mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a feature, in particular for a security element, a safety paper or a data carrier, which has a region furnished with a colored pattern (22, 48, 50) and standing in register thereto at least one cut-through, a recess and/or a scratching, wherein (a) a carrier is supplied which has at least in the region a coating having a laser-sensitive substance which is modifiable as to its color by means of at least one first laser radiation, (b) the at least one first laser radiation is irradiated onto the region of the carrier such that the colored pattern is generated, wherein - the at least one first laser radiation modifies the substance as to its color, but effectuates no change of the carrier, and - the at least one first laser radiation is irradiated also in an edge strip surrounding the colored pattern to exclude that parts of the pattern are not subjected to laser radiation due to tolerance fluctuations, and (c) by means of a removing second laser radiation, which differs from the first laser radiation, the cut-through, the depression and/ or the scratching in the carrier is generated which stands in the register to the colored pattern, wherein in a working operation the second laser radiation is also irradiated onto the region of the carrier such that in a frame-shaped portion which surrounds the colored pattern at least partly the coating is removed and/or the substance is maximally dyed, wherein the frame-shaped portion covers the edge strip completely. (a) a carrier is supplied which has at least in the region a coating having a laser-sensitive substance which is modifiable as to its color by means of at least one first laser radiation, (b) the at least one first laser radiation is irradiated onto the region of the carrier such that the colored pattern is generated, wherein - the at least one first laser radiation modifies the substance as to its color, but effectuates no change of the carrier, and - the at least one first laser radiation is irradiated also in an edge strip surrounding the colored pattern to exclude that parts of the pattern are not subjected to laser radiation due to tolerance fluctuations, and - the at least one first laser radiation modifies the substance as to its color, but effectuates no change of the carrier, and - the at least one first laser radiation is irradiated also in an edge strip surrounding the colored pattern to exclude that parts of the pattern are not subjected to laser radiation due to tolerance fluctuations, and (c) by means of a removing second laser radiation, which differs from the first laser radiation, the cut-through, the depression and/ or the scratching in the carrier is generated which stands in the register to the colored pattern, wherein in a working operation the second laser radiation is also irradiated onto the region of the carrier such that in a frame-shaped portion which surrounds the colored pattern at least partly the coating is removed and/or the substance is maximally dyed, wherein the frame-shaped portion covers the edge strip completely.
A lubricating composition comprising: an oil of lubricating viscosity, and an oxyalkylated hydrocarbyl phenol, wherein the oxyalkylated hydrocarbyl phenol is substituted with at least one aliphatic hydrocarbyl group of 40 to 96 carbon atoms, and wherein the oxyalkylated hydrocarbyl phenol is substantially free of aromatic hydrocarbyl groups, wherein the oxyalkylated hydrocarbyl phenol is represented by formula: wherein each R 2 is independently hydrogen or a hydrocarbyl group of 1 to 6 carbon atoms; R 3 is hydrogen, a hydrocarbyl group of 1 to 24 carbon atoms, or an acyl group represented by -C(=O)R 5, R 5 is a hydrocarbyl group of 1 to 24 carbon atoms; each R 4 is independently a hydrocarbyl group of 1 to 220 carbon atoms, wherein at least one R 4 contains 40 to 96 carbon atoms; n = 1 to 10; and m = 1 to 3; and further wherein the oxyalkylated hydrocarbyl phenol is present in an amount ranging from 0.01 wt% to 5 wt% of the lubricating composition. wherein each R 2 is independently hydrogen or a hydrocarbyl group of 1 to 6 carbon atoms; R 3 is hydrogen, a hydrocarbyl group of 1 to 24 carbon atoms, or an acyl group represented by -C(=O)R 5, R 5 is a hydrocarbyl group of 1 to 24 carbon atoms; each R 4 is independently a hydrocarbyl group of 1 to 220 carbon atoms, wherein at least one R 4 contains 40 to 96 carbon atoms; n = 1 to 10; and m = 1 to 3; and further wherein the oxyalkylated hydrocarbyl phenol is present in an amount ranging from 0.01 wt% to 5 wt% of the lubricating composition.
High lift system (16, 43) for an aircraft, comprising - an aircraft wing, - a flap (18, 42) arranged on a leading edge of the wing, the flap (18, 42) being movably mounted on the wing and having a flap edge (22, 41), and - a retaining element, wherein the flap system (16, 43) is set up to form a gap between the flap edge (22, 41) and the wing, characterized in that the retaining element is mounted on a region of the flap (18, 42) close to the flap edge (22, 41) and extending towards the wing to restrict the distance between the flap edge (22, 41) and the wing in an extended state of the flap (18, 42), such that the flap edge (22, 41) can be pulled and/or flexed by the retaining element in the direction of the wing, whereby the distance between the flap edge (22,41) and the wing is actively adjustable through pulling and/or flexing the retaining element, wherein in said extended state, the flap is mounted or held at a point remote from the retaining element such that this point does not move in the direction of the wing when the retaining element is pulled and/or flexed in the direction of the wing. - an aircraft wing, - a flap (18, 42) arranged on a leading edge of the wing, the flap (18, 42) being movably mounted on the wing and having a flap edge (22, 41), and - a retaining element,
Specific cord retractor device constituted from a first and a second part and allowing the rotation of one relative to the other and the winding of said cord, characterised in that it comprises recesses for metal beads in lugs.
A control console for supplying a drive signal to the power generating unit of a surgical tool, said console including: a transformer (250, 250a, 250b, 250c) with a primary winding across which an AC voltage is to be applied, and a secondary winding across which a drive signal is to be induced so the drive signal can be applied to the power generating unit of the surgical tool; a matched current source consisting of a leakage control winding across which the AC signal that is present across the primary winding of the transformer (250, 250a, 250b, 250c) is to induce a voltage and a capacitor connected between the leakage control winding and the secondary winding of the transformer (250, 250a, 250b, 250c), the matched current source designed to produce a current that at least partially cancels a leakage current present in the drive signal as a result of parasitic capacitance, characterized in that both the leakage control winding and the capacitor of the matched current source are internal to the transformer (250, 250a, 250b, 250c), and the capacitor includes at least one plate formed from a layer (280, 288, 290) of conductive material wrapped around at least one of the primary winding and the secondary winding of the transformer (250, 250a, 250b, 250c). a transformer (250, 250a, 250b, 250c) with a primary winding across which an AC voltage is to be applied, and a secondary winding across which a drive signal is to be induced so the drive signal can be applied to the power generating unit of the surgical tool; a matched current source consisting of a leakage control winding across which the AC signal that is present across the primary winding of the transformer (250, 250a, 250b, 250c) is to induce a voltage and a capacitor connected between the leakage control winding and the secondary winding of the transformer (250, 250a, 250b, 250c), the matched current source designed to produce a current that at least partially cancels a leakage current present in the drive signal as a result of parasitic capacitance, characterized in that both the leakage control winding and the capacitor of the matched current source are internal to the transformer (250, 250a, 250b, 250c), and the capacitor includes at least one plate formed from a layer (280, 288, 290) of conductive material wrapped around at least one of the primary winding and the secondary winding of the transformer (250, 250a, 250b, 250c).
A method of manufacture for a late lean injection system in a combustor of a combustion turbine engine, wherein the combustor includes a flow assembly that includes an inner radial wall, which defines a primary combustion chamber downstream of a primary fuel nozzle, and an outer radial wall, which surrounds the inner radial wall forming a flow annulus therebetween, the method including the steps of: a) identifying a desired position within the flow assembly for a late lean injector, wherein the late lean injector comprises a late lean nozzle and a transfer tube; b) corresponding to the desired position for the late lean injector, identifying an injection point on the inner radial wall and a late lean nozzle position on the outer radial wall; c) positioning the inner radial wall and the outer radial wall in an unassembled position; d) while the inner radial wall and the outer radial wall are in the unassembled position, forming a hole through the inner radial wall at the injection point and slideably engaging the transfer tube within the hole; e) installing the late lean nozzle in the outer radial wall at the late lean nozzle position; f) positioning the inner radial wall and the outer radial wall in an assembled position; and g) connecting the transfer tube to the late lean nozzle. a) identifying a desired position within the flow assembly for a late lean injector, wherein the late lean injector comprises a late lean nozzle and a transfer tube; b) corresponding to the desired position for the late lean injector, identifying an injection point on the inner radial wall and a late lean nozzle position on the outer radial wall; c) positioning the inner radial wall and the outer radial wall in an unassembled position; d) while the inner radial wall and the outer radial wall are in the unassembled position, forming a hole through the inner radial wall at the injection point and slideably engaging the transfer tube within the hole; e) installing the late lean nozzle in the outer radial wall at the late lean nozzle position; f) positioning the inner radial wall and the outer radial wall in an assembled position; and g) connecting the transfer tube to the late lean nozzle.
System for monitoring the trajectory of a motor vehicle including: - an instantaneous speed sensor on each of the wheels (6, 9) of the front and rear axles, - means for calculating the variation in speed between wheels of a same axle (Δfr and Δre), - means for calculating the difference between the variations in speeds of each of the axles, - means for comparing this difference with a stored threshold value (ε), - means for determining the trajectory of the vehicle as a function of the variation in speed of the wheels of the rear axle (Δre) or as a function of the sign of the measurement of the angle of the steering wheel of the vehicle, - means for determining a speed correction setpoint (T C) and means for applying the speed correction setpoint (T C) to the inner front wheel of the trajectory, characterized in that the system includes: - means for measuring or calculating the grip generated (μ _generated) by the vehicle, the speed correction setpoint (T C) being modulated by the information on the grip generated (μ _generated) by the vehicle, - means for calculating the ratio between the value of the setpoint and the generated grip and in that the modulation of the speed correction setpoint is active when said ratio is greater than a threshold S. - an instantaneous speed sensor on each of the wheels (6, 9) of the front and rear axles, - means for calculating the variation in speed between wheels of a same axle (Δfr and Δre), - means for calculating the difference between the variations in speeds of each of the axles, - means for comparing this difference with a stored threshold value (ε), - means for determining the trajectory of the vehicle as a function of the variation in speed of the wheels of the rear axle (Δre) or as a function of the sign of the measurement of the angle of the steering wheel of the vehicle, - means for determining a speed correction setpoint (T C) and means for applying the speed correction setpoint (T C) to the inner front wheel of the trajectory, - means for measuring or calculating the grip generated (μ _generated) by the vehicle, the speed correction setpoint (T C) being modulated by the information on the grip generated (μ _generated) by the vehicle, - means for calculating the ratio between the value of the setpoint and the generated grip and in that the modulation of the speed correction setpoint is active when said ratio is greater than a threshold S.
Window comprising at least one translationally mobile opening (1, 2), a window frame (7, 9) comprising an upper transom and two side uprights, and a section (73, 93) serving as thermal bridge break in said window frame (7, 9), said section (73, 93) comprising at least one guiding surface (732, 932) of said translationally mobile opening (1, 2) and at least one closed cavity (731, 931) intended to improve the thermal insulation of said window, characterized in that said section (73, 93) performs the guiding of said translationally mobile opening (1, 2) on the interior of said opening (1, 2).
A high electron mobility transistor, HEMT, comprising: a buffer layer on a substrate; a barrier layer on said buffer layer; a two dimensional electron gas at the interface between said buffer layer and said barrier layer; a source electrode, a drain electrode, and a gate between said source and drain electrodes; and a negative ion region in said barrier layer, characterised in that said negative ion region comprises a plurality of sections of different thicknesses, wherein a first of said plurality of sections is at least partially below said gate; wherein at least part of a second of said plurality of sections is arranged to extend into said buffer layer; and wherein a third of said plurality of sections is primarily below a field plate. a buffer layer on a substrate; a barrier layer on said buffer layer; a two dimensional electron gas at the interface between said buffer layer and said barrier layer; a source electrode, a drain electrode, and a gate between said source and drain electrodes; and a negative ion region in said barrier layer, characterised in that said negative ion region comprises a plurality of sections of different thicknesses, wherein a first of said plurality of sections is at least partially below said gate; wherein at least part of a second of said plurality of sections is arranged to extend into said buffer layer; and wherein a third of said plurality of sections is primarily below a field plate.
Control method implemented by a control device for controlling rendering devices and content servers (DMS1, DMS2) of a UPnP or DLNA content management architecture, the method comprising - a step of sending, to a rendering device, rendering parameters locating a content to be rendered, the sent rendering parameters being able to be obtained by another control device by interrogating said rendering device; - a step of triggering rendering, by the rendering device, of said content to be rendered located using the sent rendering parameters, characterized in that the rendering parameters are enriched, prior to them being sent, with a UDN server identifier denoting the content server referencing the content to be rendered, the UDN server identifier being able to be used to address, from the other control device to the content server referencing said content to be rendered, a command to interrogate this content server as to content referenced by this content server. - a step of sending, to a rendering device, rendering parameters locating a content to be rendered, the sent rendering parameters being able to be obtained by another control device by interrogating said rendering device; - a step of triggering rendering, by the rendering device, of said content to be rendered located using the sent rendering parameters,
Plasma generator comprising a conductive screen and a spiral coil having coil windings, said coil placed inside the conducting screen, an inner surface of which is of a cylindrical shape having one base, wherein the space between the coil windings and between the coil and the screen is filled with a dielectric having an outer surface, wherein the coil is made as a flat coil, wherein the distance from the plane of the coil to said outer surface of the dielectric is less than double the thickness of the coil, and a distance from the plane of the coil to the base of the inner surface of the screen is greater than double the distance from the plane of the coil to said outer surface of the dielectric, wherein a coaxial input (4,5) is provided for supplying high frequency current to the coil, an inner conductor of said coaxial input being connected to one end of the coil, and an outer conductor of said coaxial input being connected to the other end of the coil, and wherein the coaxial input is arranged to supply therethrough a cooling fluid or gas to the coil.
A method for amplifying a seed laser radiation which is irradiated along an irradiation direction into a laser-active amplifier medium, the laser-active amplifier medium having a slow axis perpendicular to the irradiation direction and a fast axis orthogonal to the slow axis, wherein the seed laser radiation has a transverse seed laser intensity profile (4.1, 4.2) which is transformed by an irradiation-side transformer element into an input intensity profile (5.1, 5.2) being plateau-shaped along the slow axis, wherein the transformer element is arranged in front of the laser-active amplifier medium, the input intensity profile (5.1, 5.2) retaining the shape of the seed laser intensity profile (4.1, 4.2) along the fast axis.
A recombinant human N-acetylgalactosamine-6-sulfatase (GALNS) enzyme composition, said enzyme composition comprising GALNS enzymes comprising an amino acid sequence at least 95% identical to amino acids 27 to 522 of SEQ ID NO:4, useful for treating a lysosomal storage disease that is caused by or associated with a deficiency in said GALNS, wherein said GALNS enzymes in said composition: (a) have at least 50% conversion of the cysteine residue at position 53 to Cα-formylglycine (FGly); and (b) are N-linked glycosylated at the asparagine residues at positions 178 and 397, and wherein at least 50% of the oligomannose chains attached to the asparagine residue at position 178 are bis-phosphorylated, optionally wherein the GALNS enzyme is a fusion protein comprising a cellular targeting signal located at the N- or C-terminus of the GALNS enzyme. (a) have at least 50% conversion of the cysteine residue at position 53 to Cα-formylglycine (FGly); and (b) are N-linked glycosylated at the asparagine residues at positions 178 and 397, and wherein at least 50% of the oligomannose chains attached to the asparagine residue at position 178 are bis-phosphorylated,
A method for accessing a communication network for a mobile terminal via an unlicensed wireless access network, comprising determining, by the mobile terminal, location information of an access point (110, 120) of the unlicensed wireless access network and selecting, by the mobile terminal, a communication network that fulfils carrier grade requirements based on said location information, wherein the carrier grade requirements are regulatory requirements in a country or area corresponding to the location of the access point, said regulatory requirements comprising lawful interception capabilities, the method further comprising accessing the selected communication network via said access point (110, 120).
An apparatus for conveying an electrical signal, the apparatus comprising: a conductive pathway comprising a conductive material, having a first edge and a second edge, and configured to convey the electrical signal; and a resistive material in contact with at least a portion of the conductive pathway, covering said edges of the conductive pathway, and extending beyond said edges, the resistive material having a conductivity less than the conductivity of the conductive material, wherein said edges comprise the first edge at a first side of the conductive pathway and the second edge at a second side of the conductive pathway, wherein the resistive material extends from beyond the first edge to beyond the second edge Z, characterised in that: the resistive material comprises a plurality of stubs of the resistive material extending laterally from the conductive pathway. a conductive pathway comprising a conductive material, having a first edge and a second edge, and configured to convey the electrical signal; and a resistive material in contact with at least a portion of the conductive pathway, covering said edges of the conductive pathway, and extending beyond said edges, the resistive material having a conductivity less than the conductivity of the conductive material, wherein said edges comprise the first edge at a first side of the conductive pathway and the second edge at a second side of the conductive pathway, wherein the resistive material extends from beyond the first edge to beyond the second edge Z, characterised in that: the resistive material comprises a plurality of stubs of the resistive material extending laterally from the conductive pathway.
A method for synthesizing a LiMPO 4 compound or one of its derivatives, M being a transition metal selected from the group consisting of Co, Ni and Mn, characterized in that the method comprises at least one step consisting in making lithium nitrate react with a solid precursor formed by XMPO 4, nH 2 O or one of its derivatives and in which -X represents a radical selected from -NH 4 and -H and n represents the number of water molecules associated with an XMPO 4 entity, at a temperature lower than or equal to 350°C.
Method for the continuous processing of electrically non-conductive web material in a vacuum chamber, wherein the vacuum chamber in which the processing is carried out is divided by the web material into several chambers (16, 18), namely at least one chamber in which a plasma is ignited and at least one further chamber in which no plasma is ignited, wherein - the energy for igniting the plasma is generated by at least one signal generator, which generates electromagnetic radiation at a frequency which is suitable for igniting the plasma, - and the energy for igniting the plasma is emitted from the at least one chamber in which no plasma is ignited through the web material into a chamber with plasma ignition, characterized in that - the web material is moved continuously through the vacuum chamber and - the vacuum chamber is divided by the web material into several chambers (16, 18) in such a manner that each chamber in which a plasma is ignited is delimited by a maximum of two lateral internal walls of the vacuum chamber. - the energy for igniting the plasma is generated by at least one signal generator, which generates electromagnetic radiation at a frequency which is suitable for igniting the plasma, - and the energy for igniting the plasma is emitted from the at least one chamber in which no plasma is ignited through the web material into a chamber with plasma ignition, characterized in that - the web material is moved continuously through the vacuum chamber and - the vacuum chamber is divided by the web material into several chambers (16, 18) in such a manner that each chamber in which a plasma is ignited is delimited by a maximum of two lateral internal walls of the vacuum chamber.