mhurhangee/ep-ind-claims huggingface dataset:
Pane assembly with illumination, comprising at least: a) a pane, b) an LED light strip attached on the edge of the pane by a connecting piece, wherein the LED light strip comprises at least: b.1) an LED circuit board, b.2) an LED, b.3) an electrical connection cable, b.4) a polymeric sheath of the LED circuit board, of the LED, and of the electrical connection cable, and c) a reflector mounted on the pane, wherein the connecting piece includes a double-sided, optically transparent adhesive tape and wherein the optically transparent adhesive tape includes, on the side facing the LED light strip, a silicone-containing adhesive and, on the side facing the pane, an acrylate-based adhesive. a) a pane, b) an LED light strip attached on the edge of the pane by a connecting piece, wherein the LED light strip comprises at least: b.1) an LED circuit board, b.2) an LED, b.3) an electrical connection cable, b.4) a polymeric sheath of the LED circuit board, of the LED, and of the electrical connection cable, and b.1) an LED circuit board, b.2) an LED, b.3) an electrical connection cable, b.4) a polymeric sheath of the LED circuit board, of the LED, and of the electrical connection cable, and c) a reflector mounted on the pane,
Method for feeding a metal cable twisted and braided into a plurality of braids or a flat wire from a spool to an operating machine such as a textile machine, a winding machine, a winder or the like which processes it, said feeding comprising unwinding the cable or wire from the spool, measuring at least one controlled property of the cable or wire from among its tension, velocity and quantity delivered, any adjustment of the said property and feeding of the cable or wire to the said machine with the aforesaid property being held constant, said at least one property of the cable or wire being controlled by a feed device feeding the cable or wire located between the spool and the operating machine, said feed device controlling a braking torque applied to the electric motor rotating said spool, the cable or wire being unwound in a controlled way in a direction at right angles to the axis of the spool, the controlled unwinding taking place by passing the cable leaving the spool over a return member located at a short distance from such spool and associated with a support member for the spool, wherein it comprises driving the spool by its own electric motor associated with said supporting member, said drive being obtained at a velocity such as to maintain unwinding of the cable or wire at right angles to the axis of the spool, and the feed device sends information relating to the feed velocity of wire or cable to the operating machine via a communication bus, acting so that such wire or cable always remains tensioned upstream from the feed device, avoiding loosening or tearing during the stage when the feed device is decelerating and accelerating, this controlled unwinding preventing the cable from changing its structure through loosening or stretching or said wire from suffering twisting before its property is measured, said cable or said wire maintaining its own structure from spool to the operating machine.
A base station apparatus used in an Evolved Universal Terrestrial Radio Access, the base station apparatus being configured to communicate with a mobile station apparatus by using a plurality of downlink component carriers, the base station apparatus comprising: a radio resource controller configured to set, on a first downlink component carrier on which a physical downlink control channel is transmitted by the base station apparatus, a plurality of control channel elements that constitute a user equipment specific search space, the user equipment specific search space including a plurality of physical downlink control channel candidates, downlink control information being transmitted using one of the plurality of physical downlink control channel candidates on the first downlink component carrier, in a case that the downlink control information indicates a resource allocation of a physical downlink shared channel on a second downlink component carrier, the plurality of control channel elements being set based on the second downlink component carrier by the radio resource controller; and a transmission processing unit configured to transmit the downlink control information using the one of the plurality of physical downlink control channel candidates on the first downlink component carrier. a radio resource controller configured to set, on a first downlink component carrier on which a physical downlink control channel is transmitted by the base station apparatus, a plurality of control channel elements that constitute a user equipment specific search space, the user equipment specific search space including a plurality of physical downlink control channel candidates, downlink control information being transmitted using one of the plurality of physical downlink control channel candidates on the first downlink component carrier, in a case that the downlink control information indicates a resource allocation of a physical downlink shared channel on a second downlink component carrier, the plurality of control channel elements being set based on the second downlink component carrier by the radio resource controller; and a transmission processing unit configured to transmit the downlink control information using the one of the plurality of physical downlink control channel candidates on the first downlink component carrier.
Steam ironing appliance comprising a base containing a device for producing a steam flow connected by a tube to a smoothing brush comprising at least one hole for the emission of steam, said base having an ironing surface against which the garment to be ironed can be pressed during the use of the smoothing brush, characterised in that said ironing surface can be folded or rolled upon itself for storage.
Winding head for a stator tooth of an electric motor, which stator core has a first stator flange and a second stator flange, which are joint by a stator joint part, wherein the stator core has an I-shaped cross section perpendicular to its longitudinal elongation with a first and a second end (15, 16), and the winding head is designed to extend the longitudinal elongation at the first end, and the winding head has a first winding head flange and a second winding head flange, which are joint by a winding head joint part, and it extends at least partially the elongation of the shape of the stator core, and the winding head has a winding hole at the first winding head flange and a groove in the winding head joint part, characterised in that the winding head has a winding opening at the winding head joint part, which winding hole and winding opening are connected by the groove. which stator core has a first stator flange and a second stator flange, which are joint by a stator joint part, wherein the stator core has an I-shaped cross section perpendicular to its longitudinal elongation with a first and a second end (15, 16), and the winding head is designed to extend the longitudinal elongation at the first end, and the winding head has a first winding head flange and a second winding head flange, which are joint by a winding head joint part, and it extends at least partially the elongation of the shape of the stator core, and the winding head has a winding hole at the first winding head flange and a groove in the winding head joint part, characterised in that the winding head has a winding opening at the winding head joint part, which winding hole and winding opening are connected by the groove.
A clock distribution node arranged to synchronize one or more remote clocks with a local clock, the clock distribution node to: calculate a first time offset between the local clock and one of the one or more remote clocks from a spatial interference pattern between a spatially aligned local pulse sequence from the local clock and remote pulse sequence from the remote clock; receive a second time offset from a remote node; and apply a time offset value based on a difference between the first and second time offsets to the remote clock to synchronize the remote clock to the local clock, wherein the remote node is arranged to calculate the second time offset based from a spatial interference pattern between a spatially aligned local pulse sequence from the local clock and remote pulse sequence from the remote clock. calculate a first time offset between the local clock and one of the one or more remote clocks from a spatial interference pattern between a spatially aligned local pulse sequence from the local clock and remote pulse sequence from the remote clock; receive a second time offset from a remote node; and apply a time offset value based on a difference between the first and second time offsets to the remote clock to synchronize the remote clock to the local clock, wherein the remote node is arranged to calculate the second time offset based from a spatial interference pattern between a spatially aligned local pulse sequence from the local clock and remote pulse sequence from the remote clock.
A method for beam failure recovery in a user equipment, comprising: sending a beam failure recovery request, BFRR, in an uplink, UL, beam pair, to a base station upon detection of a beam failure between the base station and the user equipment; and monitoring one or more candidate downlink, DL, beam pairs in which to receive a BFRR response from the base station, based on a transmission occasion association between a BFRR response and the BFRR, wherein the transmission occasion association is indicated by a time offset, wherein the monitoring further comprises monitoring in a time window with a starting position indicated by the time offset relative to the BFFR, in the DL beam pairs spatially quasi co-located, SQCL'ed, with the UL beam pair, and wherein the time offset is pre-configured with system information for beam failure recovery. sending a beam failure recovery request, BFRR, in an uplink, UL, beam pair, to a base station upon detection of a beam failure between the base station and the user equipment; and monitoring one or more candidate downlink, DL, beam pairs in which to receive a BFRR response from the base station, based on a transmission occasion association between a BFRR response and the BFRR, wherein the transmission occasion association is indicated by a time offset, wherein the monitoring further comprises monitoring in a time window with a starting position indicated by the time offset relative to the BFFR, in the DL beam pairs spatially quasi co-located, SQCL'ed, with the UL beam pair, and wherein the time offset is pre-configured with system information for beam failure recovery.
Seat of the passenger cabin of a vehicle comprising a bucket, said bucket comprising a seat and a backrest fastened to said seat with which it determines a constant dihedral angle, a headrest fastened to said backrest, wherein the bucket is integral with a base, said bucket being mobile, between a seated position "a" wherein the seat is substantially horizontal and a resting position "r" wherein the backrest is tilted towards the rear by an angle Â in relation to the seated position "a", in rotation in relation to said base about a tilting axis, substantially fixed in relation to said base, located above the seat and in front of the backrest when the bucket is in the seated position "a", characterised in that the base forms a box opened frontwards and surrounding the bucket, and in that the headrest is fastened articulated to the backrest in order to prevent the risks of interference with a structure of the base.
Method for encapsulating at least one microelectronic device, comprising at least the following steps: - producing at least one portion of sacrificial material covering at least the microelectronic device; - producing at least one cover covering at least the portion of sacrificial material, the cover comprising at least two superimposed layers (108, 110) of separate materials and having different residual stresses and/or different coefficients of thermal expansion; - etching, through the cover, of at least one trench of which the pattern, at an upper face of the cover, comprises at least one curve and/or at least two straight segments non-parallel with respect to each other and joining up at an intersection point; - etching of the portion of sacrificial material through the trench such that, during this etching, a portion of the cover defined by the trench deforms under the effect of a mechanical stress generated by the residual stresses and/or a thermal expansion of said at least two layers (108,110) of the cover and increases the dimensions of the trench; - at least partial elimination of the mechanical stress, obtained either by removing at least a part of a second of said at least two layers (108, 110) of the cover which is such that a first of the two layers (108, 110) of the cover is arranged between the portion of sacrificial material and the second of the two layers (108, 110) of the cover, or by stopping subjecting said at least two layers (108, 110) of the cover to a temperature generating a deformation of the portion of the cover; - depositing at least one sealing material at least on the trench. - producing at least one portion of sacrificial material covering at least the microelectronic device; - producing at least one cover covering at least the portion of sacrificial material, the cover comprising at least two superimposed layers (108, 110) of separate materials and having different residual stresses and/or different coefficients of thermal expansion; - etching, through the cover, of at least one trench of which the pattern, at an upper face of the cover, comprises at least one curve and/or at least two straight segments non-parallel with respect to each other and joining up at an intersection point; - etching of the portion of sacrificial material through the trench such that, during this etching, a portion of the cover defined by the trench deforms under the effect of a mechanical stress generated by the residual stresses and/or a thermal expansion of said at least two layers (108,110) of the cover and increases the dimensions of the trench; - at least partial elimination of the mechanical stress, obtained either by removing at least a part of a second of said at least two layers (108, 110) of the cover which is such that a first of the two layers (108, 110) of the cover is arranged between the portion of sacrificial material and the second of the two layers (108, 110) of the cover, or by stopping subjecting said at least two layers (108, 110) of the cover to a temperature generating a deformation of the portion of the cover; - depositing at least one sealing material at least on the trench.
Assembly of an electric power supply module and of a protective device for said module, said assembly being intended to equip an air-conditioning unit, in particular for a motor vehicle, said power supply module comprising a housing provided with regions allowing penetration of liquid into the housing, the protective device extending at least partially facing said regions so as to cause the liquid to flow beyond said regions, depending on the orientation of said power supply module, characterized in that the protective device comprises a deflecting plate comprising a first concavity and a second concavity, and in that the electric power supply module comprises a first region having a joining line between two parts (200, 202) of the housing, and a second region for connection to external connectors, said deflecting plate extending facing said first and second regions.
A mechanism comprising a pair of grapple mechanisms (26, 28) mounted on a main beam, each grapple mechanism includes opposing grab arms mounted to a grab arm housing; the grab arms of at least one of the grapple mechanisms are adjustable together relative to the main beam in one or more directions (x, y) generally perpendicular to a longitudinal axis of the main beam while gripping an object to adjust the position of the grab arms of the at least one grapple mechanism and the object gripped thereby relative to the main beam.
A method for reducing dust emissions in a metal or slag casting apparatus comprising an endless conveyor having a plurality of casting moulds with upper open tops and which endless conveyor is arranged to move said casting moulds in a first section from a casting station to a discharge station and In a second section back to the casting station, the method being characterised by the steps of (a) providing a casing forming a bottomless box over a part of the first section of the endless conveyor located adjacent to the casting station, (b) injecting within said casing a gas on the surface of the mould with an angle α sufficient to blow off loose, solid particles, such as graphite flakes, formed at the surface of the metal, during early stages of the cooling down and to start the solidification of a superficial layer of metal or slag, (c) extracting the gas and the solid particles by suction from within said casing. (a) providing a casing forming a bottomless box over a part of the first section of the endless conveyor located adjacent to the casting station, (b) injecting within said casing a gas on the surface of the mould with an angle α sufficient to blow off loose, solid particles, such as graphite flakes, formed at the surface of the metal, during early stages of the cooling down and to start the solidification of a superficial layer of metal or slag, (c) extracting the gas and the solid particles by suction from within said casing.
A casting device, comprising: a) a ring having an interior periphery; b) a plurality of front molds, each front mold having a lens-forming surface, and the front molds each providing an edge circumscribing the lens-forming surface that is sized to be complementarily received within a portion of the interior periphery of the ring; and c) a rear mold having a lens-forming surface, the rear mold configured to be paired with each of the plurality of front molds, a rim circumscribing the lens-forming surface that is sized to be complementarily received within a portion of the interior periphery of the ring; wherein when the edge of each of the front molds and the rim of the rear mold are configured to be received by the ring, the lens-forming surfaces (22, 42) of the front and rear molds (20, 40) and the ring form a mold cavity which has dimensions of a desired lens formable therein; and wherein the plurality of front molds each comprises a different shape so as to form lenses of different effective diameters; wherein each front mold is formed of a plastic and has a base having dimensions greater than the interior periphery of the ring; and the rear mold is formed of a plastic, and the rear mold further comprises a flange having dimensions greater than the interior periphery of the ring. a) a ring having an interior periphery; b) a plurality of front molds, each front mold having a lens-forming surface, and the front molds each providing an edge circumscribing the lens-forming surface that is sized to be complementarily received within a portion of the interior periphery of the ring; and c) a rear mold having a lens-forming surface, the rear mold configured to be paired with each of the plurality of front molds, a rim circumscribing the lens-forming surface that is sized to be complementarily received within a portion of the interior periphery of the ring;
A passenger control unit PCU network for a passenger aircraft having passenger seats in a plurality of zones, each zone having at least one column of seats, and each column having at least one row of seats, the network comprising: a direct current DC power distribution system; a plurality of wired PCUs, one PCU associated with each passenger seat, coupled to the DC power distribution system, each PCU having a processor and system memory and a standard data and power interface, the processor being programmed for differential peer-to -peer communication with adjacently interconnected PCUs throughout the PCU network and with an external system of the aircraft; a PCU of one seat of each row being serially coupled to all PCUs in the respective row, and designated as a row master PCU; a PCU of one seat of each column being serially coupled to all row master PCUs in the respective column, and designated as a column master PCU; a PCU of one seat of each zone being serially coupled to all column master PCUs in the respective zone, and designated as a zone master PCU; one zone master PCU designated as a PCU system master and connected to the external system; and two-conductor data wires coupling all PCUs within the PCU network. a direct current DC power distribution system; a plurality of wired PCUs, one PCU associated with each passenger seat, coupled to the DC power distribution system, each PCU having a processor and system memory and a standard data and power interface, the processor being programmed for differential peer-to -peer communication with adjacently interconnected PCUs throughout the PCU network and with an external system of the aircraft; a PCU of one seat of each row being serially coupled to all PCUs in the respective row, and designated as a row master PCU; a PCU of one seat of each column being serially coupled to all row master PCUs in the respective column, and designated as a column master PCU; a PCU of one seat of each zone being serially coupled to all column master PCUs in the respective zone, and designated as a zone master PCU; one zone master PCU designated as a PCU system master and connected to the external system; and two-conductor data wires coupling all PCUs within the PCU network.
An aircraft light glazing component comprising: an at least partially transparent body comprising an exterior and interior face in use, the body comprising a visual wear indicator; characterised by the visual wear indicator being positioned on the interior face of the body or within the body such that a predetermined amount of erosion of the body changes the appearance of the visual wear indicator and a location indicator proximate the visual wear indicator, which location indicator is more visually prominent than the visual wear indicator so as to be less affected by erosion. an at least partially transparent body comprising an exterior and interior face in use, the body comprising a visual wear indicator; characterised by the visual wear indicator being positioned on the interior face of the body or within the body such that a predetermined amount of erosion of the body changes the appearance of the visual wear indicator and a location indicator proximate the visual wear indicator, which location indicator is more visually prominent than the visual wear indicator so as to be less affected by erosion.
LED lighting unit comprising: - at least one electroluminescent diode; - at least one communication interface with an Ethernet cable; - an electronic processing unit configured to collect data relating to the operation of the electroluminescent diode; the lighting unit being supplied with current via the Ethernet cable (PoE) and further comprising: - an autonomous power source to ensure degraded operation in case of a power cut on the Ethernet cable; and - a Peltier element configured to collect heat emitted by the light-emitting diode and to supply the autonomous power source with current. - at least one electroluminescent diode; - at least one communication interface with an Ethernet cable; - an electronic processing unit configured to collect data relating to the operation of the electroluminescent diode; - an autonomous power source to ensure degraded operation in case of a power cut on the Ethernet cable; and - a Peltier element configured to collect heat emitted by the light-emitting diode and to supply the autonomous power source with current.