mhurhangee/ep-ind-claims huggingface dataset:
A method of determining the risk of a subject for harboring lung cancer, comprising: obtaining a biological sample from the subject; measuring the level of CEA in the biological sample; measuring the level of CA125 in the biological sample; measuring the level of CYFRA21-1 in the biological sample; and measuring the level of Pro-SFTPB in the biological sample; wherein the amount of CEA, CA125, CYFRA21-1, and Pro-SFTPB classifies the subject as being at risk of harboring lung cancer or not at risk of harboring lung cancer. obtaining a biological sample from the subject; measuring the level of CEA in the biological sample; measuring the level of CA125 in the biological sample; measuring the level of CYFRA21-1 in the biological sample; and measuring the level of Pro-SFTPB in the biological sample; wherein the amount of CEA, CA125, CYFRA21-1, and Pro-SFTPB classifies the subject as being at risk of harboring lung cancer or not at risk of harboring lung cancer.
A method for producing induced photoreceptor cells from an initial cell, the method comprising providing transcription factors (TFs) comprising GON4L, OTX2 and NEUROD1 to the initial cell, wherein the initial cell is a pluripotent or multipotent mammalian cell, a fibroblast, a retinal progenitor cell, a retinal pigment epithelium cell, a Mueller Glia cell or other cell found in the eye or retina that is not a photoreceptor.
A method for manufacturing a rotor blade component of a rotor blade, the method comprising: feeding a flat sheet of material into a thermoforming system, wherein the material comprises at least one of a thermoplastic material or a thermoset material; heating the flat sheet of material via the thermoforming system; shaping the heated flat sheet of material via at least one roller (68, 70) of the thermoforming system into a U-shaped receptacle; dispensing the shaped sheet of material from the thermoforming system; cooling the shaped sheet of material to at least partially form the rotor blade component; and placing a plurality of pultruded members into the U-shaped receptacle and securing the plurality of pultruded members within the U-shaped receptacle to form the rotor blade component. feeding a flat sheet of material into a thermoforming system, wherein the material comprises at least one of a thermoplastic material or a thermoset material; heating the flat sheet of material via the thermoforming system; shaping the heated flat sheet of material via at least one roller (68, 70) of the thermoforming system into a U-shaped receptacle; dispensing the shaped sheet of material from the thermoforming system; cooling the shaped sheet of material to at least partially form the rotor blade component; and placing a plurality of pultruded members into the U-shaped receptacle and securing the plurality of pultruded members within the U-shaped receptacle to form the rotor blade component.
An audio encoder for encoding a sequence of segments of coefficients, the segments being subsequent to each other in time, the audio encoder comprising a means for providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions; a processor for deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and an entropy encoder for entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the processor and the entropy encoder are configured to operate based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment, and wherein the entropy encoder is an arithmetic encoder. a means for providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions; a processor for deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and an entropy encoder for entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the processor and the entropy encoder are configured to operate based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment, and wherein the entropy encoder is an arithmetic encoder.
Use of water-soluble nitrogen- and phosphorus-containing polysaccharide derivatives, having a nitrogen and phosphorus content of 2.5-25% each, as flame retardants in wood materials and wood composite materials, the hydroxyl groups of which are partially esterified by phosphate groups and carbamate groups, wherein the degree of substitution with respect to the phosphate groups is 0.02-1.5 and the degree of substitution with respect to the carbamate groups is 0.01-0.5.
A far-infrared radiation multi-stage type heating furnace for steel sheets (15-1,..., 15-6) for hot stamping, the far-infrared radiation multi-stage type heating furnace comprising heating units (13-1,..., 13-6), the heating units (13-1,..., 13-6) comprising: blocks (16a,..., 16f) made of a thermal insulation material, the blocks (16a,..., 16f) being disposed around horizontal planes of spaces for accommodating the steel sheets (15-1,..., 15-6) for hot stamping; and far-infrared radiation heaters (14-1,..., 14-7) positioned above and below the steel sheets (15-1,..., 15-6) for hot stamping to heat the steel sheet for hot stamping, the far-infrared radiation multi-stage type heating furnace further comprising: a plurality of first metal strips that receive the far-infrared radiation heaters (14-1,..., 14-7) in such a manner that the far-infrared radiation heaters (14-1,..., 14-7) are disposed horizontally, the first metal strips being aligned in a first direction and disposed so that a direction with greater flexural rigidity thereof corresponds to a direction of gravity; and support pieces that support the plurality of first metal strips in such a manner that the first metal strips are expandable and contractible in a longitudinal direction by thermal expansion or thermal contraction, and wherein the first metal strips are fitted into respective slits or holes formed in the support pieces so as to provide clearance in the slits or holes.
An electrosurgical device comprising: a blade electrode that is movable between a first position and a second position; wherein the electrosurgical device is capable of being switched between a first configuration, and a second configuration so that the electrosurgical device delivers a therapy current through the blade electrode; characterized in that the electrosurgical device includes a spring pin that extends into contact with the blade electrode so that power is provided to the blade electrode through the spring pin when the blade electrode is in the second position and the electrosurgical device is in the second configuration. a blade electrode that is movable between a first position and a second position; wherein the electrosurgical device is capable of being switched between a first configuration, and a second configuration so that the electrosurgical device delivers a therapy current through the blade electrode; characterized in that the electrosurgical device includes a spring pin that extends into contact with the blade electrode so that power is provided to the blade electrode through the spring pin when the blade electrode is in the second position and the electrosurgical device is in the second configuration.
An adhesive or plaster compound for creating an adhesive or plaster layer on a building unit or a base at the construction end comprising a mineral binding agent and at least one filling and/or auxiliary material which have been worked into a paste-like compound through the addition of water and/or another solvent, wherein the adhesive or plaster compound contains at least one layer silicate as the filling material to improve the sorption capacity of an adhesive or plaster layer created therefrom, wherein the proportion of the layer silicate is 3 - 15 % by wt, preferably 5 - 10 % by wt, and wherein the layer silicate has a mean grain size of between 0.2 mm and 2 mm.
A fluid pump comprising: a pump casing; a top cap securable to an upper end of the pump casing and having an air intake port and a fluid discharge port; a fluid discharge tube extending to adjacent a lower end of the pump casing; a first one-way check valve adjacent the lower end of the pump, forming a one-way path to admit fluid into the pump casing during a fill cycle of operation of the pump and a second one-way check valve at the pump's discharge port to release fluid during a discharge cycle; characterised by an auger element disposed inside the pump casing and extending at least partially around the discharge tube such that the discharge tube extends at least partially through the auger element, and the auger element disposed between an outer surface of the fluid discharge tube and an inside surface of the pump casing, the auger element configured to cause a swirling, rotational fluid flow in a first direction about the fluid discharge tube during the discharge cycle, the discharge cycle occurring in response to a jet of compressed air released into the pump casing in which fluid having collected within the pump casing is forced by the jet of compressed air into and up through the discharge tube and out from the pump casing; wherein the swirling, rotational fluid flow helps to clean the inside surface of the pump casing and the outer surface of the fluid discharge tube by breaking loose contaminant particles on the inside surface and the outer surface to remove the contaminant particles. a pump casing; a top cap securable to an upper end of the pump casing and having an air intake port and a fluid discharge port; a fluid discharge tube extending to adjacent a lower end of the pump casing; a first one-way check valve adjacent the lower end of the pump, forming a one-way path to admit fluid into the pump casing during a fill cycle of operation of the pump and a second one-way check valve at the pump's discharge port to release fluid during a discharge cycle; characterised by an auger element disposed inside the pump casing and extending at least partially around the discharge tube such that the discharge tube extends at least partially through the auger element, and the auger element disposed between an outer surface of the fluid discharge tube and an inside surface of the pump casing, the auger element configured to cause a swirling, rotational fluid flow in a first direction about the fluid discharge tube during the discharge cycle, the discharge cycle occurring in response to a jet of compressed air released into the pump casing in which fluid having collected within the pump casing is forced by the jet of compressed air into and up through the discharge tube and out from the pump casing; wherein the swirling, rotational fluid flow helps to clean the inside surface of the pump casing and the outer surface of the fluid discharge tube by breaking loose contaminant particles on the inside surface and the outer surface to remove the contaminant particles.
A double-angle twist drill including a cutting edge including a primary cutting edge that extends partway from a rotation center outward in a radial direction and a secondary cutting edge that extends from the outer end of the primary cutting edge to a periphery of a body, the secondary cutting edge having a point angle (α2) that is different from a point angle (α1) of the primary cutting edge, characterised in that a skew angle (γ) of the secondary cutting edge with respect to a rotation axis in a side view of the drill is in the range of -5° to +5°, in that a rake face of the secondary cutting edge is formed as a curved surface that is the same as a helical flute that forms the primary cutting edge, and in that a part of a flute face of the helical flute that extends along a leading edge is convexly curved with respect to the normal direction of rotation of the drill and intersects a margin face at the periphery of the body.
A corner fitting for a door element, which can be arranged on a center of rotation and/or an axis and which has a first fitting element and a second fitting element, which each have, at least in sections, an abutting section for abutment against the door element and which can be connected to one another while clamping the door element, wherein a clamping region is formed between both fitting elements (4, 5) into which the door element can be inserted, and the fitting elements (4, 5) are designed in such manner that a retaining element is arranged between both fitting elements (4, 5) which can be displaced relative to the fitting elements (4, 5) and which can be connected at least to one fitting element (4, 5) in a non-positive and/or positive manner, wherein the retaining element is operatively connected to a connection element, which serves to mount the door element on the center of rotation and/or the axis, wherein - the fitting elements (4, 5) have a free space as a guide in which the retaining element can be moved, wherein - the free space in each case has a recess (11.1) in each of the fitting elements (4, 5), wherein the recesses (11.1) run along the longitudinal extension of the fitting elements (4, 5), wherein the recesses (11.1) run at the same height and parallel to one another in the two fitting elements (4, 5), and wherein - the retaining element has a connection part (8.2), to which the connection element is fastened, wherein in particular the head part (8.1) and the connection part (8.2) form a monolithic and/or one-piece part, characterized in that the retaining element is designed as a T profile and is movably mounted in the recesses (11.1) with a head part (8.1). - the fitting elements (4, 5) have a free space as a guide in which the retaining element can be moved, wherein - the free space in each case has a recess (11.1) in each of the fitting elements (4, 5), wherein the recesses (11.1) run along the longitudinal extension of the fitting elements (4, 5), wherein the recesses (11.1) run at the same height and parallel to one another in the two fitting elements (4, 5), and wherein - the retaining element has a connection part (8.2), to which the connection element is fastened, wherein in particular the head part (8.1) and the connection part (8.2) form a monolithic and/or one-piece part, characterized in that the retaining element is designed as a T profile and is movably mounted in the recesses (11.1) with a head part (8.1).
Flowmeter transmitter comprising: at least one processing device; and a storage device, configured to store instructions for causing the at least one processing device to: induce motion in a conduit such that the conduit oscillates in a first mode of vibration and a second mode of vibration, the first mode of vibration having a corresponding first frequency of vibration and the second mode of vibration having a corresponding second frequency of vibration, wherein the conduit contains a fluid; determine the first frequency of vibration; determine the second frequency of vibration; and calculate the density of the fluid based on the first frequency of vibration and the second frequency of vibration characterized in that the density of the fluid is calculated using ρ 0 = 1 2 ⁢ D 4 + E 4 + 4 ⁢ D 2 ⁢ E 2 ω 1 2 ⁢ ω 2 2 + D 4 - E 4 2, where ω 1 is the first frequency, ω 2 is the second frequency, and D 2, D 4, E 2, and E 4 are calibration constants related to physical properties of the conduit. at least one processing device; and a storage device, configured to store instructions for causing the at least one processing device to: induce motion in a conduit such that the conduit oscillates in a first mode of vibration and a second mode of vibration, the first mode of vibration having a corresponding first frequency of vibration and the second mode of vibration having a corresponding second frequency of vibration, wherein the conduit contains a fluid; determine the first frequency of vibration; determine the second frequency of vibration; and calculate the density of the fluid based on the first frequency of vibration and the second frequency of vibration induce motion in a conduit such that the conduit oscillates in a first mode of vibration and a second mode of vibration, the first mode of vibration having a corresponding first frequency of vibration and the second mode of vibration having a corresponding second frequency of vibration, wherein the conduit contains a fluid; determine the first frequency of vibration; determine the second frequency of vibration; and calculate the density of the fluid based on the first frequency of vibration and the second frequency of vibration
An oligomeric compound comprising a modified oligonucleotide consisting of 14-25 linked nucleosides, wherein the modified oligonucleotide is complementary to an SMN2 pre-mRNA; and wherein at least one nucleoside of the modified oligonucleotide comprises a 2'-O-(N-alkyl acetamide) modified sugar moiety.
A method for transmitting data by a base station capable of simultaneously communicating with at least two mobile stations in a multi-user wireless communication system, comprising: transmitting data to the at least two mobile stations simultaneously characterized in that when data to be transmitted to each mobile station has a different size, differentiating at least one interval in which data is transmitted together to each mobile station in an identical time band; and configuring a data field by setting, according to interference varying depending on the simultaneous transmitting data to the at least two mobile stations, a different modulation and coding rate of the data field for any differentiated interval and transmitting the data field to each mobile station. transmitting data to the at least two mobile stations simultaneously characterized in that when data to be transmitted to each mobile station has a different size, differentiating at least one interval in which data is transmitted together to each mobile station in an identical time band; and configuring a data field by setting, according to interference varying depending on the simultaneous transmitting data to the at least two mobile stations, a different modulation and coding rate of the data field for any differentiated interval and transmitting the data field to each mobile station.
A modified alcohol dehydrogenase that exhibits activity with cofactor NADH as compared to an unmodified alcohol dehydrogenase; and wherein the modified alcohol dehydrogenase has a sequence selected from: SEQ ID NO: 3 (mutations 1173C and G198E), SEQ ID NO: 5 (mutations G198E and Y218F), SEQ ID NO: 6 (mutations G198E and Y218P), SEQ ID NO: 7 (mutations G198E and Y218A), SEQ ID NO: 8 (mutations G198E and Y218W), SEQ ID NO: 9 (mutations G198E and S199D), SEQ ID NO: 10 (mutations G198E and S199I), SEQ ID NO: 12 (mutations G198E and G244L), SEQ ID NO: 13 (mutations G198E and G244C), SEQ ID NO: 14 (mutations G198E and E247D), SEQ ID NO: 15 (mutations G198E and E247N), SEQ ID NO: 16 (mutations G198E and E247Q), SEQ ID NO: 18 (mutations G198D and S199I), SEQ ID NO: 19 (mutations G198D and S199G), SEQ ID NO: 20 (mutations G198D and Y218F), SEQ ID NO: 21 (mutations G198D and Y218P), SEQ ID NO: 22 (mutations G198D and Y218W), SEQ ID NO: 25 (mutations G198D, S199V, and P201R), or SEQ ID NO: 26 (mutations G198L and S199D). SEQ ID NO: 3 (mutations 1173C and G198E), SEQ ID NO: 5 (mutations G198E and Y218F), SEQ ID NO: 6 (mutations G198E and Y218P), SEQ ID NO: 7 (mutations G198E and Y218A), SEQ ID NO: 8 (mutations G198E and Y218W), SEQ ID NO: 9 (mutations G198E and S199D), SEQ ID NO: 10 (mutations G198E and S199I), SEQ ID NO: 12 (mutations G198E and G244L), SEQ ID NO: 13 (mutations G198E and G244C), SEQ ID NO: 14 (mutations G198E and E247D), SEQ ID NO: 15 (mutations G198E and E247N), SEQ ID NO: 16 (mutations G198E and E247Q), SEQ ID NO: 18 (mutations G198D and S199I), SEQ ID NO: 19 (mutations G198D and S199G), SEQ ID NO: 20 (mutations G198D and Y218F), SEQ ID NO: 21 (mutations G198D and Y218P), SEQ ID NO: 22 (mutations G198D and Y218W), SEQ ID NO: 25 (mutations G198D, S199V, and P201R), or SEQ ID NO: 26 (mutations G198L and S199D).
A lighting system comprising: a light transmitting or light generating area; and a side wall or a set of side walls (14a,14b,14c,14d) around the light transmitting or light generating area, defining a recess, wherein: the light transmitting or light generating area is located at the base of the recess, and the side wall, or at least one of the side walls is provided with a lighting arrangement for controlling the color and/or intensity and/or contrast of the illumination and/or shape from which light is provided by the side wall or side walls, or provided by an opposing side wall or side walls, characterised by said side wall or at least one of the side walls further comprising a rectangular light emitting area formed from two independently controllable triangular light emitting areas (50,52). a light transmitting or light generating area; and a side wall or a set of side walls (14a,14b,14c,14d) around the light transmitting or light generating area, defining a recess, wherein: the light transmitting or light generating area is located at the base of the recess, and the side wall, or at least one of the side walls is provided with a lighting arrangement for controlling the color and/or intensity and/or contrast of the illumination and/or shape from which light is provided by the side wall or side walls, or provided by an opposing side wall or side walls, characterised by said side wall or at least one of the side walls further comprising a rectangular light emitting area formed from two independently controllable triangular light emitting areas (50,52). the light transmitting or light generating area is located at the base of the recess, and the side wall, or at least one of the side walls is provided with a lighting arrangement for controlling the color and/or intensity and/or contrast of the illumination and/or shape from which light is provided by the side wall or side walls, or provided by an opposing side wall or side walls, characterised by said side wall or at least one of the side walls further comprising a rectangular light emitting area formed from two independently controllable triangular light emitting areas (50,52).