mhurhangee/ep-ind-claims huggingface dataset:
A reception method, comprising: receiving data via a channel in a first band; receiving data via a channel in a second band; and determining whether interference is sensed and thereby selecting one of the data received via the channel in the first band and the data received via the channel in the second band (S520-S550), characterised in that: in the selecting operation (S530-S550), the data received via the channel in the first band are selected if interference is not sensed in the channel in the first band, and the data received via the channel in the second band are selected if interference is sensed in the channel in the first band; and further, in the selecting operation (S530-S550), if data are received via a channel in the first band, after selecting the data received via the channel in the second band, the data received via the channel in the first band are selected. receiving data via a channel in a first band; receiving data via a channel in a second band; and determining whether interference is sensed and thereby selecting one of the data received via the channel in the first band and the data received via the channel in the second band (S520-S550), characterised in that: in the selecting operation (S530-S550), the data received via the channel in the first band are selected if interference is not sensed in the channel in the first band, and the data received via the channel in the second band are selected if interference is sensed in the channel in the first band; and further, in the selecting operation (S530-S550), if data are received via a channel in the first band, after selecting the data received via the channel in the second band, the data received via the channel in the first band are selected. in the selecting operation (S530-S550), the data received via the channel in the first band are selected if interference is not sensed in the channel in the first band, and the data received via the channel in the second band are selected if interference is sensed in the channel in the first band; and further, in the selecting operation (S530-S550), if data are received via a channel in the first band, after selecting the data received via the channel in the second band, the data received via the channel in the first band are selected.
A zoned moisture management shirt, comprising: two or more garment areas selected from at least a front shoulder area, a chest area, an abdomen area, a front armpit area, a back shoulder area, an upper back area, an back armpit area, and a lower back area and wherein each of the two or more garment areas comprises a zone, wherein each zone comprises: a first fabric layer (503, 510, 515, 521) comprising a first non-dissolvable yarn (302, 315) and a first dissolvable yarn (304, 314); and a second fabric layer (502, 508, 513, 518) comprising a second non-dissolvable yarn (301, 312) and a second dissolvable yarn (303, 313), wherein: at least one zone of the shirt has at least one of the first or second dissolvable yarn dissolved; each zone has a different proportion of the dissolvable yarns; and the first fabric layer is formed from yarn of different tex (denier) or thickness than the yarn from which the second fabric layer is formed. two or more garment areas selected from at least a front shoulder area, a chest area, an abdomen area, a front armpit area, a back shoulder area, an upper back area, an back armpit area, and a lower back area and wherein each of the two or more garment areas comprises a zone, wherein each zone comprises: a first fabric layer (503, 510, 515, 521) comprising a first non-dissolvable yarn (302, 315) and a first dissolvable yarn (304, 314); and a second fabric layer (502, 508, 513, 518) comprising a second non-dissolvable yarn (301, 312) and a second dissolvable yarn (303, 313), wherein: at least one zone of the shirt has at least one of the first or second dissolvable yarn dissolved; each zone has a different proportion of the dissolvable yarns; and the first fabric layer is formed from yarn of different tex (denier) or thickness than the yarn from which the second fabric layer is formed. a first fabric layer (503, 510, 515, 521) comprising a first non-dissolvable yarn (302, 315) and a first dissolvable yarn (304, 314); and a second fabric layer (502, 508, 513, 518) comprising a second non-dissolvable yarn (301, 312) and a second dissolvable yarn (303, 313), wherein: at least one zone of the shirt has at least one of the first or second dissolvable yarn dissolved; each zone has a different proportion of the dissolvable yarns; and the first fabric layer is formed from yarn of different tex (denier) or thickness than the yarn from which the second fabric layer is formed. at least one zone of the shirt has at least one of the first or second dissolvable yarn dissolved; each zone has a different proportion of the dissolvable yarns; and the first fabric layer is formed from yarn of different tex (denier) or thickness than the yarn from which the second fabric layer is formed.
A compound of the formula wherein: R 1 = H, R 2 and R 3 can be independently or both H or OH, A, B, C, D = independently N or CH, X, Y, Z, W = independently N or CH, G = O, NR, S or CH 2, R = H, lower alkyl or aryl, and, n = 0, 1, 2, 3 or 4; and pharmaceutically acceptable salts thereof, wherein lower alkyl refers to substituted, unsubstituted, branched or unbranched alkyl groups having 1-6 carbon atoms. R 1 = H, R 2 and R 3 can be independently or both H or OH, A, B, C, D = independently N or CH, X, Y, Z, W = independently N or CH, G = O, NR, S or CH 2, R = H, lower alkyl or aryl, and, n = 0, 1, 2, 3 or 4; and pharmaceutically acceptable salts thereof, wherein lower alkyl refers to substituted, unsubstituted, branched or unbranched alkyl groups having 1-6 carbon atoms.
A method of printing a digital image on a substrate attached to a panel with at least one Piezo print head, the method comprising: • providing a water-based ink comprising: ∘ an aqueous pigment mix comprising pigments, ∘ a binder comprising an acrylic resin dispersion, preferably a thermally crosslinkable acrylate copolymer dispersion, and ∘ a viscosity increasing substance comprising glycol and/or glycerine, • providing a steric stabilisation of the pigments and adapting the size of the pigments and the viscosity of the water-based ink such that a settling velocity of the pigments exceeds 0.001 mm/min at 25°C, • circulating said water-based ink within said at least one Piezo print head for preventing pigment sedimentation, • printing a digital image with said at least one Piezo print head by applying ink drops of said water-based ink on the substrate, and • applying heat and pressure to the substrate after printing, wherein the water-based ink is configured such that after sedimentation of the ink, the ink resumes its original properties after being stirred, and wherein the substrate is powder based. • providing a water-based ink comprising: ∘ an aqueous pigment mix comprising pigments, ∘ a binder comprising an acrylic resin dispersion, preferably a thermally crosslinkable acrylate copolymer dispersion, and ∘ a viscosity increasing substance comprising glycol and/or glycerine, ∘ an aqueous pigment mix comprising pigments, ∘ a binder comprising an acrylic resin dispersion, preferably a thermally crosslinkable acrylate copolymer dispersion, and ∘ a viscosity increasing substance comprising glycol and/or glycerine, • providing a steric stabilisation of the pigments and adapting the size of the pigments and the viscosity of the water-based ink such that a settling velocity of the pigments exceeds 0.001 mm/min at 25°C, • circulating said water-based ink within said at least one Piezo print head for preventing pigment sedimentation, • printing a digital image with said at least one Piezo print head by applying ink drops of said water-based ink on the substrate, and • applying heat and pressure to the substrate after printing, wherein the water-based ink is configured such that after sedimentation of the ink, the ink resumes its original properties after being stirred, and wherein the substrate is powder based.
A memory circuit comprising: a plurality of memory cells coupled to a virtual voltage rail (291, 292); a switching circuit coupled between the virtual voltage rail (291, 292) and a voltage supply node; and a comparator coupled to compare a voltage level present on the virtual voltage rail (291, 292) to a reference voltage and configured to provide an output signal based on the comparison; wherein the switching circuit is configured to electrically couple the virtual voltage rail (291, 292) to the voltage supply node depending upon the output signal; characterized in that the memory circuit further comprises: a timing unit coupled to provide a signal to selectively enable the comparator; and a programmable unit configured to store one or more values to control a frequency and/or a duty cycle of the signal provided from the timing unit. a plurality of memory cells coupled to a virtual voltage rail (291, 292); a switching circuit coupled between the virtual voltage rail (291, 292) and a voltage supply node; and a comparator coupled to compare a voltage level present on the virtual voltage rail (291, 292) to a reference voltage and configured to provide an output signal based on the comparison; wherein the switching circuit is configured to electrically couple the virtual voltage rail (291, 292) to the voltage supply node depending upon the output signal; characterized in that the memory circuit further comprises: a timing unit coupled to provide a signal to selectively enable the comparator; and a programmable unit configured to store one or more values to control a frequency and/or a duty cycle of the signal provided from the timing unit.
An interferon alpha subtype, wherein the interferon alpha subtype is IFN-α14, HYBRID 1, HYBRID 2 or a combination of at least two of IFN-α14, HYBRID 1, and HYBRID 2 for use in the treatment and/or prophylaxis of pruritus, prurigo or neutrophilic dermatoses; wherein the IFN-α14 comprises or consists of an amino acid sequence SEQ ID NO:1; wherein the interferon alpha subtype HYBRID 1 comprises or consists of an amino acid sequence SEQ ID NO:2; and wherein the interferon alpha subtype HYBRID 2 comprises or consists of an amino acid sequence SEQ ID NO:3.
Method for casting castings, in which a molten metal is poured into a casting mold which encloses a cavity forming the casting to be produced, the casting mold consisting as a lost mold of one or more casting mold parts or -cores which are formed from a molding material consisting of a core sand, a binder and optionally one or more additives for adjusting certain properties of the molding material, comprising the following working steps: - providing the casting mold; - encasing the casting mold in a housing, forming a filling space between at least one inner surface section of the housing and an associated outer surface section of the casting mold; - filling of the filling space with a free-flowing filling material, wherein the filling material filled into the filling space has such a low bulk density that a gas flow (S1, S2) can flow through the filling material package formed there from the filling material after the filling space has been filled; and - pouring the molten metal into the casting mold, - wherein the casting mold begins to radiate heat as the molten metal is poured in, as a result of the heat input caused by the hot molten metal, and - wherein as a result of the heat input caused by the molten metal, the binder of the molding material begins to evaporate and burn, so that it loses its effect and the casting mold breaks up into fragments, characterized in that the filling material has a filling material temperature of less than 100 °C when it is filled into the filling space. - providing the casting mold; - encasing the casting mold in a housing, forming a filling space between at least one inner surface section of the housing and an associated outer surface section of the casting mold; - filling of the filling space with a free-flowing filling material, wherein the filling material filled into the filling space has such a low bulk density that a gas flow (S1, S2) can flow through the filling material package formed there from the filling material after the filling space has been filled; and - pouring the molten metal into the casting mold, - wherein the casting mold begins to radiate heat as the molten metal is poured in, as a result of the heat input caused by the hot molten metal, and - wherein as a result of the heat input caused by the molten metal, the binder of the molding material begins to evaporate and burn, so that it loses its effect and the casting mold breaks up into fragments, - wherein the casting mold begins to radiate heat as the molten metal is poured in, as a result of the heat input caused by the hot molten metal, and - wherein as a result of the heat input caused by the molten metal, the binder of the molding material begins to evaporate and burn, so that it loses its effect and the casting mold breaks up into fragments,
An organic light emitting diode display comprising pixels in which each pixel has a driving thin film transistor for adjusting the current flowing through an organic light emitting diode based on a voltage applied to a gate electrode of the driving thin film transistor, the organic light emitting diode display further comprising: a signal line adjacent to the gate electrode of the driving thin film transistor; and a first shielding electrode connected to a first constant voltage source (EVDD) and located above the gate electrode of the driving thin film transistor, with a first insulating layer therebetween, wherein the first shielding electrode protrudes further towards the signal line than the gate electrode of the driving thin film transistor, characterized by a second shielding electrode located below the gate electrode of the driving thin film transistor with a second insulating layer therebetween wherein the second shielding electrode is connected to a second constant voltage source (EVDD) and protrudes further towards the signal line than the gate electrode of the driving thin film transistor, and wherein the first shielding electrode overlaps the gate electrode of the driving thin film transistor and the gate electrode of the driving thin film transistor overlaps the second shielding electrode. a signal line adjacent to the gate electrode of the driving thin film transistor; and a first shielding electrode connected to a first constant voltage source (EVDD) and located above the gate electrode of the driving thin film transistor, with a first insulating layer therebetween, wherein the first shielding electrode protrudes further towards the signal line than the gate electrode of the driving thin film transistor, characterized by a second shielding electrode located below the gate electrode of the driving thin film transistor with a second insulating layer therebetween wherein the second shielding electrode is connected to a second constant voltage source (EVDD) and protrudes further towards the signal line than the gate electrode of the driving thin film transistor, and wherein the first shielding electrode overlaps the gate electrode of the driving thin film transistor and the gate electrode of the driving thin film transistor overlaps the second shielding electrode.
A corrugated synthetic resin pipe with a joint, the joint being located at a connected-side end portion of the corrugated synthetic resin pipe, for connecting the pipe with another corrugated synthetic resin pipe, wherein the joint is provided with a socket portion that is cylindrically extended from the connected-side end portion of the corrugated synthetic resin pipe, and the socket portion is comprised of a composite body including a compact that is molded into a cylindrical shape and an FRP layer (7c, 9b, 12b) that is laminated at least on an outer circumferential surface of the compact, characterised in that the compact is a foamed compact, and in that the connected-side end portion of the corrugated synthetic resin pipe has a helical-groove filling layer (6, 10, 11) that fills and smooths a helical-groove of the corrugation, and the corrugated synthetic resin pipe and the socket portion are connected with each other by the helical-groove filling layer (6, 10, 11).
A method of wireless communication characterised by: determining (504, 510) a phase offset for a transmit power profile, wherein the transmit power profile specifies different transmit power values over time; and transmitting according to the transmit power profile and the determined phase offset. determining (504, 510) a phase offset for a transmit power profile, wherein the transmit power profile specifies different transmit power values over time; and transmitting according to the transmit power profile and the determined phase offset.
A bearing apparatus comprising a rotating shaft having an end of a lubrication hole opened in an outer circumferential surface, a cylindrical sliding bearing rotatably supporting the rotating shaft, and a housing holding the sliding bearing, wherein: a through hole is formed along a radial direction at a predetermined position in the sliding bearing so that the through hole coincides with the trajectory of movement of an end of the lubrication hole when the rotating shaft is rotated; and a foreign particle discharge groove is formed in an outer circumferential surface of the sliding bearing, characterized in that: - the foreign particle discharge groove leads to the through hole and passes through along an axial direction; and - the inner diameter of the through hole of the sliding bearing is larger than the inner diameter of the lubrication hole of the rotating shaft. a through hole is formed along a radial direction at a predetermined position in the sliding bearing so that the through hole coincides with the trajectory of movement of an end of the lubrication hole when the rotating shaft is rotated; and a foreign particle discharge groove is formed in an outer circumferential surface of the sliding bearing, - the foreign particle discharge groove leads to the through hole and passes through along an axial direction; and - the inner diameter of the through hole of the sliding bearing is larger than the inner diameter of the lubrication hole of the rotating shaft.
A surface-coated cutting tool comprising: a base material; and a coating film formed on said base material, said coating film including at least one TiB 2 layer, said TiB 2 layer including Cl together with TiB 2, assuming that in said TiB 2 layer, a first region represents a region having a thickness of 0.5 μm from an interface on said base material side, and a second region represents a region having a thickness of 0.5 μm from an interface on said coating film surface side, an atomic ratio Cl/(Ti+Cl) between Ti and Cl being higher in said first region than in said second region, and wherein said atomic ratio Cl/(Ti+Cl) is 0.0001 to 0.01 in said first region, and is 0.00001 to 0.001 in said second region. a base material; and a coating film formed on said base material, said coating film including at least one TiB 2 layer, said TiB 2 layer including Cl together with TiB 2, assuming that in said TiB 2 layer, a first region represents a region having a thickness of 0.5 μm from an interface on said base material side, and a second region represents a region having a thickness of 0.5 μm from an interface on said coating film surface side, an atomic ratio Cl/(Ti+Cl) between Ti and Cl being higher in said first region than in said second region, and wherein said atomic ratio Cl/(Ti+Cl) is 0.0001 to 0.01 in said first region, and is 0.00001 to 0.001 in said second region.
A process for producing a stevia composition comprising rebaudioside B, comprising the steps of: providing a stevia sweetener, wherein the stevia sweetener comprises rebaudioside A; providing an alkaline aqueous solution; dispersing the stevia sweetener in the alkaline solution and incubating for about 12 to 48 hours at about 55-75°C to form a mixture; cooling the mixture to about 10-30°C and adjusting the pH with acid to about pH 3.0- 4.0; incubating the mixture at low temperature to obtain a precipitate; separating the precipitate and washing it with water; and drying the washed precipitate to obtain the stevia composition; the method further comprising the steps of: dispersing the stevia composition in water to form a mixture; adding a base into the mixture; incubating the mixture to facilitate at least partial conversion of carboxyl groups of the rebaudioside B into a carboxylate salt to make a rebaudioside B carboxylate salt; and separating and drying the stevia composition comprising the rebaudioside B carboxylate salt. providing a stevia sweetener, wherein the stevia sweetener comprises rebaudioside A; providing an alkaline aqueous solution; dispersing the stevia sweetener in the alkaline solution and incubating for about 12 to 48 hours at about 55-75°C to form a mixture; cooling the mixture to about 10-30°C and adjusting the pH with acid to about pH 3.0- 4.0; incubating the mixture at low temperature to obtain a precipitate; separating the precipitate and washing it with water; and drying the washed precipitate to obtain the stevia composition; the method further comprising the steps of: dispersing the stevia composition in water to form a mixture; adding a base into the mixture; incubating the mixture to facilitate at least partial conversion of carboxyl groups of the rebaudioside B into a carboxylate salt to make a rebaudioside B carboxylate salt; and separating and drying the stevia composition comprising the rebaudioside B carboxylate salt. dispersing the stevia composition in water to form a mixture; adding a base into the mixture; incubating the mixture to facilitate at least partial conversion of carboxyl groups of the rebaudioside B into a carboxylate salt to make a rebaudioside B carboxylate salt; and separating and drying the stevia composition comprising the rebaudioside B carboxylate salt.
A nanobarcode for controlling regenerative cells, comprising: a nanobarcode in which a first segment including iron (Fe) and a second segment including gold (Au) are repeatedly formed; and an integrin ligand peptide bound to the second segment of the nanobarcode, wherein the regenerative cell is a stem cell or a macrophage, the regenerative cell adheres to the second segment, wherein the integrin ligand peptide is an RGD peptide and the nanobarcode controls adhesion and differentiation of the stem cell or controlling adhesion and polarization of the macrophage, and wherein the nanobarcode is provided in a rod shape satisfying Equation 1 or Equation 2 below, [Equation 1] [L(M 1 M 2)q] [Equation 2] [L(M 1 M 2 M 2 M 1)q] herein, M 1 is the first segment, M 2 is the second segment, q is the number of times of the repetition of the first and second segments on the barcode, wherein q is a integer of from 1 to 10, and L is the total lengths in nanometers of the first and second segments and L is an integer between 10 and 500 and given in nm. a nanobarcode in which a first segment including iron (Fe) and a second segment including gold (Au) are repeatedly formed; and an integrin ligand peptide bound to the second segment of the nanobarcode, wherein the regenerative cell is a stem cell or a macrophage, the regenerative cell adheres to the second segment, wherein the integrin ligand peptide is an RGD peptide and the nanobarcode controls adhesion and differentiation of the stem cell or controlling adhesion and polarization of the macrophage, and wherein the nanobarcode is provided in a rod shape satisfying Equation 1 or Equation 2 below, [Equation 1] [L(M 1 M 2)q] [Equation 2] [L(M 1 M 2 M 2 M 1)q] herein, M 1 is the first segment, M 2 is the second segment, q is the number of times of the repetition of the first and second segments on the barcode, wherein q is a integer of from 1 to 10, and L is the total lengths in nanometers of the first and second segments and L is an integer between 10 and 500 and given in nm.