mhurhangee/ep-ind-claims huggingface dataset:
A periodic-combined-envelope-sequence generation device (100, 101) comprising: a spectral-envelope-sequence calculating part (120, 121) which takes, as an input audio signal, a time-domain audio digital signal in each frame which is a predetermined time segment, and calculates a spectral envelope sequence of the input audio signal on the basis of time-domain linear prediction of the input audio signal; and a periodic-combined-envelope generating part which transforms the spectral envelope sequence to a periodic combined envelope sequence on the basis of a periodic component of the input audio signal in the frequency domain, wherein the periodic-combined-envelope generating part obtains, as a periodic combined envelope sequence, a sequence that is obtained by changing values of a larger number of samples in a neighborhood of integer multiples of a period of the frequency domain of the input audio signal in the amplitude spectral envelope sequence as the length of a period in the frequency domain of the input audio signal is longer. a spectral-envelope-sequence calculating part (120, 121) which takes, as an input audio signal, a time-domain audio digital signal in each frame which is a predetermined time segment, and calculates a spectral envelope sequence of the input audio signal on the basis of time-domain linear prediction of the input audio signal; and a periodic-combined-envelope generating part which transforms the spectral envelope sequence to a periodic combined envelope sequence on the basis of a periodic component of the input audio signal in the frequency domain, wherein the periodic-combined-envelope generating part obtains, as a periodic combined envelope sequence, a sequence that is obtained by changing values of a larger number of samples in a neighborhood of integer multiples of a period of the frequency domain of the input audio signal in the amplitude spectral envelope sequence as the length of a period in the frequency domain of the input audio signal is longer.
A method for detecting interactions in a solution comprising the following steps: a. introducing into a solution at least one first substance and preferably at least one second substance that can interact with said first substance, b. introducing into the solution obtained in step a) at least 2 to 10 000 000 magnetic or magnetizable particles, said particles resting on a surface immersed in said solution, said particles having a size of 10 nm to 100 μm, c. determining the interaction of said substances by application of an electric, magnetic or electromagnetic field designed to set said particles in motion, the interaction between said substances being detected when the mobility of said particles on said surface is changed. a. introducing into a solution at least one first substance and preferably at least one second substance that can interact with said first substance, b. introducing into the solution obtained in step a) at least 2 to 10 000 000 magnetic or magnetizable particles, said particles resting on a surface immersed in said solution, said particles having a size of 10 nm to 100 μm, c. determining the interaction of said substances by application of an electric, magnetic or electromagnetic field designed to set said particles in motion, the interaction between said substances being detected when the mobility of said particles on said surface is changed.
A closure cap comprising a shell that can be fitted onto a container (c) for closing an opening of said container, an active layer that is capable of chemically reacting with water and generating molecular hydrogen, and a liner that is permeable to water vapour and to molecular hydrogen, wherein said active layer has an inner face (11 a), an outer face (11 b) and a circumferential edge, wherein the shell comprises a top wall having a recess that forms a housing or forming a housing with an internal sealing lip, and the active layer is entirely contained in said housing, wherein the outer face and the circumferential edge of the active layer are in contact with the shell and are bonded to the shell, and wherein the liner is closing said recess and is bonded to the shell on the whole periphery of the said recess and to the inner face of the active layer, in such a way that molecular hydrogen produced by the active layer can migrate through the liner.
Ethylene propylene diene monomer (EPDM) sealing material comprising: a) - between 15 and 45 wt% of EPDM1, wherein the ethylene content of EPDM1 is between 45 and 65 wt% and ENB content of EPDM1 is between 5 and 10 wt%, or - between 5 and 35 wt% of EPDM2 wherein the ethylene content of EPDM2 is between 55 and 85 wt% and ENB content of EPDM2 is between 5 and 10 wt%, in combination with between 3 and 25 wt% of EPDM3 wherein the ethylene content of EPDM3 is between 55 and 75 wt% and ENB content of EPDM3 is between 5 and 10 wt%, b) between 5 and 35 wt% of process oil, c) between 0.1 and 10 wt% of oxide, d) between 0.1 and 5 wt% of activator, e) between 0.1 and 5 wt% of vulcanizing agent, f) between 0.1 and 10 wt% of accelerator, characterized in that the material further comprises: g) between 5 and 45wt% of carbon black1 (iodine adsorption number 43g/kg, STSA 39 m 2 /g, oil absorption number 121 cm 3 /100g), h) between 0.25 and 15 wt% of carbon black2 (iodine adsorption number >600g/kg, STSA >400 m 2 /g, oil absorption number >350 cm 3 /100g), wherein carbon black1/carbon black2 ratio is between 20 and 3 times. a) - between 15 and 45 wt% of EPDM1, wherein the ethylene content of EPDM1 is between 45 and 65 wt% and ENB content of EPDM1 is between 5 and 10 wt%, or - between 5 and 35 wt% of EPDM2 wherein the ethylene content of EPDM2 is between 55 and 85 wt% and ENB content of EPDM2 is between 5 and 10 wt%, in combination with between 3 and 25 wt% of EPDM3 wherein the ethylene content of EPDM3 is between 55 and 75 wt% and ENB content of EPDM3 is between 5 and 10 wt%, - between 5 and 35 wt% of EPDM2 wherein the ethylene content of EPDM2 is between 55 and 85 wt% and ENB content of EPDM2 is between 5 and 10 wt%, in combination with between 3 and 25 wt% of EPDM3 wherein the ethylene content of EPDM3 is between 55 and 75 wt% and ENB content of EPDM3 is between 5 and 10 wt%, b) between 5 and 35 wt% of process oil, c) between 0.1 and 10 wt% of oxide, d) between 0.1 and 5 wt% of activator, e) between 0.1 and 5 wt% of vulcanizing agent, f) between 0.1 and 10 wt% of accelerator, g) between 5 and 45wt% of carbon black1 (iodine adsorption number 43g/kg, STSA 39 m 2 /g, oil absorption number 121 cm 3 /100g), h) between 0.25 and 15 wt% of carbon black2 (iodine adsorption number >600g/kg, STSA >400 m 2 /g, oil absorption number >350 cm 3 /100g),
Support bracket for equipment, in particular air conditioning units, comprising a first and a second bracket portion (2, 3) arranged respectively for anchoring the bracket to a wall and for supporting and fixing the equipment to the bracket, said first and second portion being coupled together in an articulated manner about an axis of articulation and also arranged so as to have an L-shaped configuration suitable for supporting the equipment, wherein between said first and second bracket portion (2, 3) articulation means are provided, by means of which said bracket portions (2, 3) can be displaced between a first non-operating condition in which they are folded one on top of the other with reduced overall transverse dimensions and a second operating condition in which the bracket portions extend substantially perpendicularly to one another, wherein said first and second bracket portions (2, 3) are arranged in a pre-mounted configuration by means of an articulation pin provided between respective ends (2b, 3b) of said bracket portions (2, 3) so that said operating condition of the support bracket is achieved solely by extending one of the bracket portions perpendicularly to the other about the axis of articulation, wherein the first and second bracket portions (2, 3) as well as the articulation pin are made entirely of thermoplastics material, and characterized in that said articulation means comprise a first articulation element on one of said bracket portions (2, 3), said first articulation element is fork-shaped and has opposite attachments each bearing a respective cut-out, said cut-outs being coaxial so that the articulation pin can be engaged, and a second articulation element is provided on the other bracket portion, said articulation element is adapted for being interposed between said attachments and bears a through-hole adapted for rotatably engaging with said pin, so as to produce the articulation movement between the first and second bracket portion (2, 3) about the axis of articulation, each of said cut-outs comprising a first and a second cut-out segment (8a,8b) extending reciprocally and at an angle to one another, within which said pin is slidably and rotatably guided so as to allow relative movement in rotation/translation between said bracket portions (2, 3).
A reactor for the catalytic methanation of a gas mixture comprising carbon dioxide and hydrogen in the operational state of the reactor, comprising: a reactor vessel, a catalyst arranged therein, in a main flow path extending from a reactor inlet for the gas mixture to a reactor outlet for the methanated gas mixture, at least one spatial area located within the reactor vessel, away from the main flow path while being open to the main flow path for the gas mixture on an inflow side, and a flushing arrangement for flushing the whole interior of the reactor vessel in a flushing condition outside the methanation operation with a flushing gas to displace the gas mixture, characterised in that the flushing arrangement has an access (50, 52, 56), situated on a side not coinciding with the inflow side (40, 42, 46), for conducting the flushing gas into the remote spatial area (30, 32, 36) or from the remote spatial area (30, 32, 36). a reactor vessel, a catalyst arranged therein, in a main flow path extending from a reactor inlet for the gas mixture to a reactor outlet for the methanated gas mixture, at least one spatial area located within the reactor vessel, away from the main flow path while being open to the main flow path for the gas mixture on an inflow side, and a flushing arrangement for flushing the whole interior of the reactor vessel in a flushing condition outside the methanation operation with a flushing gas to displace the gas mixture, characterised in that the flushing arrangement has an access (50, 52, 56), situated on a side not coinciding with the inflow side (40, 42, 46), for conducting the flushing gas into the remote spatial area (30, 32, 36) or from the remote spatial area (30, 32, 36).
A plug formed by a cylindrical body comprising: - in the bottom side thereof: - a horizontal partition with a diametrical slit connecting two holes (4a, 4b) with different surface sizes, with said holes located at the ends of the horizontal partition, - fixation means for fixating the plug to the container, - in the top side: - a pouring area, characterized in that the pouring area is a circular section with an outwardly projected rim. - in the bottom side thereof: - a horizontal partition with a diametrical slit connecting two holes (4a, 4b) with different surface sizes, with said holes located at the ends of the horizontal partition, - fixation means for fixating the plug to the container, - a horizontal partition with a diametrical slit connecting two holes (4a, 4b) with different surface sizes, with said holes located at the ends of the horizontal partition, - fixation means for fixating the plug to the container, - in the top side: - a pouring area, - a pouring area,
A high pressure diesel fuel pump comprising a pressure limiting assembly (20, 30) communicable with a cambox, the pressure limiting assembly (20, 30) comprising a housing with a plunger chamber (22, 32) at an open end with a plunger located therein, a spring chamber (24, 34) at a second (opposite) end with a spring disposed therein, the plunger being arranged for axially reciprocating movement along a plunger axis (A-A') and being biased, by the spring towards an inlet at the open end, the housing comprising at least one standard damping orifice (27, 37) linking the spring chamber (24, 34) with a return fuel line, and an outlet linking the plunger chamber (22, 32) with the return fuel line, characterised in that the housing further comprises at least one variable damping orifice (40, 50) linking the spring chamber (24, 34) with the return fuel line, and wherein the variable damping orifice (40, 50) comprises a bore of between approximately 0.8 mm and approximately 1.5 mm diameter, a valve passage linking the bore to the spring chamber (24, 34) and a digitally controlled valve assembly, the valve assembly comprising a spring-actuated piston being moveably mounted within the valve passage and controlled by a spring mounted therebehind.
A refrigerator comprising: a cabinet defining a storage compartment; a door opening and closing the storage compartment, the door comprising an outer case and a door liner; an ice maker generating ice cubes; an ice bin provided at the door, the ice bin storing the ice cubes generated in the ice maker; a dispenser provided at the door, the dispenser dispensing the ice cubes stored in the ice bin; characterized by a vacuum insulation panel disposed between the outer case and the ice bin to insulate the storage compartment from an outside; wherein the door liner comprises a top surface, a bottom surface, both lateral surfaces, and a back surface, wherein the back surface comprises: a first back surface on which the ice bin is disposed, and a second back surface having a height difference with respect to the first back surface and facing the dispenser, wherein the respective lateral surfaces comprises: a first lateral surface, connected to the first back surface, and a second lateral surface, connected to the second back surface, wherein the first lateral surface has a first width less than a second width of the second lateral surface. a cabinet defining a storage compartment; a door opening and closing the storage compartment, the door comprising an outer case and a door liner; an ice maker generating ice cubes; an ice bin provided at the door, the ice bin storing the ice cubes generated in the ice maker; a dispenser provided at the door, the dispenser dispensing the ice cubes stored in the ice bin; characterized by a vacuum insulation panel disposed between the outer case and the ice bin to insulate the storage compartment from an outside; wherein the door liner comprises a top surface, a bottom surface, both lateral surfaces, and a back surface, wherein the back surface comprises: a first back surface on which the ice bin is disposed, and a second back surface having a height difference with respect to the first back surface and facing the dispenser, wherein the respective lateral surfaces comprises: a first lateral surface, connected to the first back surface, and a second lateral surface, connected to the second back surface, a first back surface on which the ice bin is disposed, and a second back surface having a height difference with respect to the first back surface and facing the dispenser, wherein the respective lateral surfaces comprises: a first lateral surface, connected to the first back surface, and a second lateral surface, connected to the second back surface, a first lateral surface, connected to the first back surface, and a second lateral surface, connected to the second back surface, wherein the first lateral surface has a first width less than a second width of the second lateral surface.
An abrasion resistant steel plate or steel sheet excellent in resistance to stress corrosion cracking having a composition consisting of 0.20 % to 0.30 % C, 0.05 % to 1.0 % Si, 0.40 % to 1.20 % Mn, 0.015 % or less P, 0.005 % or less S, 0.1 % or less Al, 0.01 % or less N, 0.0003 % to 0.0030 % B, and one or more of 0.05 % to 1.5 % Cr, 0.05 % to 1.0 % Mo, and 0.05 % to 1.0 % W, optionally one or more of 0.005 % to 0.025 % Nb and 0.008 % to 0.020 % Ti, optionally one or more of 1.5 % or less Cu, 2.0 % or less Ni, and 0.1 % or less V, and optionally one or more of 0.008 % or less of an REM, 0.005 % or less Ca, and 0.005 % or less Mg on a mass basis, and the remainder being Fe and inevitable impurities, wherein the abrasion resistant steel plate or steel sheet has a hardenability index DI* of 45 or more as represented by Equation below and a microstructure having a base phase or main phase that is tempered martensite having an average grain size of 20 μm or less in terms of equivalent circle diameter, wherein cementite having a grain size of 0.05 μm or less in terms of equivalent circle diameter is present at 2 x 10 6 grains/mm 2 or more: DI * = 33.85 × 0.1 × C 0.5 × 0.7 × Si + 1 × 3.33 × Mn + 1 × 0.35 × Cu + 1 × 0.36 × Ni + 1 × 2.16 × Cr + 1 × 3 × Mo + 1 × 1.75 × V + 1 × 1.5 × W + 1 where each alloy element symbol represents the content (mass percent) and is 0 when being not contained.
A method for generating a magnetic resonance image, the method comprising: generating a main magnetic field through a region of interest; applying a slice selection gradient to a slice of the region of interest; applying a plurality of RF pulses to the slice of the region of interest to generate a plurality of echoes; applying a first encoding gradient in a first direction and simultaneously applying a second encoding gradient in a second direction on each echo during a process of acquiring each echo, wherein an amplitude of the first encoding gradient is always positive or always negative, and the second encoding gradient in the second direction comprises an oscillating waveform, characterized in that an absolute value of the amplitude of the first encoding gradient for acquiring a center region of a k-space is lower than an absolute value of the amplitude of the first encoding gradient for acquiring a peripheral region of the k-space, and the method further comprises: generating, based on the first encoding gradient in the first direction and the second encoding gradient in the second direction, a plurality of undersampled k-space data sets; and generating a magnetic resonance image by applying at least one image reconstruction method to the undersampled k-space data sets. generating a main magnetic field through a region of interest; applying a slice selection gradient to a slice of the region of interest; applying a plurality of RF pulses to the slice of the region of interest to generate a plurality of echoes; applying a first encoding gradient in a first direction and simultaneously applying a second encoding gradient in a second direction on each echo during a process of acquiring each echo, wherein an amplitude of the first encoding gradient is always positive or always negative, and the second encoding gradient in the second direction comprises an oscillating waveform, characterized in that an absolute value of the amplitude of the first encoding gradient for acquiring a center region of a k-space is lower than an absolute value of the amplitude of the first encoding gradient for acquiring a peripheral region of the k-space, and the method further comprises: generating, based on the first encoding gradient in the first direction and the second encoding gradient in the second direction, a plurality of undersampled k-space data sets; and generating a magnetic resonance image by applying at least one image reconstruction method to the undersampled k-space data sets. generating, based on the first encoding gradient in the first direction and the second encoding gradient in the second direction, a plurality of undersampled k-space data sets; and generating a magnetic resonance image by applying at least one image reconstruction method to the undersampled k-space data sets.
A toner comprising toner particles prepared by forming particles of a polymerizable monomer composition comprising a polymerizable monomer, a pigment, a pigment dispersant and a crystalline polyester resin in an aqueous medium, and polymerizing the polymerizable monomer contained in the particles, wherein the polymerizable monomer is a polymerizable monomer for preparing a vinyl copolymer, the pigment dispersant satisfies (i) to (v): (i) a difference (A - B) between an SP value, measured as described in the specification, of the pigment dispersant and an SP value, measured as described in the specification, of the crystalline polyester resin is -1.5 or more and +0.8 or less, (ii) a difference (A - C) between the SP value of the pigment dispersant and an SP value, measured as described in the specification, of the vinyl copolymer is -1.1 or more and +1.2 or less, (iii) the pigment dispersant contains a polymer component and an adsorbable component adsorbed to the pigment, and the polymer component is a vinyl polymer, (iv) the polymer component of the pigment dispersant has a number average molecular weight (Mn), measured as described in the specification, of 3,000 or more and 20,000 or less, and (v) a rate of adsorption of the pigment dispersant to the pigment is 30% or more. (i) a difference (A - B) between an SP value, measured as described in the specification, of the pigment dispersant and an SP value, measured as described in the specification, of the crystalline polyester resin is -1.5 or more and +0.8 or less, (ii) a difference (A - C) between the SP value of the pigment dispersant and an SP value, measured as described in the specification, of the vinyl copolymer is -1.1 or more and +1.2 or less, (iii) the pigment dispersant contains a polymer component and an adsorbable component adsorbed to the pigment, and the polymer component is a vinyl polymer, (iv) the polymer component of the pigment dispersant has a number average molecular weight (Mn), measured as described in the specification, of 3,000 or more and 20,000 or less, and (v) a rate of adsorption of the pigment dispersant to the pigment is 30% or more.
A compound having the formula: B-W-X-Y-Z wherein B is a CA IX-targeted molecule selected from the group consisting of 3-((2-(cyclooctylamino)-3,5,6-trifluoro-4-sulfamoylphenyl)sufonyl)proponoic acid (C-SPA), wherein n is 0, 1, 2, or 3, m is 0, 1, 2, or 3, and p is 0, 1, 2, or 3; W is an extended hydrophobic residue; X is a hydrophobic spacer; Y is an amino acid spacer; and Z is a NIR dye. wherein B is a CA IX-targeted molecule selected from the group consisting of 3-((2-(cyclooctylamino)-3,5,6-trifluoro-4-sulfamoylphenyl)sufonyl)proponoic acid (C-SPA), wherein n is 0, 1, 2, or 3, m is 0, 1, 2, or 3, and p is 0, 1, 2, or 3; W is an extended hydrophobic residue; X is a hydrophobic spacer; Y is an amino acid spacer; and Z is a NIR dye.