mhurhangee/ep-ind-claims huggingface dataset:
A bridging structure for supporting at least one rail of a railroad track in the area of a construction joint, characterized in that at least one elongate cradle carrier is articulated to the bridging structure and has two ends, each with a cradle carrier bearing fastened thereto, by means of which it can be fastened to the railroad track and the bridging structure has a first truss, extending in the area of the construction joint essentially parallel to the longitudinal axis of the rail and arranged laterally next to the rail and bridges the construction joint, and a second truss, arranged essentially parallel to the first truss and at a distance from it on the other side of the rail wherein the trusses (8, 10) are designed in such a way that they can be fastened to parts of the railroad track adjacent to the construction joint and support the rail so as to be at least partially displaceable in the longitudinal direction, wherein a first support beam for supporting at least one rail is arranged on the first truss, the support beam is designed such that it is aligned transversely with respect to the longitudinal axis of the first truss, is rigidly connected thereto and is mounted on the second truss in an articulated manner and displaceably parallel to the track plane, and the support beam is designed such that it is arranged in the area of the construction joint and can be guided at least in areas under the at least one rail to be supported. at least one elongate cradle carrier is articulated to the bridging structure and has two ends, each with a cradle carrier bearing fastened thereto, by means of which it can be fastened to the railroad track and the bridging structure has a first truss, extending in the area of the construction joint essentially parallel to the longitudinal axis of the rail and arranged laterally next to the rail and bridges the construction joint, and a second truss, arranged essentially parallel to the first truss and at a distance from it on the other side of the rail wherein the trusses (8, 10) are designed in such a way that they can be fastened to parts of the railroad track adjacent to the construction joint and support the rail so as to be at least partially displaceable in the longitudinal direction, wherein a first support beam for supporting at least one rail is arranged on the first truss, the support beam is designed such that it is aligned transversely with respect to the longitudinal axis of the first truss, is rigidly connected thereto and is mounted on the second truss in an articulated manner and displaceably parallel to the track plane, and the support beam is designed such that it is arranged in the area of the construction joint and can be guided at least in areas under the at least one rail to be supported.
A current transformer having a primary core with a primary winding, a first secondary core with a first secondary winding, and a second secondary core with a second secondary winding, wherein the primary core, the first secondary core and the second secondary core are connected to one another via a squirrel-cage winding, wherein the first secondary winding and the second secondary winding are operated in a short circuit with the same number of turns.
A method, performed by a network unit, for supporting idle mode mobility of a wireless communication device between different wireless communication systems, including a higher generation wireless system and a lower generation wireless system, wherein the method is performed by a network unit of the higher generation wireless system, and wherein the method comprises: - selecting, in connection with a registration procedure and/or a security context activation procedure of the wireless communication device with the higher generation wireless system, at least one security algorithm of the lower generation wireless system, also referred to as lower generation security algorithm(s); - sending a control message including information on the selected lower generation security algorithm(s), wherein the control message is a Non-Access Stratum, NAS, Security Mode Command, SMC, message, and also includes information of the selected higher generation security algorithm(s), to the wireless communication device; and - storing information on the selected lower generation security algorithm(s) in the network unit. - selecting, in connection with a registration procedure and/or a security context activation procedure of the wireless communication device with the higher generation wireless system, at least one security algorithm of the lower generation wireless system, also referred to as lower generation security algorithm(s); - sending a control message including information on the selected lower generation security algorithm(s), wherein the control message is a Non-Access Stratum, NAS, Security Mode Command, SMC, message, and also includes information of the selected higher generation security algorithm(s), to the wireless communication device; and - storing information on the selected lower generation security algorithm(s) in the network unit.
Teat unit with a flexible teat, a receiving head and a dimensionally stable base part, wherein the teat is arranged on the receiving head, wherein the receiving head and the base part are releasable connected to each other and wherein a venting valve (23, 38) is present which is arranged or hold in the base part or can be pushed through the base part, characterized in that the base part comprises an inner truncated cone with rectilinear or curved flanks in which the venting valve (23, 38) is arranged or hold.
An apparatus comprising: a first bonding unit that is configured to at least partially bond a first separator strip and a second separator strip in a width direction at a first position; a first feeding unit that is configured to supply the first separator strip to the first position; a second feeding unit that is configured to supply the second separator strip to the first position so as to make an angle to the first separator strip; and a third feeding unit that is configured to supply, in synchronization with timing of bonding of the first separator strip and the second separator strip in the width direction at the first position, an electrode sheet to the first position so as to be between the first separator strip and the second separator strip and make an angle to the first separator strip and the second separator strip, wherein the third feeding unit includes a feeder that is configured to intermittently supply the electrode sheet to the first position at a higher speed than a feeding speed of the first separator strip and the second separator strip by the first feeding unit and the second feeding unit, and the apparatus further includes a control unit that is configured to carry out control so that the feeder supplies the electrode sheet so that a front end of the electrode sheet reaches the first position immediately after the first separator strip and the second separator strip have been bonded at the first position. a first bonding unit that is configured to at least partially bond a first separator strip and a second separator strip in a width direction at a first position; a first feeding unit that is configured to supply the first separator strip to the first position; a second feeding unit that is configured to supply the second separator strip to the first position so as to make an angle to the first separator strip; and a third feeding unit that is configured to supply, in synchronization with timing of bonding of the first separator strip and the second separator strip in the width direction at the first position, an electrode sheet to the first position so as to be between the first separator strip and the second separator strip and make an angle to the first separator strip and the second separator strip, wherein the third feeding unit includes a feeder that is configured to intermittently supply the electrode sheet to the first position at a higher speed than a feeding speed of the first separator strip and the second separator strip by the first feeding unit and the second feeding unit, and the apparatus further includes a control unit that is configured to carry out control so that the feeder supplies the electrode sheet so that a front end of the electrode sheet reaches the first position immediately after the first separator strip and the second separator strip have been bonded at the first position.
Method for manufacturing a core composite (1, 23) having a folded honeycomb core (4, 19) provided on both sides with cover layers (2, 3, 13, 22), wherein the folded honeycomb core (4, 19) has drainage-enabling channels (5, 6) running parallel to the cover layers (2, 3, 13, 22), comprising the steps: a) arranging a lower cover layer (3, 13) formed with a wet prepreg material on a tool, b) introducing a core filler material (15, 16) at least in some areas into the folded honeycomb core (4, 19), c) arranging the at least one folded honeycomb core (4, 19) on the lower cover layer (3, 13), d) arranging the prepreg material on the folded honeycomb core (4, 19) to provide an upper cover layer (2, 22) e) hardening the entire core composite (4, 19) by applying pressure and/or temperature, and f) removing the core filler material (15, 16). a) arranging a lower cover layer (3, 13) formed with a wet prepreg material on a tool, b) introducing a core filler material (15, 16) at least in some areas into the folded honeycomb core (4, 19), c) arranging the at least one folded honeycomb core (4, 19) on the lower cover layer (3, 13), d) arranging the prepreg material on the folded honeycomb core (4, 19) to provide an upper cover layer (2, 22) e) hardening the entire core composite (4, 19) by applying pressure and/or temperature, and f) removing the core filler material (15, 16).
A freight transportation system, comprising: a track, a pair of rails and a linear motor reaction plate disposed between the rails; a transport vehicle having a universal intermodal container bay configured to accommodate a plurality of containers, the transport vehicle comprising one or more suspension systems each having a plurality of steel wheels engaged with the rails; a linear propulsion system coupled to the transport vehicle and operable to work in conjunction with the linear motor reaction plate to move the transport vehicle; and a control system coupled to the linear propulsion system and operable to control the movement of the transport vehicle; wherein the linear motor reaction plate is horizontal, and characterized in that the track comprises a substrate and the pair of rails are embedded within the substrate, the linear propulsion system comprises a linear induction propulsion system comprising a plurality of horizontal linear induction motors coupled to an underside of the transport vehicle, and wherein the linear motor reaction plate is formed from inner aluminium plates that are faced with cast iron plates. a track, a pair of rails and a linear motor reaction plate disposed between the rails; a transport vehicle having a universal intermodal container bay configured to accommodate a plurality of containers, the transport vehicle comprising one or more suspension systems each having a plurality of steel wheels engaged with the rails; a linear propulsion system coupled to the transport vehicle and operable to work in conjunction with the linear motor reaction plate to move the transport vehicle; and a control system coupled to the linear propulsion system and operable to control the movement of the transport vehicle; wherein the linear motor reaction plate is horizontal, and characterized in that the track comprises a substrate and the pair of rails are embedded within the substrate, the linear propulsion system comprises a linear induction propulsion system comprising a plurality of horizontal linear induction motors coupled to an underside of the transport vehicle, and wherein the linear motor reaction plate is formed from inner aluminium plates that are faced with cast iron plates.
A method implemented by a user equipment in a wireless communication network for performing assisted positioning measurements on positioning signals periodically transmitted by one or more cells during respective positioning occasions of those cells, the method characterized by: receiving assistance data that indicates positioning occasion periodicities of at least a first one of said cells and a reference cell, and that indicates a positioning occasion timing offset between the first cell and the reference cell; and selectively performing signal detection at one or more of a plurality of candidate timing offsets surrounding the indicated positioning occasion timing offset to determine which candidate timing offset has the greatest probability of being the actual positioning occasion timing offset between the first cell and the reference cell. receiving assistance data that indicates positioning occasion periodicities of at least a first one of said cells and a reference cell, and that indicates a positioning occasion timing offset between the first cell and the reference cell; and selectively performing signal detection at one or more of a plurality of candidate timing offsets surrounding the indicated positioning occasion timing offset to determine which candidate timing offset has the greatest probability of being the actual positioning occasion timing offset between the first cell and the reference cell.
A reflection module of a motor vehicle headlight, said reflection module comprising at least one semiconductor light source (16, 17) for emitting electromagnetic radiation, and at least one reflector for bundling and reflecting at least a portion of the emitted electromagnetic radiation to generate a desired radiation distribution on a driving surface in front of the motor vehicle, wherein at least one first semiconductor light source has a main emission direction directed at a first region of said reflector, wherein said reflection module comprises at least one further semiconductor light source having a main emission direction directed at a second region of said reflector offset from said first region, and wherein said at least one first semiconductor light source is arranged on a first support surface within said reflection module and said at least one further semiconductor light source is arranged on a second support surface within said reflection module, characterized in that the planes of extension of said support surfaces (20, 22) span an angle not equal to 180°, and that said second support surface extends substantially horizontally and in parallel to the travelling direction and said first support surface is inclined backwards relative to the first, as viewed in the travelling direction, so that the main emission direction of said at least one first semiconductor light source has a component opposite to the travelling direction and said semiconductor light sources (16, 17) arranged on said support surfaces (20, 22) reach substantially completely separate subregions (26, 28) of said reflection surface of said reflector, and that said at least one first semiconductor light source and said at least one further semiconductor light source emit with the same opening angle (α) in the main emission direction and that the angle between said first support surface and said second support surface, as viewed in side view, corresponds to half the opening angle (α) of the electromagnetic radiation emitted by said semiconductor light sources (16, 17) in the main emission direction.
A transformer, comprising: a housing enclosing therein: a stationary primary core, having a cylindrical outer circumference defining a plurality of axially oriented primary slots; an annular shaped stationary secondary core, having a cylindrical inner circumference defining a plurality of axially oriented secondary slots, said inner circumference concentrically oriented about the primary core outer circumference; a three phase primary winding having three sub-windings oriented within the primary slots, respectively for coupling to three separate phases of alternating current input power; a nine phase secondary winding having nine sub-windings oriented within the secondary slots, inductively coupled to the three phase primary winding, for generating nine separate phases of alternating current output power. a housing enclosing therein: a stationary primary core, having a cylindrical outer circumference defining a plurality of axially oriented primary slots; an annular shaped stationary secondary core, having a cylindrical inner circumference defining a plurality of axially oriented secondary slots, said inner circumference concentrically oriented about the primary core outer circumference; a three phase primary winding having three sub-windings oriented within the primary slots, respectively for coupling to three separate phases of alternating current input power; a nine phase secondary winding having nine sub-windings oriented within the secondary slots, inductively coupled to the three phase primary winding, for generating nine separate phases of alternating current output power. a stationary primary core, having a cylindrical outer circumference defining a plurality of axially oriented primary slots; an annular shaped stationary secondary core, having a cylindrical inner circumference defining a plurality of axially oriented secondary slots, said inner circumference concentrically oriented about the primary core outer circumference; a three phase primary winding having three sub-windings oriented within the primary slots, respectively for coupling to three separate phases of alternating current input power; a nine phase secondary winding having nine sub-windings oriented within the secondary slots, inductively coupled to the three phase primary winding, for generating nine separate phases of alternating current output power.
An apparatus configured to receive and demodulate a homodyne optical single frequency carrier signal where the single frequency carrier signal comprises sensor data of two sensors, wherein the two sensors comprise a first optical sensor and a second optical sensor that is paired with the first optical sensor, where sensor data for the first optical sensor is modulated on the single frequency carrier having a first phase and the sensor data for the second optical sensor is modulated on the single frequency carrier having a second phase, the demodulation including recovering the sensor data for the first and second optical sensors from the single frequency carrier signal, wherein said sensor data from the first optical sensor and said sensor data from the second optical sensor are modulated on the single frequency carrier signal using a phase shift between said first phase and said second phase to discriminate between the sensor data for the first optical sensor and the sensor data for the second optical sensor, wherein the phase shift is not 90 degrees.
A patch preparation comprising: a support and an adhesive layer on one surface of the support; wherein the adhesive layer contains a basic medicament, wherein the basic medicament is tizanidine, a fatty acid-based ionic liquid, and a potassium salt and/or potassium ion, wherein the potassium salt and/or potassium ion are generated as a result of reaction of an acid addition salt of tizanidine with a compound capable of generating potassium ion in the adhesive layer; and wherein the term "fatty acid" refers to an acid selected from the group consisting of capric acid, sorbic acid, levulinic acid, lauric acid, myristic acid, palmitic acid, stearic acid, isostearic acid and oleic acid. a support and an adhesive layer on one surface of the support; wherein the adhesive layer contains a basic medicament, wherein the basic medicament is tizanidine, a fatty acid-based ionic liquid, and a potassium salt and/or potassium ion, wherein the potassium salt and/or potassium ion are generated as a result of reaction of an acid addition salt of tizanidine with a compound capable of generating potassium ion in the adhesive layer; a basic medicament, wherein the basic medicament is tizanidine, a fatty acid-based ionic liquid, and a potassium salt and/or potassium ion, wherein the potassium salt and/or potassium ion are generated as a result of reaction of an acid addition salt of tizanidine with a compound capable of generating potassium ion in the adhesive layer; and wherein the term "fatty acid" refers to an acid selected from the group consisting of capric acid, sorbic acid, levulinic acid, lauric acid, myristic acid, palmitic acid, stearic acid, isostearic acid and oleic acid.
Method for determining a progression length (LP, LP1, LP2) of a progressive ophthalmic lens intended to equip a frame chosen by a wearer, depending on the visual behaviour of the latter, comprising the following steps: a) placing the wearer in a situation in which he performs a visual task at a first near-vision working distance; b) determining, during this visual task, at least two directions (D1, D2) of the gaze of the wearer at this first working distance in a frame of reference of the head of the wearer; c) determining a position of a surface or of a line associated with said frame or with an ophthalmic lens intended to equip said frame in this frame of reference of the head of the wearer; d) determining, for each direction (D1, D2) of the gaze at the first working distance determined in step b), the intersection between this direction (D1, D2) of the gaze at the first working distance and said surface or said line, so as to establish a map of these points of intersection (11, 12, 13, 14) with said surface or said line; and e) deducing from this map said progression length (LP, LP1, LP2), by determining the dimensions of a zone of use, along a vertical direction, of the ophthalmic lens containing the positions of at least some of the determined points of intersection (11, 12, 13, 14) so that the larger the determined zone of use, the shorter the deduced progression length. a) placing the wearer in a situation in which he performs a visual task at a first near-vision working distance; b) determining, during this visual task, at least two directions (D1, D2) of the gaze of the wearer at this first working distance in a frame of reference of the head of the wearer; c) determining a position of a surface or of a line associated with said frame or with an ophthalmic lens intended to equip said frame in this frame of reference of the head of the wearer; d) determining, for each direction (D1, D2) of the gaze at the first working distance determined in step b), the intersection between this direction (D1, D2) of the gaze at the first working distance and said surface or said line, so as to establish a map of these points of intersection (11, 12, 13, 14) with said surface or said line; and e) deducing from this map said progression length (LP, LP1, LP2), by determining the dimensions of a zone of use, along a vertical direction, of the ophthalmic lens containing the positions of at least some of the determined points of intersection (11, 12, 13, 14) so that the larger the determined zone of use, the shorter the deduced progression length.