mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing semitransparent pearlescent pigments, comprising the steps of providing monolithically constructed metallic substrate platelets having an average thickness of 1 to 40 nm and a form factor, expressed by the ratio of the mean size to the average thickness, of at least 80, coating the metallic substrate platelets with an enveloping, substantially transparent coating A composed of at least one low-index metal oxide and/or metal oxide hydrate, having a refractive index of less than 1.8, coating the thus-coated metallic substrate platelets with at least one interference layer in the form of a coating B composed of at least one high-index metal oxide, having a refractive index of at least 1.8, the coating steps taking place by hydrolytic decomposition of one or more organometallic compounds and/or by precipitation of one or more dissolved metal salts, and subsequently calcining the thus-coated substrate platelets at 550 to 1200°C, preferably at 600 to 1200°C, for a period of 4 h to 12 h, to convert the metallic substrate platelets into the corresponding metal oxide where the metallic substrate platelets consist of aluminum, which is then converted completely, in the course of calcining, into aluminum oxide.
An aircraft ottoman (102; 202; 302; 402; 502; 602; 702) comprising a cavity configured to receive a deployable ottoman extension (106; 206; 406; 606; 706); the deployable ottoman extension (106; 206; 406; 606; 706) configured to deploy out from the cavity by rotating about a pivot element and at least partially occupy a gap defined by a surface of a fully reclining seat when the fully reclining seat is inclined and the aircraft ottoman; an extension rail disposed in the cavity ; and an extension guide disposed on an inferior surface of the deployable ottoman extension, wherein the extension guide is configured to engage the extension rail and define a maximum deployment of the deployable ottoman extension. the deployable ottoman extension (106; 206; 406; 606; 706) configured to deploy out from the cavity by rotating about a pivot element and at least partially occupy a gap defined by a surface of a fully reclining seat when the fully reclining seat is inclined and the aircraft ottoman; an extension rail disposed in the cavity ; and an extension guide disposed on an inferior surface of the deployable ottoman extension, wherein the extension guide is configured to engage the extension rail and define a maximum deployment of the deployable ottoman extension.
A computer-implemented method for determination of subsoil composition or structure comprising: - receiving a model representing the subsoil, said model comprising at least one parametric volume describing a geological formation in said model, said volume having a plurality of cells; - for each cell in the plurality of cells, determining an index ( QI cell ) function of a respective position of the cell in the geological formation; - receiving a set of facies, each facies in said set being associated with a proportion and an index ordering in said formation; and - associating a facies to each cell, characterised by said step of associating comprising: /a/ selecting a cell with a lowest index within cells in the plurality of cells having no facies associated to; /b/ associating, to said cell, a facies with a lowest index ordering within facies of the set of facies for which the respective proportion is not reached in the formation; /c/ reiterating steps /a/ to /c/ until all cells in the plurality of cells are associated with a facies; and - outputting the model determined in step /c/ for future use in geophysical tools. - receiving a model representing the subsoil, said model comprising at least one parametric volume describing a geological formation in said model, said volume having a plurality of cells; - for each cell in the plurality of cells, determining an index ( QI cell ) function of a respective position of the cell in the geological formation; - receiving a set of facies, each facies in said set being associated with a proportion and an index ordering in said formation; and - associating a facies to each cell, /a/ selecting a cell with a lowest index within cells in the plurality of cells having no facies associated to; /b/ associating, to said cell, a facies with a lowest index ordering within facies of the set of facies for which the respective proportion is not reached in the formation; /c/ reiterating steps /a/ to /c/ until all cells in the plurality of cells are associated with a facies; and - outputting the model determined in step /c/ for future use in geophysical tools.
A compound having the following formula: for use in the treatment of a neuron inflammation condition in a patient in need thereof, wherein the neuron inflammation condition is selected from amyotrophic lateral sclerosis (ALS), Huntington's Disease, Parkinson's disease (PD), ischemic stroke, and a condition associated with prion disease
A resistance measurement system , comprising: a plurality of resistors connected in series along a single line , wherein the plurality of resistors include N resistors; a plurality of capacitors for at least N-1 of the resistors , wherein each capacitor is connected in parallel to the single line with a respective resistor to form a respective resistor-capacitor (RC) pair , wherein each RC pair includes a different time constant such that each RC pair reaches a steady state voltage at a different time; a current supply connected to the single line to supply a current to the line; and a control module configured to sense a total voltage across the single line and to successively determine resistance of each resistor from the total voltage based on the current, a known total steady state voltage, and known time-to-steady-state-voltages of each RC pair and/or resistors. a plurality of resistors connected in series along a single line , wherein the plurality of resistors include N resistors; a plurality of capacitors for at least N-1 of the resistors , wherein each capacitor is connected in parallel to the single line with a respective resistor to form a respective resistor-capacitor (RC) pair , wherein each RC pair includes a different time constant such that each RC pair reaches a steady state voltage at a different time; a current supply connected to the single line to supply a current to the line; and a control module configured to sense a total voltage across the single line and to successively determine resistance of each resistor from the total voltage based on the current, a known total steady state voltage, and known time-to-steady-state-voltages of each RC pair and/or resistors.
A scaffold of a bio-degradable composition, comprising a primarily cylindrically shaped main body with a cylindrical axis having a plurality of circumferential elements (5-12) that circumscribe a circumference of said cylindrical main body, wherein a circumferential element is connected to an adjacent circumferential element by a plurality of first connection elements (13-18) to form a pair (1-4) of circumferential elements, wherein a pair of circumferential elements is connected to an adjacent pair of circumferential elements by a plurality of second connection elements (19-21), wherein the circumferential elements comprise a plurality of undulations, having alternating peaks and valleys, and wherein first and second connection elements are connected with one another to form at least one contiguous spiral pattern, when the scaffold is expanded, characterized in that said first connections elements (217,217',401,404-409) are S-shaped or Z-shaped and connect each valley of the undulations in one circumferential element within a pair (1-4) to each peak of the undulations in the other circumferential element of that pair (1-4), and in that said second connection elements (19-21) are S-shaped or Z-shaped and connect every other peak of the undulations in one circumferential element within a pair to a valley of the undulations in an adjacent circumferential element of an adjacent pair of circumferential elements.
An aerosol-generating article comprising: a first portion including a plurality of crimped pieces of paper impregnated with an aerosol-generating element; a second portion including a tobacco element; a third portion including a cooling element; and a fourth portion including a filter element, wherein the first portion , the second portion , the third portion , and the fourth portion are sequentially arranged along a longitudinal direction of the aerosol-generating article . a first portion including a plurality of crimped pieces of paper impregnated with an aerosol-generating element; a second portion including a tobacco element; a third portion including a cooling element; and a fourth portion including a filter element, wherein the first portion , the second portion , the third portion , and the fourth portion are sequentially arranged along a longitudinal direction of the aerosol-generating article .
A core material comprising: a core; a solder layer provided outside the core and being a Sn-based solder alloy consisting of Sn and at least any one element of Ag, Cu, Sb, Ni, Co, Ge, Ga, Fe, Al, In, Cd, Zn, Pb, Au, P, S, Si, Ti, Mg, Pd, and Pt; and a Sn layer provided outside the solder layer, wherein the solder layer has a thickness of 1 μm or more on one side, the Sn layer has a thickness of 0.1 μm or more on one side, and a thickness of the Sn layer is 0.215% or more and 36% or less of the thickness of the solder layer. a core; a solder layer provided outside the core and being a Sn-based solder alloy consisting of Sn and at least any one element of Ag, Cu, Sb, Ni, Co, Ge, Ga, Fe, Al, In, Cd, Zn, Pb, Au, P, S, Si, Ti, Mg, Pd, and Pt; and a Sn layer provided outside the solder layer, wherein the solder layer has a thickness of 1 μm or more on one side, the Sn layer has a thickness of 0.1 μm or more on one side, and a thickness of the Sn layer is 0.215% or more and 36% or less of the thickness of the solder layer.
A cell culture medium comprising: (a) adenosine triphosphate; (b) a carrier protein; (c) cholesterol, linoleic acid, and lipoic acid; (d) glutathione; (e) at least one nucleotide salvage pathway precursor base, (f) phosphoethanolamine; (g) selenium; (h) transferrin; (i) triiodothyronine; (j) all-trans-retinoic acid, ATRA, and vitamin C; (k) zinc, magnesium, and copper; (l) an agent that increases intracellular cAMP; (m) epidermal growth factor, EGF; (n) hydrocortisone; (o) insulin; and (p) charcoal stripped fetal bovine serum; and wherein: (i) said cell culture medium is substantially free of vitamin D; or (ii) said cell culture medium is substantially free of androgenic hormones; or (iii) said cell culture medium is substantially free of androgenic ligands. (a) adenosine triphosphate; (b) a carrier protein; (c) cholesterol, linoleic acid, and lipoic acid; (d) glutathione; (e) at least one nucleotide salvage pathway precursor base, (f) phosphoethanolamine; (g) selenium; (h) transferrin; (i) triiodothyronine; (j) all-trans-retinoic acid, ATRA, and vitamin C; (k) zinc, magnesium, and copper; (l) an agent that increases intracellular cAMP; (m) epidermal growth factor, EGF; (n) hydrocortisone; (o) insulin; and (p) charcoal stripped fetal bovine serum; and wherein: (i) said cell culture medium is substantially free of vitamin D; or (ii) said cell culture medium is substantially free of androgenic hormones; or (iii) said cell culture medium is substantially free of androgenic ligands. (i) said cell culture medium is substantially free of vitamin D; or (ii) said cell culture medium is substantially free of androgenic hormones; or (iii) said cell culture medium is substantially free of androgenic ligands.
A dispersant, comprising a block copolymer having a first block and a second block, wherein said first block comprises a first repeating structural unit shown in Formula I) and a second repeating structural unit shown in Formula II): in which R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , and R 7 are independently selected from hydrogen, halogen, cyano, carbonyl, carboxy, nitro, sulfonyl, amide, ester, substituted or unsubstituted C 1 -C 15 alkyl, substituted or unsubstituted C 1 -C 15 alkoxy, and substituted or unsubstituted C 6 -C 30 aryl; and said second block comprises a third repeating structural unit shown in Formula III) and a fourth repeating structural unit shown in Formula IV): in which n represents an average degree of polymerization, that is any integer from 1-25 and R 8 , R 9 , and R 10 have a dipole moment of greater than 2 × 10 -30 C • m; optionally, R 8 , R 9 , and R 10 are independently selected from hydroxyl, carboxyl, pyrrolidone, ethylene oxide, propylene oxide, halogen, substituted or unsubstituted C 1 -C 15 alkyl, and substituted or unsubstituted C 1 -C 15 alkoxy, wherein R 9 and R 10 may be joined together as R 9 -O-R 10 or R 9 -NH-R 10 . in which R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , and R 7 are independently selected from hydrogen, halogen, cyano, carbonyl, carboxy, nitro, sulfonyl, amide, ester, substituted or unsubstituted C 1 -C 15 alkyl, substituted or unsubstituted C 1 -C 15 alkoxy, and substituted or unsubstituted C 6 -C 30 aryl; and said second block comprises a third repeating structural unit shown in Formula III) and a fourth repeating structural unit shown in Formula IV): in which n represents an average degree of polymerization, that is any integer from 1-25 and R 8 , R 9 , and R 10 have a dipole moment of greater than 2 × 10 -30 C • m; optionally, R 8 , R 9 , and R 10 are independently selected from hydroxyl, carboxyl, pyrrolidone, ethylene oxide, propylene oxide, halogen, substituted or unsubstituted C 1 -C 15 alkyl, and substituted or unsubstituted C 1 -C 15 alkoxy, wherein R 9 and R 10 may be joined together as R 9 -O-R 10 or R 9 -NH-R 10 .
An embedded MRAM structure , comprising: a substrate divided into a memory cell region (M) and a logic device region (L); an active area disposed in the memory cell region (M); a first word line (WL1) disposed on the substrate and crossing the active area ; two doping regions disposed within the active area and respectively at two sides of the first word line (WL1); a plurality of source plugs contacting one of the two doping regions ; a plurality of drain plugs contacting the other one of the two doping regions, wherein, when viewing from a direction perpendicular to a top surface of the substrate and taking the first word line (WL1) as a symmetric axis, the source plugs are a mirror image of the drain plugs ; a first source metal layer (M1S) contacting the source plugs and a first drain metal layer (M1d) contacting the drain plugs ; a first source via plug (V1S) contacting the first source metal layer (M1S) and a first drain via plug (V1d) contacting the first drain metal layer (M1d); a source line (SL) contacting the first source via plug (V1S) and a second drain metal layer (M2d) contacting the first drain via plug (V1d), wherein a top surface of the source line (SL) is aligned with a top surface of the second drain metal layer (M2d); a tungsten plug (W) contacting the second drain metal layer (M2d); an MTJ unit (MTJ) contacting the tungsten plug (W); a third drain via plug (V3d) contacting the MTJ unit (MTJ); and a bit line (BL) contacting the third drain via plug (V3d). a substrate divided into a memory cell region (M) and a logic device region (L); an active area disposed in the memory cell region (M); a first word line (WL1) disposed on the substrate and crossing the active area ; two doping regions disposed within the active area and respectively at two sides of the first word line (WL1); a plurality of source plugs contacting one of the two doping regions ; a plurality of drain plugs contacting the other one of the two doping regions, wherein, when viewing from a direction perpendicular to a top surface of the substrate and taking the first word line (WL1) as a symmetric axis, the source plugs are a mirror image of the drain plugs ; a first source metal layer (M1S) contacting the source plugs and a first drain metal layer (M1d) contacting the drain plugs ; a first source via plug (V1S) contacting the first source metal layer (M1S) and a first drain via plug (V1d) contacting the first drain metal layer (M1d); a source line (SL) contacting the first source via plug (V1S) and a second drain metal layer (M2d) contacting the first drain via plug (V1d), wherein a top surface of the source line (SL) is aligned with a top surface of the second drain metal layer (M2d); a tungsten plug (W) contacting the second drain metal layer (M2d); an MTJ unit (MTJ) contacting the tungsten plug (W); a third drain via plug (V3d) contacting the MTJ unit (MTJ); and a bit line (BL) contacting the third drain via plug (V3d).
A non-woven fabric base material for a lithium ion secondary battery separator comprising a crystalline polyethylene terephthalate fiber and a polyethylene-terephthalate binder fiber containing 3,5-dicarbomethoxy benzene sulfonic acid as a copolymer component, characterized in that : the content of the polyethylene terephthalate binder fiber is 5 to 60 mass% based on the non-woven fabric base material.
A double silvered low-e coated glass which is resistant to thermal process and which provides efficient solar control with low solar factor and which allows penetration of the daylight into the medium and which minimizes thermal energy loss, characterized in that said low-e coating comprises SixNy /TiOx /ZnAlOx respectively as the first three layers outwardly from the glass surface, ZnAlOx being a first coring layer and the proportion of the thickness of the first Ag layer to the thickness of the second Ag layer is in the range of 0.6-1.5. and said low-e coating respectively comprises the following after the first three layers: - a first infrared reflective layer Ag layer positioned on the first coring layer ZnAlOx , - a first barrier layer comprising NiCrOx positioned on the first infrared reflective layer , - a middle dielectric structure comprising ZnSnOx positioned on the first barrier layer , - a second coring layer comprising ZnAlOx positioned on the middle dielectric structure , - a second infrared reflective layer Ag layer positioned on the second coring layer , - a second barrier layer comprising NiCrOx positioned on the second infrared reflective layer , - a third dielectric layer comprising ZnSnOx positioned on the second barrier layer , - an upper dielectric structure comprising SiOxNy positioned on the third dielectric layer . - a first infrared reflective layer Ag layer positioned on the first coring layer ZnAlOx , - a first barrier layer comprising NiCrOx positioned on the first infrared reflective layer , - a middle dielectric structure comprising ZnSnOx positioned on the first barrier layer , - a second coring layer comprising ZnAlOx positioned on the middle dielectric structure , - a second infrared reflective layer Ag layer positioned on the second coring layer , - a second barrier layer comprising NiCrOx positioned on the second infrared reflective layer , - a third dielectric layer comprising ZnSnOx positioned on the second barrier layer , - an upper dielectric structure comprising SiOxNy positioned on the third dielectric layer .
A base paper for paper tubes characterized in that : the base paper has two or more but no more than five paper layers; the paper layers are bonded by a water-soluble or water-dispersible adhesive; and the base paper has an elution rate of 2.0 percent or lower, wherein the elution rate is measured as described in the specification; wherein the base paper has an overall basis weight of 150 g/m 2 or more but no more than 400 g/m 2 ; wherein the water-soluble or water-dispersible adhesive is selected from the group comprising water-soluble adhesives based on polyvinyl alcohol, polyethylene oxide, polyacrylic amide, starch, gelatin, casein, ether cellulose, phenol resin, water glass; and water-dispersible adhesives based on acrylic, vinyl acetate, ethylene-vinyl acetate copolymer, styrene-butadiene copolymer, urethane, and α-olefin; wherein an outermost layer of the paper layers has a surface smoothness of 150 seconds or higher based on JIS P 8155: 2010 (Oken Method); wherein an outermost layer of the paper layers has a thickness of 25 μm or more but no more than 100 μm. the base paper has two or more but no more than five paper layers; the paper layers are bonded by a water-soluble or water-dispersible adhesive; and the base paper has an elution rate of 2.0 percent or lower, wherein the elution rate is measured as described in the specification; wherein the base paper has an overall basis weight of 150 g/m 2 or more but no more than 400 g/m 2 ; wherein the water-soluble or water-dispersible adhesive is selected from the group comprising water-soluble adhesives based on polyvinyl alcohol, polyethylene oxide, polyacrylic amide, starch, gelatin, casein, ether cellulose, phenol resin, water glass; and water-dispersible adhesives based on acrylic, vinyl acetate, ethylene-vinyl acetate copolymer, styrene-butadiene copolymer, urethane, and α-olefin; wherein an outermost layer of the paper layers has a surface smoothness of 150 seconds or higher based on JIS P 8155: 2010 (Oken Method); wherein an outermost layer of the paper layers has a thickness of 25 μm or more but no more than 100 μm.
A crosslinkable polymeric composition, comprising: (a) an ethylene-based polymer; (b) an organic peroxide; and (c) a crosslinking coagent having at least one N,N-diallylamide functional group wherein said crosslinking coagent has a structure of formula: (a) an ethylene-based polymer; (b) an organic peroxide; and (c) a crosslinking coagent having at least one N,N-diallylamide functional group wherein said crosslinking coagent has a structure of formula:
An interstitial hyperthermia device having an electrode structure to be coupled to an electric power source for providing an alternating electric field for heating up a patient's tissue; said device provided with a hollow source guide for conducting a radiation source capsule to be moved by a guidewire; said hollow source guide having an inner wall for guiding the source capsule and an outer wall to be contacted with the patient's tissue; characterised in that the outer wall being provided with the electrode structure arranged on the outer wall of the hollow source guide and having a dielectric coating layer shielding the electrode structure from the patient's tissue.
A waste receiving device comprising a container having on its upper side a container opening enclosed by a container rim , a lid held on the container and pivotally movable about a lid pivot axis between a closed position closing the container opening and an open position exposing the container opening, and a locking device for locking the lid in the closed position, wherein the locking device comprises a locking element fastened to the container rim and positioned below a through opening extending through the container rim , and a housing fastened to the lid using at least one fastening bolt , in which housing a lock and a cover projecting downwards out of the housing are provided, which lock and cover can be pivoted about a lid pivot axis , and a locking device for locking the lid in the closed position, and a swivel hook which, in the closed position of the lid , extends through the through opening and which, in the closed position of the lid , can be swivelled by actuation of the lock between a locking position, in which it engages with the locking element , and an unlocking position, in which it does not engage with the locking element , characterised in that the lid is provided in the region of its lid rim on the underside with a circumferentially formed seal-receiving groove , into which an annular seal is inserted, which in the closed position of the lid rests in a sealing manner on the upper side of the container rim , and in that the at least one fastening bolt extends through the groove base of the seal-receiving groove .