mhurhangee/ep-ind-claims huggingface dataset:
A method for forming a three-dimensional article through successive fusion of locations of a powder bed, which locations correspond to successive cross sections of the three-dimensional article, said method comprising the steps of: providing a model of said three-dimensional article; applying a first powder layer on a work table; determining a maximum scan line time of an energy beam for a first cross section of the three-dimensional article, where said maximum scan line time is the time for fusing the longest scan line; and directing said energy beam from a first energy beam source over said work table with a constant energy causing said first powder layer to fuse in first selected locations according to said model to form said first cross section of said three-dimensional article, wherein: said first energy beam is fusing said selected locations with scan lines in a first direction; and locations with a shorter scan line time than said maximum scan line time are provided with a time sink at least one of before or after said scan line so that the scan line time plus the time sink is constant for said first cross section of said three-dimensional article, wherein said energy beam is switched off during said time sink or an energy density per time unit is set for said energy beam during said time sink to a predetermined level which will leave powder material in a non-sintered and non-fused state and directing said energy beam outside said selected locations during said time sink. providing a model of said three-dimensional article; applying a first powder layer on a work table; determining a maximum scan line time of an energy beam for a first cross section of the three-dimensional article, where said maximum scan line time is the time for fusing the longest scan line; and directing said energy beam from a first energy beam source over said work table with a constant energy causing said first powder layer to fuse in first selected locations according to said model to form said first cross section of said three-dimensional article, wherein: said first energy beam is fusing said selected locations with scan lines in a first direction; and locations with a shorter scan line time than said maximum scan line time are provided with a time sink at least one of before or after said scan line so that the scan line time plus the time sink is constant for said first cross section of said three-dimensional article, wherein said energy beam is switched off during said time sink or an energy density per time unit is set for said energy beam during said time sink to a predetermined level which will leave powder material in a non-sintered and non-fused state and directing said energy beam outside said selected locations during said time sink.
A method for estimating the movement of a potentially movable geological and/or civil engineering structure, the structure being provided with at least one RFID tag, and the method implementing at least one antenna connected to a transceiver terminal and disposed in an independent stable area of the structure, close to the RFID tag, the method including: • a first step of determining, in a first instant and at the terminal, a first phase of a first signal back-scattered by the RFID tag; • a second step of determining, in a second instant after the first instant and at the terminal, a second phase of a second signal back-scattered by the RFID tag; • a step of processing the first phase and the second phase, comprising a compensation for the radiofrequency propagation disturbances on the first phase and the second phase, to estimate the movement of the structure between the first instant and the second instant. • a first step of determining, in a first instant and at the terminal, a first phase of a first signal back-scattered by the RFID tag; • a second step of determining, in a second instant after the first instant and at the terminal, a second phase of a second signal back-scattered by the RFID tag; • a step of processing the first phase and the second phase, comprising a compensation for the radiofrequency propagation disturbances on the first phase and the second phase, to estimate the movement of the structure between the first instant and the second instant.
Composite material for an electrode based on graphite carbon comprising a ground product, dispersed within the graphite carbon, of an intimate mixture of silicon and of carbon fibres, the graphite carbon representing from 85% to 97% by weight, with respect to the total weight of the composite material.
A solid water-dispersible formulation comprising (a) as component (a), propoxycarbazone-methyl or its sodium salt, amidosulfuron-methyl or its sodium salt and iodosulfuron-methyl or its sodium salt, (b) one or more carrier materials, where (c) one or more wetting agents from the group of the salts of the alkylated naphthalenesulfonic acids and the salts of dioctylsulfosuccinic acid are used. (a) as component (a), propoxycarbazone-methyl or its sodium salt, amidosulfuron-methyl or its sodium salt and iodosulfuron-methyl or its sodium salt, (b) one or more carrier materials, where (c) one or more wetting agents from the group of the salts of the alkylated naphthalenesulfonic acids and the salts of dioctylsulfosuccinic acid are used.
A computing device, wherein the computing device comprises a hardware layer and a host machine running on the hardware layer, wherein the host machine is configured to obtain a virtual interrupt; and the computing device is characterized in that the host machine is configured to obtain a corresponding physical interrupt identifier based on the virtual interrupt, and transfer the physical interrupt identifier to the hardware layer; and the hardware layer is configured to obtain, based on the physical interrupt identifier, a corresponding virtual interrupt identifier and a corresponding virtual processor identifier, wherein the virtual interrupt is configured to interrupt a target virtual processor, the virtual interrupt identifier and the physical interrupt identifier uniquely correspond to the virtual processor identifier, and the virtual processor identifier indicates the target virtual processor; and transfer the virtual interrupt identifier to the target virtual processor. the host machine is configured to obtain a virtual interrupt; and the computing device is characterized in that the host machine is configured to obtain a corresponding physical interrupt identifier based on the virtual interrupt, and transfer the physical interrupt identifier to the hardware layer; and the hardware layer is configured to obtain, based on the physical interrupt identifier, a corresponding virtual interrupt identifier and a corresponding virtual processor identifier, wherein the virtual interrupt is configured to interrupt a target virtual processor, the virtual interrupt identifier and the physical interrupt identifier uniquely correspond to the virtual processor identifier, and the virtual processor identifier indicates the target virtual processor; and transfer the virtual interrupt identifier to the target virtual processor.
A method for installing a security-relevant portion of an application made available by an application provider in a security element of a terminal, comprising the following steps of: - receiving the application from the application provider in the terminal, wherein the application comprises the security-relevant portion and a non-security-relevant portion; - installing the non-security-relevant portion of the application in the terminal; and - installing (S4-S10) the security-relevant portion of the application in the security element of the terminal; wherein for installing (S4-S10) the security-relevant portion of the application the following steps are executed: - transmitting at least a part of the received, security-relevant portion of the application to a remote trustworthy instance administrating the security element; - receiving a response of the trustworthy instance for the security-relevant portion of the application; - loading the security-relevant portion of the application into the security element by means of the response of the trustworthy instance. - receiving the application from the application provider in the terminal, wherein the application comprises the security-relevant portion and a non-security-relevant portion; - installing the non-security-relevant portion of the application in the terminal; and - installing (S4-S10) the security-relevant portion of the application in the security element of the terminal; wherein for installing (S4-S10) the security-relevant portion of the application the following steps are executed: - transmitting at least a part of the received, security-relevant portion of the application to a remote trustworthy instance administrating the security element; - receiving a response of the trustworthy instance for the security-relevant portion of the application; - loading the security-relevant portion of the application into the security element by means of the response of the trustworthy instance.
Pressure sensor, having - a housing, - a diaphragm which, with the housing, forms a chamber which is closed off to the outside, which chamber is filled with a fluid medium, and - a filling opening in the housing for the filling of the chamber with the fluid medium, - wherein the filling opening is closed off by means of a soldering or welding process (7, 8), characterized in that the filling opening is closed off directly by means of a solder which is applied to a metal layer applied around the filling opening, or by means of a closure part, wherein the closure part is designed in the form of a metal plate, and wherein the housing has a metal layer in the region around the filling opening, and wherein the metal plate is soldered or welded to the metal layer. - a housing, - a diaphragm which, with the housing, forms a chamber which is closed off to the outside, which chamber is filled with a fluid medium, and - a filling opening in the housing for the filling of the chamber with the fluid medium, - wherein the filling opening is closed off by means of a soldering or welding process (7, 8), characterized in that the filling opening is closed off directly by means of a solder which is applied to a metal layer applied around the filling opening, or by means of a closure part, wherein the closure part is designed in the form of a metal plate, and wherein the housing has a metal layer in the region around the filling opening, and wherein the metal plate is soldered or welded to the metal layer.
A method for controlling a hub apparatus, the method comprising: receiving a service request; determining at least one sensor acquiring sensing information for the received service request; receiving state information of a plurality of devices from the plurality of devices including the determined sensor; selecting at least one device (300-1, 300-2,... 300-n) from among the plurality of devices (300-1, 300-2,... 300-n) based on the received state information of the plurality of devices, grouping the at least one device to a group for performing a service corresponding to the service request; and based on the receiving the sensing information from the at least one device in the group, performing the service corresponding to the service request; wherein the state information of the plurality of devices (300-1, 300-2,... 300-n) comprises at least one of location information, battery information, and use history information, of the plurality of devices. receiving a service request; determining at least one sensor acquiring sensing information for the received service request; receiving state information of a plurality of devices from the plurality of devices including the determined sensor; selecting at least one device (300-1, 300-2,... 300-n) from among the plurality of devices (300-1, 300-2,... 300-n) based on the received state information of the plurality of devices, grouping the at least one device to a group for performing a service corresponding to the service request; and based on the receiving the sensing information from the at least one device in the group, performing the service corresponding to the service request; wherein the state information of the plurality of devices (300-1, 300-2,... 300-n) comprises at least one of location information, battery information, and use history information, of the plurality of devices.
Knitting needle with a needle stem and a needle hook formed into the latter and a latch or a slider for the closing of the needle hook, wherein the free end region of the needle hook is variable in its distance from the end region of the needle hook adjacent to the needle stem, characterised in that a reduction in cross-section is provided between the free end region of the needle hook and the hook head.
A short-circuit prediction device for predicting presence or absence of occurrence of an internal short circuit in a secondary battery, the secondary battery having a positive electrode, a solid electrolyte, and a negative electrode that contains a lithium alloy, the short-circuit prediction device comprising: a measurement instrument that measures AC impedance of the secondary battery; and a controller that predicts the internal short circuit in the secondary battery, wherein the measurement instrument calculates electrolyte resistance of the secondary battery and reaction resistance of the secondary battery from the AC impedance, and when a change rate of the electrolyte resistance per a predetermined period is within a predetermined range and the reaction resistance becomes higher than a predetermined upper limit, the controller predicts that there is a possibility of occurrence of the internal short circuit. a measurement instrument that measures AC impedance of the secondary battery; and a controller that predicts the internal short circuit in the secondary battery, wherein the measurement instrument calculates electrolyte resistance of the secondary battery and reaction resistance of the secondary battery from the AC impedance, and when a change rate of the electrolyte resistance per a predetermined period is within a predetermined range and the reaction resistance becomes higher than a predetermined upper limit, the controller predicts that there is a possibility of occurrence of the internal short circuit.
A pharmaceutical composition comprising: a bactericidal concentration of amikacin and fosfomycin combined in a hypertonic solution at a ratio of amikacin: fosfomycin greater than 1:1 and having at least about 30 mEq/L of permeant anion, for use in the treatment or prevention of ventilator associated pneumonia and ventilator associated tracheal bronchitis caused by drug resistance bacteria, wherein said treatment comprises placing the composition in a reservoir in the in-line nebulizer located within the airway of a mechanical ventilator wherein the composition is used to create an aerosol mist having a mean particle size less than five microns and an osmolality less than a 1000 milliosm/L, and wherein the mist is mixed with humidified air to create a humidified aerosol mist. a bactericidal concentration of amikacin and fosfomycin combined in a hypertonic solution at a ratio of amikacin: fosfomycin greater than 1:1 and having at least about 30 mEq/L of permeant anion, for use in the treatment or prevention of ventilator associated pneumonia and ventilator associated tracheal bronchitis caused by drug resistance bacteria, wherein said treatment comprises placing the composition in a reservoir in the in-line nebulizer located within the airway of a mechanical ventilator wherein the composition is used to create an aerosol mist having a mean particle size less than five microns and an osmolality less than a 1000 milliosm/L, and wherein the mist is mixed with humidified air to create a humidified aerosol mist.
A main electronic device comprising: a communication module configured to establish a communication channel using a first communication network; a first network communication module configured to establish a network communication channel using a second communication network; a first short range communication module configured to establish a short range communication channel; and a main control unit configured to control a direct mode execution and an indirect mode execution, wherein in the direct mode execution data received through the communication module is transmitted to an auxiliary device through the short range communication channel and in the indirect mode execution the data received through the communication module is transmitted to the auxiliary electronic device either - through the second communication network using connection data received from a service supporting device connected to the second communication network, or - through the first network communication module via the service supporting device, wherein the main control unit is configured to control the indirect mode execution when a release event of the short range communication channel occurs during a direct mode execution using the short range communication channel with the auxiliary electronic device. a communication module configured to establish a communication channel using a first communication network; a first network communication module configured to establish a network communication channel using a second communication network; a first short range communication module configured to establish a short range communication channel; and a main control unit configured to control a direct mode execution and an indirect mode execution, wherein in the direct mode execution data received through the communication module is transmitted to an auxiliary device through the short range communication channel and in the indirect mode execution the data received through the communication module is transmitted to the auxiliary electronic device either - through the second communication network using connection data received from a service supporting device connected to the second communication network, or - through the first network communication module via the service supporting device, - through the second communication network using connection data received from a service supporting device connected to the second communication network, or - through the first network communication module via the service supporting device, wherein the main control unit is configured to control the indirect mode execution when a release event of the short range communication channel occurs during a direct mode execution using the short range communication channel with the auxiliary electronic device.
An electronic device (900, 940) comprising: circuitry configured to identify that data is awaiting transmission at the electronic device (S311, S321); determine a first parameter corresponding to a length or duration of data to be transmitted by the electronic device; determine whether the first parameter exceeds a predetermined threshold value (S313, S323); control a wireless interface of the electronic device to transmit a request to send the data when the first parameter exceeds the predetermined threshold value (S316, S326); characterized in that the circuitry is further configured to acquire a second parameter related to detection sensitivity or transmission power (S314, S324); determine, when the first parameter does not exceed the predetermined threshold value, whether to transmit the data based on the second parameter; and control the transmission power according to the detection sensitivity. identify that data is awaiting transmission at the electronic device (S311, S321); determine a first parameter corresponding to a length or duration of data to be transmitted by the electronic device; determine whether the first parameter exceeds a predetermined threshold value (S313, S323); control a wireless interface of the electronic device to transmit a request to send the data when the first parameter exceeds the predetermined threshold value (S316, S326); characterized in that the circuitry is further configured to acquire a second parameter related to detection sensitivity or transmission power (S314, S324); determine, when the first parameter does not exceed the predetermined threshold value, whether to transmit the data based on the second parameter; and control the transmission power according to the detection sensitivity.
A ceramic housing designed to hermetically encapsulate a microelectromechanical system (MEMS) in a vacuum, which system is provided with an isopotential electrical conducting element intended to be soldered with said housing, said housing comprising a metallised base designed to be connected to said microelectromechanical system (MEMS) by soldering and electrical output contacts (CES, CEE) designed to be electrically connected to electrical contact elements of said microelectromechanical system, characterised in that said metallised base comprises a plurality of metallised surface portions respectively delimited by a non-metallised soldering stop zone and respectively connected to the remainder of the metallised base by a metallised track (PTEM) that is narrower than the width of said corresponding portion intended to be soldered with said microelectromechanical system (MEMS).
Method for filling surface imperfections on a surface of a wing of an aircraft, said filling method comprising: - a scanning step during which a control unit commands a first displacement system to displace a scanner facing the surface of the wing to be filled and the activation of the scanner which scans said surface and transmits the collected data to the control unit, - a calculation step during which the control unit calculates a digitized surface from said duly transmitted data, - a determination step during which the control unit determines each surface imperfection by comparison of the reference surface and the digitized surface, - a generation step during which the control unit generates, for each surface imperfection, a digital model of the patch intended to fill said surface imperfection, and - a printing step during which the control unit commands a second displacement system to displace a 3D printer facing each surface imperfection to be filled and the activation of the 3D printer to make it print the patch in said surface imperfection from the duly generated digital model. - a scanning step during which a control unit commands a first displacement system to displace a scanner facing the surface of the wing to be filled and the activation of the scanner which scans said surface and transmits the collected data to the control unit, - a calculation step during which the control unit calculates a digitized surface from said duly transmitted data, - a determination step during which the control unit determines each surface imperfection by comparison of the reference surface and the digitized surface, - a generation step during which the control unit generates, for each surface imperfection, a digital model of the patch intended to fill said surface imperfection, and - a printing step during which the control unit commands a second displacement system to displace a 3D printer facing each surface imperfection to be filled and the activation of the 3D printer to make it print the patch in said surface imperfection from the duly generated digital model.