mhurhangee/ep-ind-claims huggingface dataset:
A coated article comprising: an antireflective coating supported by a major surface of a glass substrate, the glass substrate being heat treated together with the antireflective coating, wherein the antireflective coating comprises, in order moving away from the glass substrate: a medium index layer comprising silicon oxynitride and having an index of refraction of from about 1.65 to 2.0 at 380 nm, 550 nm, and 780 nm wavelengths, a high index layer, contacting the medium index layer and having a thickness of from 5 to 50 nm and having an index of refraction of at least about 2.0 at 380 nm, 550 nm, and 780 nm wavelengths, and a low index layer, contacting the high index layer and having an index of refraction of from about 1.4 to 1.6 at 380 nm, 550 nm, and 780 nm wavelengths, wherein the medium index layer has compressive residual stress after heat treatment, and wherein the high index layer comprises an oxide of titanium and the low index layer comprises silicon oxide. an antireflective coating supported by a major surface of a glass substrate, the glass substrate being heat treated together with the antireflective coating, wherein the antireflective coating comprises, in order moving away from the glass substrate: a medium index layer comprising silicon oxynitride and having an index of refraction of from about 1.65 to 2.0 at 380 nm, 550 nm, and 780 nm wavelengths, a high index layer, contacting the medium index layer and having a thickness of from 5 to 50 nm and having an index of refraction of at least about 2.0 at 380 nm, 550 nm, and 780 nm wavelengths, and a low index layer, contacting the high index layer and having an index of refraction of from about 1.4 to 1.6 at 380 nm, 550 nm, and 780 nm wavelengths, wherein the medium index layer has compressive residual stress after heat treatment, and wherein the high index layer comprises an oxide of titanium and the low index layer comprises silicon oxide. a medium index layer comprising silicon oxynitride and having an index of refraction of from about 1.65 to 2.0 at 380 nm, 550 nm, and 780 nm wavelengths, a high index layer, contacting the medium index layer and having a thickness of from 5 to 50 nm and having an index of refraction of at least about 2.0 at 380 nm, 550 nm, and 780 nm wavelengths, and a low index layer, contacting the high index layer and having an index of refraction of from about 1.4 to 1.6 at 380 nm, 550 nm, and 780 nm wavelengths, wherein the medium index layer has compressive residual stress after heat treatment, and wherein the high index layer comprises an oxide of titanium and the low index layer comprises silicon oxide.
A robot apparatus comprising: a plurality of robot arms (201, 211; 301, 311) each including an indication device (205, 215; 305, 315) having a first indicator (205B, 215B) characterized in that said first indicator is configured to indicate an operation state of at least one of the plurality of robot arms (201, 211; 301, 311) different from a respective robot arm (201, 211; 301, 311) on which each indication device is provided.
An airfoil for a gas turbine engine, the airfoil comprising: a leading edge and a trailing edge, a wall having; the leading edge and the trailing edge, and at least partially defining a boundary of a leading edge cavity radially along the leading edge; and a cooling jet structure operatively associated with a portion of the wall proximate the leading edge and configured to direct a cooling fluid to the leading edge cavity tangent to the portion of the wall; characterised in that: the airfoil further comprises at least one dividing wall separating the leading edge cavity into multiple segments (96a...96b) and configured to minimize radial flow of the cooling fluid through the leading edge cavity, wherein the cooling jet structure includes a protrusion operatively disposed opposite the portion of the wall to form a channel therebetween configured to accelerate flow of the cooling fluid, the cooling jet structure at least partially defined by the protrusion and the wall to form the channel. a leading edge and a trailing edge, a wall having; the leading edge and the trailing edge, and at least partially defining a boundary of a leading edge cavity radially along the leading edge; and a cooling jet structure operatively associated with a portion of the wall proximate the leading edge and configured to direct a cooling fluid to the leading edge cavity tangent to the portion of the wall; characterised in that: the airfoil further comprises at least one dividing wall separating the leading edge cavity into multiple segments (96a...96b) and configured to minimize radial flow of the cooling fluid through the leading edge cavity, wherein the cooling jet structure includes a protrusion operatively disposed opposite the portion of the wall to form a channel therebetween configured to accelerate flow of the cooling fluid, the cooling jet structure at least partially defined by the protrusion and the wall to form the channel.
A hybrid container comprising a rigid fibrous outer part and a rigid plastic inner part (12a, 12b); the inner part (12a, 12b) being configured to contain a product; wherein the inner part (12a, 12b) is removably attached to the outer part such that at least a portion of the inner part (12a, 12b) is disposed inside the outer part, wherein the inner part (12a, 12b) comprises a rigid first plastic part removably connected to a rigid second plastic part, the first plastic part being disposed substantially within the second plastic part and being configured to contain the product; and the second plastic part being removably connected to the fibrous outer part, and wherein the fibrous outer part is made of cardboard. inner part (12a, 12b); the inner part (12a, 12b) being configured to contain a product; wherein the inner part (12a, 12b) is removably attached to the outer part such that at least a portion of the inner part (12a, 12b) is disposed inside the outer part, wherein the inner part (12a, 12b) comprises a rigid first plastic part removably connected to a rigid second plastic part, the first plastic part being disposed substantially within the second plastic part and being configured to contain the product; and the second plastic part being removably connected to the fibrous outer part, and wherein the fibrous outer part is made of cardboard.
Terrace canopy comprising a roof structure with a retractable and extendable screen guided in sloping side guide rails for the screen, said side guide rails being supported on or at a distance from their lower extremity by a hollow support post by means of a hinge with a horizontal shaft which is transversely oriented to the longitudinal direction (Q-Q') of the side guide rail, wherein for setting the slope of the side guide rail, the hinge is mounted on a coupling piece that is concealedly mounted in the hollow support post and is height adjustably mounted in the support post, characterised in that the hinge is translationally mounted on the coupling piece in a direction (Y-Y') parallel with a plane perpendicular to the shaft of the hinge.
Heat exchanger for a heater, in particular a condensing heater, comprising at least two vertically oriented members (1, 1', 2) and one cover (3, 3') on each end side, which form a combustion chamber, and with optionally at least one central member between the two bounding outer members (1, 1'), and also with a plurality of heating medium-channelling ducts in the members (1, 1', 2) and covers (3, 3'), through which ducts the flow passes in parallel and/or in series, wherein the members (1, 1', 2) and covers (3, 3') are connected to one another on the end side to form a heating gas-tight block whose heating medium-channelling ducts correspond to one another, characterized in that the covers laterally bound at least one heating gas flue which is routed downwardly from the combustion chamber in the upper region to an exhaust-gas manifold in the lower region and which has heat exchanger surfaces which are provided on the heating gas side with surface-increasing elements, in particular in the form of ribs, and in that the heating medium-channelling ducts in the members (1, 1', 2) each have, in the centre of a member (1, 1', 2), a smaller cross section and a higher flow velocity than in the edge regions.
Part to connect a cladding to a supporting wall of a building, comprising: - a plate, defining anchoring means to anchor said part to said wall; - attachment means to attach said cladding to said part, preferably formed at a distal end of an extension; and, - gusset means arranged between said anchoring means and said attachment means; characterised in that said part is a folded sheet, a fold being formed between the plate and the gusset, and symmetrical with respect to a longitudinal plane perpendicular to said fold and in that the gusset means comprise an insulating zone whose transverse cross-section has a substantially constant area, while a width of the gusset decreases progressively on moving away from the anchoring means and moving towards the attachment means. - a plate, defining anchoring means to anchor said part to said wall; - attachment means to attach said cladding to said part, preferably formed at a distal end of an extension; and, - gusset means arranged between said anchoring means and said attachment means;
A container (1, 40) for storing articles, comprising at least a bottom wall (2, 42) and a number of side walls (4a-4d, 43) which are pivotally connected to the bottom wall (2, 42), which side walls (4a-4d, 43) can pivot from a closed position of the container (1, 40), in which access to the bottom wall (2, 42) is limited, to an unfolded position of the container (1, 40), in which access to the bottom wall (2, 42) is easier, each side wall (4a-4d, 43) being provided, at a position spaced from the bottom wall (2, 42), with an edge element (6a-6d, 49) which extends substantially transversely to the side wall, characterised in that the container (1, 40) is provided with a flexible holder element (7, 53) which is connected to the edge elements (6a-6d, 49), wherein the flexible holder element (7, 53) extends over the bottom wall (2, 42), the side walls (4a-4d, 43), between adjacent side walls (4a-4d, 43) and between adjacent edge elements (6a-6d, 49) in the unfolded position of the container (1, 40), wherein the flexible holder element (7, 53), in co-operation with the edge elements (6a-6d, 49), forms a holder having a bottom surface and an endless upright edge (18, 55) in the unfolded position of the container (1, 40).
A wet process module, in particular a lacquering module, for the treatment of substrates, in particular wafers, including a process chamber which has a process pot for treating the substrate, an air inlet for supplying air into the process chamber, at least one bypass outlet and at least one process pot outlet, wherein the at least one bypass outlet and the at least one process pot outlet are air outlets for discharging air out of the process chamber, and wherein the at least one process pot outlet is provided in the process pot and the at least one bypass outlet is provided outside the process pot. wherein the at least one bypass outlet and the at least one process pot outlet are air outlets for discharging air out of the process chamber, and wherein the at least one process pot outlet is provided in the process pot and the at least one bypass outlet is provided outside the process pot.
A method of producing an object marking for optically authenticating an object, wherein at last one section of a piece of material of a base material is arbitrarily or randomly defined and the object marking is produced with the at least one section, characterised in that the base material of the piece of material has a periodically recurring pattern of security features with optical characteristics dependent on the viewing angle, the period of which is larger than the dimensions of the section, in particular larger than the dimensions of the object marking, so that each section is unique and has only a portion of the pattern of security features.
A laying tower for laying pipelines on the bed of a body of water, the laying tower comprising: - a supporting structure extending along a longitudinal axis and comprising guides parallel to the longitudinal axis; - a first U-shaped clamp, which is mounted on the supporting structure and configured for selectively clamping and releasing the pipeline in a given point along the longitudinal axis and comprises a U-shaped structure and a plurality of first jaws and a plurality of first actuators supported by the U-shaped structure and configured for actuating the jaws between an open position and a closed position; - a second clamp, which is movable along a path, which extends along a first section extending above the first clamp; and a second section arranged below the first clamp and, partly, below the supporting structure and configured for selectively clamping and releasing the pipeline along the path, wherein the first clamp is mounted on the supporting structure so as to be selectively arranged in a first position along the longitudinal axis and in a second position remote from the longitudinal axis. - a supporting structure extending along a longitudinal axis and comprising guides parallel to the longitudinal axis; - a first U-shaped clamp, which is mounted on the supporting structure and configured for selectively clamping and releasing the pipeline in a given point along the longitudinal axis and comprises a U-shaped structure and a plurality of first jaws and a plurality of first actuators supported by the U-shaped structure and configured for actuating the jaws between an open position and a closed position; - a second clamp, which is movable along a path, which extends along a first section extending above the first clamp; and a second section arranged below the first clamp and, partly, below the supporting structure and configured for selectively clamping and releasing the pipeline along the path, wherein the first clamp is mounted on the supporting structure so as to be selectively arranged in a first position along the longitudinal axis and in a second position remote from the longitudinal axis.
A solar cell comprising: a semiconductor substrate containing impurities of a first conductive type; a front surface field region positioned at a front surface of the semiconductor substrate, the front surface field region containing impurities of the first conductive type at a higher concentration than that of the semiconductor substrate, the front surface field region having a crystal structure or crystallinity different from that of the semiconductor substrate; a front tunnel layer positioned between the front surface field region and the semiconductor substrate, an anti-reflection layer positioned on a front surface of the front surface field region, an emitter region positioned at a back surface of the semiconductor substrate, the emitter region having a second conductive type opposite the first conductive type; a back surface field region positioned at the back surface of the semiconductor substrate, the back surface field region containing impurities of the first conductive type at a higher concentration than that of the semiconductor substrate; a first electrode connected to the emitter region; and a second electrode connected to the back surface field region, characterized in that the crystallinity of the front surface field region increases from the front tunnel layer to the anti-reflection layer. a semiconductor substrate containing impurities of a first conductive type; a front surface field region positioned at a front surface of the semiconductor substrate, the front surface field region containing impurities of the first conductive type at a higher concentration than that of the semiconductor substrate, the front surface field region having a crystal structure or crystallinity different from that of the semiconductor substrate; a front tunnel layer positioned between the front surface field region and the semiconductor substrate, an anti-reflection layer positioned on a front surface of the front surface field region, an emitter region positioned at a back surface of the semiconductor substrate, the emitter region having a second conductive type opposite the first conductive type; a back surface field region positioned at the back surface of the semiconductor substrate, the back surface field region containing impurities of the first conductive type at a higher concentration than that of the semiconductor substrate; a first electrode connected to the emitter region; and a second electrode connected to the back surface field region, characterized in that the crystallinity of the front surface field region increases from the front tunnel layer to the anti-reflection layer.
Conveyor belt for transporting unit load, in particular for a conveyor belt scale, the conveyor belt comprising a belt body with a top side, a bottom side and a length extending in the transport direction of the unit load and a transport belt revolving around the belt body during the operation of the conveyor belt, wherein a belt-guiding device between the belt body and transport belt is attached to the bottom side of the belt body, wherein the belt-guiding device comprises at least two rolling contact bearings, wherein the inner races of the rolling contact bearings are attached on in each case an axle and the axles are arranged parallel to one another and in a fixed position with respect to the belt body, and wherein the outer races of the rolling contact bearings are in direct contact with the transport belt, wherein the belt-guiding device consists of a transverse strut which is attached, in particular at least substantially centrally, to the bottom side of the belt body and which extends transversely, in particular perpendicularly, to the transport direction over a large part of the width or over the entire width of the belt body, characterized in that the transverse strut, in regions which are provided for receiving rolling contact bearings, comprises folds which extend along the length of the transverse strut.
Latent energy store based on a change in the state of matter of a storage medium, wherein energy is able to be stored as enthalpy of fusion or as enthalpy of crystallization in the storage medium and the latent heat store is operated at temperatures in the range from 150 to 500°C and the storage medium comprises an acetate of a metal and/or nonmetal having a melting point in the range from 150 to 500°C.
A method of determining a fractional concentration of fetal DNA in a biological sample taken from a pregnant female, the fetus having a father and a mother being the pregnant female, wherein the biological sample contains a mixture of maternal and fetal nucleic acids, the method comprising: enriching the biological sample obtained from the pregnant female for DNA molecules in a target region; sequencing a plurality of DNA molecules from the enriched biological sample, the sequencing being specific to the target region, wherein the sequencing results are analyzed to: identify a location of the DNA molecule in the target region of the human genome; and determine a respective allele of the DNA molecule; determining one or more first loci, wherein the fetal genome is heterozygous at each first loci such that the fetal genome has a respective first and second allele at that first loci, and wherein a maternal genome is homozygous at each first loci such that the maternal genome has two of the respective second allele at that first loci, the first allele being different than the second allele; for at least one of the first loci: determining a first number P of counts of the respective first allele and a second number Q of counts of the respective second allele; and determining the fractional concentration based on the first and second numbers. enriching the biological sample obtained from the pregnant female for DNA molecules in a target region; sequencing a plurality of DNA molecules from the enriched biological sample, the sequencing being specific to the target region, wherein the sequencing results are analyzed to: identify a location of the DNA molecule in the target region of the human genome; and determine a respective allele of the DNA molecule; identify a location of the DNA molecule in the target region of the human genome; and determine a respective allele of the DNA molecule; determining one or more first loci, wherein the fetal genome is heterozygous at each first loci such that the fetal genome has a respective first and second allele at that first loci, and wherein a maternal genome is homozygous at each first loci such that the maternal genome has two of the respective second allele at that first loci, the first allele being different than the second allele; for at least one of the first loci: determining a first number P of counts of the respective first allele and a second number Q of counts of the respective second allele; and determining the fractional concentration based on the first and second numbers.
A positive electrode for secondary cell comprising a current collector which is comprised of aluminum or an aluminum alloy and a positive electrode active material layer, wherein said positive electrode active material layer contains a positive electrode active material and a water-based binder, characterized in that the positive electrode active material further contains an organic phosphonic acid compound and a polyvalent metal compound.
A method for determining whether a subject has a pancreatic cancer, comprising determining in a sample obtained from the subject the expression levels of miR-18a, miR-22, miR-486, miR-642b, miR-7, and miR-885-5p, and whereby the subject is determined to have pancreatic cancer if the expression level of each microRNA is above a predetermined reference value for said microRNA.
Wind turbine comprising a nacelle with a generator and wind turbine blades for driving the generator, a tower supporting the nacelle wherein the nacelle is rotatable about a vertical axis an azimuth drive for rotating the nacelle around the axis, said azimuth drive comprising a plurality of asynchronous yaw motors (8A, 8B, 8C) and an azimuth controller with a frequency unit for controlling the yaw motors (8A, 8B, 8C), wherein the azimuth controller is arranged to connect all yaw motors (8A, 8B, 8C) to the one frequency unit in a rotating mode and to connect only a subset of the yaw motors (8A, 8B, 8C) to the one frequency unit in a locking mode.