endpoint of the caller a request for connection. a signal over the second connection indicating a transfer of a call to an agent; predefined speech received over the second connection indicating an answering of a call; termination of hold music over the second connection; receiving from the endpoint of the caller a request for connection.
An anode active material comprising: a crystalline phase comprising Si and a Si-metal alloy; and an amorphous phase comprising Si and a Si-metal alloy, wherein the metal of the Si-metal alloy of the crystalline phase is the same as or different from the metal of the Si-metal alloy of the amorphous phase, and wherein the amorphous phase is included in an amount more than 30 wt%. a crystalline phase comprising Si and a Si-metal alloy; and an amorphous phase comprising Si and a Si-metal alloy, wherein the metal of the Si-metal alloy of the crystalline phase is the same as or different from the metal of the Si-metal alloy of the amorphous phase, and wherein the amorphous phase is included in an amount more than 30 wt%.
A slide chair for a rail switch, comprising a base plate, by means of which the slide chair is fixed or can be fixed; a slide chair plate, which is fixedly connected to the base plate; characterised in that a hot fluid duct channel is formed in the base plate.
A process for the preparation of a zeolitic material having a CHA-type framework structure comprising SiO 2 and Al 2 O 3, wherein said process comprises the steps of: providing a mixture comprising one or more sources for SiO 2, one or more sources for Al 2 O 3, one or more tetramethylammonium compounds, and one or more N, N, N -trimethyl-cyclohexylammonium compounds as structure directing agent; crystallizing the mixture obtained in step for obtaining a zeolitic material having a CHA-type framework structure; wherein the molar ratio of tetramethylammonium compounds to N, N, N -trimethylcyclohexylammonium compounds is comprised in the range from 0.45 to 0.65. providing a mixture comprising one or more sources for SiO 2, one or more sources for Al 2 O 3, one or more tetramethylammonium compounds, and one or more N, N, N -trimethyl-cyclohexylammonium compounds as structure directing agent; crystallizing the mixture obtained in step for obtaining a zeolitic material having a CHA-type framework structure;
Infusion system having: an unpressurised reservoir which has an elastic region or is formed completely of an elastic material; a dosing device having a rotatable and/or movable dosing unit (2,3) having a volume which can be changed in intermediate steps or gradually and having one single supply and discharge port, through which the changeable volume of the dosing unit (2,3) can be filled with a substance from the reservoir and a substance contained in the changeable volume can be discharged; and at least one motor which can rotate or move the dosing unit (2, 3) or a sealing element and can act on a piston which is located in the dosing unit (2, 3) and can move this, and having a supply line and a discharge line which can be connected by rotating or moving the dosing unit or the sealing element alternately or alternatingly to the supply and discharge port of the dosing unit (2, 3). an unpressurised reservoir which has an elastic region or is formed completely of an elastic material; a dosing device having a rotatable and/or movable dosing unit (2,3) having a volume which can be changed in intermediate steps or gradually and having one single supply and discharge port, through which the changeable volume of the dosing unit (2,3) can be filled with a substance from the reservoir and a substance contained in the changeable volume can be discharged; and at least one motor which can rotate or move the dosing unit (2, 3) or a sealing element and can act on a piston which is located in the dosing unit (2, 3) and can move this, and having a supply line and a discharge line which can be connected by rotating or moving the dosing unit or the sealing element alternately or alternatingly to the supply and discharge port of the dosing unit (2, 3).
A system configured to treat a medical condition in a subject by transcutaneously delivering electrical nerve stimulation to the subject to stimulate a first target nerve, the system characterised by comprising: a first electrode, wherein the first electrode is configured for placement on a non-glabrous skin surface located at a first ankle of the subject proximate a first medial malleolus and at least partly overlying a first flexor retinaculum, wherein the first electrode is a cathode, and wherein the first electrode has a skin-contacting surface having an area of from 0.75 mm 2 to 2000 mm 2; a second electrode, wherein the second electrode is configured for placement on a surface of non-glabrous or glabrous skin (160, 162), wherein the second electrode is an anode; and an electronic control system coupled to the first electrode and the second electrode, wherein the electronic control system is configured to transcutaneously deliver a first electrical nerve stimulation to the first target nerve via the first electrode and the second electrode. a first electrode, wherein the first electrode is configured for placement on a non-glabrous skin surface located at a first ankle of the subject proximate a first medial malleolus and at least partly overlying a first flexor retinaculum, wherein the first electrode is a cathode, and wherein the first electrode has a skin-contacting surface having an area of from 0.75 mm 2 to 2000 mm 2; a second electrode, wherein the second electrode is configured for placement on a surface of non-glabrous or glabrous skin (160, 162), wherein the second electrode is an anode; and an electronic control system coupled to the first electrode and the second electrode, wherein the electronic control system is configured to transcutaneously deliver a first electrical nerve stimulation to the first target nerve via the first electrode and the second electrode.
Method for a semi-automated or automatic control of a vehicle during startup, comprising: - receiving a driving intention message from another vehicle, which message displays information about a planned startup time of the other vehicle, determining whether the other vehicle is located directly in front of the vehicle, - receiving a traffic signal message from a traffic signal system, and - determining a parameter for the semi-automated or automatic control of the vehicle at least on the basis of the driving intention message received by the other vehicle if it has been determined that the other vehicle is located directly in front of the vehicle, and on the basis of the traffic signal message received by the traffic signal system, which message comprises: - time information about a traffic signal phase of the traffic signal system, and/or - location information relating to a location of the traffic signal system, and/or - topology information relating to an intersection. - receiving a driving intention message from another vehicle, which message displays information about a planned startup time of the other vehicle, determining whether the other vehicle is located directly in front of the vehicle, - receiving a traffic signal message from a traffic signal system, and - determining a parameter for the semi-automated or automatic control of the vehicle at least on the basis of the driving intention message received by the other vehicle if it has been determined that the other vehicle is located directly in front of the vehicle, and on the basis of the traffic signal message received by the traffic signal system, which message comprises: - time information about a traffic signal phase of the traffic signal system, and/or - location information relating to a location of the traffic signal system, and/or - topology information relating to an intersection.