mhurhangee/ep-ind-claims huggingface dataset:
Heat accumulator with a supply device for the energy to be accumulated in the form of heat, for the long term-stable and uniform capacity output of heat, comprised of refractory bulk matter (2, 2') which, upon heating, has the capability of accumulating heat, wherein for the heat-withdrawal tubes (3, 3', 3") are embedded into the bulk matter (2, 2') which serve for heating and/or vaporizing a medium acting upon the tubes (3, 3', 3") and transporting heat, characterized in that the tubes (3, 3', 3") are circumjacent with a metal cladding (4, 5, 10) whose melting point is below the operating temperature of the heat accumulator (1, 1'), wherein the cladding (4, 5, 10) liquefies with each heating of the heat accumulator (1, 1') and the liquefied or paste-like metal of the cladding (4, 5, 10) closes the air gaps, that form during the heating between bulk matter (2, 2') and tube (3, 3', 3"), by being capable of developing a metal bridge as well as of compensating the differences resulting through the varied thermal expansions of the materials utilized.
A method to predict responsiveness of a patient, with cancer, to a therapy, said method comprising detecting the mRNA expression level of a four-gene signature consisting of MDM2, XPC, BBC3 and CDKN2A and using that level as a biomarker for predicting the patient's response to a compound, wherein the compound is an inhibitor of the MDM2-p53 interaction, and wherein the response is a response to cancer therapy in a patient and the biomarker is measured in vitro in a sample or samples taken from the patient.
Particles of an acrylic polymer comprising a constituent unit derived from methyl methacrylate and a constituent unit derived from a (meth)acrylic acid alkyl ester in which the alkyl group has 2 to 8 carbon atoms, wherein the moisture content in the particles is 5% or less by mass, and the particles have a sodium element amount of 3.5 to 50 ppm, measured by using a high frequency inductively coupled plasma light emission spectrophotometer.
A composition comprising a nucleic acid encoding a first TALEN protein, wherein the first TALEN protein is capable of inducing a site-specific double stranded DNA break in a COL7A1 gene in a cell, the COL7A1 gene having a genetic mutation capable of causing epidermolysis bullosa, and a nucleic acid donor sequence, wherein the donor sequence is a template for correction of the genetic mutation in the COL7A1 gene.
A system for characterizing a sample using second harmonic generation, the system comprising: a sample holder configured to support a sample; an optical source configured to direct a light beam onto said sample to produce second harmonic generation light; at least one beamsplitter disposed in an optical path between said optical source and said sample, said beamsplitter configured to separate said light from said optical source into a plurality of beams that are incident at a plurality of locations on said sample such that said plurality of beams produce a plurality of second harmonic generation signals; an optical detection system configured to receive second harmonic generated light from said sample, said optical detection system comprising at least one detector array, respective ones of said plurality of beams from said at least one beam splitter configured to produce respective SHG signals that are directed to respective regions of said of at least one detector array; projection optics (7114, 7116) configured to project second harmonic generation light from said sample onto said at least one detector array; and processing electronics configured to receive signals from said detector array. a sample holder configured to support a sample; an optical source configured to direct a light beam onto said sample to produce second harmonic generation light; at least one beamsplitter disposed in an optical path between said optical source and said sample, said beamsplitter configured to separate said light from said optical source into a plurality of beams that are incident at a plurality of locations on said sample such that said plurality of beams produce a plurality of second harmonic generation signals; an optical detection system configured to receive second harmonic generated light from said sample, said optical detection system comprising at least one detector array, respective ones of said plurality of beams from said at least one beam splitter configured to produce respective SHG signals that are directed to respective regions of said of at least one detector array; projection optics (7114, 7116) configured to project second harmonic generation light from said sample onto said at least one detector array; and processing electronics configured to receive signals from said detector array.
Heat generator for heating environments comprising a main frame delimiting a combustion chamber, said generator further including a door for opening/closing an opening for accessing to the combustion chamber, said frame delimiting a first circuit for the passage of ambient air to be heated in the generator and conveyed into the environment around said generator, a second circuit for transmitting comburent air from the external environment to the generator in the combustion chamber and a third circuit for the intake or discharge of the combustion fumes from the combustion chamber to the outside, wherein said generator comprises at least one duct for recirculating the combustion fumes from the third circuit or from suction or thrust means provided in the same or for the same in the combustion chamber and/or in the second circuit and/or in a brazier of the generator in the combustion chamber, wherein said second circuit extends from the rear up to the combustion chamber, wherein said generator delimits an intake opening open towards the rear of the generator from which a supply duct of the second circuit branches off and flows into a box-shaped body of the second circuit, said box-shaped body being open towards the combustion chamber through a window. wherein said second circuit extends from the rear up to the combustion chamber, wherein said generator delimits an intake opening open towards the rear of the generator from which a supply duct of the second circuit branches off and flows into a box-shaped body of the second circuit, said box-shaped body being open towards the combustion chamber through a window.
A wafer flipping method for use in semiconductor processing of semiconductor work products of a plurality of predetermined sizes, the method comprising: receiving a semiconductor work product of a first predetermined size in a rotating assembly when in a first unrotated position, the rotating assembly having a plurality of retractable pins each one of said retractable pins corresponding to a respective predetermined size; gripping the semiconductor work product in the assembly at a first rotation position; selecting the one of said retractable pins corresponding to said first predetermined size; aligning the semiconductor work product in the assembly using said selected retractable pin; rotating the assembly with the semiconductor work product thereon into a second, rotated, position; releasing the semiconductor work product from said second, rotated, position. receiving a semiconductor work product of a first predetermined size in a rotating assembly when in a first unrotated position, the rotating assembly having a plurality of retractable pins each one of said retractable pins corresponding to a respective predetermined size; gripping the semiconductor work product in the assembly at a first rotation position; selecting the one of said retractable pins corresponding to said first predetermined size; aligning the semiconductor work product in the assembly using said selected retractable pin; rotating the assembly with the semiconductor work product thereon into a second, rotated, position; releasing the semiconductor work product from said second, rotated, position.
A high concentration NO 2 gas generating system comprising: a circulating path configured by connecting a chamber, a plasma generator, and a circulating means; wherein the system is so configured that NO 2 is generated by circulating a gas mixture including nitrogen and oxygen in the circulating path, wherein the circulating means is a pressure device, and the circulating path is configured by connecting the plasma generator to the chamber at a downstream side of the path, connecting the pressure device to the plasma generator at a downstream side of the path, and connecting the chamber to the pressure device at a downstream side of the path, wherein a flow resistive portion is connected between the chamber and the plasma generator. wherein the circulating means is a pressure device, and the circulating path is configured by connecting the plasma generator to the chamber at a downstream side of the path, connecting the pressure device to the plasma generator at a downstream side of the path, and connecting the chamber to the pressure device at a downstream side of the path, wherein a flow resistive portion is connected between the chamber and the plasma generator.
A spinning unit characterized by comprising: a draft device which drafts a fiber bundle, a spinning device which produces a spun yearn from the fiber bundle drafted by the draft device, a tension stabilizing device which is a yarn accumulating device and stabilizes tension of the spun yarn produced by the spinning device, a winding device which winds a package of the spun yarn fed from the tension stabilizing device, and a yarn defect detecting device which is arranged between the spinning device and the tension stabilizing device and detects a yarn defect in the spun yarn. a draft device which drafts a fiber bundle, a spinning device which produces a spun yearn from the fiber bundle drafted by the draft device, a tension stabilizing device which is a yarn accumulating device and stabilizes tension of the spun yarn produced by the spinning device, a winding device which winds a package of the spun yarn fed from the tension stabilizing device, and a yarn defect detecting device which is arranged between the spinning device and the tension stabilizing device and detects a yarn defect in the spun yarn.
A light emitting diode, LED, package (200, 300, 400, 500) comprising: a submount (204, 304, 404, 508); at least one LED (202, 302, 402, 502, 504, 506) on said submount that emits LED light in an LED emission profile having different colors when viewed at different viewing angles; and an encapsulant (206, 308, 406, 510) over said LED; and a scattering particle layer (209, 306, 412, 514a-c) on said encapsulant having regions of different scattering particles to compensate for the LED emission of different colors when viewed at different angles, said scattering particle layer having a first scattering particle region (210, 310, 412, 514a) comprising a plurality of first scattering particles (211, 311, 413) to scatter a first target wavelength and a second scattering particle region (212, 312, 414, 514b), different from the first scattering particle region, comprising a plurality of second scattering particles (213, 313, 415) to scatter a second target wavelength different from said first target wavelength, said first and second scattering particles arranged around said LED to scatter said LED light to improve the uniformity of said LED emission profile, characterized in that said first and second scattering particles are arranged in the respective first and second scattering particle regions disposed angularly around said LED to cover respective different emission angles, so that the light emitted from the LED passes through only one of the regions. a submount (204, 304, 404, 508); at least one LED (202, 302, 402, 502, 504, 506) on said submount that emits LED light in an LED emission profile having different colors when viewed at different viewing angles; and an encapsulant (206, 308, 406, 510) over said LED; and a scattering particle layer (209, 306, 412, 514a-c) on said encapsulant having regions of different scattering particles to compensate for the LED emission of different colors when viewed at different angles, said scattering particle layer having a first scattering particle region (210, 310, 412, 514a) comprising a plurality of first scattering particles (211, 311, 413) to scatter a first target wavelength and a second scattering particle region (212, 312, 414, 514b), different from the first scattering particle region, comprising a plurality of second scattering particles (213, 313, 415) to scatter a second target wavelength different from said first target wavelength, said first and second scattering particles arranged around said LED to scatter said LED light to improve the uniformity of said LED emission profile, characterized in that said first and second scattering particles are arranged in the respective first and second scattering particle regions disposed angularly around said LED to cover respective different emission angles, so that the light emitted from the LED passes through only one of the regions.
A method of preparing a tissue composition, comprising: providing a tissue sample, wherein the tissue sample comprises a muscle portion and a fascia portion harvested without separating the muscle portion of the tissue from the fascia portion of the tissue; and processing the tissue sample to produce at least one decellularized musculofascial matrix. providing a tissue sample, wherein the tissue sample comprises a muscle portion and a fascia portion harvested without separating the muscle portion of the tissue from the fascia portion of the tissue; and processing the tissue sample to produce at least one decellularized musculofascial matrix.
A electric actuator having an internal load apparatus, comprising: a drive system and a drive shaft operatively coupled to the drive system, wherein rotation of the drive system in a first rotational direction causes the drive shaft to move in a first rectilinear direction and rotation of the drive system in a second rotational direction causes the drive shaft to move in a second rectilinear direction opposite the first rectilinear direction, and wherein the drive system is configured to transmit torque to the drive shaft which enables a flow control member of a fluid valve to engage a valve seat; and a biasing element; characterized in that: the biasing element is operatively coupled to the drive system such that in operation at least a portion of the drive system moves axially towards the biasing element to deflect the biasing element when the drive shaft reaches an end of stroke position to provide a seat load to the flow control member when electric power to the electric actuator is removed, and the biasing element is in a substantially non-deflected condition when the drive shaft moves toward the fluid valve. a drive system and a drive shaft operatively coupled to the drive system, wherein rotation of the drive system in a first rotational direction causes the drive shaft to move in a first rectilinear direction and rotation of the drive system in a second rotational direction causes the drive shaft to move in a second rectilinear direction opposite the first rectilinear direction, and wherein the drive system is configured to transmit torque to the drive shaft which enables a flow control member of a fluid valve to engage a valve seat; and a biasing element; characterized in that: the biasing element is operatively coupled to the drive system such that in operation at least a portion of the drive system moves axially towards the biasing element to deflect the biasing element when the drive shaft reaches an end of stroke position to provide a seat load to the flow control member when electric power to the electric actuator is removed, and the biasing element is in a substantially non-deflected condition when the drive shaft moves toward the fluid valve. the biasing element is operatively coupled to the drive system such that in operation at least a portion of the drive system moves axially towards the biasing element to deflect the biasing element when the drive shaft reaches an end of stroke position to provide a seat load to the flow control member when electric power to the electric actuator is removed, and the biasing element is in a substantially non-deflected condition when the drive shaft moves toward the fluid valve.
A method for searching, by a terminal, for a network, the method comprising: adding, by the terminal, a mode in which the terminal searches for a wideband code division multiple access, WCDMA, network to a list of modes in which the terminal searches for communication networks, when a subscriber identity module, SIM, card inserted into the terminal belongs to a first operator not supporting a WCDMA standard, wherein the communication networks are supported by the first operator in a home place of the terminal and not supported by a second operator in a visited place, and wherein the WCDMA standard is supported by the second operator in the visited place; searching, by the terminal, the communication networks according to the list of modes in which the terminal searches for the communication networks, when the terminal roams to the visited place; residing in a first WCDMA network to acquire location information of the visited place; and registering in a WCDMA network using the location information of the visited place. adding, by the terminal, a mode in which the terminal searches for a wideband code division multiple access, WCDMA, network to a list of modes in which the terminal searches for communication networks, when a subscriber identity module, SIM, card inserted into the terminal belongs to a first operator not supporting a WCDMA standard, wherein the communication networks are supported by the first operator in a home place of the terminal and not supported by a second operator in a visited place, and wherein the WCDMA standard is supported by the second operator in the visited place; searching, by the terminal, the communication networks according to the list of modes in which the terminal searches for the communication networks, when the terminal roams to the visited place; residing in a first WCDMA network to acquire location information of the visited place; and registering in a WCDMA network using the location information of the visited place.
Door, comprising a door blank (100; 200; 300; 400) with acetylated wood, comprising: - a frame (120; 220; 320; 420) that extends around a significant extent of the door blank (100; 200; 300; 400), and - a core (110; 210; 310; 410), which is essentially surrounded by the frame (120; 220; 320; 420), wherein only the frame (120; 220; 320; 420) of the door blank (100; 200; 300; 400), at least in sections, has acetylated wood, wherein the frame (120; 220; 320; 420) comprises a majority of elongated elements (122a-122e, 124a-124d; 222a-222e, 224a-224d; 322a-322f, 324a-324d; 422a-422d, 424b, 424d), which extend around the core (110; 210; 310; 410) and therefore essentially define the circumference of the door blank (100; 200; 300; 400), wherein at least one of the elongated elements (122a-122d; 222a-222d; 322a-322d; 422a-422d) is made of acetylated wood, as well as a front side cover plate, which essentially extends across the entire front face of the door blank (100; 200; 300; 400), and/or a rear face cover plate, which essentially extends across the entire rear face of the door blank (100; 200; 300; 400), wherein the front side cover plate and/or the rear side cover plate is made of acetylated wood, wherein the front side cover plate and/or the rear side cover plate is an acetylated MDF press plate. - a frame (120; 220; 320; 420) that extends around a significant extent of the door blank (100; 200; 300; 400), and - a core (110; 210; 310; 410), which is essentially surrounded by the frame (120; 220; 320; 420),
An isolated polypeptide having glucoamylase activity, selected from the group consisting of: (a) a polypeptide comprising an amino acid sequence having at least 85%, more preferably at least 90%, more preferably at least 91%, more preferably at least 92%, even more preferably at least 93%, most preferably at least 94%, and even most preferably at least 95%, such as even at least 96%, at least 97%, at least 98%, at least 99% or 100% identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide comprising a nucleotide sequence having at least 85%, more preferably at least 90%, more preferably at least 91%, more preferably at least 92%, even more preferably at least 93%, most preferably at least 94%, and even most preferably at least 95%, such as even at least 96%, at least 97%, at least 98%, at least 99% or 100% identity to the mature polypeptide coding sequence of SEQ ID NO: 1 (a) a polypeptide comprising an amino acid sequence having at least 85%, more preferably at least 90%, more preferably at least 91%, more preferably at least 92%, even more preferably at least 93%, most preferably at least 94%, and even most preferably at least 95%, such as even at least 96%, at least 97%, at least 98%, at least 99% or 100% identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide encoded by a polynucleotide comprising a nucleotide sequence having at least 85%, more preferably at least 90%, more preferably at least 91%, more preferably at least 92%, even more preferably at least 93%, most preferably at least 94%, and even most preferably at least 95%, such as even at least 96%, at least 97%, at least 98%, at least 99% or 100% identity to the mature polypeptide coding sequence of SEQ ID NO: 1