mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, the method comprising: receiving a logging measurement message comprising a logging measurement configuration from a base station; initiating a minimization of drive test, MDT, session in response to receiving the logging measurement message; determining a status of a UE component; receiving a message from an original equipment manufacturer or a network operator indicating a measurement priority for each logged measurement type of a plurality of logged measurement types; selecting a set of logged measurement types from the plurality of logged measurement types based on the measurement priority of each logged measurement type when the status satisfies status criteria; generating an MDT log at each logging instance of a plurality of logging instances based on measurements collected for the set of logged measurement types when the status satisfies the status criteria; and transmitting, to the base station, the MDT log of each logging instance after completing the MDT session. receiving a logging measurement message comprising a logging measurement configuration from a base station; initiating a minimization of drive test, MDT, session in response to receiving the logging measurement message; determining a status of a UE component; receiving a message from an original equipment manufacturer or a network operator indicating a measurement priority for each logged measurement type of a plurality of logged measurement types; selecting a set of logged measurement types from the plurality of logged measurement types based on the measurement priority of each logged measurement type when the status satisfies status criteria; generating an MDT log at each logging instance of a plurality of logging instances based on measurements collected for the set of logged measurement types when the status satisfies the status criteria; and transmitting, to the base station, the MDT log of each logging instance after completing the MDT session.
Sealing unit for onward conduction of a fluid from a stationary machine part to a rotating machine part on a machine tool or an accessory for a machine tools such as, for example, driven tools, which unit for that purpose is equipped with a stator, at least one rotor and at least two slide rings (40L,40R) as well as with at least one radial passage (57, 47, 34, 30, 26) for onward conduction of the fluid, wherein - the stator, the rotor and the slide rings (40L, 40R) are arranged coaxially with a system axis, - the stator is provided for connection with the stationary machine part and is correspondingly shaped in its outer region and receives the rotor in its inner region, - the rotor is provided for a connection with or on the rotating machine part and is correspondingly shaped in its inner region, - each slide ring (40L, 40R) has at least one slide ring sealing surface (43, 44), wherein - the rotor has two rotor sealing surfaces (15, 16) arranged at a mutual spacing, - the slide rings (40L, 40R) are arranged within the stator and are in functional operative connection with the rotor, - a respective slide ring sealing surface (43, 44) and rotor sealing surface (15, 16) form a sealing pair (15, 43; 16, 44) and functionally co-operate, - the normals to the sealing surfaces (15, 16) of the rotor are directed axially towards one another and the normals to the sealing surfaces (43, 44) of the slide rings (40L, 40R) face axially away from one another. - the stator, the rotor and the slide rings (40L, 40R) are arranged coaxially with a system axis, - the stator is provided for connection with the stationary machine part and is correspondingly shaped in its outer region and receives the rotor in its inner region, - the rotor is provided for a connection with or on the rotating machine part and is correspondingly shaped in its inner region, - each slide ring (40L, 40R) has at least one slide ring sealing surface (43, 44), wherein - the rotor has two rotor sealing surfaces (15, 16) arranged at a mutual spacing, - the slide rings (40L, 40R) are arranged within the stator and are in functional operative connection with the rotor, - a respective slide ring sealing surface (43, 44) and rotor sealing surface (15, 16) form a sealing pair (15, 43; 16, 44) and functionally co-operate, - the normals to the sealing surfaces (15, 16) of the rotor are directed axially towards one another and the normals to the sealing surfaces (43, 44) of the slide rings (40L, 40R) face axially away from one another.
A glass panel unit manufacturing method comprising: an arrangement step of stacking a first substrate, including a glass pane, and a second substrate, including a glass pane, one upon the other with a first sealant in a frame shape interposed between the first substrate and the second substrate; a bonding step of bonding together the first substrate and the second substrate with the first sealant to create an inner space surrounded with the first sealant between the first substrate and the second substrate; a pressure reducing step of producing a reduced pressure in the inner space through an exhaust port that the first substrate has; and a sealing step of sealing the exhaust port up while maintaining the reduced pressure in the inner space, the sealing step including irradiating, with a low emissivity film facing the inner space, a second sealant, inserted into the exhaust port, with an infrared ray to locally heat the second sealant and seal the exhaust port up with the second sealant that has melted, the low emissivity film being further included in either the first substrate or the second substrate, the infrared ray being externally incident through the second substrate to irradiate the second sealant through a region, where the low emissivity film is nonexistent, of the second substrate. an arrangement step of stacking a first substrate, including a glass pane, and a second substrate, including a glass pane, one upon the other with a first sealant in a frame shape interposed between the first substrate and the second substrate; a bonding step of bonding together the first substrate and the second substrate with the first sealant to create an inner space surrounded with the first sealant between the first substrate and the second substrate; a pressure reducing step of producing a reduced pressure in the inner space through an exhaust port that the first substrate has; and a sealing step of sealing the exhaust port up while maintaining the reduced pressure in the inner space, the sealing step including irradiating, with a low emissivity film facing the inner space, a second sealant, inserted into the exhaust port, with an infrared ray to locally heat the second sealant and seal the exhaust port up with the second sealant that has melted, the low emissivity film being further included in either the first substrate or the second substrate, the infrared ray being externally incident through the second substrate to irradiate the second sealant through a region, where the low emissivity film is nonexistent, of the second substrate.
An electric cable stripping device, including at least one stripping beam (10, 11;110, 111; 209) emitted by a LASER source (1; 101; 201) and focused by an optical assembly (2-4; 102, 103; 203-208) to a cutting point (12, 13), and further including at least one receiving track (6; 106) for receiving a portion of cable to strip, characterized in that each LASER source includes a LASER diode (1; 101; 201) emitting a stripping beam of wavelength comprised between 400nm and 460nm.
A method of operating a washing machine whereby the washing machine comprises at least one tub in which the washing process is carried out; at least one drum located inside the tub, which is rotatable at different rotational speeds in the tub, and into which the items to be washed are loaded; at least one door for allowing access to the drum; and at least one ultraviolet light source for transmitting ultraviolet light into the drum, the method comprising the steps of: - transmitting ultraviolet light into the drum by activating the ultraviolet light source; - for a third period of time, wherein the ultraviolet light source is activated and which is in the range of 1-2 minutes, repeating the steps of: • rotating the drum for a first period of time, which is in the range of 10-20 seconds, at a first rotational speed; • stopping the drum for a second period of time, which is in the range of 10-20 seconds, following the first period of time; - following the third period of time, for a sixth period of time, wherein the ultraviolet light source is activated and which is in the range of 30-50 minutes, repeating the steps of: • rotating the drum for a fourth period of time, which is in the range of 5-10 seconds, at a second rotational speed, which is different from the first rotational speed; • stopping the drum for a fifth period of time, which is in the range of 180-300 seconds, following the fourth period of time; - transmitting ultraviolet light into the drum by activating the ultraviolet light source; - for a third period of time, wherein the ultraviolet light source is activated and which is in the range of 1-2 minutes, repeating the steps of: • rotating the drum for a first period of time, which is in the range of 10-20 seconds, at a first rotational speed; • stopping the drum for a second period of time, which is in the range of 10-20 seconds, following the first period of time; • rotating the drum for a first period of time, which is in the range of 10-20 seconds, at a first rotational speed; • stopping the drum for a second period of time, which is in the range of 10-20 seconds, following the first period of time; - following the third period of time, for a sixth period of time, wherein the ultraviolet light source is activated and which is in the range of 30-50 minutes, repeating the steps of: • rotating the drum for a fourth period of time, which is in the range of 5-10 seconds, at a second rotational speed, which is different from the first rotational speed; • stopping the drum for a fifth period of time, which is in the range of 180-300 seconds, following the fourth period of time; • rotating the drum for a fourth period of time, which is in the range of 5-10 seconds, at a second rotational speed, which is different from the first rotational speed; • stopping the drum for a fifth period of time, which is in the range of 180-300 seconds, following the fourth period of time;
A process for producing ammonia, wherein a hydrocarbon mixture and steam are supplied to a primary reformer, wherein the hydrocarbon mixture and the steam are at least partly converted to carbon monoxide and hydrogen in the primary reformer, wherein the gas mixture from the primary reformer is directed into a secondary reformer, wherein the secondary reformer is supplied with process air, at least comprising oxygen and nitrogen, such that unconverted hydrocarbon is converted to carbon monoxide and hydrogen, wherein the gas mixture from the secondary reformer, after further processing, is mixed with external hydrogen and supplied to a reactor in which nitrogen and hydrogen are at least partly converted to ammonia, characterized in that the oxygen content of the process air is reduced before the process air is directed into the secondary reformer.
A lithium battery electrochemical cell comprising: - a positive electrode comprising, as an active material, a lithium oxide of the following formula: LiNi 1-x Mn 1+x O 4 wherein 0 < x < 1; - a negative electrode comprising, as an active material, a carbon material; and - an electrolyte disposed between said positive electrode and said negative electrode comprising: * as solvents, a mixture of a sulphone solvent of the following formula: R 5 -SO 2 -R 6 wherein R 5 and R 6 represent, independently of each other, a linear or branched alkyl group, comprising from 1 to 7 carbon atoms and optionally comprising one or more halogen atoms, an aryl group optionally comprising one or more halogen atoms; and a carbonate solvent of the following formula: R 13 -O-CO-O-R 14 wherein R 13 and R 14 represent, independently of each other, an alkyl group; * at least one additive having the following formula: wherein R 1 to R 4 represent, independently of each other, a hydrogen atom, an alkyl group comprising from 1 to 5 carbon atoms, one or more hydrogen atoms of which being possibly substituted with an halogen atom; * at least one lithium salt. - a positive electrode comprising, as an active material, a lithium oxide of the following formula: LiNi 1-x Mn 1+x O 4 wherein 0 < x < 1; - a negative electrode comprising, as an active material, a carbon material; and - an electrolyte disposed between said positive electrode and said negative electrode comprising: * as solvents, a mixture of a sulphone solvent of the following formula: R 5 -SO 2 -R 6 wherein R 5 and R 6 represent, independently of each other, a linear or branched alkyl group, comprising from 1 to 7 carbon atoms and optionally comprising one or more halogen atoms, an aryl group optionally comprising one or more halogen atoms; and a carbonate solvent of the following formula: R 13 -O-CO-O-R 14 wherein R 13 and R 14 represent, independently of each other, an alkyl group; * at least one additive having the following formula: wherein R 1 to R 4 represent, independently of each other, a hydrogen atom, an alkyl group comprising from 1 to 5 carbon atoms, one or more hydrogen atoms of which being possibly substituted with an halogen atom; * at least one lithium salt. * as solvents, a mixture of a sulphone solvent of the following formula: R 5 -SO 2 -R 6 wherein R 5 and R 6 represent, independently of each other, a linear or branched alkyl group, comprising from 1 to 7 carbon atoms and optionally comprising one or more halogen atoms, an aryl group optionally comprising one or more halogen atoms; and a carbonate solvent of the following formula: R 13 -O-CO-O-R 14 wherein R 13 and R 14 represent, independently of each other, an alkyl group; * at least one additive having the following formula: wherein R 1 to R 4 represent, independently of each other, a hydrogen atom, an alkyl group comprising from 1 to 5 carbon atoms, one or more hydrogen atoms of which being possibly substituted with an halogen atom; * at least one lithium salt.
DC-DC converter, comprising: a first control device, which is designed to determine a first controlled variable using a value for a present input voltage (U_in), a value for a present input current (I_in) and a setpoint value for an output voltage (U_des); a second control device, which is designed to determine a second controlled variable using the setpoint value for the output voltage (U_des) and the value for the present output voltage (U_out); a combination element, which is designed to combine the first controlled variable and the second controlled variable and to output said variables as setpoint controlled variable; and at least one DC-DC converter module, which is designed to convert a DC input voltage (U_in) into a DC output voltage (U_out) using an output controlled variable, characterized in that the DC-DC converter comprises a third control device, which is designed to limit a gradient of the setpoint controlled variable to a predetermined minimum value and/or a predetermined maximum value and to provide the limited setpoint controlled variable as output controlled variable. a first control device, which is designed to determine a first controlled variable using a value for a present input voltage (U_in), a value for a present input current (I_in) and a setpoint value for an output voltage (U_des); a second control device, which is designed to determine a second controlled variable using the setpoint value for the output voltage (U_des) and the value for the present output voltage (U_out); a combination element, which is designed to combine the first controlled variable and the second controlled variable and to output said variables as setpoint controlled variable; and at least one DC-DC converter module, which is designed to convert a DC input voltage (U_in) into a DC output voltage (U_out) using an output controlled variable, characterized in that the DC-DC converter comprises a third control device, which is designed to limit a gradient of the setpoint controlled variable to a predetermined minimum value and/or a predetermined maximum value and to provide the limited setpoint controlled variable as output controlled variable.
A method of manufacturing a semiconductor device, the method comprising: providing a semiconductor substrate comprising a high-doped semiconductor substrate layer having a doping density which is equal to or greater than 1×10 18 cm -3, a high-doped semiconductor device layer, wherein a doping density of the high-doped semiconductor device layer is equal to or greater than 10 17 cm -3, or 10 18 cm -3, or 5×10 18 cm -3, and a low-doped semiconductor etch stop layer of silicon arranged between the high-doped semiconductor substrate layer and the high-doped semiconductor device layer, wherein a doping density of the low-doped semiconductor etch stop layer is less than 10 17 cm -3, or 10 16 cm -3, or 10 15 cm -3, the low-doped semiconductor etch stop layer has a thickness between 1 μm and 12 μm and the low-doped semiconductor etch stop layer borders the high-doped semiconductor device layer; removing the high-doped semiconductor substrate layer, the removing comprises dopant selective chemical etching stopping at the low-doped semiconductor etch stop layer; and thinning the low-doped semiconductor etch stop layer to generate an exposed surface of the high-doped semiconductor device layer. providing a semiconductor substrate comprising a high-doped semiconductor substrate layer having a doping density which is equal to or greater than 1×10 18 cm -3, a high-doped semiconductor device layer, wherein a doping density of the high-doped semiconductor device layer is equal to or greater than 10 17 cm -3, or 10 18 cm -3, or 5×10 18 cm -3, and a low-doped semiconductor etch stop layer of silicon arranged between the high-doped semiconductor substrate layer and the high-doped semiconductor device layer, wherein a doping density of the low-doped semiconductor etch stop layer is less than 10 17 cm -3, or 10 16 cm -3, or 10 15 cm -3, the low-doped semiconductor etch stop layer has a thickness between 1 μm and 12 μm and the low-doped semiconductor etch stop layer borders the high-doped semiconductor device layer; a high-doped semiconductor substrate layer having a doping density which is equal to or greater than 1×10 18 cm -3, a high-doped semiconductor device layer, wherein a doping density of the high-doped semiconductor device layer is equal to or greater than 10 17 cm -3, or 10 18 cm -3, or 5×10 18 cm -3, and a low-doped semiconductor etch stop layer of silicon arranged between the high-doped semiconductor substrate layer and the high-doped semiconductor device layer, wherein a doping density of the low-doped semiconductor etch stop layer is less than 10 17 cm -3, or 10 16 cm -3, or 10 15 cm -3, the low-doped semiconductor etch stop layer has a thickness between 1 μm and 12 μm and the low-doped semiconductor etch stop layer borders the high-doped semiconductor device layer; removing the high-doped semiconductor substrate layer, the removing comprises dopant selective chemical etching stopping at the low-doped semiconductor etch stop layer; and thinning the low-doped semiconductor etch stop layer to generate an exposed surface of the high-doped semiconductor device layer.
A smart tag (104; 206) responsive to a load condition, said smart tag comprising: a data circuit for storing identification information comprising a radio frequency identification (RFID) chip for storing an RFID code; an antenna for communicating a wireless radio frequency signal; and a mechanical switch coupling the data circuit to the antenna, the switch being a load-sensitive switch; the load condition closing the mechanical switch to enable the data circuit and the antenna to communicate the identification information via the wireless signal; further comprising another RFID chip, wherein the mechanical switch couples the other RFID chip to the antenna, and wherein the load condition toggles the mechanical switch to disable the RFID chip and enable the other RFID chip. a data circuit for storing identification information comprising a radio frequency identification (RFID) chip for storing an RFID code; an antenna for communicating a wireless radio frequency signal; and a mechanical switch coupling the data circuit to the antenna, the switch being a load-sensitive switch; the load condition closing the mechanical switch to enable the data circuit and the antenna to communicate the identification information via the wireless signal; further comprising another RFID chip, wherein the mechanical switch couples the other RFID chip to the antenna, and wherein the load condition toggles the mechanical switch to disable the RFID chip and enable the other RFID chip.
An image inspection apparatus, comprising: an inspection unit (220, 222, 240) configured to inspect a formed image formed on a recording material and specify from the formed image, a portion which does not satisfy a predetermined requirement; and a conveying unit configured to sequentially convey the recording material subjected to inspection by the inspection unit; characterized by further comprising a supplying unit configured to supply a sheet either between the recording material on which the formed image having the portion which does not satisfy the predetermined requirement is formed and a subsequent recording material which is conveyed by the conveying unit or between the recording material on which the formed image is formed and a preceding recording material conveyed by the conveying unit; and an image forming unit (246, 215) configured to form an image on the sheet, wherein: the forming of the image onto the sheet is performed by the image forming unit (246, 215) such that a position of the image relative to the sheet coincides with a position of the portion relative to the recording material. an inspection unit (220, 222, 240) configured to inspect a formed image formed on a recording material and specify from the formed image, a portion which does not satisfy a predetermined requirement; and a conveying unit configured to sequentially convey the recording material subjected to inspection by the inspection unit; characterized by further comprising a supplying unit configured to supply a sheet either between the recording material on which the formed image having the portion which does not satisfy the predetermined requirement is formed and a subsequent recording material which is conveyed by the conveying unit or between the recording material on which the formed image is formed and a preceding recording material conveyed by the conveying unit; and an image forming unit (246, 215) configured to form an image on the sheet, wherein: the forming of the image onto the sheet is performed by the image forming unit (246, 215) such that a position of the image relative to the sheet coincides with a position of the portion relative to the recording material.