mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: obtaining a first clean signal (S 1) and a first processed signal (S 4) dependent upon audio input at a first microphone; obtaining a second clean signal (S 2) and a second processed signal (S 3) dependent upon audio input at a second microphone; grouping the obtained signals into at least two groups, the first group comprising the signals dependent upon audio input at the first microphone and the second group comprising the signals dependent upon audio input at the second microphone; discriminating clean signals and processed signals in the groups of signals; using the clean signals (S 1, S 2) to obtain a time offset between audio signals captured by the microphones (25, 27); and using the time offset to enable further processing of at least the first processed signal (S 4) and the second processed signal (S 3), wherein the processed signals comprise at least one characteristic, that is an artefact of the processing used to produce the processed signals, used to discriminate the clean signals from the processed signals. obtaining a first clean signal (S 1) and a first processed signal (S 4) dependent upon audio input at a first microphone; obtaining a second clean signal (S 2) and a second processed signal (S 3) dependent upon audio input at a second microphone; grouping the obtained signals into at least two groups, the first group comprising the signals dependent upon audio input at the first microphone and the second group comprising the signals dependent upon audio input at the second microphone; discriminating clean signals and processed signals in the groups of signals; using the clean signals (S 1, S 2) to obtain a time offset between audio signals captured by the microphones (25, 27); and using the time offset to enable further processing of at least the first processed signal (S 4) and the second processed signal (S 3), wherein the processed signals comprise at least one characteristic, that is an artefact of the processing used to produce the processed signals, used to discriminate the clean signals from the processed signals.
A system for improving the energy efficiency in hydraulic systems, having at least one working cylinder which operates as a consumer of hydraulic energy in one operating state, and as a generator of hydraulic energy in another operating state, and having a hydraulic accumulator which can be charged by the working cylinder for storing energy in one operating state of the working cylinder, and which can be discharged for delivering energy to the working cylinder in another operating state, at least one hydraulic accumulator being provided in the form of an adjustable hydropneumatic piston accumulator in which a plurality of pressure chambers (19, 21, 23, 25) are formed which adjoin effective surfaces (11, 13, 15, 17) of different sizes on the fluid side of the accumulator piston, characterised in that an adjustment assembly is provided which is designed such that it connects a selected pressure chamber (19, 21, 23, 25) or a number of selected pressure chambers (19, 21, 23, 25) of the piston accumulator to the working cylinder dependently upon the respective pressure level that prevails on the gas side of the piston accumulator and at the working cylinder, and that a control logic unit that forms part of the system is associated with the adjustment assembly, which control logic unit processes the signals from sensor devices (59, 63) for the control of the valves (79, 81) associated with the adjustment assembly, which sensor devices display the pressure level on the gas side of the piston accumulator and the respective operating state of the working cylinder.
A semiconducting polymer having a permittivity greater than 3.4 at 1000 Hz and a charge mobility in the pure state of greater than 10 -7 cm 2 V -1 s -1, wherein the semiconducting polymer is a copolymer represented by the formula: wherein each A is independently hydrogen, halogen or any suitable end-capping group, a is the number of first monomer units, and b is the number of second monomer units, preferably A is independently in each occurrence chloro, bromo or phenyl; or is a homopolymer represented by the formula: wherein each A is independently hydrogen, halogen or any suitable end-capping group and a is the number of first monomer units, preferably A is chloro; or is a homopolymer represented by the formula: wherein each A is independently hydrogen, halogen or any suitable end-capping group and a is the number of first monomer units, preferably A is chloro; or is a copolymer represented by the formula: wherein each A is independently hydrogen, halogen or any suitable end-capping group, a is the number of first monomer units, and b is the number of second monomer units, preferably A is chloro. Figure 1: Diagram of OTFT made on a glass substrate coated with SU8 layer Layer 1- Glass substrate Layer 2- Bottom contact pads Layer 3 - SU8 ((2002; negative epoxy-type negative, near UV photoresist material, supplied by MicroChem Inc.) Layer 4 - Source, drain electrodes Layer 5 -OSC layer Layer 06-Dielectric layer Layer 07-Gate electrode Layer 1- Glass substrate Layer 2- Bottom contact pads Layer 3 - SU8 ((2002; negative epoxy-type negative, near UV photoresist material, supplied by MicroChem Inc.) Layer 4 - Source, drain electrodes Layer 5 -OSC layer Layer 06-Dielectric layer Layer 07-Gate electrode
Protection barrier comprising uprights constituted by tubular section bars, cross members constituted by tubular section bars and interposed between said uprights, fixing elements suited to fix said uprights to the ground, and wherein each upright is provided, on two opposite sides, with one or more aligned series of holes (2.2) at various heights, and wherein each cross member on one side of each upright is suited to be connected to the corresponding cross member aligned with it and positioned on the opposite side of said upright through a connection element passing through each pair of said opposite holes (2.2) of said upright, in order to obtain mechanical continuity between two or more aligned cross members positioned between said uprights, and wherein said uprights, said cross members and said connection elements are made of a plastic material, characterized in that each cross member is provided, in proximity to each one of its ends (3.1), with at least two opposite through holes (3.2), and wherein each connection element is provided, in proximity to each one of its ends (4.1), with one or more opposite through holes (4.2) suited to be aligned with said holes (3.2) provided in said cross member fitted on said connection element, and wherein the length of said connection element is greater than the section of said upright such that, when the connection element itself is housed in said holes (2.2) of said upright, its ends (4.1) with said holes (4.2) are both external to said upright. each upright is provided, on two opposite sides, with one or more aligned series of holes (2.2) at various heights, and wherein each cross member on one side of each upright is suited to be connected to the corresponding cross member aligned with it and positioned on the opposite side of said upright through a connection element passing through each pair of said opposite holes (2.2) of said upright, in order to obtain mechanical continuity between two or more aligned cross members positioned between said uprights, and wherein said uprights, said cross members and said connection elements are made of a plastic material, characterized in that each cross member is provided, in proximity to each one of its ends (3.1), with at least two opposite through holes (3.2), and wherein each connection element is provided, in proximity to each one of its ends (4.1), with one or more opposite through holes (4.2) suited to be aligned with said holes (3.2) provided in said cross member fitted on said connection element, and wherein the length of said connection element is greater than the section of said upright such that, when the connection element itself is housed in said holes (2.2) of said upright, its ends (4.1) with said holes (4.2) are both external to said upright.
A method of identifying regeneration-capable (C-RC) populations of cancer cells in an individual comprising (a) cultivating a tumor sample obtained from an individual under conditions that induce a stress response in differentiating and differentiated cells but permits C-RC cells to propagate and which activate a regenerative response; (b) isolating the dominant actively expanding, most rapidly dividing population of cells from step (a); and (c) culturing the cells to 60 to 95% confluence to obtain a population of 51% to 100% C-RC, wherein the cell culture conditions are selected from the group consisting of: (i) serum-free, defined cell culture medium, inducing the apoptosis and/or necrosis of the differentiating and differentiated cells, (ii) medium containing cAMP elevating agents, and (iii) medium designed to inhibit or disrupt cell-cell adhesion. (a) cultivating a tumor sample obtained from an individual under conditions that induce a stress response in differentiating and differentiated cells but permits C-RC cells to propagate and which activate a regenerative response; (b) isolating the dominant actively expanding, most rapidly dividing population of cells from step (a); and (c) culturing the cells to 60 to 95% confluence to obtain a population of 51% to 100% C-RC,
A transport unit comprising a load carrier, a load supported by said load carrier, and a load securing member extending between the load carrier and an anchoring device arranged on a top surface of the load such that the load is secured to the load carrier, wherein the load comprises a coil of a web being wound on a reel, the load securing member is a tightening strap and the load carrier is a pallet with deck boards supported by joist boards including a centre joist board, characterized in that said tightening strap extends inside the reel of the load, in an endless loop over the anchoring device, down and through the reel, under said centre joist board, up and through the reel, and back to the anchoring device.
Use of an isolated amino acid sequence having no more than 50 amino acids comprising the NFL-TBS 40-63 peptide (SEQ ID NO: 1), or a biologically active derivative thereof comprising at least 18 successive amino acids of SEQ ID NO:1, for targeting chemical compounds or biological materials to neural stem cells in vitro.
A continuous shaping machine for bean curds which is equipped with a pair of endless filter cloth belts (13, 17) that are an upper filter cloth belt and a lower filter cloth belt to circulate outside and a pair of endless conveyors (15, 19) that are an upper conveyor and a lower conveyor to circulate inside, and which is configured to compression-shape curdled soymilk by conveying the curdled soymilk while sandwiching the curdled soymilk between the upper filter cloth belt and conveyor and the lower filter cloth belt and conveyor, wherein the continuous shaping machine comprises: heating units (51, 53) which perform heating sterilization in prescribed ranges of a return process that corresponds to regions, from a termination portion of a conveyance passage where the curdled soymilk is sandwiched to a start position of the conveyance passage, of circulation routes of the filter cloth belts, characterised in that it further comprises an alkali cleaning unit (43, 45) which cleans a corresponding one of the filter cloth belts by an alkaline liquid, an acid cleaning unit (47, 49) which cleans the corresponding filter cloth belt by an acidic liquid, and in that the alkali cleaning unit, the acid cleaning unit and the heating unit are arranged in this order upstream to downstream in a circulation direction of the corresponding filter cloth belt in the return process which involves the corresponding filter cloth belt. wherein the continuous shaping machine comprises: heating units (51, 53) which perform heating sterilization in prescribed ranges of a return process that corresponds to regions, from a termination portion of a conveyance passage where the curdled soymilk is sandwiched to a start position of the conveyance passage, of circulation routes of the filter cloth belts, characterised in that it further comprises an alkali cleaning unit (43, 45) which cleans a corresponding one of the filter cloth belts by an alkaline liquid, an acid cleaning unit (47, 49) which cleans the corresponding filter cloth belt by an acidic liquid, and in that the alkali cleaning unit, the acid cleaning unit and the heating unit are arranged in this order upstream to downstream in a circulation direction of the corresponding filter cloth belt in the return process which involves the corresponding filter cloth belt.
A mold stack for a mold, comprising: a cavity assembly defining an outer molding surface; a mold core configured for reception in said cavity assembly, said mold core comprising: a first core member having a first molding surface; a passage extending through said first core member, said passage having first tapered guide surface; a second core member received in said passage, said second core member having a second molding surface and a second tapered guide surface; said first core member movable relative to said second core member, between a molding position in which said first and second molding surfaces cooperate with said outer molding surface to define a mold cavity, and an open position in which said first core member is extended relative to said second core member, wherein said first and second tapered guide surfaces (188, 151) engage one another to align said first and second core members (124, 122) in said molding position, characterized in that said mold stack further comprises a spacer (164, 166) slidably supporting said first core member on said second core member; a cavity assembly defining an outer molding surface; a mold core configured for reception in said cavity assembly, said mold core comprising: a first core member having a first molding surface; a passage extending through said first core member, said passage having first tapered guide surface; a second core member received in said passage, said second core member having a second molding surface and a second tapered guide surface; said first core member movable relative to said second core member, between a molding position in which said first and second molding surfaces cooperate with said outer molding surface to define a mold cavity, and an open position in which said first core member is extended relative to said second core member, wherein said first and second tapered guide surfaces (188, 151) engage one another to align said first and second core members (124, 122) in said molding position, characterized in that said mold stack further comprises a spacer (164, 166) slidably supporting said first core member on said second core member; a first core member having a first molding surface; a passage extending through said first core member, said passage having first tapered guide surface; a second core member received in said passage, said second core member having a second molding surface and a second tapered guide surface;
A method for producing polypropylene with a β-crystalline polypropylene content, characterized in that • at least one nickel dicarboxylic acid salt and at least one polypropylene are mixed and • the nickel dicarboxylic acid salt corresponds to the general formula [Ni 2+ ( - OOC-(CH 2) x -COO -)], and the dicarboxylic acid is a saturated aliphatic dicarboxylic acid which corresponds to the general formula HOOC-(CH 2) x -COOH, where X is 2 to 10, and • the mixture is melted at a temperature of at least 150°C, and • then is cooled so that the cooled polypropylene melt contains an amount of more than 50% to 100% by weight β-crystalline polypropylene, wherein this β-crystalline content is determined by means of DSC measurement, as described under the heading "β content" in the specification. • at least one nickel dicarboxylic acid salt and at least one polypropylene are mixed and • the nickel dicarboxylic acid salt corresponds to the general formula [Ni 2+ ( - OOC-(CH 2) x -COO -)], and the dicarboxylic acid is a saturated aliphatic dicarboxylic acid which corresponds to the general formula HOOC-(CH 2) x -COOH, where X is 2 to 10, and • the mixture is melted at a temperature of at least 150°C, and • then is cooled so that the cooled polypropylene melt contains an amount of more than 50% to 100% by weight β-crystalline polypropylene, wherein this β-crystalline content is determined by means of DSC measurement, as described under the heading "β content" in the specification.
A subsea cable termination assembly for a subsea cable which includes an optical fiber for data transmission, the subsea cable termination assembly comprising: - a chamber which has a liquid tight seal against an ambient medium surrounding the subsea cable termination assembly, - a media converter arranged in the chamber, the media converter having an optical interface adapted to be connected to an optical fiber of the subsea cable, and further having an electrical interface, and - an electric contact arranged outside the chamber and electrically connected to the electrical interface of the media converter arranged inside the chamber, wherein the media converter is adapted to receive data on one of the electrical or optical interface (23, 24) and to transmit corresponding data on the other of the electrical or optical interface (23, 24), characterized in that the chamber is filled with a dielectric liquid and is pressure compensated against an ambient pressure. - a chamber which has a liquid tight seal against an ambient medium surrounding the subsea cable termination assembly, - a media converter arranged in the chamber, the media converter having an optical interface adapted to be connected to an optical fiber of the subsea cable, and further having an electrical interface, and - an electric contact arranged outside the chamber and electrically connected to the electrical interface of the media converter arranged inside the chamber,
A joint comprising two tool sections (3, 5), each having a respective flat surface (47, 49), one of said sections containing a cavity and the other section a hollow projection that can be at least partially inserted into the cavity and comprising a tensioning unit for generating a tensioning force, which can be used to press the flat surfaces (47, 49) of the tool sections (3, 5) against one another in a pre-stressed condition, wherein the tensioning unit comprises an actuating device and at least two tensioning bodies, which are housed in the interior of the projection so that they can be displaced in axial and radial direction of the joint and which when pre-stressed act on an inner tensioning shoulder of the projection, and wherein, in the interior of the projection, the tensioning unit comprises a piston, which can be displaced in the longitudinal direction of the joint and which can be coupled to the actuating device by means of a coupling unit (27, 29, 31) in such a way that in a first functional position of the actuating device, said piston adopts a tensioning position and in a second functional position of the actuating device adopts a release position, and wherein the actuating device comprises at least one rotatable actuating element, the rotational axis of which can be rotated about an angle of preferably 90° to the longitudinal axis of the joint and has an eccentric outer surface, which co-operates with the coupling unit in such a way that a rotation of the actuating element causes an axial displacement of the piston, characterized in that the coupling unit encompasses a first coupling member, which interacts with the actuating device and which is displaced in axial direction in response to a rotation of the actuating element, and in that the coupling unit encompasses a second coupling member.
A composition, notably a cosmetic composition, in particular for making up and/or caring for keratin materials, in the form of an oil-in-water emulsified gel, comprising: - retinol; - di-t-butyl pentaerythrityl tetrahydroxycinnamate; - at least one ethylenediaminedisuccinic acid salt; - at least 11% by weight of at least one polyol relative to the total weight of the composition; - at least one hydrophilic gelling agent; - at least one derivative of polyethylene glycol and of mono-, di- and triglycerides of an acid including at least one C 6 to C 16 alkyl chain, and containing at least two ethylene oxide groups; - at least one non-volatile ether oil containing from 10 to 40 carbon atoms; and - at least one non-volatile monoester oil. - retinol; - di-t-butyl pentaerythrityl tetrahydroxycinnamate; - at least one ethylenediaminedisuccinic acid salt; - at least 11% by weight of at least one polyol relative to the total weight of the composition; - at least one hydrophilic gelling agent; - at least one derivative of polyethylene glycol and of mono-, di- and triglycerides of an acid including at least one C 6 to C 16 alkyl chain, and containing at least two ethylene oxide groups; - at least one non-volatile ether oil containing from 10 to 40 carbon atoms; and - at least one non-volatile monoester oil.
A composition comprising: 1% by weight α-linolenic acid or an ester thereof; and 1% by weight terpinen-4-ol. 1% by weight α-linolenic acid or an ester thereof; and 1% by weight terpinen-4-ol.
Pallet for transporting round or sawn timber on railway wagons for container transport, with a dimensionally stable frame of longitudinal and transverse beams (4, 5) of steel extrusions, and with posts made from steel extrusions, standing upright and placed in the corner areas of the frame, characterised in that, the posts placed paired to each transverse beam are made from lower and upper post sections (3a, 3c) connected through an offset bend, whereby the upper post sections are offset relative to the lower post sections in the direction of the transverse beam centre, such that the two lower post sections, placed paired relative to each other, perform in accordance with the International Load Gauge G1 for rail transport and the two upper post sections, placed paired relative to each other, perform in accordance with the International Guide UIC 596-6.
A method comprising: sending, by a user equipment, UE, an uplink control message to a network device, the uplink control message specifying a duration of an uplink radio frequency, RF, retuning time and a downlink RF retuning time, wherein the uplink RF retuning time and the downlink RF retuning time are associated with switching from a first component carrier to a second component carrier; transmitting, by the UE, a first uplink signal over the first component carrier during a first period, the first uplink signal carrying at least a first sounding reference signal, SRS symbol; switching, by the UE, from the first component carrier to the second component carrier according to an SRS switching scheduling; and transmitting, by the UE, a second uplink signal over the second component carrier during a second period, the second uplink signal carrying at least one of a second SRS symbol and a random access preamble. sending, by a user equipment, UE, an uplink control message to a network device, the uplink control message specifying a duration of an uplink radio frequency, RF, retuning time and a downlink RF retuning time, wherein the uplink RF retuning time and the downlink RF retuning time are associated with switching from a first component carrier to a second component carrier; transmitting, by the UE, a first uplink signal over the first component carrier during a first period, the first uplink signal carrying at least a first sounding reference signal, SRS symbol; switching, by the UE, from the first component carrier to the second component carrier according to an SRS switching scheduling; and transmitting, by the UE, a second uplink signal over the second component carrier during a second period, the second uplink signal carrying at least one of a second SRS symbol and a random access preamble.