mhurhangee/ep-ind-claims huggingface dataset:
Process for dyeing keratin fibres in which said fibres are treated, in one or more steps, with one or more cosmetic compositions containing the following ingredients, taken together or separately in said composition(s): a) one or more dyes chosen in particular from oxidation dyes and direct dyes, of synthetic or natural origin, preferably chosen from ortho-diphenols ODPs; b) one or more titanium salts, in which the titanium in particular has the oxidation state 2, 3 or 4, preferably the oxidation state 4; optionally b1) one or more carboxylic acids of formula below: formula or a salt thereof, in which: - A represents a monovalent group when n has the value zero or a polyvalent group when n is greater than or equal to 1, saturated or unsaturated, cyclic or non-cyclic and aromatic or non-aromatic hydrocarbon-based group comprising from 1 to 50 carbon atoms which is optionally interrupted with one or more heteroatoms and/or optionally substituted, in particular with one or more hydroxyl groups; preferably, A represents a monovalent (C 1 -C 6)alkyl group or a polyvalent (C 1 -C 6)alkylene group optionally substituted with one or more hydroxyl groups; - n represents an integer between 0 and 10 inclusive; preferably, n is between 0 and 5, such as 0, 1 or 2; c) one or more insoluble silicates a) one or more dyes chosen in particular from oxidation dyes and direct dyes, of synthetic or natural origin, preferably chosen from ortho-diphenols ODPs; b) one or more titanium salts, in which the titanium in particular has the oxidation state 2, 3 or 4, preferably the oxidation state 4; optionally b1) one or more carboxylic acids of formula below: formula or a salt thereof, in which: - A represents a monovalent group when n has the value zero or a polyvalent group when n is greater than or equal to 1, saturated or unsaturated, cyclic or non-cyclic and aromatic or non-aromatic hydrocarbon-based group comprising from 1 to 50 carbon atoms which is optionally interrupted with one or more heteroatoms and/or optionally substituted, in particular with one or more hydroxyl groups; preferably, A represents a monovalent (C 1 -C 6)alkyl group or a polyvalent (C 1 -C 6)alkylene group optionally substituted with one or more hydroxyl groups; - n represents an integer between 0 and 10 inclusive; preferably, n is between 0 and 5, such as 0, 1 or 2; - A represents a monovalent group when n has the value zero or a polyvalent group when n is greater than or equal to 1, saturated or unsaturated, cyclic or non-cyclic and aromatic or non-aromatic hydrocarbon-based group comprising from 1 to 50 carbon atoms which is optionally interrupted with one or more heteroatoms and/or optionally substituted, in particular with one or more hydroxyl groups; preferably, A represents a monovalent (C 1 -C 6)alkyl group or a polyvalent (C 1 -C 6)alkylene group optionally substituted with one or more hydroxyl groups; - n represents an integer between 0 and 10 inclusive; preferably, n is between 0 and 5, such as 0, 1 or 2; c) one or more insoluble silicates
Electrically operated slicing machine (10, 10') for cutting off slices from strand-shaped material to be cut in particular, preferably foodstuffs, with a cutting device, which comprises a circular knife, driven by a knife motor, rotating in a cutting plane around an axis of rotation perpendicular to the cutting plane, with a carriage (20, 20'), which carries a carriage plate (22, 22') in a carriage plane perpendicular to the cutting plane and at least one carriage wall (24, 24'), which projects from the carriage plane, and with a holder for the material to be cut (26, 26'), which has a rest (28, 28') for taking up the material to be cut and which is made for leading the material to be cut to the circular knife at an angle of α < 90° in relation to the cutting plane, in which the holder for the material to be cut (26, 26') has a fastening device for fastening the material to be cut (26, 26') to the carriage wall (24, 24') so that it fits exactly, in which the fastening device is made so that the holder for the material to be cut (26, 26') may be fixed in a defined, reproducible position in relation to the carriage wall (24, 24'), and the fastening device makes it possible to fasten the holder for the material to be cut (26, 26') to the carriage wall (24, 24') reproducibly and reversibly with regard to the relative position of the holder for the material to be cut (26, 26') and the carriage wall (24, 24') in the operating state and to dismantle the holder for the material to be cut (26, 26') from the carriage wall (24, 24'), characterised in that the fastening device is made so that it makes it possible to fasten the holder for the material to be cut (26, 26') in different relative positions of the holder of the material to be cut (26, 26') and the carriage wall (24, 24') that may be selected, so that different angles (α) may be set, at which the material to be cut may be led to the cutting knife obliquely to the axis of rotation.
A method performed by a user equipment, UE, for configuring control data communications based on a time division duplexing, TDD, subframe reconfiguration, comprising: detecting (1002,1102) a TDD subframe reconfiguration; characterised by detecting (1004,1104) a conflict with a scheduled channel state information, CSI, or a sounding reference signal, SRS, transmission; and modifying (1008, 1108), based on the TDD subframe reconfiguration, at least a periodicity of; the CSI transmission if CSI conflict is detected or modifying, based on the TDD subframe reconfiguration, at least a periodicity of the SRS transmission if SRS conflict is detected. detecting (1002,1102) a TDD subframe reconfiguration; characterised by detecting (1004,1104) a conflict with a scheduled channel state information, CSI, or a sounding reference signal, SRS, transmission; and modifying (1008, 1108), based on the TDD subframe reconfiguration, at least a periodicity of; the CSI transmission if CSI conflict is detected or modifying, based on the TDD subframe reconfiguration, at least a periodicity of the SRS transmission if SRS conflict is detected.
A method for coating a building panel (1, 1'), comprising: applying a first coating fluid comprising an organic binder on a surface of the building panel (1, 1') to obtain at least one coating layer, wherein the organic binder comprises an acrylate or methacrylate monomer, or an acrylate or methacrylate oligomer, applying a barrier coating fluid comprising barrier components on said at least one coating layer to obtain a barrier layer, and applying a photocatalytic coating fluid comprising photocatalytic particles, preferably TiO2, on said barrier layer to obtain a photocatalytic layer, wherein the barrier components are adapted to prevent the photocatalytic particles from degrading the organic binder and comprise a silicium containing compound such as SiO2, colloidal SiO2, functional nanoscaled SiO2, silicone resin, organofunctional silanes, and/or colloidal silicic acid silane and/or a combination of said compounds. applying a first coating fluid comprising an organic binder on a surface of the building panel (1, 1') to obtain at least one coating layer, wherein the organic binder comprises an acrylate or methacrylate monomer, or an acrylate or methacrylate oligomer, applying a barrier coating fluid comprising barrier components on said at least one coating layer to obtain a barrier layer, and applying a photocatalytic coating fluid comprising photocatalytic particles, preferably TiO2, on said barrier layer to obtain a photocatalytic layer, wherein the barrier components are adapted to prevent the photocatalytic particles from degrading the organic binder and comprise a silicium containing compound such as SiO2, colloidal SiO2, functional nanoscaled SiO2, silicone resin, organofunctional silanes, and/or colloidal silicic acid silane and/or a combination of said compounds.
Air supply system for the medical sector, with a) a compressed air generator, which is connected to a line system (9, 11, 13) carrying air intended for medical purposes, and of which the capacity, for safety reasons, is a multiple of a nominal requirement for air used for medical purposes, characterized in that b) the compressed air generator is moreover connected to at least one line system (18, 20) that leads to a lower-priority air consumer; c) a device (21 to 26) sensitive to pressure or volumetric flow is provided in the line system (9, 11, 13) carrying the air intended for medical purposes, which device (21 to 26) throttles the flow of air in the line system (18, 20) carrying the lower-priority air when the pressure or the volumetric flow in the line (9, 11, 13) carrying the air intended for medical purposes drops below a defined first value. a) a compressed air generator, which is connected to a line system (9, 11, 13) carrying air intended for medical purposes, and of which the capacity, for safety reasons, is a multiple of a nominal requirement for air used for medical purposes, b) the compressed air generator is moreover connected to at least one line system (18, 20) that leads to a lower-priority air consumer; c) a device (21 to 26) sensitive to pressure or volumetric flow is provided in the line system (9, 11, 13) carrying the air intended for medical purposes, which device (21 to 26) throttles the flow of air in the line system (18, 20) carrying the lower-priority air when the pressure or the volumetric flow in the line (9, 11, 13) carrying the air intended for medical purposes drops below a defined first value.
A compound having the formula: [S-X 1 -P-X 2] 3 -A-X 3 -Z wherein: S represents a saccharide; X 1 represents C 3 -C 6 alkylene or an ethylene glycol stem (-CH 2 -CH 2 -O) m (-CH 2) 2 - wherein m is 1, 2, or 3; P is a thiophosphate; X 2 is alkylene or an alkylene ether of the formula (-CH 2) n -O-CH 2 - where n = 1- 6; A is a branching unit; X 3 represents a bridging unit; Z is a nucleic acid; and where the linkage between X 3 and Z is a phosphate or thiophosphate. S represents a saccharide; X 1 represents C 3 -C 6 alkylene or an ethylene glycol stem (-CH 2 -CH 2 -O) m (-CH 2) 2 - wherein m is 1, 2, or 3; P is a thiophosphate; X 2 is alkylene or an alkylene ether of the formula (-CH 2) n -O-CH 2 - where n = 1- 6; A is a branching unit; X 3 represents a bridging unit; Z is a nucleic acid; and where the linkage between X 3 and Z is a phosphate or thiophosphate.
A method for forming a three-dimensional map of a stiffness of a biological tissue, the method comprising: receiving, from an optical detector, optical data representing light scattered only by a biological tissue layer, that is limited in thickness by a parameter related to a coherence length of said light, and obtained via a laser speckle interferometric measurement; calculating, from said optical data, two-dimensional distributions of a viscoelastic parameter representing said stiffness of the biological tissue at a plurality of depths indicating the depth location of the tissue layer; and mapping the 2D distributions into a 3D data set representing the 2D distributions of the viscoelastic parameter associated to the plurality of depths that indicates a distribution of stiffness of an extra-cellular matrix of cells forming the biological tissue at each of the plurality of depths indicating the depth location of the tissue layer, thereby determining a 3D distribution of said stiffness of the ECM. receiving, from an optical detector, optical data representing light scattered only by a biological tissue layer, that is limited in thickness by a parameter related to a coherence length of said light, and obtained via a laser speckle interferometric measurement; calculating, from said optical data, two-dimensional distributions of a viscoelastic parameter representing said stiffness of the biological tissue at a plurality of depths indicating the depth location of the tissue layer; and mapping the 2D distributions into a 3D data set representing the 2D distributions of the viscoelastic parameter associated to the plurality of depths that indicates a distribution of stiffness of an extra-cellular matrix of cells forming the biological tissue at each of the plurality of depths indicating the depth location of the tissue layer, thereby determining a 3D distribution of said stiffness of the ECM.
A hearing system configured to be worn by a wearer, comprising: a plurality of microphones (102-1, 102-N) configured to receive input sounds including a target sound and to produce a plurality of microphone signals including the target sound; a control circuit configured to produce an output signal using the plurality of microphone signals, the control circuit including a neural network (108, 408, 708) and configured to control directionality of the plurality of microphones (102-1, 102-N) by processing the plurality of microphone signals using a nonlinear signal processing algorithm that is based on the neural network (108, 408, 708); and a receiver configured to produce an output sound using the output signal; wherein the neural network (108, 408, 708) comprises: an input (424, 724) to receive the plurality of microphone signals; an output (430, 730); a linear signal processing path between the input and the output, the linear signal processing path including one or more linear hidden layers (428, 726, 728); and a nonlinear signal processing path between the input and the output, the nonlinear signal processing path including one or more nonlinear hidden layers (426, 727). a plurality of microphones (102-1, 102-N) configured to receive input sounds including a target sound and to produce a plurality of microphone signals including the target sound; a control circuit configured to produce an output signal using the plurality of microphone signals, the control circuit including a neural network (108, 408, 708) and configured to control directionality of the plurality of microphones (102-1, 102-N) by processing the plurality of microphone signals using a nonlinear signal processing algorithm that is based on the neural network (108, 408, 708); and a receiver configured to produce an output sound using the output signal; wherein the neural network (108, 408, 708) comprises: an input (424, 724) to receive the plurality of microphone signals; an output (430, 730); a linear signal processing path between the input and the output, the linear signal processing path including one or more linear hidden layers (428, 726, 728); and a nonlinear signal processing path between the input and the output, the nonlinear signal processing path including one or more nonlinear hidden layers (426, 727). an input (424, 724) to receive the plurality of microphone signals; an output (430, 730); a linear signal processing path between the input and the output, the linear signal processing path including one or more linear hidden layers (428, 726, 728); and a nonlinear signal processing path between the input and the output, the nonlinear signal processing path including one or more nonlinear hidden layers (426, 727).
A method of determining a direction in which a person is pointing comprising: acquiring 3D depth images of the person using Time of Flight, TOF, 3D imaging; for each 3D depth image of the 3D depth images determining a first point (P1; 1152) of an eye of the person based on the 3D depth image; determining a second point (P2; 1154) of a pointing region of a body part or an instrument that the person orients to indicate a pointing direction based on the 3D depth image, determining a line (46; 1140) connecting the first and second points and extending to a screen; and determining a pointing direction for the person responsive to the line.
A dynamic load carriage system comprising: a base belt; and a support cross member movably coupled to the base belt, wherein the support cross member includes a first elongated support member coupled to the base belt and a second elongated support member coupled to the base belt, wherein the first elongated support member is transverse to the second elongated support member, the first elongated support member having a first securing strap and the second elongated support member having a second securing strap; and a cross channel member having a first buckle and a second buckle, the cross channel member movably coupled to the support cross member by engaging the first securing strap to the first buckle and the second securing strap to the second buckle, wherein the cross channel member defines a first channel configured to receive the first elongated support member and a second channel configured to receive the second elongated support member, wherein the first channel is in transverse orientation relative to the second channel, wherein the cross channel member is engaged to a load carrier (106, 108). a base belt; and a support cross member movably coupled to the base belt, wherein the support cross member includes a first elongated support member coupled to the base belt and a second elongated support member coupled to the base belt, wherein the first elongated support member is transverse to the second elongated support member, the first elongated support member having a first securing strap and the second elongated support member having a second securing strap; and a cross channel member having a first buckle and a second buckle, the cross channel member movably coupled to the support cross member by engaging the first securing strap to the first buckle and the second securing strap to the second buckle, wherein the cross channel member defines a first channel configured to receive the first elongated support member and a second channel configured to receive the second elongated support member, wherein the first channel is in transverse orientation relative to the second channel, wherein the cross channel member is engaged to a load carrier (106, 108).
Method of producing an integrated electronic circuit comprising at least the steps of: - producing a substrate comprising at least a first and second layer of semiconductor between which at least a third layer of material is placed, then - producing at least a first MOS device, an active area of which is formed in at least part of the first layer of semiconductor, then - producing at least a second MOS device, an active area of which is formed in at least part of the second layer of semiconductor, the active area of the second MOS device being placed between a gate of the second MOS device and the active area of the first MOS device. - producing a substrate comprising at least a first and second layer of semiconductor between which at least a third layer of material is placed, then - producing at least a first MOS device, an active area of which is formed in at least part of the first layer of semiconductor, then - producing at least a second MOS device, an active area of which is formed in at least part of the second layer of semiconductor, the active area of the second MOS device being placed between a gate of the second MOS device and the active area of the first MOS device.
A computing device performing an optimization that optimizes a change amount of an interlinkage magnetic flux in a coil of a magnetic device, the computing device comprising: an optimization processing unit configured to optimize the change amount of the interlinkage magnetic flux in the coil by using an objective function formula that maximizes a sum of Δφ i right x i, i = 1 to N c, and Δφ i left y i, i = 1 to N c, when it is assumed that a surface of the magnetic device where the coil is arranged be divided into N c, Nc is integer, coil regions, in an i-th coil region N i, an auxiliary variable of a clockwise coil that may exist in the coil region N i be x i, and an auxiliary variable of a counterclockwise coil that may exist in the coil region N i be y i, a case where the clockwise coil exists be x i = 1, a case where the clockwise coil does not exist be x i = 0, a case where the counterclockwise coil exists be y i = 1, a case where the counterclockwise coil does not exist be y i = 0, both of the clockwise coil and the counterclockwise coil do not exist when x i = 1 and y i = 1 are satisfied, and a change amount of an interlinkage magnetic flux of the clockwise coil in the coil region N i be Δφ i right and a change amount of an interlinkage magnetic flux of the counterclockwise coil in the coil region N i be Δφ i left. an optimization processing unit configured to optimize the change amount of the interlinkage magnetic flux in the coil by using an objective function formula that maximizes a sum of Δφ i right x i, i = 1 to N c, and Δφ i left y i, i = 1 to N c, when it is assumed that a surface of the magnetic device where the coil is arranged be divided into N c, Nc is integer, coil regions, in an i-th coil region N i, an auxiliary variable of a clockwise coil that may exist in the coil region N i be x i, and an auxiliary variable of a counterclockwise coil that may exist in the coil region N i be y i, a case where the clockwise coil exists be x i = 1, a case where the clockwise coil does not exist be x i = 0, a case where the counterclockwise coil exists be y i = 1, a case where the counterclockwise coil does not exist be y i = 0, both of the clockwise coil and the counterclockwise coil do not exist when x i = 1 and y i = 1 are satisfied, and a change amount of an interlinkage magnetic flux of the clockwise coil in the coil region N i be Δφ i right and a change amount of an interlinkage magnetic flux of the counterclockwise coil in the coil region N i be Δφ i left.
A front installed suspension system having overload protection; the system comprises a mounting seat, a centring apparatus, a support apparatus used for supporting a coupling buffer, and a coupling end pin, wherein the mounting seat is connectable to a railway vehicle body, and the centring apparatus and the support apparatus are both installed on the mounting seat; characterised in that the system further has a coupling connection seat and an overload protection element, wherein the coupling connection seat comprises a base and a coupling connection part connected as one with the base; the base is connected to a rear face of the mounting seat by means of the overload protection element; the coupling connection part passes through a through hole provided in the middle of the mounting seat and is connected with the coupling buffer by means of the coupling end pin; the coupling connection part is closely fitted with the through hole.
A method, comprising: determining map information for display on an integrated input and display device of a navigation device, based upon a determined route of travel of the navigation device, wherein the map information includes building footprints; and differentiating at least a portion of the map information within a threshold distance of the determined route of travel (604a-c), from other map information, to thereby emphasize the determined route of travel, wherein the differentiating includes highlighting at least a portion of the building footprints within a threshold distance of the determined route of travel, and wherein the differentiating includes displaying the building footprints within a threshold distance of the determined route of travel (604a-c), in at least one of: a similar or the same color, and a similar or the same color shade. determining map information for display on an integrated input and display device of a navigation device, based upon a determined route of travel of the navigation device, wherein the map information includes building footprints; and differentiating at least a portion of the map information within a threshold distance of the determined route of travel (604a-c), from other map information, to thereby emphasize the determined route of travel, wherein the differentiating includes highlighting at least a portion of the building footprints within a threshold distance of the determined route of travel, and wherein the differentiating includes displaying the building footprints within a threshold distance of the determined route of travel (604a-c), in at least one of: a similar or the same color, and a similar or the same color shade.