mhurhangee/ep-ind-claims huggingface dataset:
A method for traditional fixed network users accessing an Internet Protocol Multimedia Subsystem, IMS, domain, comprising the following steps: step 1: classifying fixed network users in a same region into a group, and configuring group information (S-CSCF, PUI, IFC) in an access gateway control function (AGCF), wherein the group information comprises: information of the service call session control function (S-CSCF) to which a group belongs, a uniform public user identity of group users, information of group users in the group and initial filter criteria information of group users; step 2: when an access gateway initiates fixed network user registration to the access gateway control function (AGCF), analyzing whether the fixed network users belong to the group in configured group information by the access gateway control function (AGCF), if so, sending a session initiation protocol signalling which carries a group user uniform public user identity of the group to an interrogating call session control function (I-CSCF); step 3: interrogating to a home subscriber server about a service call session control function (S-CSCF) to which the group belongs by the interrogating call session control function (I-CSCF), and registering the group to the service call session control function (S-CSCF), step 1: classifying fixed network users in a same region into a group, and configuring group information (S-CSCF, PUI, IFC) in an access gateway control function (AGCF), wherein the group information comprises: information of the service call session control function (S-CSCF) to which a group belongs, a uniform public user identity of group users, information of group users in the group and initial filter criteria information of group users; step 2: when an access gateway initiates fixed network user registration to the access gateway control function (AGCF), analyzing whether the fixed network users belong to the group in configured group information by the access gateway control function (AGCF), if so, sending a session initiation protocol signalling which carries a group user uniform public user identity of the group to an interrogating call session control function (I-CSCF); step 3: interrogating to a home subscriber server about a service call session control function (S-CSCF) to which the group belongs by the interrogating call session control function (I-CSCF), and registering the group to the service call session control function (S-CSCF),
A steam sterilization refrigerator, comprising: a refrigerator body having a refrigerating compartment and a compressor chamber therein; a door body disposed to the refrigerator body; and a steam generator (10,106) disposed to at least one of the refrigerator body and the door body, the steam generator having a steam outlet, the steam outlet being in direct communication with the refrigerating compartment or in indirect communication with the refrigerating compartment via a steam conveying channel; characterized in that: the steam generator is disposed in the compressor chamber, a first side of the steam generator is provided with an inserting part connected to the refrigerator body in an inserting manner, a second side of the steam generator opposite to the first side is provided with a connecting part, and the connecting part is connected to the refrigerator body; wherein the steam generator is disposed to one of an upper surface, a left surface, a right surface and a rear surface of the refrigerator body, and wherein the steam generator is elevated from a bottom wall of the compressor chamber. a refrigerator body having a refrigerating compartment and a compressor chamber therein; a door body disposed to the refrigerator body; and a steam generator (10,106) disposed to at least one of the refrigerator body and the door body, the steam generator having a steam outlet, the steam outlet being in direct communication with the refrigerating compartment or in indirect communication with the refrigerating compartment via a steam conveying channel; characterized in that: the steam generator is disposed in the compressor chamber, a first side of the steam generator is provided with an inserting part connected to the refrigerator body in an inserting manner, a second side of the steam generator opposite to the first side is provided with a connecting part, and the connecting part is connected to the refrigerator body; wherein the steam generator is disposed to one of an upper surface, a left surface, a right surface and a rear surface of the refrigerator body, and wherein the steam generator is elevated from a bottom wall of the compressor chamber. the steam generator is disposed in the compressor chamber, a first side of the steam generator is provided with an inserting part connected to the refrigerator body in an inserting manner, a second side of the steam generator opposite to the first side is provided with a connecting part, and the connecting part is connected to the refrigerator body; wherein the steam generator is disposed to one of an upper surface, a left surface, a right surface and a rear surface of the refrigerator body, and wherein the steam generator is elevated from a bottom wall of the compressor chamber.
Electric fluid heating device, in particular for a motor vehicle, comprising: - at least one electric heating element intended to heat the fluid, - a temperature sensor intended to provide information on the temperature of the fluid, - a power supply circuit for said one or more electric heating elements, - a switch, called the inrush current switch, intended to create an inrush current in said power supply circuit, - a means for opening said circuit in the event of said inrush current occurring, the temperature sensor and the inrush current switch being positioned independently of one another, the heating device being configured to transmit a signal from the temperature sensor to the inrush current switch, the heating device comprising a short circuit line in parallel with the electric heating element, said short circuit line comprising a first end and a second end, characterized in that the inrush current switch is mounted on said short circuit line and in that the heating device further comprises an upstream switch and a downstream switch which are connected in series with the electric heating element, said electric heating element being positioned between said upstream switch and said downstream switch, at least one of said upstream and downstream switches being configured to regulate a current circulating in said electric heating element. - at least one electric heating element intended to heat the fluid, - a temperature sensor intended to provide information on the temperature of the fluid, - a power supply circuit for said one or more electric heating elements, - a switch, called the inrush current switch, intended to create an inrush current in said power supply circuit, - a means for opening said circuit in the event of said inrush current occurring, the temperature sensor and the inrush current switch being positioned independently of one another, the heating device being configured to transmit a signal from the temperature sensor to the inrush current switch, the heating device comprising a short circuit line in parallel with the electric heating element, said short circuit line comprising a first end and a second end, characterized in that the inrush current switch is mounted on said short circuit line and in that the heating device further comprises an upstream switch and a downstream switch which are connected in series with the electric heating element, said electric heating element being positioned between said upstream switch and said downstream switch, at least one of said upstream and downstream switches being configured to regulate a current circulating in said electric heating element.
Reinforced Building block made of Autoclaved aerated concrete, characterized in that the Reinforced Building block comprises rebars formed essentially from A) at least one fibrous carrier and B) a hardened composition formed from B1) at least one epoxy compound and B2) at least one diamine and/or polyamine in a stoichiometric ratio of the epoxy compound B1) to the diamine and/or polyamine component B2) of 0.8:1 to 2:1, as matrix material, and C) optionally further auxiliaries and additives, for the Reinforcement. characterized in that the Reinforced Building block comprises rebars formed essentially from A) at least one fibrous carrier and B) a hardened composition formed from B1) at least one epoxy compound and B2) at least one diamine and/or polyamine in a stoichiometric ratio of the epoxy compound B1) to the diamine and/or polyamine component B2) of 0.8:1 to 2:1, as matrix material, and C) optionally further auxiliaries and additives, for the Reinforcement. A) at least one fibrous carrier and B) a hardened composition formed from B1) at least one epoxy compound and B2) at least one diamine and/or polyamine in a stoichiometric ratio of the epoxy compound B1) to the diamine and/or polyamine component B2) of 0.8:1 to 2:1, as matrix material, and B1) at least one epoxy compound and B2) at least one diamine and/or polyamine C) optionally further auxiliaries and additives,
A connector for a tubular solid oxide fuel cell, the connector comprising a conductive body part which is configured to electrically connect solid oxide fuel cells (10a, 10b) to each other, each of the solid oxide fuel cells (10a, 10b) including a first electrode having an inner passage and an electrolyte and second electrode successively stacked on the first electrode to expose both end portions of the first electrode, characterized in that the conductive body part having top and bottom surfaces facing each other and side surfaces connecting the top and bottom surfaces, comprises: a first electrode contact groove formed in the top surface, in which the exposed end portions of the first electrode and at least one portion of the second electrode of a first solid oxide fuel cell are accommodated, the first electrode contact groove being electrically connectable to the first electrode of the first solid oxide fuel cell by electrical contact with the end portions of the first electrode of the first solid oxide fuel cell; and a second electrode contact groove formed in the bottom surface, in which the exposed end portions of the first electrode and at least a portion of the second electrode of a second solid oxide fuel cell, which is different from the first solid oxide fuel cell, are accommodated, the second electrode contact groove being electrically connectable to the second electrode of the second solid oxide fuel cell by electrical contact with the at least one portion of the second electrode of the second solid oxide fuel cell. a first electrode contact groove formed in the top surface, in which the exposed end portions of the first electrode and at least one portion of the second electrode of a first solid oxide fuel cell are accommodated, the first electrode contact groove being electrically connectable to the first electrode of the first solid oxide fuel cell by electrical contact with the end portions of the first electrode of the first solid oxide fuel cell; and a second electrode contact groove formed in the bottom surface, in which the exposed end portions of the first electrode and at least a portion of the second electrode of a second solid oxide fuel cell, which is different from the first solid oxide fuel cell, are accommodated, the second electrode contact groove being electrically connectable to the second electrode of the second solid oxide fuel cell by electrical contact with the at least one portion of the second electrode of the second solid oxide fuel cell.
A method for sending a channel measurement reference signals, comprising the following steps: during one sending period, sending, by a base station, the channel measurement reference signal of each port in one subframe or two adjacent subframes and sending the channel measurement reference signal of each port repeatedly in full bandwidth with equal space in the unit of a predetermined composition unit, wherein each predetermined composition unit comprises at least one resource block; the channel measurement reference signal is sent by taking N subframes as a period of the channel measurement reference signal time domain, characterised by, designing channel measurement reference signals with {1, 2, 4, 8} ports, wherein the pattern of the channel measurement reference signal with 1 port and that of the first port of the channel measurement reference signal with 2 ports are the same, the pattern of the channel measurement reference signal with 2 ports and that of the first 2 ports of the channel measurement reference signal with 4 ports are the same, and the pattern of the channel measurement reference signal with 4 ports and that of the first 4 ports of the channel measurement reference signal with 8 ports are the same; wherein the frequency domain space of the equal space that the channel measurement reference signal predetermined composition unit is repeated with is M. during one sending period, sending, by a base station, the channel measurement reference signal of each port in one subframe or two adjacent subframes and sending the channel measurement reference signal of each port repeatedly in full bandwidth with equal space in the unit of a predetermined composition unit, wherein each predetermined composition unit comprises at least one resource block; the channel measurement reference signal is sent by taking N subframes as a period of the channel measurement reference signal time domain, characterised by, designing channel measurement reference signals with {1, 2, 4, 8} ports, wherein the pattern of the channel measurement reference signal with 1 port and that of the first port of the channel measurement reference signal with 2 ports are the same, the pattern of the channel measurement reference signal with 2 ports and that of the first 2 ports of the channel measurement reference signal with 4 ports are the same, and the pattern of the channel measurement reference signal with 4 ports and that of the first 4 ports of the channel measurement reference signal with 8 ports are the same; wherein the frequency domain space of the equal space that the channel measurement reference signal predetermined composition unit is repeated with is M.
An ice protection system for an aircraft component comprising: a first section of the aircraft component having a first span and a first chord; a second section of the aircraft component, adjacent to the first section, having a second span and a second chord attached to the first section by a joint; and a junction section comprising: an end portion of the first section; and an end portion of the second section adjacent to the end portion of the first section; a first plurality of heaters expanding spanwise across the first section configured to heat the first section; a second plurality of heaters expanding spanwise across the second section configured to heat the second section; a first heater on the first section, wherein the first heater has at least one chordwise section connected to at least one spanwise section and the at least one chordwise section is positioned in the junction section such that the at least one chordwise section is configured to heat the end portion of the first section; and a second heater on the second section, wherein the second heater has at least one chordwise section connected to at least one spanwise section and the at least one chordwise section is positioned in the junction section such that the at least one chordwise section is configured to heat the end portion of the second section. a first section of the aircraft component having a first span and a first chord; a second section of the aircraft component, adjacent to the first section, having a second span and a second chord attached to the first section by a joint; and a junction section comprising: an end portion of the first section; and an end portion of the second section adjacent to the end portion of the first section; an end portion of the first section; and an end portion of the second section adjacent to the end portion of the first section; a first plurality of heaters expanding spanwise across the first section configured to heat the first section; a second plurality of heaters expanding spanwise across the second section configured to heat the second section; a first heater on the first section, wherein the first heater has at least one chordwise section connected to at least one spanwise section and the at least one chordwise section is positioned in the junction section such that the at least one chordwise section is configured to heat the end portion of the first section; and a second heater on the second section, wherein the second heater has at least one chordwise section connected to at least one spanwise section and the at least one chordwise section is positioned in the junction section such that the at least one chordwise section is configured to heat the end portion of the second section.
A laser-marking method of marking a semiconductor wafer to form softmarks on the wafer, the method comprising: setting a laser pulse width of one or more laser pulses to selectively provide first one or more laser output pulses having the set pulse width; setting a pulse energy of the first one or more output pulses to selectively provide the first one or more output pulses having a set total output energy, the set total output energy within a process window; delivering the first one or more output pulses into a first region of the wafer to modify wafer material and thereby produce a first softmark having a first depth on the wafer; characterized in that the laser-marking method further comprises: setting an increased laser pulse width of the one or more laser pulses to selectively provide second one or more output pulses having the set increased pulse width greater than the set pulse width of the first one or more laser output pulses and having a second total output energy within the process window, wherein the process window is centered on a central energy in a range having a lower limit of 10 microjoules less than the central energy and an upper limit 10 microjoules above the central energy; and delivering the second one or more output pulses into a second region of the wafer to modify wafer material and thereby produce a second softmark having a second depth on the wafer, wherein the second depth is greater than the first depth. setting a laser pulse width of one or more laser pulses to selectively provide first one or more laser output pulses having the set pulse width; setting a pulse energy of the first one or more output pulses to selectively provide the first one or more output pulses having a set total output energy, the set total output energy within a process window; delivering the first one or more output pulses into a first region of the wafer to modify wafer material and thereby produce a first softmark having a first depth on the wafer; characterized in that the laser-marking method further comprises: setting an increased laser pulse width of the one or more laser pulses to selectively provide second one or more output pulses having the set increased pulse width greater than the set pulse width of the first one or more laser output pulses and having a second total output energy within the process window, wherein the process window is centered on a central energy in a range having a lower limit of 10 microjoules less than the central energy and an upper limit 10 microjoules above the central energy; and delivering the second one or more output pulses into a second region of the wafer to modify wafer material and thereby produce a second softmark having a second depth on the wafer, wherein the second depth is greater than the first depth.
Method for operating a solar plant wherein heat received by a collector can be supplied to a storage device via a solar circuit which is provided with a pump and which carries a heat transfer medium, wherein the pump is switched on when a temperature (T Kollektor) of the heat transfer medium in the collector minus a predefined switch-on hysteresis temperature (T Ein) is higher than a temperature (T Speicher) of the heat transfer medium in the storage device and wherein the pump is switched off when the temperature (T Kollektor) of the heat transfer medium in the collector minus a predefined switch-off hysteresis temperature (T Aus) is lower than the temperature (T Speicher) of the heat transfer medium in the storage device, characterized in that after a predefined pause time (t Pause) has elapsed after switching off the pump, the pump is switched on within a predefined test time (t Prüfung), that during the test time (t Prüfung) a maximum value of a temperature difference (T Max) between the temperature (T Kollektor) of the heat transfer medium in the collector and the temperature (T Speicher) of the heat transfer medium in the storage device is determined and this temperature difference (T Max) is used as the basis for redefinition of the switch-off hysteresis temperature (T Aus).
A method of performing multifactor user authentication in a computing device, comprising: continuously monitoring an activity of a software application operating on the computing device to collect behavior information; using the collected behavior information to generate a behavior vector that characterizes the monitored activity of the software application; applying the generated behavior vector to a classifier model to generate an analysis result; using the generated analysis result to compute (304, 306, 308, 310) at least one value, wherein the computed at least one value is one or more of a transaction type criticality value, a user confidence value, a software integrity confidence value, and a historical behavior value; using the computed at least one value to determine a number of authentication factors that are to be evaluated when authenticating a user of the computing device, wherein the number of authentication factors is determined based on machine learning; using the computed at least one value to determine the authentication factors that are to be evaluated when authenticating the user of the computing device, wherein the authentication factors are determined based on machine learning; and authenticating the user by evaluating the determined number of the determined authentication factors. continuously monitoring an activity of a software application operating on the computing device to collect behavior information; using the collected behavior information to generate a behavior vector that characterizes the monitored activity of the software application; applying the generated behavior vector to a classifier model to generate an analysis result; using the generated analysis result to compute (304, 306, 308, 310) at least one value, wherein the computed at least one value is one or more of a transaction type criticality value, a user confidence value, a software integrity confidence value, and a historical behavior value; using the computed at least one value to determine a number of authentication factors that are to be evaluated when authenticating a user of the computing device, wherein the number of authentication factors is determined based on machine learning; using the computed at least one value to determine the authentication factors that are to be evaluated when authenticating the user of the computing device, wherein the authentication factors are determined based on machine learning; and authenticating the user by evaluating the determined number of the determined authentication factors.