mhurhangee/ep-ind-claims huggingface dataset:
A method for extending the cell range in a wireless communication system (200, 300), which communication system (200, 300) comprises a communication network (210, 300') arranged to operatively communicate with at least one mobile terminal (220, 490) via an air interface (230, 482) having a cell range extending to a cell edge, and at least one mobile terminal (220, 490) arranged to operatively communicate traffic in frames with said communication network (210, 300') via said air interface (230, 482), said method comprises the steps of: - obtaining information about the condition of an up-link signal from said at least one mobile terminal (220, 490), - determining whether said terminal (220, 490) is located at or near the cell edge, and - extending the cell range by an increase of the time for up-link transmission and a corresponding decrease of the time for downlink transmission within said frames if the terminal is located at or near the cell edge. - obtaining information about the condition of an up-link signal from said at least one mobile terminal (220, 490), - determining whether said terminal (220, 490) is located at or near the cell edge, and - extending the cell range by an increase of the time for up-link transmission and a corresponding decrease of the time for downlink transmission within said frames if the terminal is located at or near the cell edge.
A gas turbine engine, comprising: an outer engine case structure; a core engine arranged within the outer engine case structure; a nozzle downstream from the core engine; a flow control device arranged around the nozzle and radially inward from the outer engine case structure, the flow control device comprising a plurality of arcuate segments (54a, 54b, 54c), wherein the plurality of arcuate segments (54a, 54b, 54c) are movable radially to vary a bypass flow area by overlap of the plurality of arcuate segments (54a, 54b, 54c); a first bypass flow path about the core engine; and a second bypass flow path disposed radially outward of the first bypass flow path, wherein a divider separates a first bypass stream and a second bypass stream, the first bypass stream flows adjacent to the core engine through the first bypass flow path and the second bypass stream flows adjacent to the outer engine case structure through the second bypass flow path, the flow control device is in the second bypass flow path, the plurality of arcuate segments (54a, 54b, 54c) are slidable with respect to one another to vary an amount of overlap between the segments (54a, 54b, 54c), such that increasing the amount of overlap between the arcuate segments (54a, 54b, 54c) decreases a diameter of the flow control device, and decreasing the amount of overlap between the arcuate segments (54a, 54b, 54c) increases a diameter of the flow control device. an outer engine case structure; a core engine arranged within the outer engine case structure; a nozzle downstream from the core engine; a flow control device arranged around the nozzle and radially inward from the outer engine case structure, the flow control device comprising a plurality of arcuate segments (54a, 54b, 54c), wherein the plurality of arcuate segments (54a, 54b, 54c) are movable radially to vary a bypass flow area by overlap of the plurality of arcuate segments (54a, 54b, 54c); a first bypass flow path about the core engine; and a second bypass flow path disposed radially outward of the first bypass flow path, wherein a divider separates a first bypass stream and a second bypass stream, the first bypass stream flows adjacent to the core engine through the first bypass flow path and the second bypass stream flows adjacent to the outer engine case structure through the second bypass flow path, the flow control device is in the second bypass flow path, the plurality of arcuate segments (54a, 54b, 54c) are slidable with respect to one another to vary an amount of overlap between the segments (54a, 54b, 54c), such that increasing the amount of overlap between the arcuate segments (54a, 54b, 54c) decreases a diameter of the flow control device, and decreasing the amount of overlap between the arcuate segments (54a, 54b, 54c) increases a diameter of the flow control device.
Hybrid cord for use as a strength member in a component of a pneumatic vehicle tyre composed of at least two mutually end-twisted yarns, wherein at least one first yarn is a high-modulus yarn and a further yarn is a low-modulus yarn, wherein the high-modulus yarn is a filament yarn and the low-modulus yarn is a yarn composed of staple fibres, wherein a low-modulus yarn is a yarn where the force applicable to the yarn at 1% elongation is < 150 mN/tex and the force applicable to the yarn at 2% elongation is < 200 mN/tex determined according to ASTM D885, wherein a high-modulus yarn is a yarn where the force applicable to the yarn at 1% elongation is > 300 mN/tex and the force applicable to the yarn at 2% elongation is > 500 mN/tex determined according to ASTM D885, characterized in that the yarn twist of the low-modulus yarn is opposed to the yarn twist of the high-modulus yarn, wherein the low-modulus yarn is overtwisted in the cord and has a net twist of > 300 tpm, wherein the end-twist of the hybrid cord opposed to the twist direction of the high-modulus yarn is chosen such that the net twist of the high-modulus yarn is between 0 and 50 tpm and in that the hybrid cord has a quotient of breaking force divided by force at a specific elongation of 3.5% of >10 determined according to ASTM D885. wherein a low-modulus yarn is a yarn where the force applicable to the yarn at 1% elongation is < 150 mN/tex and the force applicable to the yarn at 2% elongation is < 200 mN/tex determined according to ASTM D885, wherein a high-modulus yarn is a yarn where the force applicable to the yarn at 1% elongation is > 300 mN/tex and the force applicable to the yarn at 2% elongation is > 500 mN/tex determined according to ASTM D885, characterized in that the yarn twist of the low-modulus yarn is opposed to the yarn twist of the high-modulus yarn, wherein the low-modulus yarn is overtwisted in the cord and has a net twist of > 300 tpm, wherein the end-twist of the hybrid cord opposed to the twist direction of the high-modulus yarn is chosen such that the net twist of the high-modulus yarn is between 0 and 50 tpm and in that the hybrid cord has a quotient of breaking force divided by force at a specific elongation of 3.5% of >10 determined according to ASTM D885.
A method for improving the AC accuracy of a dual stage current transformer (CT R), wherein the dual stage current transformer (CT R) comprises a primary winding (N 0), a first secondary winding (N 1) and second secondary winding (N 2), the method comprising the steps: measuring a DC signal, the DC signal generated in dependence upon a DC aspect of a signal; measuring an AC signal, the AC signal generated in dependence upon an AC aspect of the signal; and generating a corrected measurement of the measured AC signal characterized in that the first secondary winding (N 1) is loaded with a resistance (R 1) and the second secondary winding (N 2) is loaded with a resistance (R 2), wherein a high output terminal (H 900A) of the dual stage current transformer (CT R) is connected to a start connection of the first secondary winding (N 1) while an end connection of the first secondary winding (N 1) is connected to a start connection of the second secondary winding (N 2) and an end connection of the second secondary winding (N 2) is connected to a low output terminal (L 900B) of the dual stage current transformer (CT R), wherein the method comprises the further step of providing a correction current from the combination first secondary winding (N 1) and resistance (R 1) to that generated by the combination second secondary winding (N 2) and resistance (R 2). measuring a DC signal, the DC signal generated in dependence upon a DC aspect of a signal; measuring an AC signal, the AC signal generated in dependence upon an AC aspect of the signal; and generating a corrected measurement of the measured AC signal characterized in that the first secondary winding (N 1) is loaded with a resistance (R 1) and the second secondary winding (N 2) is loaded with a resistance (R 2), wherein a high output terminal (H 900A) of the dual stage current transformer (CT R) is connected to a start connection of the first secondary winding (N 1) while an end connection of the first secondary winding (N 1) is connected to a start connection of the second secondary winding (N 2) and an end connection of the second secondary winding (N 2) is connected to a low output terminal (L 900B) of the dual stage current transformer (CT R), wherein the method comprises the further step of providing a correction current from the combination first secondary winding (N 1) and resistance (R 1) to that generated by the combination second secondary winding (N 2) and resistance (R 2).
A process for producing a compound of formula or a salt thereof: wherein the process is characterized by comprising reacting a compound of formula or a salt thereof: with sulfur powder and cyanamide in the presence of a secondary amine, to thereby obtain a compound of formula or a salt thereof: and reacting the obtained compound or a salt thereof with hydrobromic acid and alkali metal nitrite, to thereby obtain a compound of formula or a salt thereof: and reacting the obtained compound or a salt thereof with alkyllithium and carbon dioxide.
An over-laminate film applied to a decorative surface, the over-laminate film comprising: a transparent resin base film having a first surface and a second surface opposite to the first surface; a low gloss layer disposed on the first surface of the transparent resin base film, the low gloss layer comprising a binder containing a resin, resin beads having an average particle size of 4 μm or greater and 20 μm or less, and nanosilica particles, the low gloss layer having surface glossiness of 5 GU or less at 60 degrees, wherein the low gloss layer comprises resin beads in an amount of 100 parts by mass or more and 240 parts by mass or less per 100 parts by mass of the binder; and a transparent adhesive layer disposed on the second surface of the transparent resin base film. a transparent resin base film having a first surface and a second surface opposite to the first surface; a low gloss layer disposed on the first surface of the transparent resin base film, the low gloss layer comprising a binder containing a resin, resin beads having an average particle size of 4 μm or greater and 20 μm or less, and nanosilica particles, a binder containing a resin, resin beads having an average particle size of 4 μm or greater and 20 μm or less, and nanosilica particles, the low gloss layer having surface glossiness of 5 GU or less at 60 degrees, wherein the low gloss layer comprises resin beads in an amount of 100 parts by mass or more and 240 parts by mass or less per 100 parts by mass of the binder; and a transparent adhesive layer disposed on the second surface of the transparent resin base film.
A blow moulding machine for shaping plastics material preforms into plastics material containers, comprising a plurality of blow moulding stations with blow mould carriers for holding blow moulds (30, 48), comprising a clean room for arranging or conveying the blow moulding stations under aseptic conditions and comprising an installation access to the clean room for installing the blow mould carriers with blow moulding station components (30, 48), wherein the blow moulding station components embrace blow moulds (30, 48), floor moulds, stretch bars, stretch bar stops, holding clamps, gripping clamps or blow moulding nozzles, characterized in that the installation access comprises at least one sterile room which is positioned in front of the clean room with the plurality of blow moulding stations on the environment side, and wherein this installation access is provided that the actual clean room of the blow moulding machine can be opened safely to replace a set of blow moulds without germs from the environment contaminating both the clean room and the equipment inside, such as blowing tools.
Side window for a vehicle, with an upper edge, a lower edge, a front edge, and a rear edge, at least comprising a first pane and a second pane that are joined to one another via a thermoplastic intermediate layer, wherein the first pane, the second pane, and the thermoplastic intermediate layer each has a hole (5, 6, 7) and wherein the holes (5, 6, 7) of the first pane, of the second pane, and of the thermoplastic intermediate layer are superposed such that a leadthrough for the fastening of a clamping element extends through the entire side window, and wherein the hole of the first pane is larger than the hole of the second pane, characterised in that a clamping element is clamped on between the leadthrough and the lower edge.
A wheelchair docking system for being coupled to a floor, comprising: a frame having an upper portion and a lower portion, the upper portion being movable relative to the lower portion between a lowered position and a raised position; a coupler mechanism configured to engage a wheelchair during a docking operation, the coupler mechanism being positioned on the upper portion; a first latching mechanism configured to couple to a coupling device on the wheelchair, the first latching mechanism being movable between a retracted position and a latching position, the first latching mechanism spaced from the coupler mechanism; a second latching mechanism for moving the upper portion of the frame between its lowered position and raised position, the second latching mechanism configured to prevent a wheelchair from tilting to the left or right; a first release mechanism for operably controlling movement of the first latching mechanism; and a second release mechanism for operably controlling the second latching mechanism to move the upper portion from its lowered position to its raised position. a frame having an upper portion and a lower portion, the upper portion being movable relative to the lower portion between a lowered position and a raised position; a coupler mechanism configured to engage a wheelchair during a docking operation, the coupler mechanism being positioned on the upper portion; a first latching mechanism configured to couple to a coupling device on the wheelchair, the first latching mechanism being movable between a retracted position and a latching position, the first latching mechanism spaced from the coupler mechanism; a second latching mechanism for moving the upper portion of the frame between its lowered position and raised position, the second latching mechanism configured to prevent a wheelchair from tilting to the left or right; a first release mechanism for operably controlling movement of the first latching mechanism; and a second release mechanism for operably controlling the second latching mechanism to move the upper portion from its lowered position to its raised position.
Method for producing a surface-mounted optoelectronic component with a base body, an optoelectronic transmitter and/or receiver arranged in a recess of the base body, and an optical device (16, 16', 45) sealing the recess, comprising the steps: a) producing the base body by overmolding a conductor strip with a thermoplastic housing, simultaneously forming the recess, b) mounting the optoelectronic transmitter and/or receiver on a portion of the conductor strip located within the recess, c) filling the recess of the base body with a transparent, curable potting compound, and d) applying the optical device (16, 16 ') on to the base body, wherein the optical device (16, 16') is applied on to the not yet cured casting compound, and the casting compound is subsequently cured, characterized in that - the following steps are executed before step d): - producing the optical device (16, 16') by means of a casting, pressing, or injection-molding process. - providing and conveying the optical devices (16, 16') as bulk goods, - automated picking of in each case one optical device (16, 16') out of the bulk goods, and - automated positioning of an optical device (16, 16') above a base body. a) producing the base body by overmolding a conductor strip with a thermoplastic housing, simultaneously forming the recess, b) mounting the optoelectronic transmitter and/or receiver on a portion of the conductor strip located within the recess, c) filling the recess of the base body with a transparent, curable potting compound, and d) applying the optical device (16, 16 ') on to the base body, wherein - the following steps are executed before step d): - producing the optical device (16, 16') by means of a casting, pressing, or injection-molding process. - providing and conveying the optical devices (16, 16') as bulk goods, - automated picking of in each case one optical device (16, 16') out of the bulk goods, and - automated positioning of an optical device (16, 16') above a base body. - producing the optical device (16, 16') by means of a casting, pressing, or injection-molding process. - providing and conveying the optical devices (16, 16') as bulk goods, - automated picking of in each case one optical device (16, 16') out of the bulk goods, and - automated positioning of an optical device (16, 16') above a base body.
A positive active material for a nonaqueous electrolyte secondary battery containing a lithium transition metal composite oxide which has a crystal structure of an α-NaFeO 2 type and is represented by a compositional formula Li 1+α Me 1-α O 2 wherein Me is a transition metal element comprising each of Co, Ni and Mn, and wherein α is greater than 0; wherein a molar ratio Li/Me of Li in the transition metal element Me is 1.250 to 1.350, a molar ratio Co/Me of Co in the transition metal element Me is 0.040 to 0.195, a molar ratio Mn/Me of Mn in the transition metal element Me is 0.625 to 0.707, and characterized in that the lithium transition metal composite oxide is observed as a single phase attributed to a space group R3-m on an X-ray diffraction chart when it is electrochemically oxidized up to a potential of 5.0 V vs. Li/Li +.
A frequency-division duplexing transceiver, comprising: a first mixer to up-convert a transmit signal; a first switch, coupled to the first mixer, to selectively provide a transmit local oscillator signal or a receive local oscillator signal to the first mixer, wherein the transmit local oscillator signal has a first frequency and the receive local oscillator signal has a second frequency distinct from the first frequency; a second mixer to down-convert a receive signal; and a second switch, coupled to the second mixer, to selectively provide the transmit local oscillator signal or the receive local oscillator signal to the second mixer. a first mixer to up-convert a transmit signal; a first switch, coupled to the first mixer, to selectively provide a transmit local oscillator signal or a receive local oscillator signal to the first mixer, wherein the transmit local oscillator signal has a first frequency and the receive local oscillator signal has a second frequency distinct from the first frequency; a second mixer to down-convert a receive signal; and a second switch, coupled to the second mixer, to selectively provide the transmit local oscillator signal or the receive local oscillator signal to the second mixer.
Reinforcement for a foundation for an offshore structure, comprising: - at least one substantially vertically extending support element having an upper end and a lower end, the lower end being fixed; - at least one cantilever element which cantilevers at least partially horizontally from the upper end of the support element to an element of the offshore structure supported by a first anchoring portion of an existing foundation; - wherein the support element and the cantilever element are arrangable on the existing foundation in such a way that a force acting on the element is transmittable at least partially via the cantilever element to the support element and/or to the support element, so that a relief of the existing foundation is achievable, - where the existing foundation is a jacket foundation; - wherein at least two support elements and at least two cantilever elements are arrangable on the existing foundation; and - wherein the respective upper ends of the at least two support elements are connected to each other by means of at least one carry element. - at least one substantially vertically extending support element having an upper end and a lower end, the lower end being fixed; - at least one cantilever element which cantilevers at least partially horizontally from the upper end of the support element to an element of the offshore structure supported by a first anchoring portion of an existing foundation; - wherein the support element and the cantilever element are arrangable on the existing foundation in such a way that a force acting on the element is transmittable at least partially via the cantilever element to the support element and/or to the support element, so that a relief of the existing foundation is achievable, - where the existing foundation is a jacket foundation; - wherein at least two support elements and at least two cantilever elements are arrangable on the existing foundation; and - wherein the respective upper ends of the at least two support elements are connected to each other by means of at least one carry element.
A method of receiving a communication event from a calling entity located in a communication network comprising a first network and a second network, at a receiving device associated with a user located in the communication system, characterised in that said method comprises the steps of: associating a first identity recognisable in the first network with a second identity recognisable in the second network for both the user and the calling entity at a data store (126,129) located in the second network; providing the first and second identities for the calling entity to the receiving device via the second network; receiving at a node in the second network associated with the user, the communication event together with the second identity for the calling entity via the second network, wherein the communication event is addressed with the second identity of the user; querying the data store with the second identity of the calling entity and the second identity of the user to determine the first identity of the calling entity and the first identity of the user; receiving at the receiving device associated with the user the communication event together with the first identity for the calling entity via the first network, wherein the communication event is addressed with the first identity of the user; and determining the second identity of the calling entity at the receiving device associated with the user using the first identity of the calling entity. associating a first identity recognisable in the first network with a second identity recognisable in the second network for both the user and the calling entity at a data store (126,129) located in the second network; providing the first and second identities for the calling entity to the receiving device via the second network; receiving at a node in the second network associated with the user, the communication event together with the second identity for the calling entity via the second network, wherein the communication event is addressed with the second identity of the user; querying the data store with the second identity of the calling entity and the second identity of the user to determine the first identity of the calling entity and the first identity of the user; receiving at the receiving device associated with the user the communication event together with the first identity for the calling entity via the first network, wherein the communication event is addressed with the first identity of the user; and determining the second identity of the calling entity at the receiving device associated with the user using the first identity of the calling entity.