mhurhangee/ep-ind-claims huggingface dataset:
A near-field electromagnetic wave absorbing film comprising a plastic film, and a single- or multi-layered thin metal film formed on a surface of the plastic film, wherein: said thin metal film is provided with plural lines of openings extending and crossing in two directions; pluralities of said openings are arranged in each line such that at least part of adjacent openings are separated; said opening lines (12a, 12b) extend in two directions crossing at an angle of 45 to 90°; thin metal film portions, remaining after forming said openings, are composed of wide remaining portions partitioned by said opening lines (12a, 12b), and bridge-like remaining portions connecting adjacent wide remaining portions; and said bridge-like remaining portions have widths of 20 μm or less; characterised in that the openings are laser-etched, wherein said near-field electromagnetic wave absorbing film has an electrical resistance of 50 to 300 Ω/100 cm 2 and a light transmittance, measured with laser rays having a wavelength of 660 nm, of 30 to 80%. said thin metal film is provided with plural lines of openings extending and crossing in two directions; pluralities of said openings are arranged in each line such that at least part of adjacent openings are separated; said opening lines (12a, 12b) extend in two directions crossing at an angle of 45 to 90°; thin metal film portions, remaining after forming said openings, are composed of wide remaining portions partitioned by said opening lines (12a, 12b), and bridge-like remaining portions connecting adjacent wide remaining portions; and said bridge-like remaining portions have widths of 20 μm or less; characterised in that the openings are laser-etched, wherein said near-field electromagnetic wave absorbing film has an electrical resistance of 50 to 300 Ω/100 cm 2 and a light transmittance, measured with laser rays having a wavelength of 660 nm, of 30 to 80%.
A method of slaking quicklime to form fine particles of calcium hydroxide, the method comprising the steps of: • providing a source of quicklime and a source of slaking water; • contacting the quicklime with the slaking water to form calcium hydroxide product; characterized in that the provided source of quicklime is a high sulfate containing quicklime formed from calcination of limestone using a solid fuel source, at the exception of natural gas, in a calciner, and in that said method further comprises the steps of mixing a complexing agent with the high sulphate containing quicklime or with the slaking water, tying up available soluble sulfate ions present in the quicklime upon addition of the quicklime to the slaking water by said complexing agent; thereby controlling the presence of soluble sulfate ions during the slaking operation and preventing undesirable agglomeration of calcium hydroxide particles. • providing a source of quicklime and a source of slaking water; • contacting the quicklime with the slaking water to form calcium hydroxide product;
A boarding guidance system comprising: a passenger seat and a beacon associated with the passenger seat, wherein the beacon is configured to: communicate with a passenger guiding device; provide an indication when the passenger guiding device is a predetermined distance from the passenger seat; the indication provided including a light emission from a light, or an audible alert or message, or a visual message, and characterized in that the beacon is further configured to, while the passenger guiding device is within the predetermined distance from the passenger seat, alter at least one characteristic of the indication based on a distance between the passenger guiding device and the passenger seat. a passenger seat and a beacon associated with the passenger seat, wherein the beacon is configured to: communicate with a passenger guiding device; provide an indication when the passenger guiding device is a predetermined distance from the passenger seat; the indication provided including a light emission from a light, or an audible alert or message, or a visual message, and characterized in that the beacon is further configured to, while the passenger guiding device is within the predetermined distance from the passenger seat, alter at least one characteristic of the indication based on a distance between the passenger guiding device and the passenger seat. communicate with a passenger guiding device; provide an indication when the passenger guiding device is a predetermined distance from the passenger seat; the indication provided including a light emission from a light, or an audible alert or message, or a visual message, and characterized in that the beacon is further configured to, while the passenger guiding device is within the predetermined distance from the passenger seat, alter at least one characteristic of the indication based on a distance between the passenger guiding device and the passenger seat.
A microphone unit comprising: a film base board; an electrically conductive layer that is formed on at least one of both base board surfaces of the film base board; and an electrical acoustic transducer portion that is mounted on the film base board, includes a diaphragm and transduces a sound pressure into an electrical signal; characterized in that a coefficient a of thermal expansion of the film base board, a coefficient b of thermal expansion of the electrically conductive layer, and a coefficient c of thermal expansion of the diaphragm meet a relationship c≤a<b, and a coefficient β of thermal expansion of the film base board inclusive of the electrically conductive layer is in a range of more than 1.0 to 2.5 times as large as the coefficient of thermal expansion of the diaphragm, β= ax + bry / x + ry, where x is a thickness of the film base board, y is a thickness of the electrically conductive layer, and r is the pattern formation area ratio of the electrically conductive layer. a film base board; an electrically conductive layer that is formed on at least one of both base board surfaces of the film base board; and an electrical acoustic transducer portion that is mounted on the film base board, includes a diaphragm and transduces a sound pressure into an electrical signal; characterized in that a coefficient a of thermal expansion of the film base board, a coefficient b of thermal expansion of the electrically conductive layer, and a coefficient c of thermal expansion of the diaphragm meet a relationship c≤a<b, and a coefficient β of thermal expansion of the film base board inclusive of the electrically conductive layer is in a range of more than 1.0 to 2.5 times as large as the coefficient of thermal expansion of the diaphragm, β= ax + bry / x + ry, where x is a thickness of the film base board, y is a thickness of the electrically conductive layer, and r is the pattern formation area ratio of the electrically conductive layer.
A method for identifying the risk of developing Chronic Allograft Nephropathy in a patient that received a kidney transplant from a donor, which comprises: identifying the race of the donor; determining the levels of Shroom3 expression in a kidney biopsy specimen obtained from the patient; comparing the level of Shroom3 expression in the biopsy specimen with the levels of SHROOM 3 expression in a control, which is a normal kidney sample; determining if the level of Shroom3 expression in the allograft is significantly higher than in the control, and diagnosing the patient as being at risk for CAN if (i) the level of SHROOM 3 expression in the specimen is significantly higher than in the control; and (ii) the donor is Caucasian. identifying the race of the donor; determining the levels of Shroom3 expression in a kidney biopsy specimen obtained from the patient; comparing the level of Shroom3 expression in the biopsy specimen with the levels of SHROOM 3 expression in a control, which is a normal kidney sample; determining if the level of Shroom3 expression in the allograft is significantly higher than in the control, and diagnosing the patient as being at risk for CAN if (i) the level of SHROOM 3 expression in the specimen is significantly higher than in the control; and (ii) the donor is Caucasian.
A composition for treating a hard surface comprising an aqueous-based composition which includes: (a) adhesion promoter, which comprises an organic molecule including at least one hydrophilic polyalkoxy group, wherein the adhesion promoter comprises polyethylene glycol, alkoxylated alcohol, alkoxylated polyol partial ester and/or polymeric alkylene oxide block copolymer; (b) at least one surfactant selected from the group consisting of: anionic, nonionic, cationic, amphoteric, zwitterionic, and combinations thereof; wherein one or more of the at least one surfactant can serve all or in part as the at least one adhesion promoter; and (c) water; and (d) propellant, which comprises fluorocarbon, hydrofluoroalkane, hydrofluoroalkene and/or volatile ether propellant; wherein after aerosol application to a hard surface the composition is in the form of a gel, which is self-adhering to the hard surface and the gel has a viscosity at 25 °C of at least 150 Pa·s (150,000 cP). (a) adhesion promoter, which comprises an organic molecule including at least one hydrophilic polyalkoxy group, wherein the adhesion promoter comprises polyethylene glycol, alkoxylated alcohol, alkoxylated polyol partial ester and/or polymeric alkylene oxide block copolymer; (b) at least one surfactant selected from the group consisting of: anionic, nonionic, cationic, amphoteric, zwitterionic, and combinations thereof; wherein one or more of the at least one surfactant can serve all or in part as the at least one adhesion promoter; and (c) water; and (d) propellant, which comprises fluorocarbon, hydrofluoroalkane, hydrofluoroalkene and/or volatile ether propellant;
A method of preparing T-cells for immunotherapy comprising the steps of: (a) Genetically modifying T-cells by introduction into the cells and/or expression in the cells of at least: - a RNA-guided endonuclease; and - a specific guide RNA that directs said endonuclease to at least one targeted locus in the T-cell genome, wherein said RNA-guided endonuclease is fused to a NLS, which acts to drive the protein to the nucleus through the Nuclear Pore Complex and wherein said RNA-guided endonuclease is expressed from transfected mRNA or provided as a polypeptide produced outside the cell, and said guide RNA is expressed in the cells as a transcript from a DNA vector; (b) expanding the resulting cells in vitro. (a) Genetically modifying T-cells by introduction into the cells and/or expression in the cells of at least: - a RNA-guided endonuclease; and - a specific guide RNA that directs said endonuclease to at least one targeted locus in the T-cell genome, wherein said RNA-guided endonuclease is fused to a NLS, which acts to drive the protein to the nucleus through the Nuclear Pore Complex and wherein said RNA-guided endonuclease is expressed from transfected mRNA or provided as a polypeptide produced outside the cell, and said guide RNA is expressed in the cells as a transcript from a DNA vector; - a RNA-guided endonuclease; and - a specific guide RNA that directs said endonuclease to at least one targeted locus in the T-cell genome, (b) expanding the resulting cells in vitro.
An airfoil of a turbine blade, the airfoil having an external wall surface and comprising: a leading edge and a trailing edge; a pressure sidewall and a suction sidewall both extending between the leading and the trailing edges; an internal cavity; one or more discrete isolation trenches in the external wall surface, the one or more discrete isolation trenches extending in a span-wise direction from a root of the airfoil toward a tip of the airfoil; a plurality of film cooling holes arranged in a plurality of cooling rows (32, 34, 36) in the span-wise direction of the airfoil, each cooling row of the plurality of cooling rows extending from the root of the airfoil toward the tip of the airfoil, each film cooling hole having an inlet connected to the internal cavity and an outlet opening onto the external wall surface; and a plurality of span-wise surface connectors interconnecting the outlets of sequential pairs of the film cooling holes in the same cooling row to form a plurality of rows of interconnected film cooling holes, each span-wise surface connector having a first end disposed at the outlet of one film cooling hole of a respective one of the pairs of the film cooling holes and a second end disposed at the outlet of the other film cooling hole of the respective one of the pairs of film cooling holes, wherein the span-wise surface connectors in at least one selected row of interconnected film cooling holes are disposed in the one or more isolation trenches and the one or more isolation trenches is formed over a length of the at least one selected row of interconnected film cooling holes. a leading edge and a trailing edge; a pressure sidewall and a suction sidewall both extending between the leading and the trailing edges; an internal cavity; one or more discrete isolation trenches in the external wall surface, the one or more discrete isolation trenches extending in a span-wise direction from a root of the airfoil toward a tip of the airfoil; a plurality of film cooling holes arranged in a plurality of cooling rows (32, 34, 36) in the span-wise direction of the airfoil, each cooling row of the plurality of cooling rows extending from the root of the airfoil toward the tip of the airfoil, each film cooling hole having an inlet connected to the internal cavity and an outlet opening onto the external wall surface; and a plurality of span-wise surface connectors interconnecting the outlets of sequential pairs of the film cooling holes in the same cooling row to form a plurality of rows of interconnected film cooling holes, each span-wise surface connector having a first end disposed at the outlet of one film cooling hole of a respective one of the pairs of the film cooling holes and a second end disposed at the outlet of the other film cooling hole of the respective one of the pairs of film cooling holes, wherein the span-wise surface connectors in at least one selected row of interconnected film cooling holes are disposed in the one or more isolation trenches and the one or more isolation trenches is formed over a length of the at least one selected row of interconnected film cooling holes.
An optical lens, consisting of a first lens, a second lens and a third lens, wherein the first lens is a convexo-convex lens with positive focal power; the second lens is a lens having a convex object-side surface and a concave image-side surface with negative focal power; and the third lens is a lens having a convex object-side surface on an optical axis of the optical lens and a concave image-side surface on the optical axis of the optical lens with negative focal power, and wherein at least one surface among the first lens, the second lens and the third lens is aspheric, and wherein the optical lens satisfies the following conditional expressions: 0.8<TTL/f<2.5, where TTL is a distance between a central point of the object-side surface of the first lens and an imaging surface of the optical lens; f is a focal length of the optical lens, and 5.329≤|f3|/f≤5.709, where |f3| is an absolute value of a focal length of the third lens, and f is the focal length of the optical lens. 0.8<TTL/f<2.5, where TTL is a distance between a central point of the object-side surface of the first lens and an imaging surface of the optical lens; f is a focal length of the optical lens, and 5.329≤|f3|/f≤5.709, where |f3| is an absolute value of a focal length of the third lens, and f is the focal length of the optical lens.
A locking device intended to prevent opening of a door or doors, said locking device comprising a body, which is capable of being coupled immovably to a door handle and prevents opening of a door/doors (o1, o2), the body being provided with a coupling arrangement adjustable with adjustment elements for locking the handle against an external surface of the door by being propped immovably on a vertical frame member (y) of the door or on a handle of the adjacent door, said coupling arrangement comprises an intermediate member and a movable body member (2"), and which members (2', 2") are mutually movable and included in the body, characterized in that the intermediate member comprises threading and that the adjustment elements are configured to, when used, form a distance between the intermediate member and the movable body member (2") so that the intermediate member with threading engages behind the rear surface of the door handle and the movable body member (2") engages against the external surface of the door.
A method for determining an inter-channel time difference of a multi-channel audio signal having at least two channels, said method comprising: - determining a set of local maxima of a cross-correlation function involving at least two different channels of the multi-channel audio signal for positive and negative time-lags, where each local maximum is associated with a corresponding time-lag; - selecting, from the set of local maxima, a local maximum for positive time-lags as a positive time-lag inter-channel correlation candidate and a local maximum for negative time-lags as a negative time-lag inter-channel correlation candidate; - determining whether there is a dominant channel if the absolute value of a difference in amplitude between the inter-channel correlation candidates is smaller than a first threshold; and - if there is a dominant channel, identifying the sign of the inter-channel time difference and extracting a current value of the inter-channel time difference based on either the time-lag corresponding to the positive time-lag inter-channel correlation candidate or the time-lag corresponding to the negative time-lag inter-channel correlation candidate. - determining a set of local maxima of a cross-correlation function involving at least two different channels of the multi-channel audio signal for positive and negative time-lags, where each local maximum is associated with a corresponding time-lag; - selecting, from the set of local maxima, a local maximum for positive time-lags as a positive time-lag inter-channel correlation candidate and a local maximum for negative time-lags as a negative time-lag inter-channel correlation candidate; - determining whether there is a dominant channel if the absolute value of a difference in amplitude between the inter-channel correlation candidates is smaller than a first threshold; and - if there is a dominant channel, identifying the sign of the inter-channel time difference and extracting a current value of the inter-channel time difference based on either the time-lag corresponding to the positive time-lag inter-channel correlation candidate or the time-lag corresponding to the negative time-lag inter-channel correlation candidate.
A method for synchronizing a wireless sensor, comprising: receiving a first command at the wireless sensor; responding to the first command with a first reply; noting a first timestamp value (t 1) indicating when the first reply is sent; characterised by: receiving a second command at the wireless sensor that contains a second timestamp value (t 4) indicating when the first reply was received and a third timestamp value (t 5) indicating when the second command was sent to the wireless sensor; noting a fourth timestamp value (t 8) indicating when the second command was received by the wireless sensor; and determining an offset at the wireless sensor using the first (t 1), second (t 4), third (t 5), and fourth (t 8) timestamp values. receiving a first command at the wireless sensor; responding to the first command with a first reply; noting a first timestamp value (t 1) indicating when the first reply is sent; characterised by: receiving a second command at the wireless sensor that contains a second timestamp value (t 4) indicating when the first reply was received and a third timestamp value (t 5) indicating when the second command was sent to the wireless sensor; noting a fourth timestamp value (t 8) indicating when the second command was received by the wireless sensor; and determining an offset at the wireless sensor using the first (t 1), second (t 4), third (t 5), and fourth (t 8) timestamp values. receiving a second command at the wireless sensor that contains a second timestamp value (t 4) indicating when the first reply was received and a third timestamp value (t 5) indicating when the second command was sent to the wireless sensor; noting a fourth timestamp value (t 8) indicating when the second command was received by the wireless sensor; and determining an offset at the wireless sensor using the first (t 1), second (t 4), third (t 5), and fourth (t 8) timestamp values.
A method for assessing the load bearing capacity of an inserted pile (102, 202),, comprising: - inserting the pile (102, 202) by a vibrator device (220, 520) with a maximum inserting frequency, - applying, by the vibrator device (220, 520) arranged at the inserted pile (102, 202), after the insertion of the inserted pile (102, 202) with a measuring pulse string during at least one vibration time period, wherein a maximum measuring frequency of the measuring pulse string is at most 80 % of the maximum inserting frequency, - detecting, by at least one detection module, motion data of the inserted pile (102, 202) caused by the measuring pulse string during a measuring time period, - determining at least one downward motion data set from the detected motion data; and - evaluating the downward motion data set such that a load bearing capacity criterion is determined. - inserting the pile (102, 202) by a vibrator device (220, 520) with a maximum inserting frequency, - applying, by the vibrator device (220, 520) arranged at the inserted pile (102, 202), after the insertion of the inserted pile (102, 202) with a measuring pulse string during at least one vibration time period, wherein a maximum measuring frequency of the measuring pulse string is at most 80 % of the maximum inserting frequency, - detecting, by at least one detection module, motion data of the inserted pile (102, 202) caused by the measuring pulse string during a measuring time period, - determining at least one downward motion data set from the detected motion data; and - evaluating the downward motion data set such that a load bearing capacity criterion is determined.
A segmented scaffold comprising: two or more radially expandable and disconnected polymer scaffold segments arranged end to end, wherein each segment includes two or more undulating cylindrical rings composed of struts, and wherein a ring at an end of a first segment comprises peak undulations projecting longitudinally outward from the end of the first segment and comprises valley undulations extending longitudinally toward the first segment, a ring at an end of a second segment, arranged end to end with the first segment, comprises valley undulations disposed adjacent the ring of the first segment and comprises peak undulations projecting longitudinally outward from the end of the second segment and the peak and valley undulations of each ring overlap each other, the undulating rings of each segment form a plurality of diamond-shaped cells, and at each of the ends alternating diamonds around the rings are omitted to form the peak and valley undulations having a longitudinal length that is a longitudinal length of a diamond-shaped cell. two or more radially expandable and disconnected polymer scaffold segments arranged end to end, wherein each segment includes two or more undulating cylindrical rings composed of struts, and wherein