mhurhangee/ep-ind-claims huggingface dataset:
A silicon carbide member for a plasma processing apparatus, which consists of a sintered body of an α-structure silicon carbide containing metal impurities in an amount of more than 20 ppm and 70 ppm or less and an Al impurities in an amount of 50 ppm or less, wherein the free SiO 2 contained in an α-SiC raw material used to produce the sintered body is 0.3 % or less, and an oxide-based sintering aid, wherein the oxide-based sintering aid comprises Al 2 O 3 and Y 2 O 3, wherein a total amount of the Al 2 O 3 and the Y 2 O 3 is the range of 3 to 15 weight parts, and an amount of the Y 2 O 3 is one to two times an amount of the Al 2 O 3, wherein Al 12 Y 4 O 9 exists in a grain boundary of the α-structure silicon carbide crystal grain.
A lighting unit, including: a first part having a mounting structure that is arranged for insertion into an aperture in a partition; a second part including at least one solid state lighting device and a support for supporting the at least one solid state lighting device, wherein the second part is pivotable with respect to the first part; and an annular seal arranged to seal the first part to the second part, said seal being arranged to deform to accommodate pivoting movement of the second part with respect to the first part, wherein the seal includes a membrane having an outer peripheral portion that sealably engages to the first part, an inner peripheral portion that sealably engages to the second part, a flexible connector portion connecting the outer peripheral portion to the inner peripheral portion, and a retaining member arranged to hold the outer peripheral portion in contact with the first part, characterised in that the retaining member is: annular, is in the form of a wire, is resiliently deformable, and biases the outer peripheral portion into contact with the first part of the lighting unit. a first part having a mounting structure that is arranged for insertion into an aperture in a partition; a second part including at least one solid state lighting device and a support for supporting the at least one solid state lighting device, wherein the second part is pivotable with respect to the first part; and an annular seal arranged to seal the first part to the second part, said seal being arranged to deform to accommodate pivoting movement of the second part with respect to the first part, wherein the seal includes a membrane having an outer peripheral portion that sealably engages to the first part, an inner peripheral portion that sealably engages to the second part, a flexible connector portion connecting the outer peripheral portion to the inner peripheral portion, and a retaining member arranged to hold the outer peripheral portion in contact with the first part, characterised in that the retaining member is: annular, is in the form of a wire, is resiliently deformable, and biases the outer peripheral portion into contact with the first part of the lighting unit.
An apparatus for analyzing flaws in a tubular member, comprising: a frame having first and second axially spaced side sections (12, 14), each of said first and second side sections (12, 14) having first (16, 20) and second segments (18, 22), said frame being adapted to be positioned around a tubular member; and a carousel rotatably mounted on said frame and adapted to be positioned around said tubular member, said carousel having third and fourth axially spaced side sections (32, 34), each of said third and fourth side sections (32, 34) having fifth (36, 40) and sixth segments (38, 42); an x-ray source mounted on said carousel; a flat panel x-ray detector mounted on said carousel at a distance circumferentially spaced from said x-ray source, wherein said flat panel x-ray detector is selectively movable radially inwardly and radially outwardly with respect to said third and fourth side sections (32, 34) of said carousel and/or wherein said flat panel x-ray detector is selectively movable in a second direction parallel to said third and fourth side sections (32, 34) of said carousel; and a drive assembly mounted on said frame and operatively connected to said carousel to rotate said carousel relative to said frame. a frame having first and second axially spaced side sections (12, 14), each of said first and second side sections (12, 14) having first (16, 20) and second segments (18, 22), said frame being adapted to be positioned around a tubular member; and a carousel rotatably mounted on said frame and adapted to be positioned around said tubular member, said carousel having third and fourth axially spaced side sections (32, 34), each of said third and fourth side sections (32, 34) having fifth (36, 40) and sixth segments (38, 42); an x-ray source mounted on said carousel; a flat panel x-ray detector mounted on said carousel at a distance circumferentially spaced from said x-ray source, wherein said flat panel x-ray detector is selectively movable radially inwardly and radially outwardly with respect to said third and fourth side sections (32, 34) of said carousel and/or wherein said flat panel x-ray detector is selectively movable in a second direction parallel to said third and fourth side sections (32, 34) of said carousel; and a drive assembly mounted on said frame and operatively connected to said carousel to rotate said carousel relative to said frame.
A method of seismic exploration for hydrocarbons within a region of the subsurface of the earth, wherein is provided a set of seismic sources (340, 350), said set of seismic sources (340, 350) comprising a plurality of subarrays, each of said subarrays having one or more seismic sources (340, 350) associated therewith, the method comprising: (a) selecting a firing pattern; (b) assigning each of said plurality of subarrays a different firing time within said firing pattern, thereby forming a firing schedule having a corresponding plurality of firing intervals between successive shots associated therewith; (c) positioning said set of seismic sources (340, 350) at a first location proximate to the region of the subsurface of the earth; (d) activating each of said subarrays according to said firing schedule; (e) recording seismic data as each of said plurality of subarrays is activated; (f) performing steps (d) and (e) at a plurality of different locations proximate to the region of the subsurface of the earth, thereby acquiring a Popcorn seismic survey; (g) reconstructing said recorded seismic data from said Popcorn seismic survey, thereby obtaining a plurality of seismic traces; and, (h) using said plurality of seismic traces to image at least a portion of the subsurface of the earth; the method being characterised in that the firing pattern is analytic, wherein the plurality of firing intervals between successive sources monotonically vary in length; and said analytic firing pattern is based on a number of seismic sources in the set of seismic sources, and a size of the seismic sources in the set of seismic sources. (a) selecting a firing pattern; (b) assigning each of said plurality of subarrays a different firing time within said firing pattern, thereby forming a firing schedule having a corresponding plurality of firing intervals between successive shots associated therewith; (c) positioning said set of seismic sources (340, 350) at a first location proximate to the region of the subsurface of the earth; (d) activating each of said subarrays according to said firing schedule; (e) recording seismic data as each of said plurality of subarrays is activated; (f) performing steps (d) and (e) at a plurality of different locations proximate to the region of the subsurface of the earth, thereby acquiring a Popcorn seismic survey; (g) reconstructing said recorded seismic data from said Popcorn seismic survey, thereby obtaining a plurality of seismic traces; and, (h) using said plurality of seismic traces to image at least a portion of the subsurface of the earth; the method being characterised in that the firing pattern is analytic, wherein the plurality of firing intervals between successive sources monotonically vary in length; and said analytic firing pattern is based on a number of seismic sources in the set of seismic sources, and a size of the seismic sources in the set of seismic sources.
A power generator comprising: a rotor core provided with a permanent magnet; a stator core arranged to be radially opposed to said rotor core and provided with a plurality of slots; and wires wound in said slots of said stator core, wherein the power generator is so formed that a number q of slots per pole per phase obtained by dividing the number of said slots by the number of magnetic poles of said rotor and the number of phases of voltages is a fraction satisfying 1 < q ≤ 3/2, characterized in that said stator core includes a plurality of divided cores, and is so formed that a numerator q2 of q2/p2 obtained by reducing a fraction ql/pl is an even number assuming that p1 represents the number of pole pairs indicating the number of diagonal pairs of said permanent magnets arranged on said rotor core and q1 represents the number of said plurality of divided cores. a rotor core provided with a permanent magnet; a stator core arranged to be radially opposed to said rotor core and provided with a plurality of slots; and wires wound in said slots of said stator core, wherein the power generator is so formed that a number q of slots per pole per phase obtained by dividing the number of said slots by the number of magnetic poles of said rotor and the number of phases of voltages is a fraction satisfying 1 < q ≤ 3/2, characterized in that said stator core includes a plurality of divided cores, and is so formed that a numerator q2 of q2/p2 obtained by reducing a fraction ql/pl is an even number assuming that p1 represents the number of pole pairs indicating the number of diagonal pairs of said permanent magnets arranged on said rotor core and q1 represents the number of said plurality of divided cores.
A method of imaging a sample, the method comprising: (a) capturing a light-field image of the sample in a light-field plane; (b) forward-projecting the light-field image computationally to each of a plurality of z-planes in object space to generate a set of z-plane images (88a-f); (c) comparing, with respect to the light-field image, a backward projection to the light-field plane of the same xy-region in object space from each z-plane image, to determine a respective degree of correspondence between the backward-projected xy-region from each of the z-plane images (88a-f) and the light-field image, wherein comparing is repeated for each of a plurality of different xy-regions in object space; (d) selecting based on comparing, for each different xy-region, at least one of the z-plane images (88a-f) to contribute data for the different xy-region in an object-space image of the sample; and (e) generating the object-space image of the sample. (a) capturing a light-field image of the sample in a light-field plane; (b) forward-projecting the light-field image computationally to each of a plurality of z-planes in object space to generate a set of z-plane images (88a-f); (c) comparing, with respect to the light-field image, a backward projection to the light-field plane of the same xy-region in object space from each z-plane image, to determine a respective degree of correspondence between the backward-projected xy-region from each of the z-plane images (88a-f) and the light-field image, wherein comparing is repeated for each of a plurality of different xy-regions in object space; (d) selecting based on comparing, for each different xy-region, at least one of the z-plane images (88a-f) to contribute data for the different xy-region in an object-space image of the sample; and (e) generating the object-space image of the sample.
A voltage sensing device for sensing an operating voltage of a remote device, comprising: a communications interface for receiving communications signals originating from the remote device over a communications bus; a timer; a data sampler for taking data readings of a communications signal at a set of timing instants defined by the timer; and a processor adapted to determine a data metric from the data readings and to determine from the data metric an operating voltage of the remote device based on a relationship between the operating voltage and the data metric. a communications interface for receiving communications signals originating from the remote device over a communications bus; a timer; a data sampler for taking data readings of a communications signal at a set of timing instants defined by the timer; and a processor adapted to determine a data metric from the data readings and to determine from the data metric an operating voltage of the remote device based on a relationship between the operating voltage and the data metric.
A tire comprising a tire skeleton body that is made of a resin material containing a polyamide-based thermoplastic elastomer and has a ring shape, wherein the polyamide-based thermoplastic elastomer includes a hard segment, a soft segment consisting of a constituent unit derived from polypropylene glycol, and a binding portion that binds two or more segments and that consists of a constituent unit derived from a dicarboxylic acid of from 6 to 20 carbons, the polyamide-based thermoplastic elastomer having a weight average molecular weight of from 20,000 to 250,000, wherein the weight average molecular weight of the polyamide-based thermoplastic elastomer is measured by gel permeation chromatography.
A combination of a CDK 4/6 inhibitor and a KRAS G12C inhibitor for use in a method of treating cancer in a subject in need thereof, comprising administering to the subject a therapeutically effective amount of the combination of a CDK 4/6 inhibitor and a KRAS G12C inhibitor, wherein the CDK 4/6 inhibitor is abemaciclib or palbociclib, and wherein the KRas G12C inhibitor is selected from the group consisting of: and or pharmaceutically acceptable salts thereof. wherein the CDK 4/6 inhibitor is abemaciclib or palbociclib, and wherein the KRas G12C inhibitor is selected from the group consisting of: and or pharmaceutically acceptable salts thereof.
Esteramides obtained by preparing in a first step an amide by reaction of one mole of a polyamine having n primary or secondary amino groups, wherein n is an integer ranging from 2 to 4, with from 1 to n-1 moles of a saturated or unsaturated C 6 -C 30 aliphatic monocarboxylic acid; and, in a second step, reacting the remaining primary or secondary amino groups with from 0.4 to 1.3 moles, for each remaining amino group, of a diester of a C 2 -C 10 dicarboxylic acid or of a di- or tri-ester of a tricarboxylic acid, the esteramides having ester number higher than 12 Mg KOH /g.
An optical device (100, 200), comprising: a controller (104, 206, 320, 610); a light source; one or more optical fibers (300, 400) extending from the light source, the one or more optical fibers configured to conduct light received from the light source via internal reflection; and at least one of the one or more optical fibers having a plurality of individually controllable light-emitting locations (308, 310, 312, 314, 316; 404; 506, 508) disposed along the at least one of the one or more optical fibers, wherein the at least one of the one or more optical fibers is configured to provide control over light emission from each individual light-emitting location via the controller (104, 206, 320, 610). a controller (104, 206, 320, 610); a light source; one or more optical fibers (300, 400) extending from the light source, the one or more optical fibers configured to conduct light received from the light source via internal reflection; and at least one of the one or more optical fibers having a plurality of individually controllable light-emitting locations (308, 310, 312, 314, 316; 404; 506, 508) disposed along the at least one of the one or more optical fibers, wherein the at least one of the one or more optical fibers is configured to provide control over light emission from each individual light-emitting location via the controller (104, 206, 320, 610).
Roof, at least in part covered by a modular roof covering, said modular roof covering comprising a plurality of modular elements for covering said roof, wherein each modular element comprises: - a box-shaped container having an interior, an at least substantially flat bottom wall which in use faces the roof, and being open on an upper side, and being at least substantially made of a polymer, - a photovoltaic element (40; 240) which is disposed within the interior of the container, - a cover for at least substantially covering said open upper side, and being connected to the container, wherein the cover is light transparent to such an extent that in use electrical power can be generated by the photovoltaic element due to incident sunlight, and - coupling means (20, 22, 26, 24) for coupling the modular element to the roof and/or to a further modular element, for covering a roof with the plurality of modular elements, wherein the plurality of modular elements is arranged such that at least part of the roof is fully covered by the plurality of modular elements, and wherein each modular element is coupled via its coupling means to at least one adjacent further modular element of the plurality of modular elements in a water tight manner, and the roof having sloped rafters extending mutually parallel towards a roof ridge, characterized in that the plurality of modular elements is directly mounted onto rafters such that the roof is formed by said modular elements, wherein preferably each modular element is supported, in a direction transverse to the rafters, onto two neighbouring rafters. - a box-shaped container having an interior, an at least substantially flat bottom wall which in use faces the roof, and being open on an upper side, and being at least substantially made of a polymer, - a photovoltaic element (40; 240) which is disposed within the interior of the container, - a cover for at least substantially covering said open upper side, and being connected to the container, wherein the cover is light transparent to such an extent that in use electrical power can be generated by the photovoltaic element due to incident sunlight, and - coupling means (20, 22, 26, 24) for coupling the modular element to the roof and/or to a further modular element, for covering a roof with the plurality of modular elements, wherein the plurality of modular elements is arranged such that at least part of the roof is fully covered by the plurality of modular elements, and wherein each modular element is coupled via its coupling means to at least one adjacent further modular element of the plurality of modular elements in a water tight manner, and the roof having sloped rafters extending mutually parallel towards a roof ridge, characterized in that the plurality of modular elements is directly mounted onto rafters such that the roof is formed by said modular elements, wherein preferably each modular element is supported, in a direction transverse to the rafters, onto two neighbouring rafters.
An amniotic fluid collection device, comprising: a collection chamber; a collection chamber inlet valve coupled to the collection chamber; a fluid-extraction tube (140, 150) coupled to the collection chamber inlet valve and comprising a transfer portion and an inlet, wherein the inlet comprises a main inlet and a penetrating tip, characterized in that the inlet further comprises one or more lateral inlets, and in that the amniotic fluid collection device further comprises a ring of soft material, added to the outside of the fluid-extraction tube to facilitate the formation of a substantially impervious seal between the fluid-extraction tube and the amniotic membranes. a collection chamber; a collection chamber inlet valve coupled to the collection chamber; a fluid-extraction tube (140, 150) coupled to the collection chamber inlet valve and comprising a transfer portion and an inlet, wherein the inlet comprises a main inlet and a penetrating tip, characterized in that the inlet further comprises one or more lateral inlets, and in that the amniotic fluid collection device further comprises a ring of soft material, added to the outside of the fluid-extraction tube to facilitate the formation of a substantially impervious seal between the fluid-extraction tube and the amniotic membranes.
Chromatography process in which a gaseous, liquid or supercritical mobile phase containing the species to be separated is circulated through a packing forming or comprising a stationary phase, said packing comprising: - a plurality of capillary ducts extending into the packing between an upstream face through which the mobile phase enters the packing and a downstream face through which the mobile phase leaves the packing, the species to be separated contained in the mobile phase circulating in each duct being retained by the stationary phase, and - a continuous medium permeable to molecular diffusion extending between said conduits, comprising a porous organic gel or an organic liquid and including at least one network of associated pores in which the size of said pores is greater than twice the molecular diameter of at least one species to be separated and open to the conduits, so as to provide said at least one species with a diffusive path between said conduits, the permittivity of the said continuous medium with respect to the species to be separated being greater than 5000 Barrer, i.e. greater than 5.10- 7 (cm 3 O 2 cm) / (cm 2 s cm Hg). - a plurality of capillary ducts extending into the packing between an upstream face through which the mobile phase enters the packing and a downstream face through which the mobile phase leaves the packing, the species to be separated contained in the mobile phase circulating in each duct being retained by the stationary phase, and - a continuous medium permeable to molecular diffusion extending between said conduits, comprising a porous organic gel or an organic liquid and including at least one network of associated pores in which the size of said pores is greater than twice the molecular diameter of at least one species to be separated and open to the conduits, so as to provide said at least one species with a diffusive path between said conduits,
A gas flow control device for a gas stove, comprising a first gas valve, a second gas valve and a driving device (11, 12, 13, 14, 15, 16), the driving device (11, 12, 13, 14, 15, 16) being configured for actuating each of the gas valves between an open and a closed position thereof in a linear manner, wherein the second valve opens only after the first valve has reached its open position, wherein the first valve has a first valve core as well as a first and a second valve rod (2, 3) connected to the first valve core on opposite sides, wherein, in the closed state of a respective gas valve, the second valve rod is spaced apart from a second valve core of the second valve, and wherein the second valve rod contacts the second valve core for actuating the second valve core into its open position corresponding to the open position of the second valve (1, 5) only once the first valve core has reached its open position corresponding to the open position of the first valve.