mhurhangee/ep-ind-claims huggingface dataset:
A power cable (5; 5') comprising: a conductive core (9; 9') comprising a conductor (13; 13') including a plurality of sections (13a, 13b; 13a', 13b', 8), and an electrical insulation system (11; 11') enclosing the conductor (13; 13'), and a sheath (7; 7') enclosing the conductive core (9; 9'), wherein one of the plurality of sections (13a, 13b; 13a', 13b', 8) of the conductor (13; 13') is a first conductor section (13a; 13a') and another of the plurality of sections (13a, 13b; 13a', 13b', 8) of the conductor is a second conductor section (13b; 13b'), which first conductor section (13a; 13a') has a first cross-sectional geometry that provides a first ampacity for the first conductor section (13a; 13a'), and which second conductor section (13b; 13b') has a second cross-sectional geometry that provides a second ampacity for the second conductor section (13b; 13b'), wherein the first ampacity is higher than the second ampacity, wherein the plurality of sections (13a, 13b; 13a', 13b', 8) are thermally joined, and wherein the electrical insulation system (11; 11') extends continually from the first conductor section (13a; 13a') to the second conductor (13b; 13b') section of the conductor (13; 13'), wherein the first conductor section (13a; 13a') comprises a plurality of strands and wherein the first cross-sectional geometry is a first strand configuration, and wherein the second conductor section (13b; 13b') comprises a plurality of strands and wherein the second cross-sectional geometry is a second strand configuration. a conductive core (9; 9') comprising a conductor (13; 13') including a plurality of sections (13a, 13b; 13a', 13b', 8), and an electrical insulation system (11; 11') enclosing the conductor (13; 13'), and a sheath (7; 7') enclosing the conductive core (9; 9'), wherein one of the plurality of sections (13a, 13b; 13a', 13b', 8) of the conductor (13; 13') is a first conductor section (13a; 13a') and another of the plurality of sections (13a, 13b; 13a', 13b', 8) of the conductor is a second conductor section (13b; 13b'), which first conductor section (13a; 13a') has a first cross-sectional geometry that provides a first ampacity for the first conductor section (13a; 13a'), and which second conductor section (13b; 13b') has a second cross-sectional geometry that provides a second ampacity for the second conductor section (13b; 13b'), wherein the first ampacity is higher than the second ampacity, wherein the plurality of sections (13a, 13b; 13a', 13b', 8) are thermally joined, and wherein the electrical insulation system (11; 11') extends continually from the first conductor section (13a; 13a') to the second conductor (13b; 13b') section of the conductor (13; 13'), wherein the first conductor section (13a; 13a') comprises a plurality of strands and wherein the first cross-sectional geometry is a first strand configuration, and wherein the second conductor section (13b; 13b') comprises a plurality of strands and wherein the second cross-sectional geometry is a second strand configuration.
Light-guide carrier apparatus, comprising - an injection moulding carrier having a plastic, - a first light-guiding fibre bundle comprising a multiplicity of individual fibres, and - a second light-guiding fibre bundle comprising a multiplicity of individual fibres, - wherein the first and the second light-guiding fibre bundle (3, 5) are embedded in the injection moulding carrier such that they are spaced apart from one another, and - wherein the injection moulding carrier has an attachment rib for attachment to a carrier component, wherein the attachment rib is formed in one piece with the injection moulding carrier. - an injection moulding carrier having a plastic, - a first light-guiding fibre bundle comprising a multiplicity of individual fibres, and - a second light-guiding fibre bundle comprising a multiplicity of individual fibres, - wherein the first and the second light-guiding fibre bundle (3, 5) are embedded in the injection moulding carrier such that they are spaced apart from one another, and - wherein the injection moulding carrier has an attachment rib for attachment to a carrier component, wherein the attachment rib is formed in one piece with the injection moulding carrier.
A method for use in a wireless communication system, the method comprising: measuring a power of a signal received by a transceiver at a plurality of discrete measurement times within a prescribed time period to produce a plurality of respectively temporally corresponding discrete measured power values, wherein the signal includes a plurality of symbols, and wherein the prescribed time period encompasses the periodicity of initial acquisition pilot symbols; unidirectionally adjusting a gain of the transceiver in response to a determination that one of said discrete measured power values is higher than the largest previous one of said discrete measured power values, wherein adjusting the gain of the transceiver further comprises further measuring a power of the signal and reducing the gain until a maximal power value is measured; and acquiring an initial acquisition symbol after the prescribed time period is over and the gain has been adjusted. measuring a power of a signal received by a transceiver at a plurality of discrete measurement times within a prescribed time period to produce a plurality of respectively temporally corresponding discrete measured power values, wherein the signal includes a plurality of symbols, and wherein the prescribed time period encompasses the periodicity of initial acquisition pilot symbols; unidirectionally adjusting a gain of the transceiver in response to a determination that one of said discrete measured power values is higher than the largest previous one of said discrete measured power values, wherein adjusting the gain of the transceiver further comprises further measuring a power of the signal and reducing the gain until a maximal power value is measured; and acquiring an initial acquisition symbol after the prescribed time period is over and the gain has been adjusted.
Active-dynamic seating furniture having a seat part with a seat surface of a seating furniture and a resilient rocking mechanism for the seat part, arranged on a supporting frame, for executing movements with the seat part relative to the supporting frame, wherein the seat part is spring movably tiltably mounted on the supporting frame, wherein the resilient rocking mechanism comprises a first bracket comprising at least one lever arm, 21b), which is respectively connectable to a rear portion of the supporting frame, and a second bracket having at least one lever arm (22a, 22b), which is respectively connectable to a front portion of the supporting frame, wherein the seat part is attached to the brackets (21, 22) by means of elastically deformable bearings and wherein the seat part is attached to the rocker mechanism by means of the elastically deformable bearings.
A method for normalising the amplification of nucleic acid templates of different sequence comprising: a) a first round comprising one or more cycles of amplification, wherein the cycles of amplification comprise amplifying the nucleic acid templates in an ensemble under conditions in which the concentration of A and/or T nucleotides is not less than the concentration of G and/or C nucleotides; and b) a second round comprising one or more cycles of amplification, wherein the cycles of amplification comprise amplifying the nucleic acid templates in the ensemble under conditions in which the concentration of A and/or T nucleotides is less than the concentration of G and/or C nucleotides; wherein amplification includes annealing primers to single stranded templates and extending the primers to produce copies of the single stranded templates. a) a first round comprising one or more cycles of amplification, wherein the cycles of amplification comprise amplifying the nucleic acid templates in an ensemble under conditions in which the concentration of A and/or T nucleotides is not less than the concentration of G and/or C nucleotides; and b) a second round comprising one or more cycles of amplification, wherein the cycles of amplification comprise amplifying the nucleic acid templates in the ensemble under conditions in which the concentration of A and/or T nucleotides is less than the concentration of G and/or C nucleotides;
Method for surveying an object for and using a geodetic surveying device (1, 11), in particular a total station, having • a derivation of an item of surface information at least for one object region (21-23, 54-56), in particular with respect to a shape and/or spatial extension of the object, and • at least one geodetically precise single point determination for an object point (24, 25) within the object region (21-23, 54-56), wherein a position of the at least one object point (24, 25) is determined geodetically precisely, characterized by • a scan to derive the item of surface information, having □ object-point-independent scanning of the object region (21-23, 54-56) by progressive alignment changes of the measuring radiation, □ a determination of a respective distance and a respective alignment of the measuring radiation emitted for the distance measurement for scanning points within the object region (21-23, 54-56), in particular in a predetermined scanning point resolution, and □ a generation of a point cloud (20a-c), which represents the item of surface information and has the scanning points, and • an update of the item of surface information based on the determined position of the at least one object point (24, 25). • a derivation of an item of surface information at least for one object region (21-23, 54-56), in particular with respect to a shape and/or spatial extension of the object, and • at least one geodetically precise single point determination for an object point (24, 25) within the object region (21-23, 54-56), wherein a position of the at least one object point (24, 25) is determined geodetically precisely, characterized by • a scan to derive the item of surface information, having □ object-point-independent scanning of the object region (21-23, 54-56) by progressive alignment changes of the measuring radiation, □ a determination of a respective distance and a respective alignment of the measuring radiation emitted for the distance measurement for scanning points within the object region (21-23, 54-56), in particular in a predetermined scanning point resolution, and □ a generation of a point cloud (20a-c), which represents the item of surface information and has the scanning points, and □ object-point-independent scanning of the object region (21-23, 54-56) by progressive alignment changes of the measuring radiation, □ a determination of a respective distance and a respective alignment of the measuring radiation emitted for the distance measurement for scanning points within the object region (21-23, 54-56), in particular in a predetermined scanning point resolution, and □ a generation of a point cloud (20a-c), which represents the item of surface information and has the scanning points, and • an update of the item of surface information based on the determined position of the at least one object point (24, 25).
The use of a protease which comprises an amino acid sequence which is at least 80% identical to the amino acid sequence given in SEQ ID NO. 1 and which has at position 99 in the count according to SEQ ID NO. 1 the amino acid glutamic acid or aspartic acid, for providing a proteolytic activity in a liquid washing or cleaning composition which also comprises a phosphonate in an amount of from 0.01 to 4% by weight. which comprises an amino acid sequence which is at least 80% identical to the amino acid sequence given in SEQ ID NO. 1 and which has at position 99 in the count according to SEQ ID NO. 1 the amino acid glutamic acid or aspartic acid, for providing a proteolytic activity in a liquid washing or cleaning composition which also comprises a phosphonate in an amount of from 0.01 to 4% by weight.
A light-emitting element housing member (A4, A5), comprising: a substrate that includes a bottom base material having a rectangular shape in a planar view, a wall member provided on the bottom basematerial to enclose a mountingpart for mounting a light-emitting element in a U-shaped manner and have an opening in at least one portion thereof, and the mounting part provided in an area inside the wall member, wherein the substrate is integrally formed of a ceramic, a bridge member is provided in the opening of the wall member, and the bridge member is integrally formed with the wall member without involving any bonded surface. a substrate that includes a bottom base material having a rectangular shape in a planar view, a wall member provided on the bottom basematerial to enclose a mountingpart for mounting a light-emitting element in a U-shaped manner and have an opening in at least one portion thereof, and the mounting part provided in an area inside the wall member, wherein the substrate is integrally formed of a ceramic, a bridge member is provided in the opening of the wall member, and the bridge member is integrally formed with the wall member without involving any bonded surface.
A rail-mounted lift unit comprising: a lift motor, a switch arranged to move between a closed position, wherein the switch electrically couples the lift motor to an energy source, and an open position, wherein the switch electrically decouples the lift motor from the energy source; an emergency stop device coupled to the switch and arranged to move the switch from the closed position to the open position; a reset actuator coupled to the switch and arranged to move the switch from the open position to the closed position; one or more user interface devices; and a control unit comprising a processor coupled to a non-transitory memory storing computer readable and executable instructions, the control unit being communicatively coupled to the reset actuator and the one or more user interface devices, wherein the control unit executes logic to: receive a reset input from the one or more user interface devices; and move the switch from the open position to the closed position and reset the emergency stop device with the reset actuator when the reset input is received by the one or more user interface devices. a lift motor, a switch arranged to move between a closed position, wherein the switch electrically couples the lift motor to an energy source, and an open position, wherein the switch electrically decouples the lift motor from the energy source; an emergency stop device coupled to the switch and arranged to move the switch from the closed position to the open position; a reset actuator coupled to the switch and arranged to move the switch from the open position to the closed position; one or more user interface devices; and a control unit comprising a processor coupled to a non-transitory memory storing computer readable and executable instructions, the control unit being communicatively coupled to the reset actuator and the one or more user interface devices, wherein the control unit executes logic to: receive a reset input from the one or more user interface devices; and move the switch from the open position to the closed position and reset the emergency stop device with the reset actuator when the reset input is received by the one or more user interface devices. receive a reset input from the one or more user interface devices; and move the switch from the open position to the closed position and reset the emergency stop device with the reset actuator when the reset input is received by the one or more user interface devices.
A packaging apparatus for packaging an article to be packaged by covering the article to be packaged with a film held at a peripheral edge portion thereof and stretched and overlapping the peripheral edge portion of the film below the article to be packaged, the packaging apparatus comprising: a movably mounted first holding unit configured to hold the peripheral edge portion of the film on a front side; a second holding unit provided to be opposed to the first holding unit and configured to hold the peripheral edge portion of the film on a rear side; a lifting unit configured to carry the article to be packaged and press the article to be packaged to the film held and stretched by the first holding unit and the second holding unit; a folding unit configured to fold the peripheral edge portion of the film on the rear side to which the article to be packaged has been pressed by the lifting unit into an underside of the article to be packaged; an extruding unit configured to extrude to the front side the article to be packaged having the peripheral edge portion of the film on the rear side folded under the article to be packaged by the folding unit; and a control unit configured to control operation of the first and second holding units (51,52), the lifting unit, the folding unit and the extruding unit, characterized in that the control unit is configured to control the position of the first holding unit to decrease tension of the held film after the peripheral edge portion of the film on the rear side starts to be folded into the underside of the article to be packaged by the folding unit before the extruding unit starts to extrude the article to be packaged from the rear side to the front side. a movably mounted first holding unit configured to hold the peripheral edge portion of the film on a front side; a second holding unit provided to be opposed to the first holding unit and configured to hold the peripheral edge portion of the film on a rear side; a lifting unit configured to carry the article to be packaged and press the article to be packaged to the film held and stretched by the first holding unit and the second holding unit; a folding unit configured to fold the peripheral edge portion of the film on the rear side to which the article to be packaged has been pressed by the lifting unit into an underside of the article to be packaged; an extruding unit configured to extrude to the front side the article to be packaged having the peripheral edge portion of the film on the rear side folded under the article to be packaged by the folding unit; and a control unit configured to control operation of the first and second holding units (51,52), the lifting unit, the folding unit and the extruding unit, characterized in that the control unit is configured to control the position of the first holding unit to decrease tension of the held film after the peripheral edge portion of the film on the rear side starts to be folded into the underside of the article to be packaged by the folding unit before the extruding unit starts to extrude the article to be packaged from the rear side to the front side.
Receiver for receiving a multiplex signal comprising information sections carrying information about the multiplex signal, and a plurality of elementary streams each being associated to one program carried by the multiplex signal, the receiver comprising a demultiplexer for demultiplexing the multiplex signal, the demultiplexer comprising: evaluation means (30, 33, 34, 37) for selecting information sections with symbol values corresponding to a predetermined sequence of symbol values, the evaluation means (30, 33, 34, 37) being arranged for selecting from said information sections only, those information sections with values of further symbols differing from a further predetermined sequence of symbol values; and a program map table for storing a correspondence between a program and the plurality of elementary streams, and arranged for updating the correspondence between a program and the plurality of elementary streams in dependence on the information found in the selected information sections. evaluation means (30, 33, 34, 37) for selecting information sections with symbol values corresponding to a predetermined sequence of symbol values, the evaluation means (30, 33, 34, 37) being arranged for selecting from said information sections only, those information sections with values of further symbols differing from a further predetermined sequence of symbol values; and a program map table for storing a correspondence between a program and the plurality of elementary streams, and arranged for updating the correspondence between a program and the plurality of elementary streams in dependence on the information found in the selected information sections.
A method of deploying a liner hanger in a gas or oil well to attach or hang a well liner from an internal wall of a well casing of said gas or oil well, said method comprising: providing an annular packer in an annular space between the well liner and the well casing at a location adjacent to a top section of the well liner that is closest to the ground surface, wherein said annular packer is formed from a eutectic or other bismuth based alloy; delivering a heater down the well to a target region, in which the well casing, the annular packer and the well liner are aligned, and then activating the heater to melt the alloy of the annular packer; allowing the alloy to flow into the annular space between the well liner and the well casing and then cool and resolidify so that it forms an annular seal between the well casing and the well liner; and characterised in that the annular seal is strong enough to provide a weight bearing function that enables the well liner to be hung from the well casing. providing an annular packer in an annular space between the well liner and the well casing at a location adjacent to a top section of the well liner that is closest to the ground surface, wherein said annular packer is formed from a eutectic or other bismuth based alloy; delivering a heater down the well to a target region, in which the well casing, the annular packer and the well liner are aligned, and then activating the heater to melt the alloy of the annular packer; allowing the alloy to flow into the annular space between the well liner and the well casing and then cool and resolidify so that it forms an annular seal between the well casing and the well liner; and characterised in that the annular seal is strong enough to provide a weight bearing function that enables the well liner to be hung from the well casing.
A polymeric foam article comprising a polymer matrix that defines multiple cells therein, wherein the polymer matrix comprises a polymer component consisting of all the polymers in the polymer matrix and comprising a first polymer that is a polyhedral oligomeric silsesquioxane grafted polymer that has a weight-average molecular weight of two kilograms per mole or higher and 200 kilograms per mole or lower, said polymeric foam article having a porosity of 70 percent or more and an average cell size of less than one micrometer.
A phototube (100; 200; 300; 400; 500) suitable for detecting a photon, the phototube comprising: an electron ejector configured for emitting electrons in response to an incident photon; a detector configured for collecting the electrons and providing an output signal representative of the incident photon; an electrode configured for applying a voltage to drive the electrons to the detector; one or more sidewalls forming an envelope of a hole between the electrode and the detector, wherein the electron ejector is inside the hole and bonded to the electrode, wherein the hole is in a substrate; and a metal wall (106; 206) at the one or more sidewalls, wherein the metal wall is configured for applying a voltage to drive the electrons away from the sidewalls. an electron ejector configured for emitting electrons in response to an incident photon; a detector configured for collecting the electrons and providing an output signal representative of the incident photon; an electrode configured for applying a voltage to drive the electrons to the detector; one or more sidewalls forming an envelope of a hole between the electrode and the detector, wherein the electron ejector is inside the hole and bonded to the electrode, wherein the hole is in a substrate; and a metal wall (106; 206) at the one or more sidewalls, wherein the metal wall is configured for applying a voltage to drive the electrons away from the sidewalls.