mhurhangee/ep-ind-claims huggingface dataset:
A rail vehicle ventilation device, comprising, an air inlet duct, wherein a first airport and a second airport are respectively provided at two sides of the air inlet duct, the first airport being arranged opposite to the second airport, wherein a top of the air inlet duct is provided with a top airport and a bottom of the air inlet duct is provided with an air outlet; wherein in a free state, the top airport, the first airport, the second airport and the air outlet are in communication with each other; and a first guide plate, a second guide plate, and, a connecting rod hinged between the first guide plate and the second guide plate are arranged in the air inlet duct; wherein a top of the first guide plate is hinged to the air inlet duct at a position above the first airport, and a top of the second guide plate is hinged to the air inlet duct at a position above the second airport, the first guide plate and the second guide plate being connected by the connecting rod to form a trapezoidal connecting rod structure, wherein an upper end of the trapezoidal connecting rod structure is a large diameter end, and wherein the second guide plate is configured to swing to a state of sealing the second airport. an air inlet duct, wherein a first airport and a second airport are respectively provided at two sides of the air inlet duct, the first airport being arranged opposite to the second airport, wherein a top of the air inlet duct is provided with a top airport and a bottom of the air inlet duct is provided with an air outlet; wherein in a free state, the top airport, the first airport, the second airport and the air outlet are in communication with each other; and a first guide plate, a second guide plate, and, a connecting rod hinged between the first guide plate and the second guide plate are arranged in the air inlet duct; wherein a top of the first guide plate is hinged to the air inlet duct at a position above the first airport, and a top of the second guide plate is hinged to the air inlet duct at a position above the second airport, the first guide plate and the second guide plate being connected by the connecting rod to form a trapezoidal connecting rod structure, wherein an upper end of the trapezoidal connecting rod structure is a large diameter end, and wherein the second guide plate is configured to swing to a state of sealing the second airport.
A controller comprising logic for enabling a user to implement authentication for network access, the logic operable to: receive a request for authentication initiated by a user initiating a login sequence; receive, during the authentication, via a near field communication, NFC, link with a data card, an identification packet generated by a remote authentication provider; associate an electronic signature with the identification packet, in response to an authorization request, wherein the signature attests that the packet was obtained securely over the NFC link and that the initiated login sequence was authorized by the user; transmit the signed identification packet to the remote authentication provider; receive an authorization response from the remote authentication provider using data in the identification packet; if the authorization response indicates that the login is authorized, retrieve login information associated with the identification packet from a local database; and implement the login procedure using the login information. receive a request for authentication initiated by a user initiating a login sequence; receive, during the authentication, via a near field communication, NFC, link with a data card, an identification packet generated by a remote authentication provider; associate an electronic signature with the identification packet, in response to an authorization request, wherein the signature attests that the packet was obtained securely over the NFC link and that the initiated login sequence was authorized by the user; transmit the signed identification packet to the remote authentication provider; receive an authorization response from the remote authentication provider using data in the identification packet; if the authorization response indicates that the login is authorized, retrieve login information associated with the identification packet from a local database; and implement the login procedure using the login information.
A valve assembly applied to an ink cartridge, comprising a valve cover, a valve base, a diaphragm and a transfer column, the valve cover is disposed on the valve base to define a valve cavity, and the diaphragm is disposed between the valve cover and the valve base and configured for separating the valve cavity into a first deformable cavity and a second deformable cavity independent with each other, wherein the first deformable cavity is in communication with an air pump, the second deformable cavity is in communication with an ink outlet hole; the transfer column is fixed in the valve cavity, and the diaphragm is penetrated by the transfer column, and at least one of the transfer column and the diaphragm is provided with a passage; and the diaphragm is capable of moving along an axis of transfer column relative to the transfer column under a pressure difference between the first deformable cavity and the second deformable cavity, resulting in a communication between the first deformable cavity and the second deformable cavity by the passage is opened, or the communication between the first deformable cavity and the second deformable cavity is closed, wherein at least one of the transfer column and the diaphragm is provided with a passage comprises: the passage is disposed on the transfer column; or the passage is disposed in the diaphragm; or one part of the passage is disposed in the diaphragm, and the other part of the passage is disposed on the transfer column. the transfer column is fixed in the valve cavity, and the diaphragm is penetrated by the transfer column, and at least one of the transfer column and the diaphragm is provided with a passage; and the diaphragm is capable of moving along an axis of transfer column relative to the transfer column under a pressure difference between the first deformable cavity and the second deformable cavity, resulting in a communication between the first deformable cavity and the second deformable cavity by the passage is opened, or the communication between the first deformable cavity and the second deformable cavity is closed, wherein at least one of the transfer column and the diaphragm is provided with a passage comprises: the passage is disposed on the transfer column; or the passage is disposed in the diaphragm; or one part of the passage is disposed in the diaphragm, and the other part of the passage is disposed on the transfer column. the passage is disposed on the transfer column; or the passage is disposed in the diaphragm; or one part of the passage is disposed in the diaphragm, and the other part of the passage is disposed on the transfer column.
Process for the preparation of L-methionine, comprising at least the steps of: a) preparation of a mixture comprising: 1) dimethyl disulfide (DMDS), 2) a catalytic amount of an amino acid carrying a thiol group or of a peptide comprising a thiol group, 3) a catalytic amount of enzyme which catalyses the reaction for the reduction of the disulfide bridge of the said amino acid carrying a thiol group or of the said peptide comprising a thiol group, 4) a reducing organic compound in stoichiometric amount with respect to the disulfide, in particular DMDS, 5) a catalytic amount of enzyme which catalyses the reaction for the dehydrogenation of the concerned reducing organic compound, 6) a catalytic amount of a cofactor common to the two enzymes of the catalytic system (dehydrogenase and reductase), b) carrying out the enzymatic reaction in order to form methyl mercaptan (CH 3 -SH), c) addition of a precursor of L-methionine and conversion of the said precursor with the methyl mercaptan formed in step b), and d) recovery and optionally purification of the L-methionine formed. a) preparation of a mixture comprising: 1) dimethyl disulfide (DMDS), 2) a catalytic amount of an amino acid carrying a thiol group or of a peptide comprising a thiol group, 3) a catalytic amount of enzyme which catalyses the reaction for the reduction of the disulfide bridge of the said amino acid carrying a thiol group or of the said peptide comprising a thiol group, 4) a reducing organic compound in stoichiometric amount with respect to the disulfide, in particular DMDS, 5) a catalytic amount of enzyme which catalyses the reaction for the dehydrogenation of the concerned reducing organic compound, 6) a catalytic amount of a cofactor common to the two enzymes of the catalytic system (dehydrogenase and reductase), 1) dimethyl disulfide (DMDS), 2) a catalytic amount of an amino acid carrying a thiol group or of a peptide comprising a thiol group, 3) a catalytic amount of enzyme which catalyses the reaction for the reduction of the disulfide bridge of the said amino acid carrying a thiol group or of the said peptide comprising a thiol group, 4) a reducing organic compound in stoichiometric amount with respect to the disulfide, in particular DMDS, 5) a catalytic amount of enzyme which catalyses the reaction for the dehydrogenation of the concerned reducing organic compound, 6) a catalytic amount of a cofactor common to the two enzymes of the catalytic system (dehydrogenase and reductase), b) carrying out the enzymatic reaction in order to form methyl mercaptan (CH 3 -SH), c) addition of a precursor of L-methionine and conversion of the said precursor with the methyl mercaptan formed in step b), and d) recovery and optionally purification of the L-methionine formed.
A method for joining rotor blade segments (26, 28) of a rotor blade, the method comprising: forming a female structural member having a receipt portion, a structural portion and a divider bulkhead, the receipt portion defining a cavity, the divider bulkhead being positioned between the receipt portion and the structural portion of the female structural member; securing the female structural member within a first blade segment; forming a male structural member having a protrusion portion and a structural portion; securing the structural portion of the male structural member within a second blade segment; inserting the protrusion portion of the male structural member into the cavity of the female structural member, wherein, when inserted, an interface of the protrusion portion of the male structural member and the cavity of the female structural member forms one or more internal channels; and, injecting adhesive from an exterior location of the rotor blade through the divider bulkhead 70 of the female structural member and into the one or more internal channels so as to secure the first and second blade segments (26, 28) together. forming a female structural member having a receipt portion, a structural portion and a divider bulkhead, the receipt portion defining a cavity, the divider bulkhead being positioned between the receipt portion and the structural portion of the female structural member; securing the female structural member within a first blade segment; forming a male structural member having a protrusion portion and a structural portion; securing the structural portion of the male structural member within a second blade segment; inserting the protrusion portion of the male structural member into the cavity of the female structural member, wherein, when inserted, an interface of the protrusion portion of the male structural member and the cavity of the female structural member forms one or more internal channels; and, injecting adhesive from an exterior location of the rotor blade through the divider bulkhead 70 of the female structural member and into the one or more internal channels so as to secure the first and second blade segments (26, 28) together.
A signaling transmitting method, applied to a terminal device and comprising: transmitting a first signaling to a network device, wherein the first signaling is used to report a first capability supported by the terminal device and indicate whether the terminal device is a reduced capability terminal device; characterized in that, the first signaling comprises a first capability indication domain or a second capability indication domain; wherein the first capability indication domain is used to indicate the first capability supported by the terminal device when the terminal device is not a reduced capability terminal device; and the second capability indication domain is used to indicate the first capability supported by the terminal device when the terminal device is a reduced capability terminal device; wherein the first signaling further comprises a device type indication domain and a selection indication domain, the device type indication domain is used to indicate whether the terminal device is a reduced capability terminal device and a type of the reduced capability terminal device, wherein the type of the reduced capability terminal device comprises a wearable device, a sensor, and a camera in different application scenarios; the selection indication domain is used to indicate whether the terminal device selects the first capability indication domain or the second capability indication domain. transmitting a first signaling to a network device, wherein the first signaling is used to report a first capability supported by the terminal device and indicate whether the terminal device is a reduced capability terminal device; characterized in that, the first signaling comprises a first capability indication domain or a second capability indication domain; wherein the first capability indication domain is used to indicate the first capability supported by the terminal device when the terminal device is not a reduced capability terminal device; and the second capability indication domain is used to indicate the first capability supported by the terminal device when the terminal device is a reduced capability terminal device; wherein the first signaling further comprises a device type indication domain and a selection indication domain, the device type indication domain is used to indicate whether the terminal device is a reduced capability terminal device and a type of the reduced capability terminal device, wherein the type of the reduced capability terminal device comprises a wearable device, a sensor, and a camera in different application scenarios; the selection indication domain is used to indicate whether the terminal device selects the first capability indication domain or the second capability indication domain.
Valve assembly for an injection valve, comprising - a valve body comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially moveable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions; - an armature for an electro-magnetic actuator unit, the armature axially movable in the cavity, the armature comprising a central axial opening through which the valve needle extends so that the armature is able to slide on the valve needle, and - a disc element being fixedly connected to the valve needle and positioned to limit axial displaceability of the armature relative to the valve needle in direction towards the fluid outlet portion, wherein the disc element comprises a collar part extending around and adjoining the valve needle and a disc-shaped part extending radially outwards from the collar part, the disc-shaped part comprising a plurality of passages extending in axial direction through the disc-shaped part, wherein the passages are configured and arranged to provide a first flow resistance for a fluid passing in a direction away from the fluid outlet portion and a second flow resistance in a direction towards the fluid outlet portion, wherein the second flow resistance is larger than the first flow resistance, characterized in that a valve is arranged for each of the passages, reducing or preventing fluid flow through the passage in the direction towards the fluid outlet portion. - a valve body comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially moveable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions; - an armature for an electro-magnetic actuator unit, the armature axially movable in the cavity, the armature comprising a central axial opening through which the valve needle extends so that the armature is able to slide on the valve needle, and - a disc element being fixedly connected to the valve needle and positioned to limit axial displaceability of the armature relative to the valve needle in direction towards the fluid outlet portion,
A method for producing a SiO 2 granulate, comprising providing a suspension containing SiO 2 particles in an aqueous liquid, freezing the suspension and removing the liquid, wherein the frozen SiO 2 suspension is thawed so as to form a liquid phase and a sediment of agglomerated SiO 2 particles, the liquid phase is removed and the sediment is dried for removing residual moisture and so as to form the SiO 2 granulate, characterized in that the suspension for adjusting the pH to more than 7 contains an addition of alkali-free bases in the form of nitrogen hydrides.
A process for treating a sodium-metal halide cell, comprising: charging the sodium-metal halide electrochemical cell in a discharged state to at least 20 percent state-of-charge of an accessible capacity of the sodium-metal halide cell at a first temperature to attain the sodium-metal halide cell in a partial state-of-charge or a full state-of-charge; and holding the sodium-metal halide electrochemical cell in the corresponding partial state-of-charge or full state-of-charge at a second temperature, wherein the first temperature and the second temperature are higher than an operating temperature of the sodium-metal halide cell wherein the operating temperature is in a range of from about 240 degrees Celsius to about 350 degrees Celsius, wherein the first temperature, the second temperature, or both are in a range of from 350 degrees Celsius to 500 degrees Celsius, wherein the holding step is carried out for a duration of time at least 6 hours. charging the sodium-metal halide electrochemical cell in a discharged state to at least 20 percent state-of-charge of an accessible capacity of the sodium-metal halide cell at a first temperature to attain the sodium-metal halide cell in a partial state-of-charge or a full state-of-charge; and holding the sodium-metal halide electrochemical cell in the corresponding partial state-of-charge or full state-of-charge at a second temperature, wherein the first temperature and the second temperature are higher than an operating temperature of the sodium-metal halide cell wherein the operating temperature is in a range of from about 240 degrees Celsius to about 350 degrees Celsius, wherein the first temperature, the second temperature, or both are in a range of from 350 degrees Celsius to 500 degrees Celsius, wherein the holding step is carried out for a duration of time at least 6 hours.
Wheel carrier device for a vehicle, comprising at least one wheel carrier, which has at least one bearing point, at which at least one wheel bearing is to be mounted for rotatably mounting a wheel hub, and is at least mostly surrounded on the outer circumference by at least one thermal insulation element, characterized in that the thermal insulation element has direct contact with an outer circumferential casing surface of the wheel carrier and the thermal insulation element at least partially surrounds the bearing point on at least two different sides of the bearing point.
A process for cutting from a sheet of inorganic fiber material at least one section of fiber material suitable for use in a pollution control device comprising: providing a laser apparatus; providing a sheet of inorganic fiber material suitable for use in a pollution control device; operating the laser apparatus so as to generate a laser beam; and applying the laser beam to the inorganic fiber material sheet so as to cut from the sheet at least one section of fiber material, with the section of fiber material having at least one cut edge with at least one group of two or more fibers fused together by the laser beam, wherein the laser beam is applied to the fiber material so as to cut the material at a rate of between 254 cm/minute to 1270 cm/minute. providing a laser apparatus; providing a sheet of inorganic fiber material suitable for use in a pollution control device; operating the laser apparatus so as to generate a laser beam; and applying the laser beam to the inorganic fiber material sheet so as to cut from the sheet at least one section of fiber material, with the section of fiber material having at least one cut edge with at least one group of two or more fibers fused together by the laser beam, wherein the laser beam is applied to the fiber material so as to cut the material at a rate of between 254 cm/minute to 1270 cm/minute.
A heliostat comprising a supporting structure, a mirror surface and a mount for connecting the mirror surface to the supporting structure, wherein the supporting structure comprises at least one profile, wherein the mount comprises - -a base, which is fixed to the rear side of the mirror surface, the base having a cutout and a recess which passes through the cutout, the recess serving to receive a connecting element, - -a securing pin, which can be inserted into the cutout of the base, the securing pin having a groove, which interacts with the connecting element, wherein the connecting element has a U-shaped cutout and two tongues, which can be positively connected to the groove of the securing pin, characterised in that the recess runs in the radial direction, in that the at least one profile of the supporting structure has at least one opening for receiving the securing pin of the mount, and in that a diameter of the at least one opening is at least twice as large, preferably three or four times as large, as a diameter of the securing pin. - -a base, which is fixed to the rear side of the mirror surface, the base having a cutout and a recess which passes through the cutout, the recess serving to receive a connecting element, - -a securing pin, which can be inserted into the cutout of the base, the securing pin having a groove, which interacts with the connecting element, wherein the connecting element has a U-shaped cutout and two tongues, which can be positively connected to the groove of the securing pin,