mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an integrated circuit comprising: providing a stack of layers on a substrate, the stack including at least a first layer, the first layer comprising conductive regions; forming an interconnect layer over the first layer, said interconnect layer comprising a dielectric material portion to be provide between a bond pad and the stack of layers; forming a plurality of trenches in said dielectric material portion; filling said trenches with a thermally degradable polymer; forming a porous capping layer over the interconnect layer; thermally decomposing said polymer; and forming the bond pad over said dielectric material portion. providing a stack of layers on a substrate, the stack including at least a first layer, the first layer comprising conductive regions; forming an interconnect layer over the first layer, said interconnect layer comprising a dielectric material portion to be provide between a bond pad and the stack of layers; forming a plurality of trenches in said dielectric material portion; filling said trenches with a thermally degradable polymer; forming a porous capping layer over the interconnect layer; thermally decomposing said polymer; and forming the bond pad over said dielectric material portion.
Method for determining an operating and/or material parameter in an electric arc furnace, in which molten material, in particular steel, in a lower bowl is heated by at least one arc, the at least one arc burning between at least one electrode and the molten material, light from the at least one arc and/or light from the molten material being detected by means of at least one optical detection device (6, 7), said light being guided, by means of an optical system, in particular by means of at least one optical waveguide (8, 9), to at least one spectrometer (10, 11) where it is detected and/or analysed in order to determine the operating and/or material parameter, characterised in that use is made of two optical detection devices (6, 7) which guide the absorbed light to two spectrometers (10, 11) by means of respective optical waveguides (8, 9), one of the optical detection devices detecting the light from the arc and the other optical detection device detecting the light from the molten material, the two optical detection devices (6, 7) being positioned in a housing which is arranged in a wall region of the lower bowl and faces the inner space of the arc furnace, and the two spectrometers (10, 11) being positioned in a receiving space which is arranged on or in the wall region of the lower bowl.
A method for controlling access to specific premise for a user including a preliminary step of creation by a services management server of an access coupon to provide access to a journey characterised by its place of departure and its place of arrival, and a step of calculating a graphic identifier encoding data identifying the user and characteristics of said journey including the place of departure and place of arrival, the graphic identifier being integrated into said access coupon and associated with information allowing said journey to be made, the reading of the access coupon reproduced on the support giving access to the journey for this user identified by the access coupon; comprising a subsequent step of associating the graphic identifier with a right of access to the specific premise by the services management server; a step of retrieval by a control server controlling access to the specific premise of association data including the graphic identifier; a step of reading the graphic identifier integrated into the coupon at, at least, this premise; a comparison step comparing the data of the graphic identifier read from the coupon and the data of the graphic identifier contained in the association data; and a subsequent step of releasing an electric latch by the control server triggered by the reading of said graphic identifier reproduced on a support to allow access to at least this premise and by the equalité of the data compared.
A sampling rate determining method, executable by a receiving device, the method is characterised by comprising: obtaining a first audio signal recorded by a transmitting device, the first audio signal being recorded according to an initial sampling rate of the transmitting device; recording a second audio signal during playing of the first audio signal, the second audio signal being recorded according to the initial sampling rate; determining a frequency response gain value of the receiving device according to a first power spectrum of the first audio signal and a second power spectrum of the second audio signal; and determining a target sampling rate of the transmitting device according to the initial sampling rate and the frequency response gain value. obtaining a first audio signal recorded by a transmitting device, the first audio signal being recorded according to an initial sampling rate of the transmitting device; recording a second audio signal during playing of the first audio signal, the second audio signal being recorded according to the initial sampling rate; determining a frequency response gain value of the receiving device according to a first power spectrum of the first audio signal and a second power spectrum of the second audio signal; and determining a target sampling rate of the transmitting device according to the initial sampling rate and the frequency response gain value.
A composition comprising cucurbitacins and their glucoside derivatives, wherein cucurbitacins D, I, L and A and their glucoside derivatives are present, as a whole, in terms of percentage by weight in an amount greater than 25% of the total weight of the cucurbitacins and their glucoside derivatives, and wherein cucurbitacins B, E and the derivative of cucurbitacin E, ecballic acid, are each present at a concentration below 2.5% of the total weight of the cucurbitacins and their glucoside derivatives.
Door leaf element (21, 21', 21") for a bulletproof roller door, wherein the door leaf element (21, 21', 21") has a cavity in the cross section, into which cavity an antiballistic insert is inserted, wherein the insert has a plate-like configuration, and wherein the insert is oriented obliquely in relation to the vertical orientation of the door leaf element (21, 21', 21") in the cavity of the door leaf element (21, 21', 21"), wherein, furthermore, at least one antiballistic defense strip (30, 31) oriented at an angle in relation to the insert is arranged in the cavity of the door leaf element (21, 21', 21"), characterized in that two such defense strips (30, 31) are arranged such that they cover the gap between the inserts of adjacent door leaf elements (21, 21', 21"), and that a labyrinth-like closure is present between end faces of two adjacent door leaf elements (21, 21', 21') facing each other.
A rotating heavy-duty running gear with - a support structure, - at least one roller cassette (24, 26, 28, 32) that is rotatable about a vertical axis and has, respectively, at least one roller (14, 16, 30, 34), wherein the at least one roller cassette (24, 26, 28, 32) is arranged on the bottom side of the support structure, - at least one lifting receptacle (64, 120, 122, 124) provided in the support structure for carrying out a lifting movement in a vertical direction, wherein the at least one lifting receptacle (64, 120, 122, 124) is configured to grip a load and lift it, and wherein a drive that is configured to drive the lifting receptacle (64, 120, 122, 124) for carrying out a lifting movement is assigned to the lifting receptacle (64, 120, 122, 124), wherein a path sensor 63 that serves to detect a measure of the lifting movement is assigned to each of the at least one lifting receptacle(s) (64, 120, 122, 124), characterized in that the rotating heavy-duty running gear (10, 110, 112, 114) has a pull-out transport handle. - a support structure, - at least one roller cassette (24, 26, 28, 32) that is rotatable about a vertical axis and has, respectively, at least one roller (14, 16, 30, 34), wherein the at least one roller cassette (24, 26, 28, 32) is arranged on the bottom side of the support structure, - at least one lifting receptacle (64, 120, 122, 124) provided in the support structure for carrying out a lifting movement in a vertical direction, wherein the at least one lifting receptacle (64, 120, 122, 124) is configured to grip a load and lift it, and wherein a drive that is configured to drive the lifting receptacle (64, 120, 122, 124) for carrying out a lifting movement is assigned to the lifting receptacle (64, 120, 122, 124), wherein a path sensor 63 that serves to detect a measure of the lifting movement is assigned to each of the at least one lifting receptacle(s) (64, 120, 122, 124),
Aeroplane tyre comprising a tread having an axial width L, the tread comprising: - a middle part having an axial width Lc at least equal to 50% and at most equal to 80% of the axial width L of the tread and composed of a middle rubber composition, - and two lateral parts (41, 42) positioned axially on either side of the middle part, each having an axial width (Lsi, Ls2) at least equal to 10% and at most equal to 25% of the axial width L of the tread and each composed of a lateral rubber composition, characterized in that the middle rubber composition comprises at least 50 phr of a first middle part diene elastomer, at most 70 phr of a middle part reinforcing filler and a crosslinking system, which first middle part diene elastomer is a terpolymer of ethylene, of an α-olefin and of a non-conjugated diene and in that the lateral rubber composition of each lateral part comprises at least 50 phr of a first lateral part diene elastomer, a lateral part reinforcing filler content greater than the middle part reinforcing filler content and a crosslinking system, which first lateral part diene elastomer is a terpolymer of ethylene, of an α-olefin and of a non-conjugated diene. - a middle part having an axial width Lc at least equal to 50% and at most equal to 80% of the axial width L of the tread and composed of a middle rubber composition, - and two lateral parts (41, 42) positioned axially on either side of the middle part, each having an axial width (Lsi, Ls2) at least equal to 10% and at most equal to 25% of the axial width L of the tread and each composed of a lateral rubber composition,
Polyolefin composition comprising an heterophasic propylene copolymer (HECO) and a polar modified α-polyolefin, wherein said heterophasic propylene copolymer (HECO) comprises (a) a (semi)crystalline polypropylene; and (b) an elastomeric propylene copolymer dispersed in said (semi)crystalline polypropylene wherein said polyolefin composition has (i) a xylene cold soluble fraction in the range of 28 to 45 wt.-%; wherein further the xylene cold soluble fraction of said polyolefin composition has (ii) an intrinsic viscosity in the range of 1.80 to 3.30 dl/g. (a) a (semi)crystalline polypropylene; and (b) an elastomeric propylene copolymer dispersed in said (semi)crystalline polypropylene (i) a xylene cold soluble fraction in the range of 28 to 45 wt.-%; wherein further the xylene cold soluble fraction of said polyolefin composition has (ii) an intrinsic viscosity in the range of 1.80 to 3.30 dl/g.
An information processing device, comprising: a communication unit (102, 104) configured to obtain first capability information from a first control target device through a first communication path and second capability information from a second control target device through the first communication path, the first and second capability information indicating a capability of processing data received through the first communication path; a determination unit configured to determine, based on the first capability information and the second capability information, one of the first and second control target devices (200A, 200B) that has the capability of processing data received through the first communication path as a transmission target control target device to which connection information of the other control target device is transmitted through the first communication path to start communication with the other of the first and second control target devices (200A, 200B) through a second communication path different from the first communication path; a notification control unit configured to notify, upon receiving the capability information from the first control target device, a user who uses the second control target device of a start notification for starting communication between the information processing device and the second control target device through the first communication path. a communication unit (102, 104) configured to obtain first capability information from a first control target device through a first communication path and second capability information from a second control target device through the first communication path, the first and second capability information indicating a capability of processing data received through the first communication path; a determination unit configured to determine, based on the first capability information and the second capability information, one of the first and second control target devices (200A, 200B) that has the capability of processing data received through the first communication path as a transmission target control target device to which connection information of the other control target device is transmitted through the first communication path to start communication with the other of the first and second control target devices (200A, 200B) through a second communication path different from the first communication path; a notification control unit configured to notify, upon receiving the capability information from the first control target device, a user who uses the second control target device of a start notification for starting communication between the information processing device and the second control target device through the first communication path.
A targeted therapeutic fusion protein comprising (a) a lysosomal enzyme, (b) a peptide tag having an amino acid sequence at least 70% identical to amino acids 8-67 of mature human IGF-II and (c) a spacer peptide between the lysosomal enzyme and the IGF-II peptide tag, wherein the spacer peptide comprises the amino acid sequence GGGPS (SEQ ID NO: 14).
A branched, primary fatty acid amide mixture of formula I: R-CO-NH 2 where R is a saturated, branched hydrocarbon chain having 15 to 21 carbon atoms; wherein the mixture comprises molecules having monoalkyl branching and molecules having polyalkyl branches; and wherein at least 60% by weight of the R-CO-NH 2 molecules have monoalkyl branching and less than 25% by weight of the R-CO-NH 2 molecules have polyalkyl branches. wherein the mixture comprises molecules having monoalkyl branching and molecules having polyalkyl branches; and wherein at least 60% by weight of the R-CO-NH 2 molecules have monoalkyl branching and less than 25% by weight of the R-CO-NH 2 molecules have polyalkyl branches.
An ink composition for ink jet recording, comprising: an alkylene oxide adduct of an acetylenic glycol in which a main chain has 12 or more carbon atoms; an acetylenic glycol in which a main chain has 10 or more carbon atoms; and a polyoxyalkylene alkyl ether. an alkylene oxide adduct of an acetylenic glycol in which a main chain has 12 or more carbon atoms; an acetylenic glycol in which a main chain has 10 or more carbon atoms; and a polyoxyalkylene alkyl ether.
A resin composition, comprising: a light-emitting substance; a radiopaque substance; and a resin, wherein the light-emitting substance is a near-infrared fluorescent material. a light-emitting substance; a radiopaque substance; and a resin, wherein the light-emitting substance is a near-infrared fluorescent material.
A base for a ski boot comprising a one-piece sole defining heel and toe portions (5, 6) that is adapted to be secured to one or more outsole elements (8, 9, 10) and that has a fiber-reinforced composite structure wherein a majority of the fibers in at least a mid-section of the sole between the heel and toe portions are angled at an acute angle with respect to a longitudinal axis of the sole, and characterized in that between 5% and 10% of the fibers in the mid-section of the sole are substantially aligned with the longitudinal axis of the sole at angles within ±20° of being parallel to the longitudinal axis of the sole.
A method for calibrating electronically scanned array antennas, ESAs, comprising: driving all of the radiating elements of a conformal ESA; receiving signals from the radiating elements at successively different azimuthal angles to at least one test probe; periodically repositioning the conformal ESA via a rotating repositioner such that each radiating element is orthogonal to the at least one test probe while receiving signals; comparing the received signals to a golden standard sample; determining a gain calibration coefficient for one or more radiating elements via Hadamard orthogonal coding; and determining a phase calibration coefficient for one or more radiating element via Hadamard orthogonal coding. driving all of the radiating elements of a conformal ESA; receiving signals from the radiating elements at successively different azimuthal angles to at least one test probe; periodically repositioning the conformal ESA via a rotating repositioner such that each radiating element is orthogonal to the at least one test probe while receiving signals; comparing the received signals to a golden standard sample; determining a gain calibration coefficient for one or more radiating elements via Hadamard orthogonal coding; and determining a phase calibration coefficient for one or more radiating element via Hadamard orthogonal coding.
A metering mechanism comprising a body mounted to translate in a sleeve which is itself mounted in an adjustment nut, said adjustment nut being capable of cooperating by screwing with said sleeve, said screwing then causing a rotation of the adjustment nut relative to the body of the metering mechanism, said body being extended by a valve seat that can be closed by a valve and that is capable of accommodating a plunger, the reciprocating movement of which allows at least a suction at the valve, the travel of the plunger being a function of the position of screwing between the adjustment nut and the sleeve, the metering mechanism also comprising means for activating the blocking of the rotation between the adjustment nut and the body of the metering mechanism so as to prohibit the screwing and the unscrewing between the adjustment nut and the sleeve, characterized in that said means comprise a ring housed in a locking nut mounted to rotate around the body, said ring cooperating by screwing with said locking nut, said ring being mounted to translate only around and along the body of the metering mechanism between a first position of abutment at the bottom of the locking nut and a second position of abutment against the adjustment nut involving the rotational blocking of the adjustment nut rendered secured by complementarity of form with the ring.
Use of a zwitterionic nanoparticle for non-specific incorporation into at least one cell, the zwitterionic nanoparticle comprising at least one nanoparticle and a betaine shell enclosing the nanoparticle, wherein the nanoparticle is a luminescent semiconductor nanocrystal (SCNC).
A crash energy absorbing part configured to absorb crash energy when a crash load is applied to one of the end portions in a shock-absorbing direction of the crash energy absorbing part, the crash energy absorbing part being constructed by forming a sandwich metal sheet including surface layers (3A, 3B), a core layer and bonding layers (7A, 7B) between the surface layer and the core layer, in which each of the surface layers (3A, 3B) is formed of a metal sheet, and the surface layers (3A, 3B) are laminated on each surface of the core layer by the bonding layers (7A, 7B), wherein the shape of any cross section that is perpendicular to the shock-absorbing direction has a curved portion, the minimum curvature radius of which is not less than 7.0 mm, at not less than 30.0 % of a circumferential length of the cross section, wherein the shape of the cross section has a closed structure or has an opening at less than 15.0 % of the circumferential length of the cross section, and wherein a center layer formed of the core layer and the bonding layers (7A, 7B) has a deformation rate of not less than 7.0 % and not greater than 75.0 %, wherein the deformation rate is defined by 100 x (Dcal - Dexp)/Dcal, wherein Dcal = Eb(H 3 -h 3)/12 is the calculated rigidity of the sandwich metal sheet, Dexp = (Pexp/δexp) x (L 3 /48) is the measured flexural rigidity of the sandwich metal sheet with (Pexp/δexp) being an inclination in an elastic deformation region calculated from a load-displacement curve obtained from a three-point bending test in accordance with ASTM D790 and L being the distance between fulcrums, E is the Young's modulus of the surface layer (3A, 3B), b is the width of the sandwich metal sheet, H is the thickness of the sandwich metal sheet and h is the thickness of the core layer.
An oral care device comprising: a body comprising a head; a plurality of teeth cleaning elements extending from the head; a first sacrificial electrode (204, 308) on the head; a second sacrificial electrode (206, 308) on the head and spaced apart from the first sacrificial electrode (204, 308); a power source; and a controller configured to alternate between an ON state and an OFF state, wherein: in the ON state the controller operably couples the power source to the first and second sacrificial electrodes (204, 206, 308) to create an electric potential between the first sacrificial electrode (204, 308) and the second sacrificial electrode (206, 308), the electric potential having one of a first polarity and a second polarity, and for each successive transition from the OFF state to the ON state, the controller is configured to alternate between the first polarity and the second polarity. a body comprising a head; a plurality of teeth cleaning elements extending from the head; a first sacrificial electrode (204, 308) on the head; a second sacrificial electrode (206, 308) on the head and spaced apart from the first sacrificial electrode (204, 308); a power source; and a controller configured to alternate between an ON state and an OFF state, wherein: in the ON state the controller operably couples the power source to the first and second sacrificial electrodes (204, 206, 308) to create an electric potential between the first sacrificial electrode (204, 308) and the second sacrificial electrode (206, 308), the electric potential having one of a first polarity and a second polarity, and for each successive transition from the OFF state to the ON state, the controller is configured to alternate between the first polarity and the second polarity. in the ON state the controller operably couples the power source to the first and second sacrificial electrodes (204, 206, 308) to create an electric potential between the first sacrificial electrode (204, 308) and the second sacrificial electrode (206, 308), the electric potential having one of a first polarity and a second polarity, and for each successive transition from the OFF state to the ON state, the controller is configured to alternate between the first polarity and the second polarity.