mhurhangee/ep-ind-claims huggingface dataset:
A steel sheet having excellent resistance to liquid metal embrittlement cracks, comprising, by weight%: 0.04% to 0.35% of C, 0.99% or less of Al+Si, 3.5% to 10% of Mn, 0.05% or less of P excluding 0%, 0.02% or less of S excluding 0%, and 0.02% or less of N excluding 0%, with a remainder of Fe and other inevitable impurities, and wherein the steel sheet further optionally comprises one or more selected from the group of: i) at least one selected from the group consisting of 0.15% or less of Ti, 0.5 or less of Nb, 0.5 or less of V and 0.5 or less of Mo; ii) at least one of 0.001% to 0.1% of Zr and 0.001% to 0.5% of W; iii) at least one selected from the group consisting of 1% or less of Ni, 1.5% or less of Cr and 0.5% or less of Cu; iv) at least one selected from the group consisting of 0.1% or less of Sb, 0.01% or less of Ca and 0.01% or less of B; and wherein the steel sheet comprises a microstructure comprising at least 10% by volume fraction of residual austenite, at least 60% by volume fraction of annealed martensite and 20% or less by volume fraction of alpha martensite and epsilon martensite, and an average thickness of a Mn-depleted layer is at least 0.5 pm from a product surface, and wherein the average thickness of Mn-depleted layer is measured by Electron Probe X-ray Micro Analyzer. 0.04% to 0.35% of C, 0.99% or less of Al+Si, 3.5% to 10% of Mn, 0.05% or less of P excluding 0%, 0.02% or less of S excluding 0%, and 0.02% or less of N excluding 0%, with a remainder of Fe and other inevitable impurities, and wherein the steel sheet further optionally comprises one or more selected from the group of: i) at least one selected from the group consisting of 0.15% or less of Ti, 0.5 or less of Nb, 0.5 or less of V and 0.5 or less of Mo; ii) at least one of 0.001% to 0.1% of Zr and 0.001% to 0.5% of W; iii) at least one selected from the group consisting of 1% or less of Ni, 1.5% or less of Cr and 0.5% or less of Cu; iv) at least one selected from the group consisting of 0.1% or less of Sb, 0.01% or less of Ca and 0.01% or less of B; and i) at least one selected from the group consisting of 0.15% or less of Ti, 0.5 or less of Nb, 0.5 or less of V and 0.5 or less of Mo; ii) at least one of 0.001% to 0.1% of Zr and 0.001% to 0.5% of W; iii) at least one selected from the group consisting of 1% or less of Ni, 1.5% or less of Cr and 0.5% or less of Cu; iv) at least one selected from the group consisting of 0.1% or less of Sb, 0.01% or less of Ca and 0.01% or less of B; and wherein the steel sheet comprises a microstructure comprising at least 10% by volume fraction of residual austenite, at least 60% by volume fraction of annealed martensite and 20% or less by volume fraction of alpha martensite and epsilon martensite, and an average thickness of a Mn-depleted layer is at least 0.5 pm from a product surface, and wherein the average thickness of Mn-depleted layer is measured by Electron Probe X-ray Micro Analyzer.
A system for reconstructing digital subtraction angiography, DSA, images representing a region of interest in an object, the system comprising one or more processors configured to: receive cone beam projection data acquired during a portion of a revolution of a source-detector arrangement (160s, 160d) of a cone beam X-ray imaging system around the object, the portion of the revolution comprising a first angular range (Dq 1) including one or more orientations of the source-detector arrangement (160s, 160d) prior to a contrast agent entering the region of interest and/or subsequent to the contrast leaving the region of interest, and a second angular range (Dq 2) including one or more orientations of the source-detector arrangement (160s, 160d) whilst the contrast agent flows within the region of interest; reconstruct the cone beam projection data acquired from the one or more orientations within the first angular range (Dq 1), into a 3D mask image representing the region of interest; and reconstruct the cone beam projection data acquired from the one or more orientations within the second angular range (Dq 2), into a temporal sequence of 3D DSA images representing the region of interest, based on the reconstructed 3D mask image. receive cone beam projection data acquired during a portion of a revolution of a source-detector arrangement (160s, 160d) of a cone beam X-ray imaging system around the object, the portion of the revolution comprising a first angular range (Dq 1) including one or more orientations of the source-detector arrangement (160s, 160d) prior to a contrast agent entering the region of interest and/or subsequent to the contrast leaving the region of interest, and a second angular range (Dq 2) including one or more orientations of the source-detector arrangement (160s, 160d) whilst the contrast agent flows within the region of interest; reconstruct the cone beam projection data acquired from the one or more orientations within the first angular range (Dq 1), into a 3D mask image representing the region of interest; and reconstruct the cone beam projection data acquired from the one or more orientations within the second angular range (Dq 2), into a temporal sequence of 3D DSA images representing the region of interest, based on the reconstructed 3D mask image.
Catalytic module comprising: - a solid support, and - a stack comprising at least the following layers arranged in the following order, starting from the solid support: - a first porous layer containing CeO 2 and deposited by chemical vapour deposition, - a first catalytic layer containing one or several metals and/or one or several alloys of metals among Pt, Pd, Rh, said first catalytic layer being deposited by chemical vapour deposition, - a solid support, and - a stack comprising at least the following layers arranged in the following order, starting from the solid support: - a first porous layer containing CeO 2 and deposited by chemical vapour deposition, - a first catalytic layer containing one or several metals and/or one or several alloys of metals among Pt, Pd, Rh, said first catalytic layer being deposited by chemical vapour deposition, - a first porous layer containing CeO 2 and deposited by chemical vapour deposition, - a first catalytic layer containing one or several metals and/or one or several alloys of metals among Pt, Pd, Rh, said first catalytic layer being deposited by chemical vapour deposition,
A method for allocating multi-UEs' Sounding Reference Signal, SRS, uplink resources, the method comprising steps of: inputting a value of an SRS period, T SRS, and an attribute value of a system capacity including a minimum period, T srs_mim_period, of SRS supported by the system, a maximum number of UE's SRS, n max_SRS, per time domain resource bearable in the minimum period, and a subframe offset, Toffset, of the SRS; configuring a value of a time domain parameter srs-ConfigIndex for allocating time domain resources for the multi-UEs' SRS; configuring a value of a frequency domain parameter transmissionComb for mapping UEs' SRS in same time domain resource to different frequency domain resources; configuring a value of a cyclic shift parameter cyclicShift for further dividing UEs' SRS in same time domain resource and frequency domain resource. inputting a value of an SRS period, T SRS, and an attribute value of a system capacity including a minimum period, T srs_mim_period, of SRS supported by the system, a maximum number of UE's SRS, n max_SRS, per time domain resource bearable in the minimum period, and a subframe offset, Toffset, of the SRS; configuring a value of a time domain parameter srs-ConfigIndex for allocating time domain resources for the multi-UEs' SRS; configuring a value of a frequency domain parameter transmissionComb for mapping UEs' SRS in same time domain resource to different frequency domain resources; configuring a value of a cyclic shift parameter cyclicShift for further dividing UEs' SRS in same time domain resource and frequency domain resource.
A method of forming a porous ceramic coating layer on an oxygen sensor, characterized in that it comprises the steps of: fixing an oxygen sensor in any one of a plurality of fixing brackets provided along one side of a jig; spraying metal powder onto a sensing part of the oxygen sensor using a plasma gun and simultaneously injecting reaction gas onto the sensing part through a reaction gas injector to form an adhesion layer; injecting gas into the plasma gun provided with a positive electrode and a negative electrode through a gas inlet and then applying high voltage to the positive electrode and the negative electrode to generate a plasma flame; and spraying ceramic powder into the plasma flame through a powder inlet provided at the plasma gun to form a porous ceramic coating layer on the adhesion layer. fixing an oxygen sensor in any one of a plurality of fixing brackets provided along one side of a jig; spraying metal powder onto a sensing part of the oxygen sensor using a plasma gun and simultaneously injecting reaction gas onto the sensing part through a reaction gas injector to form an adhesion layer; injecting gas into the plasma gun provided with a positive electrode and a negative electrode through a gas inlet and then applying high voltage to the positive electrode and the negative electrode to generate a plasma flame; and spraying ceramic powder into the plasma flame through a powder inlet provided at the plasma gun to form a porous ceramic coating layer on the adhesion layer.
A speculum for dilating a body cavity, the speculum comprising upper and lower blades (20, 30, 520, 530, 620, 630) arranged to pivot relative to each other about coupling elements (21, 31, 541, 631, 641) each associated with a respective blade (20, 30, 520, 530, 620, 630); characterised in that: the upper blade (20, 520, 620) is detachable from the lower blade (30, 530, 630), when the speculum is in situ in the cavity, upon pulling the upper blade (20, 520, 620) generally proximally to decouple the coupling elements (21, 31, 541, 631, 641) from each other or to detach at least one of the coupling elements (21, 31, 541, 631, 641) from the associated blade (20, 30, 520, 530, 620, 630); the coupling element of the upper blade (20, 520, 620) is a slot (21, 631) that defines a path that is inclined relative to the length of the upper blade (20, 520, 620) upwardly and proximally when the speculum is oriented for use with the upper blade (20, 520, 620) extending generally horizontally, and the coupling element of the lower blade (30, 530, 630) is a spigot (31, 541, 641) arranged to follow the path in a decoupling direction; and the spigot (31, 541, 641) is a sliding fit in the slot (21, 631). the upper blade (20, 520, 620) is detachable from the lower blade (30, 530, 630), when the speculum is in situ in the cavity, upon pulling the upper blade (20, 520, 620) generally proximally to decouple the coupling elements (21, 31, 541, 631, 641) from each other or to detach at least one of the coupling elements (21, 31, 541, 631, 641) from the associated blade (20, 30, 520, 530, 620, 630); the coupling element of the upper blade (20, 520, 620) is a slot (21, 631) that defines a path that is inclined relative to the length of the upper blade (20, 520, 620) upwardly and proximally when the speculum is oriented for use with the upper blade (20, 520, 620) extending generally horizontally, and the coupling element of the lower blade (30, 530, 630) is a spigot (31, 541, 641) arranged to follow the path in a decoupling direction; and the spigot (31, 541, 641) is a sliding fit in the slot (21, 631).
A semiconductor photodetection device (130; 170), comprising: a semiconductor structure (132, 133, 134, 134A; 41A, 42,43, 45, 101) including an optical absorption layer (133; 42) having a photo-incidence surface on a first side thereof; a dielectric reflecting layer (135A; 49A) formed on a second side of the semiconductor structure opposite to the first side; and a contact electrode (137; 48 1) surrounding the dielectric reflecting layer (135A; 49A) and contacting with the semiconductor structure; characterised by: a barrier electrode (138; 161) formed on the periphery of the dielectric reflecting layer (135A; 49A) and contacting with the contact electrode; and a reflecting electrode (139; 48 2) covering the dielectric reflecting layer (135A; 49A) and contacting with the barrier electrode (138; 161) and the dielectric reflecting layer (135A; 49A); wherein said barrier electrode (138; 161) has a larger area than the contact electrode (137; 48 1). a semiconductor structure (132, 133, 134, 134A; 41A, 42,43, 45, 101) including an optical absorption layer (133; 42) having a photo-incidence surface on a first side thereof; a dielectric reflecting layer (135A; 49A) formed on a second side of the semiconductor structure opposite to the first side; and a contact electrode (137; 48 1) surrounding the dielectric reflecting layer (135A; 49A) and contacting with the semiconductor structure; a barrier electrode (138; 161) formed on the periphery of the dielectric reflecting layer (135A; 49A) and contacting with the contact electrode; and a reflecting electrode (139; 48 2) covering the dielectric reflecting layer (135A; 49A) and contacting with the barrier electrode (138; 161) and the dielectric reflecting layer (135A; 49A); wherein said barrier electrode (138; 161) has a larger area than the contact electrode (137; 48 1).
Omnidirectional conveying-system module (10, 200, 260) comprising at least two omnidirectional conveying units (14, 14) arranged one beside the other, wherein the conveying units each have at least one omnidirectional conveying wheel, and wherein the operating directions of the conveying wheels of the conveying units run at an angle other than zero in relation to one another, characterized in that the conveying units comprise an individually assigned drive motor for individually driving the at least one conveying wheel.
A portable accessory, comprising: an accessory enclosure comprising a first shell and a second shell; an outer periphery and an inner periphery each defined in part by the first shell and the second shell; an electrical component disposed within the accessory enclosure; an electrical contact disposed on or within the inner periphery of the accessory enclosure; wherein the portable accessory is configured to provide or receive an electrical impulse through the electrical contact characterized in that the outer periphery and the inner periphery upon or within which the electrical contact is disposed being configured to be disposed around an outer surface of an accessory support or to receive a pole portion of an umbrella. an accessory enclosure comprising a first shell and a second shell; an outer periphery and an inner periphery each defined in part by the first shell and the second shell; an electrical component disposed within the accessory enclosure; an electrical contact disposed on or within the inner periphery of the accessory enclosure; wherein the portable accessory is configured to provide or receive an electrical impulse through the electrical contact characterized in that the outer periphery and the inner periphery upon or within which the electrical contact is disposed being configured to be disposed around an outer surface of an accessory support or to receive a pole portion of an umbrella.
A skin care composition comprising: (a) 0.1 - 50 wt. % of at least one cyclic diester of an alpha hydroxy acid; and (b) 50 - 99.9 wt. % of at least one polar non-aqueous solvent having a polarity of 5 to 20, as defined in C.M. Hansen, Hansen Solubility Parameters: A User's Handbook, 2nd edition 2007; wherein the composition comprises less than 1 wt. % of water and the at least one polar non-aqueous solvent is a solvent of formula, formula, or mixtures thereof: wherein R 6 is an alkyl, ether, ester, amide, amine, or combinations thereof; a is 1 to 3; b is 1 to 5; and z is 1 to 3. (a) 0.1 - 50 wt. % of at least one cyclic diester of an alpha hydroxy acid; and (b) 50 - 99.9 wt. % of at least one polar non-aqueous solvent having a polarity of 5 to 20, as defined in C.M. Hansen, Hansen Solubility Parameters: A User's Handbook, 2nd edition 2007;
Device for playback of multimedia files, including means for changing the sorting order and/or the playback order of a plurality of multimedia files, wherein upon changing the sorting order and/or the playback order of the multimedia files the currently selected multimedia file is kept and the new sorting order and/or playback order is determined by at least one property of the currently selected multimedia file, characterized in that the means for changing the sorting order and/or the playback order include a button, wherein the device is adapted so that each time the button is pressed the at least one property of the currently selected multimedia file for determining the new sorting order and/or playback order is changed by running through a predefined sequence of properties of the currently selected multimedia file.
Method for producing an annular drive belt that is continuous in a running direction, having a radially outer cover layer (9, 109, 214, 314) from a first material, a tension cord tier having tension cords (10, 110, 215, 315) that are aligned in the running direction, and an underside (17, 117, 217, 317) consisting of a second material which is an elastomer, said underside (17, 117, 217, 317) being configured for bearing on matching discs of a drive, wherein the tension cords (10, 110, 215, 315) are first applied to the first material, and the underside (17, 117, 217, 317) from the second material is subsequently moulded and cross-linked in an injection mould (11, 111, 203, 303), characterized in that the first material is applied to a core (1, 101, 210, 307) by injection moulding, in that the tension cords (10, 110, 215, 315) are subsequently wound onto the first material, and in that the tension cord tier thus formed is surrounded by an injection-moulding cavity (16, 216, 316) into which the second material is injected and in which the second material is cross-linked, and in that the core (1, 101) is a cylindrical support which extends through the two injection moulds (103, 111).
A labeling machine comprising a base structure which rotatably supports a conveyance carousel for the containers to be labeled and at least one protection structure which can move, with respect to said base structure, from an active condition, in which it prevents access from the outside to at least one portion of said conveyance carousel, to an inactive condition, in which it allows access from the outside to said at least one portion of said conveyance carousel, and vice versa, said protection structure comprising a supporting framework for components of said protection structure, said supporting framework comprising a profiled bar having an arc-like extension around the axis of said conveyance carousel, which is arranged above said base structure and forms at least one engagement seat for means for fixing to said supporting framework at least one of said components, said at least one engagement seat comprising at least one longitudinal slot which extends along the extension of said profiled bar and is open at least on the face of said profiled bar that is directed outward with respect to the axis of said conveyance carousel, said fixing means comprising at least one connection screw which engages said at least one of said components and, with at least one portion of its stem, said at least one longitudinal slot, characterized in that said profiled bar is provided with a plurality of longitudinal slots for the engagement of said fixing means, which are arranged so as to be mutually parallel and spaced along a substantially vertical direction, and said at least one connection screw is screwed into a respective female thread that is formed in a corresponding insert accommodated in said at least one longitudinal slot. said fixing means comprising at least one connection screw which engages said at least one of said components and, with at least one portion of its stem, said at least one longitudinal slot, characterized in that said profiled bar is provided with a plurality of longitudinal slots for the engagement of said fixing means, which are arranged so as to be mutually parallel and spaced along a substantially vertical direction, and said at least one connection screw is screwed into a respective female thread that is formed in a corresponding insert accommodated in said at least one longitudinal slot.
Operating method for a person-controlled industrial truck, comprising a hydraulic pump for providing hydraulic power, which pump can be power-controlled by means of a person-actuated power setpoint generator for the purpose of influencing the driving speed, comprising at least two drive wheels, each of which comprises a hydraulic drive unit (8a, 8b) that can be driven by means of the hydraulic pump, and comprising a hydraulic device which can be switched between a first switching state, in which the drive units (8a, 8b) can be supplied with different hydraulic power levels depending on the driving situation, and a second switching state, in which the drive units (8a, 8b) are supplied, using positive control, with hydraulic power levels that are in a particular ratio to one another, characterized in that at least one actuation parameter of the power setpoint generator is detected, this actuation parameter is compared with a predetermined threshold value and the hydraulic device is switched from the first to the second switching state on the basis of this comparison. comprising a hydraulic pump for providing hydraulic power, which pump can be power-controlled by means of a person-actuated power setpoint generator for the purpose of influencing the driving speed, comprising at least two drive wheels, each of which comprises a hydraulic drive unit (8a, 8b) that can be driven by means of the hydraulic pump, and comprising a hydraulic device which can be switched between a first switching state, in which the drive units (8a, 8b) can be supplied with different hydraulic power levels depending on the driving situation, and a second switching state, in which the drive units (8a, 8b) are supplied, using positive control, with hydraulic power levels that are in a particular ratio to one another, characterized in that at least one actuation parameter of the power setpoint generator is detected, this actuation parameter is compared with a predetermined threshold value and the hydraulic device is switched from the first to the second switching state on the basis of this comparison.
Method for transforming a secure electronic device, associated to a first identifier and having a sensitive mode disabled after production, for a new sensitive use, characterized in that it comprises the steps of: (i) externally computing a cipher of said first identifier with a predetermined function fed with said first identifier and a predetermined secret key, (ii) transforming an accessible metal layer of said electronic device to form an activation pattern representing said externally computed cipher of the first identifier, (iii) getting a value representative of said activation pattern into said electronic device, (iv) computing a second identifier with said transformed electronic device by feeding a reverse function of said predetermined function with said value and said secret key, to trigger a comeback to said sensitive mode if said second identifier is equal to said first identifier.