mhurhangee/ep-ind-claims huggingface dataset:
Locking system for locking a fitting of an on-board system, in particular a container, comprising: - locking members (12, 14) movable between an open position in which they can freely pass through an opening in a wall of the fitting of the on-board system in an insertion direction and a closed position in which they are locked with respect to the opening, - a locking mechanism connected to the locking members (12, 14), movable between a first position in which the locking members (12, 14) are in the open position and a second position in which the locking members (12, 14) are in the closed position, characterised in that it comprises at least one actuator and coupling members coupling said at least one actuator to the locking mechanism so that, in an operating mode, the actuator cooperates with the coupling members in order to move the locking mechanism at least from the first position to the second position, optionally from the second position to the first position, and in that, the actuator being an electric actuator, in at least one stop mode the actuator cooperates with the coupling members to block the locking mechanism in at least one position selected from the first and second positions. - locking members (12, 14) movable between an open position in which they can freely pass through an opening in a wall of the fitting of the on-board system in an insertion direction and a closed position in which they are locked with respect to the opening, - a locking mechanism connected to the locking members (12, 14), movable between a first position in which the locking members (12, 14) are in the open position and a second position in which the locking members (12, 14) are in the closed position, characterised in that it comprises at least one actuator and coupling members coupling said at least one actuator to the locking mechanism so that, in an operating mode, the actuator cooperates with the coupling members in order to move the locking mechanism at least from the first position to the second position, optionally from the second position to the first position, and in that, the actuator being an electric actuator, in at least one stop mode the actuator cooperates with the coupling members to block the locking mechanism in at least one position selected from the first and second positions.
A reactor pressure vessel assembly, comprising: a reactor core; steam separators over the reactor core; a chimney between the reactor core and the steam separators, an inner surface of the chimney and an inner surface of the reactor core defining a conduit for transport of a gas-liquid two phase flow stream from the reactor core through the chimney to the steam separators; a housing surrounding the reactor core, the chimney, and the steam separators, the housing defining at least one feedwater opening, an inner surface of the housing, an outer surface of the chimney, and an outer surface of the reactor core defining an annulus in fluid communication with the at least one feedwater opening and the conduit; at least one feedwater sparger in the housing, each feedwater sparger being connected to a corresponding one of the at least one feedwater opening, each feedwater sparger being configured to deliver a sub-cooled feedwater into the annulus; and a flow barrier structure in the housing; characterized in that the flow barrier structure is spaced apart in a vertical direction over the chimney and below the steam separators, the flow barrier structure is configured to force mixing between the sub-cooled feedwater and a downcomer fluid from the steam separators, and at least one of the steam separators is placed vertically over a portion of the flow barrier structure in a plan view. a reactor core; steam separators over the reactor core; a chimney between the reactor core and the steam separators, an inner surface of the chimney and an inner surface of the reactor core defining a conduit for transport of a gas-liquid two phase flow stream from the reactor core through the chimney to the steam separators; a housing surrounding the reactor core, the chimney, and the steam separators, the housing defining at least one feedwater opening, an inner surface of the housing, an outer surface of the chimney, and an outer surface of the reactor core defining an annulus in fluid communication with the at least one feedwater opening and the conduit; at least one feedwater sparger in the housing, each feedwater sparger being connected to a corresponding one of the at least one feedwater opening, each feedwater sparger being configured to deliver a sub-cooled feedwater into the annulus; and a flow barrier structure in the housing;
A luminous module (2; 102; 202), in particular for a motor vehicle, said module comprising: - an optical axis (12; 112; 212); - a first light source (4; 104; 218) able to emit light rays, and a first reflective surface (6; 106; 220) configured to collect and reflect the light rays emitted by said first light source into a first light beam (16; 116; 222); - a second light source (18; 118; 228) and a second reflective surface (20; 120; 230) configured to collect and reflect the light rays emitted by said second light source into a second light beam (22; 122; 232); - an optical system (14; 114; 214) configured to project the first and second light beams (16, 22; 116, 122; 222, 232); the optical system (14; 114; 214) comprising a focal point located on or in proximity to the second reflective surface (20; 120; 230), that is at a distance from said second reflective surface smaller than 10 mm, and the optical system (14; 114; 214) is configured to form an image of the second reflective surface (20; 120; 230), more specifically of the portion of the reflective surface closest to the focal point, characterized in that the first and second light sources (4, 18; 104, 118; 218, 228) emit the light rays in the same direction, and in that the first and second reflective surfaces (6, 20; 106, 120; 220, 230) are offset along the optical axis (12; 112; 212), the first reflective surface (6; 106; 220) being located behind the second reflective surface (20; 120; 230), and in that the first and second light beams (16; 116; 222 and 22; 122; 232) are emitted along the optical axis (12; 112; 212) of the module. - an optical axis (12; 112; 212); - a first light source (4; 104; 218) able to emit light rays, and a first reflective surface (6; 106; 220) configured to collect and reflect the light rays emitted by said first light source into a first light beam (16; 116; 222); - a second light source (18; 118; 228) and a second reflective surface (20; 120; 230) configured to collect and reflect the light rays emitted by said second light source into a second light beam (22; 122; 232); - an optical system (14; 114; 214) configured to project the first and second light beams (16, 22; 116, 122; 222, 232); the optical system (14; 114; 214) comprising a focal point located on or in proximity to the second reflective surface (20; 120; 230), that is at a distance from said second reflective surface smaller than 10 mm, and the optical system (14; 114; 214) is configured to form an image of the second reflective surface (20; 120; 230), more specifically of the portion of the reflective surface closest to the focal point, characterized in that the first and second light sources (4, 18; 104, 118; 218, 228) emit the light rays in the same direction, and in that the first and second reflective surfaces (6, 20; 106, 120; 220, 230) are offset along the optical axis (12; 112; 212), the first reflective surface (6; 106; 220) being located behind the second reflective surface (20; 120; 230), and in that the first and second light beams (16; 116; 222 and 22; 122; 232) are emitted along the optical axis (12; 112; 212) of the module.
A display apparatus (10, 20, 30) comprising: a display panel adapted to display an image; a camera module including a lens part; a mold frame supporting the display panel; and a receiving container having a main receiving space receiving the display panel, and a sub receiving space receiving the camera module, wherein the sub receiving space is extended away from the main receiving space, wherein the receiving container includes sidewalls, a first bottom connected to the sidewalls and a second bottom extended from a first sidewall of the sidewalls, and the main receiving space is defined by the sidewalls and the first bottom and the sub receiving space is defined by the first sidewall and the second bottom, and wherein the receiving container is formed as one structure so that both of the display panel and the camera module are received in the one receiving container; characterized by the camera module further including a first flexible film, which connects a printed circuit board of the camera module with an external driving part, and the camera module being disposed in the lower portion of the sub receiving space, wherein the second bottom includes an opening portion exposing the lens part of the camera module at an upper surface of the second bottom. a display panel adapted to display an image; a camera module including a lens part; a mold frame supporting the display panel; and a receiving container having a main receiving space receiving the display panel, and a sub receiving space receiving the camera module, wherein the sub receiving space is extended away from the main receiving space, wherein the receiving container includes sidewalls, a first bottom connected to the sidewalls and a second bottom extended from a first sidewall of the sidewalls, and the main receiving space is defined by the sidewalls and the first bottom and the sub receiving space is defined by the first sidewall and the second bottom, and wherein the receiving container is formed as one structure so that both of the display panel and the camera module are received in the one receiving container; characterized by the camera module further including a first flexible film, which connects a printed circuit board of the camera module with an external driving part, and the camera module being disposed in the lower portion of the sub receiving space, wherein the second bottom includes an opening portion exposing the lens part of the camera module at an upper surface of the second bottom.
A functional unit, namely a piece of furniture or a structural element of a piece of furniture with a wooden composite board and with - a useable surface (8, 9) having a first decorative pattern, - a decorative surface (4, 5, 6, 7) having a second decorative pattern, wherein - the decorative patterns have a color pattern and a structural pattern, - the first and second decorative patterns correspond to each other as much as possible and - the haptic features in the decorative surface correspond to those in the useable surface, characterized in that the useable surface shows much more resistance than the decorative surface. - a useable surface (8, 9) having a first decorative pattern, - a decorative surface (4, 5, 6, 7) having a second decorative pattern, - the decorative patterns have a color pattern and a structural pattern, - the first and second decorative patterns correspond to each other as much as possible and - the haptic features in the decorative surface correspond to those in the useable surface, characterized in that
Pressure transmitter, comprising: a resistive pressure sensor element with a measuring diaphragm, said diaphragm having at least four resistance elements, wherein the resistance elements (12, 13, 14, 15) are arranged in a full bridge circuit, wherein the full bridge has a longitudinal direction in which it is supplied with a constant current in a measuring mode, wherein, in the event of being supplied with a constant current, a longitudinal voltage has a first pressure dependency and a first temperature dependency, and a diagonal voltage has a second pressure dependency and a second temperature dependency, wherein the second pressure dependency is greater than the first pressure dependency at a given temperature, wherein the pressure transmitter has a processing circuit, which is configured to determine a pressure measured value at least using the diagonal voltage and, where applicable, the longitudinal voltage, characterized in that the processing circuit is further configured to check, during measuring operation, whether a value pair of a longitudinal voltage and a diagonal voltage corresponds to an expected functional correlation at a current temperature, wherein the processing circuit is configured to make a quality assessment of the pressure measured value using a result of the check to determine whether a value pair of a longitudinal voltage and a diagonal voltage corresponds to an expected functional correlation at a current temperature. a resistive pressure sensor element with a measuring diaphragm, said diaphragm having at least four resistance elements, wherein the resistance elements (12, 13, 14, 15) are arranged in a full bridge circuit, wherein the full bridge has a longitudinal direction in which it is supplied with a constant current in a measuring mode, wherein, in the event of being supplied with a constant current, a longitudinal voltage has a first pressure dependency and a first temperature dependency, and a diagonal voltage has a second pressure dependency and a second temperature dependency, wherein the second pressure dependency is greater than the first pressure dependency at a given temperature, wherein the pressure transmitter has a processing circuit, which is configured to determine a pressure measured value at least using the diagonal voltage and, where applicable, the longitudinal voltage, characterized in that the processing circuit is further configured to check, during measuring operation, whether a value pair of a longitudinal voltage and a diagonal voltage corresponds to an expected functional correlation at a current temperature, wherein the processing circuit is configured to make a quality assessment of the pressure measured value using a result of the check to determine whether a value pair of a longitudinal voltage and a diagonal voltage corresponds to an expected functional correlation at a current temperature.
A weft yarn feeding device for feeding weft yarn to a weaving machine, the yarn feeding device forming an intermediate yarn buffer between a weft yarn storage and the weaving machine, wherein the yarn is inserted into the shed of the weaving machine having at least one rapier (11, 12), the weft yarn feeding device comprising at least one yarn guide provided on a moving member driven by a controlled motor comprised in the weft yarn feeding device to cause the moving member to move back and forth, characterised in that the weft yarn feeding device is configured to draw yarn from a weft yarn storage (13, 14) via said at least one guide provided on said moving member to the weaving machine.
Method for making a fuel cell stack comprising the steps: a) a first half cell is manufactured comprising a substrate, an anode arranged thereon and an electrolyte arranged on the anode, b) the half cell is reduced, c) a value for the leaktightness of the electrolyte or a value for the cell resistance is determined for the first reduced half cell, d) if the determined value for the leaktightness of the electrolyte and/or the value for the cell resistance satisfies a predetermined quality requirement the first half cell is subsequently coated with a cathode, e) the first fuel cell manufactured in this way is built into a fuel cell stack together with at least one further fuel cell, wherein the cathode of the first fuel cell is sintered "in situ" the first time the stack is started up, e) wherein a cathode material with a sintering temperature (T s) below 950 °C is used, f) wherein the installation of the further fuel cells in the fuel cell stack only takes place if the determined value for the leaktightness of the electrolyte and/or the value for the cell resistance of this further fuel cell also satisfies a predetermined quality requirement. a) a first half cell is manufactured comprising a substrate, an anode arranged thereon and an electrolyte arranged on the anode, b) the half cell is reduced, c) a value for the leaktightness of the electrolyte or a value for the cell resistance is determined for the first reduced half cell, d) if the determined value for the leaktightness of the electrolyte and/or the value for the cell resistance satisfies a predetermined quality requirement the first half cell is subsequently coated with a cathode, e) the first fuel cell manufactured in this way is built into a fuel cell stack together with at least one further fuel cell, wherein the cathode of the first fuel cell is sintered "in situ" the first time the stack is started up, e) wherein a cathode material with a sintering temperature (T s) below 950 °C is used, f) wherein the installation of the further fuel cells in the fuel cell stack only takes place if the determined value for the leaktightness of the electrolyte and/or the value for the cell resistance of this further fuel cell also satisfies a predetermined quality requirement.
A copolycarbonate having a weight average molecular weight of 1,000 to 100,000 g/mol measured with GPC using PC Standard, which comprises: a repeating unit represented by the following Formula 1, a repeating unit represented by the following Formula 2, and a repeating unit represented by the following Formula 3: in the above Formula 1, each of R 1, R 2, R 3 and R 4 is independently hydrogen, C 1-10 alkyl, or halogen, and Z is C 1-10 alkylene unsubstituted or substituted by phenyl, C 3-10 cycloalkylene, O, S, SO, SO 2, or CO, in the above Formula 2, each of Ra is independently C 1-10 alkylene, each of Y is independently C 1-10 alkoxy, each of R 5 is independently hydrogen, or C 1-13 alkyl, and n is an integer of 10 to 35, in the above Formula 3, each of Rb is independently C 1-10 alkylene, each of Y' is independently C 1-10 alkoxy, each of R 6 is independently hydrogen, or C 1-13 alkyl, and m is an integer of 45 to 100. a repeating unit represented by the following Formula 1, a repeating unit represented by the following Formula 2, and a repeating unit represented by the following Formula 3: in the above Formula 1, each of R 1, R 2, R 3 and R 4 is independently hydrogen, C 1-10 alkyl, or halogen, and Z is C 1-10 alkylene unsubstituted or substituted by phenyl, C 3-10 cycloalkylene, O, S, SO, SO 2, or CO, in the above Formula 2, each of Ra is independently C 1-10 alkylene, each of Y is independently C 1-10 alkoxy, each of R 5 is independently hydrogen, or C 1-13 alkyl, and n is an integer of 10 to 35, in the above Formula 3, each of Rb is independently C 1-10 alkylene, each of Y' is independently C 1-10 alkoxy, each of R 6 is independently hydrogen, or C 1-13 alkyl, and m is an integer of 45 to 100. each of R 1, R 2, R 3 and R 4 is independently hydrogen, C 1-10 alkyl, or halogen, and Z is C 1-10 alkylene unsubstituted or substituted by phenyl, C 3-10 cycloalkylene, O, S, SO, SO 2, or CO, each of Ra is independently C 1-10 alkylene, each of Y is independently C 1-10 alkoxy, each of R 5 is independently hydrogen, or C 1-13 alkyl, and n is an integer of 10 to 35, each of Rb is independently C 1-10 alkylene, each of Y' is independently C 1-10 alkoxy, each of R 6 is independently hydrogen, or C 1-13 alkyl, and m is an integer of 45 to 100.
A charged-particle multi-beam processing apparatus for exposure of a target with a plurality of beams of electrically charged particles, comprising a plurality of particle-optical columns arranged parallel and configured for directing a respective particle beam towards the target, the apparatus being configured to perform the exposure of said target with respect to a predetermined line grid direction, with said target comprising a line pattern oriented along said line grid direction, wherein each particle-optical column comprises: - an illumination system, - a beam shaping device and - a projection optics system, the illumination system being configured to produce a respective beam and form it into a substantially telecentric beam illuminating the beam shaping device, the beam shaping device being configured to form the shape of the illuminating beam into a desired pattern composed of a multitude of sub-beams, and the projection optics system being configured to project an image of the beam shape defined in the beam shaping device onto the target, wherein each beam shaping device includes - an aperture array device (200, 203) provided with an array of apertures, said array of apertures comprising a multitude of apertures (24, 26, 81, 201, 202, 231, 232), each of which defines the shape of a respective sub-beam having a nominal path towards the target, and - a deflection array device (230, 233), configured to deflect selected sub-beams off their respective nominal path so that sub-beams thus selected do not reach the target, wherein the apertures in said array of apertures are configured to form an oblong shape as seen along the direction of the beam, said oblong shape having a short (aX) and a long side (aY), with the long side being at least the double of the short side, wherein the oblong shape formed by the apertures is oriented traversing said line grid direction. - an illumination system, - a beam shaping device and - a projection optics system, - an aperture array device (200, 203) provided with an array of apertures, said array of apertures comprising a multitude of apertures (24, 26, 81, 201, 202, 231, 232), each of which defines the shape of a respective sub-beam having a nominal path towards the target, and - a deflection array device (230, 233), configured to deflect selected sub-beams off their respective nominal path so that sub-beams thus selected do not reach the target,
A communication device connected to a mobility network which is a network mounted in a vehicle, the mobility network being an in-vehicle network used by a plurality of electronic control devices for communication, the communication device comprising: a receiving unit configured to receive a message in the mobility network; a whitelist holding unit configured to hold a whitelist including range information indicating a transferrable path range determined according to one of a transmission source and a transmission destination for the received message in the mobility network, the transferrable path range indicating a range within which the received message is transferrable along a path in the mobility network; and a whitelist determining unit configured to determine a validity of the message received, by using the whitelist including the range information, wherein the range information indicates a range of a round trip time, RTT, as the transferrable path range, and the whitelist determining unit is configured to determine the validity of the message received by comparing a value of the RTT derived from information included in the message received with the range of the RTT indicated by the range information. a receiving unit configured to receive a message in the mobility network; a whitelist holding unit configured to hold a whitelist including range information indicating a transferrable path range determined according to one of a transmission source and a transmission destination for the received message in the mobility network, the transferrable path range indicating a range within which the received message is transferrable along a path in the mobility network; and a whitelist determining unit configured to determine a validity of the message received, by using the whitelist including the range information, wherein the range information indicates a range of a round trip time, RTT, as the transferrable path range, and the whitelist determining unit is configured to determine the validity of the message received by comparing a value of the RTT derived from information included in the message received with the range of the RTT indicated by the range information.