mhurhangee/ep-ind-claims huggingface dataset:
A microorganism, satisfying the following requirements to: expression of a phbA gene is repressed or a catalytic activity of an enzyme encoded by the gene is repressed; expression of a bktB gene is enhanced or a catalytic activity of an enzyme encoded by the gene is increased; and a polyhydroxyalkanoate synthase gene and a crotonyl-CoA reductase gene are introduced thereinto. expression of a phbA gene is repressed or a catalytic activity of an enzyme encoded by the gene is repressed; expression of a bktB gene is enhanced or a catalytic activity of an enzyme encoded by the gene is increased; and a polyhydroxyalkanoate synthase gene and a crotonyl-CoA reductase gene are introduced thereinto.
A method for producing a high alloy pipe having a minimum yield strength of 758.3 to 965.2 MPa, comprising: preparing a high alloy material pipe having a chemical composition consisting of, by mass%, C: 0.03% or less, Si: 1.0% or less, Mn: 0.3 to 5.0%, Ni: 25 to 40%, Cr: 20 to 30%, Mo: 0.01 to 4%, Cu: 0.1 to 3%, N: 0.05 to 0.50%, Ca: 0.01% or less, Mg: 0.01% or less and Rare Earth Element(s): 0.2% or less, and the balance being Fe and impurities, the impurities containing 0.03% or less of P, 0.03% or less of S and 0.010% or less of O, by a hot working and optionally by a solid-solution heat treatment; and producing the high alloy pipe by subsequently subjecting the high alloy material pipe to a cold rolling, wherein the cold rolling is performed under the conditions that the working ratio Rd, in terms of the reduction of area, in the final cold rolling step falls within a range of larger than 30% and equal to or less than 80%, and the following formula is satisfied: Rd % ≥ MYS − 520 / 3.1 − Cr + 6 × Mo + 300 × N wherein Rd and MYS signify the working ratio (%) in terms of the reduction of area and the targeted yield strength (MPa), respectively, and Cr, Mo and N signify the contents (mass%) of the individual elements, respectively. preparing a high alloy material pipe having a chemical composition consisting of, by mass%, C: 0.03% or less, Si: 1.0% or less, Mn: 0.3 to 5.0%, Ni: 25 to 40%, Cr: 20 to 30%, Mo: 0.01 to 4%, Cu: 0.1 to 3%, N: 0.05 to 0.50%, Ca: 0.01% or less, Mg: 0.01% or less and Rare Earth Element(s): 0.2% or less, and the balance being Fe and impurities, the impurities containing 0.03% or less of P, 0.03% or less of S and 0.010% or less of O, by a hot working and optionally by a solid-solution heat treatment; and producing the high alloy pipe by subsequently subjecting the high alloy material pipe to a cold rolling, wherein the cold rolling is performed under the conditions that the working ratio Rd, in terms of the reduction of area, in the final cold rolling step falls within a range of larger than 30% and equal to or less than 80%, and the following formula is satisfied: Rd % ≥ MYS − 520 / 3.1 − Cr + 6 × Mo + 300 × N wherein Rd and MYS signify the working ratio (%) in terms of the reduction of area and the targeted yield strength (MPa), respectively, and Cr, Mo and N signify the contents (mass%) of the individual elements, respectively.
A method for setting an output voltage level of a wind power plant (Vpp) comprising a plurality of wind turbines being operatively connected to a plant power grid, the wind turbines being adapted to supply individual wind turbine voltage levels (V1, V2, V3, V4, V5) to the plant power grid in order to compensate for grid impedances, the method being characterised by comprising the steps of determining the highest wind turbine voltage level among a number of wind turbines, and setting the output voltage level of the wind power plant (Vpp) in accordance therewith.
A method of fabricating a three-dimensional, engineered, biological tumor model, characterized in that the method comprises: a. providing an adipocyte differentiation signal to human preadipocytes; b. preparing a solid or semi-solid stromal bio-ink, the stromal bio-ink comprising a plurality of stromal cell types, the stromal cell types comprising the human preadipocytes of a.; c. preparing a solid or semi-solid tumor bio-ink, the tumor bio-ink comprising a cancer cell type; d. bioprinting the stromal bio-ink and the tumor bio-ink from a bioprinter, such that the tumor bio-ink is in contact with the stromal bio-ink; and e. maturing the bioprinted stromal and tumor bio-inks in a cell culture media to allow the cells to cohere to form a three-dimensional, engineered, biological tumor model; wherein the bio-inks comprise cells, cells combined with an excipient or extrusion compound, or aggregates of cells, wherein the stromal bio-ink comprises differentiating human preadipocytes at the time of bioprinting that differentiate into human adipocytes post-bioprinting, and wherein the tumor tissue is surrounded on all sides by the stromal tissue. a. providing an adipocyte differentiation signal to human preadipocytes; b. preparing a solid or semi-solid stromal bio-ink, the stromal bio-ink comprising a plurality of stromal cell types, the stromal cell types comprising the human preadipocytes of a.; c. preparing a solid or semi-solid tumor bio-ink, the tumor bio-ink comprising a cancer cell type; d. bioprinting the stromal bio-ink and the tumor bio-ink from a bioprinter, such that the tumor bio-ink is in contact with the stromal bio-ink; and e. maturing the bioprinted stromal and tumor bio-inks in a cell culture media to allow the cells to cohere to form a three-dimensional, engineered, biological tumor model; wherein the bio-inks comprise cells, cells combined with an excipient or extrusion compound, or aggregates of cells, wherein the stromal bio-ink comprises differentiating human preadipocytes at the time of bioprinting that differentiate into human adipocytes post-bioprinting, and wherein the tumor tissue is surrounded on all sides by the stromal tissue.
A simulated weapon comprising a spring compressor for generating a compressed air flow, a movable positioning device for loading a pellet in a shot chamber which receives the compressed air generated by the spring compressor, an actuator for controlling the spring compressor and the positioning device, a magazine for feeding the shot chamber with pellets and a trigger, the simulated weapon further comprising a first sensor (23; 40) for detecting a status of the trigger and at least a second sensor for detecting the connection of the magazine so that the pellets are able to be fed in the shot chamber or so that the magazine is to be replaced, and an electric or electronic control device configured to prevent the activation of the actuator by means of the trigger if the magazine is not connected so as to feed the pellets and/or if the magazine is to be replaced, wherein the second sensor is not on board the magazine characterized in that said second sensor is a contactless sensor for detecting the presence and/or the position in the said magazine of a movable portion inside the magazine configured for pushing the pellets into the shot chamber; and for generating a signal indicating that the magazine shall be replaced; and further characterized by comprising a third sensor in series to the second sensor for detecting the extraction and connection of the magazine so that the pellets are able to be fed or not fed into the shot chamber.
A method of monitoring an optical fibre link, comprising: generating a monitoring signal comprising a number of frequency components used for monitoring the optical fibre link; combining the generated monitoring signal with a data signal to be supplied to a light source for creating an optical signal to be transmitted over the optical fibre link; detecting backscattering of the monitoring signal from the optical fibre link; performing lock-in amplification of the backscattered combined signal with the monitoring signal as a reference, wherein amplitude and phase of the backscattered monitoring signal is detected; comparing the detected backscattered monitoring signal with an theoretically calculated backscattered monitoring signal by fitting the amplitude and phase of the detected backscattered monitoring signal to an amplitude and phase of the theoretically backscattered monitoring signal; determining, based on the comparison, at least one location along the optical fibre link where the monitoring signal is backscattered, and signal loss caused by the backscattering from a best fit. generating a monitoring signal comprising a number of frequency components used for monitoring the optical fibre link; combining the generated monitoring signal with a data signal to be supplied to a light source for creating an optical signal to be transmitted over the optical fibre link; detecting backscattering of the monitoring signal from the optical fibre link; performing lock-in amplification of the backscattered combined signal with the monitoring signal as a reference, wherein amplitude and phase of the backscattered monitoring signal is detected; comparing the detected backscattered monitoring signal with an theoretically calculated backscattered monitoring signal by fitting the amplitude and phase of the detected backscattered monitoring signal to an amplitude and phase of the theoretically backscattered monitoring signal; determining, based on the comparison, at least one location along the optical fibre link where the monitoring signal is backscattered, and signal loss caused by the backscattering from a best fit.
A centralising device for use in centralising a conductor casing within an aperture of a supporting framework, the centralising device comprising a body portion having an inner surface located on a second member, and an outer surface located on a first member; the inner surface being arranged for abutting the conductor casing; the outer surface being arranged for abutting the framework; the body portion being adapted to be located in the aperture between the conductor casing and the framework for limiting movement of the conductor casing relative to the framework; and the body portion includes adjustment means for enabling relative movement between the inner surface and the outer surface, characterised in that the adjustment means comprise packer members adapted to be located between the first member and the second member.
A nanoprobe of one of the following formulae: and wherein: • R1 represents a group of the following formula: which is complexed to a ligand or a radioelement to give a group of the following formula: • ● represents an alpha or beta negative radiation emitter radio-element such as 177 lutétium, 91 yttrium, 166 holmium or 186 rhenium • p is comprised from 3 to 6, • n is an integer comprised from 1 to 10, • r is an integer comprised from 1 to 20, r being ≥ n, and • Rb represents a group chosen among: - - anti-Ca15-3 antibody or alpha melanocyte stimulating hormone (alpha- MSH), - a biocompatible dye of formulae: or and - Ra is a linear or branched alkyl, for use as medicament. • R1 represents a group of the following formula: which is complexed to a ligand or a radioelement to give a group of the following formula: • ● represents an alpha or beta negative radiation emitter radio-element such as 177 lutétium, 91 yttrium, 166 holmium or 186 rhenium • p is comprised from 3 to 6, • n is an integer comprised from 1 to 10, • r is an integer comprised from 1 to 20, r being ≥ n, and • p is comprised from 3 to 6, • n is an integer comprised from 1 to 10, • r is an integer comprised from 1 to 20, r being ≥ n, and • Rb represents a group chosen among: - - anti-Ca15-3 antibody or alpha melanocyte stimulating hormone (alpha- MSH), - a biocompatible dye of formulae: or and - Ra is a linear or branched alkyl, for use as medicament. - - anti-Ca15-3 antibody or alpha melanocyte stimulating hormone (alpha- MSH), - a biocompatible dye of formulae: or and - Ra is a linear or branched alkyl, for use as medicament.
A catalysed substrate monolith comprising an oxidising catalyst on a substrate monolith for use in treating exhaust gas emitted from a lean-burn internal combustion engine, which catalysed substrate monolith comprises a first washcoat coating having a length L and a second washcoat coating, wherein the second washcoat coating is disposed in a layer above the first washcoat coating for at least some of length L, wherein the first washcoat coating comprises a catalyst composition comprising platinum (Pt) and at least one support material for the platinum (Pt), wherein the second washcoat coating comprises a catalyst composition comprising both platinum (Pt) and palladium (Pd) and at least one support material for the platinum (Pt) and palladium (Pd) and wherein a weight ratio of platinum (Pt) to palladium (Pd) in the second washcoat coating is <2, and wherein a Pt:Pd weight ratio of both the first washcoat coating and the second washcoat coating combined is ≥2:1.
A method of gas leak detection and localization, the method comprising: performing one or more gas concentration measurements from a gas measurement instrument being transported by a vehicle or mobile entity that proceeds along at least one platform track disposed near one or more potential gas leak locations; performing an automatic horizontal spatial scale analysis of the gas concentration measurements; automatically determining whether or not a gas leak is present at one or more of the potential gas leak locations based on the automatic horizontal spatial scale analysis; and providing a leak indication at the potential gas leak locations to an end user; characterised in that the horizontal spatial scale analysis is responsive to gas concentration peak half-widths in a detection range from about 1 m to about 50 m, and is substantially not responsive to gas concentration peak half-widths outside of the detection range, wherein f(x) is measured gas concentration as a function of position x, wherein g(x,w) is a Gaussian kernel function having a spatial scale specified by parameter w, wherein L(x,w) is a convolution of f(x) and g(x,w), and wherein candidate gas concentration peaks are identified by locating one or more local maxima of F ( x,w)=- w (∂ 2 L ( x,w)/∂ w 2) with respect to both x and w. performing one or more gas concentration measurements from a gas measurement instrument being transported by a vehicle or mobile entity that proceeds along at least one platform track disposed near one or more potential gas leak locations; performing an automatic horizontal spatial scale analysis of the gas concentration measurements; automatically determining whether or not a gas leak is present at one or more of the potential gas leak locations based on the automatic horizontal spatial scale analysis; and providing a leak indication at the potential gas leak locations to an end user; characterised in that the horizontal spatial scale analysis is responsive to gas concentration peak half-widths in a detection range from about 1 m to about 50 m, and is substantially not responsive to gas concentration peak half-widths outside of the detection range, wherein f(x) is measured gas concentration as a function of position x, wherein g(x,w) is a Gaussian kernel function having a spatial scale specified by parameter w, wherein L(x,w) is a convolution of f(x) and g(x,w), and wherein candidate gas concentration peaks are identified by locating one or more local maxima of F ( x,w)=- w (∂ 2 L ( x,w)/∂ w 2) with respect to both x and w.
A refillable personal container for hermetically receiving a fluid product from a refill station, comprising: a refill bottle with a port; and characterized by a multi-port nozzle connectable to said port for hermetic transfer of the fluid product, including a connector for connecting to a refill station, a flow control mechanism, a mixing chamber, and a connector for connecting to the port on the refill bottle; wherein the multi-port nozzle further comprises a second line for communicating a second material through the nozzle, the second line including a secondary port, a connector for the secondary port, and a one-way check valve in fluid communication with the mixing chamber, the secondary material flowing through the second line and the one-way check valve into the mixing chamber to be mixed with the fluid product prior to entering the refill bottle. a refill bottle with a port; and characterized by a multi-port nozzle connectable to said port for hermetic transfer of the fluid product, including a connector for connecting to a refill station, a flow control mechanism, a mixing chamber, and a connector for connecting to the port on the refill bottle; wherein the multi-port nozzle further comprises a second line for communicating a second material through the nozzle, the second line including a secondary port, a connector for the secondary port, and a one-way check valve in fluid communication with the mixing chamber, the secondary material flowing through the second line and the one-way check valve into the mixing chamber to be mixed with the fluid product prior to entering the refill bottle.
A front-loading laundry washing machine for household use, in particular a washing or washing/drying machine, comprising a cabinet within which a tub is arranged, and having a load opening that can be closed by a door constrained to said cabinet, said door comprising: - a porthole glass; - a frame supporting said porthole glass and adapted to abut against said cabinet, in particular in adjacency to the load opening and - dispensing means associated with said porthole glass, said dispensing means being capable to contain a quantity of agents which is sufficient for a plurality of operating cycles of the washing machine, characterized in that said door comprises a cover which allows said dispensing means to be kept separate from the tub and from the drum when said door is closed and in that said door comprises coupling means (6M, 6E) which allow a rotational movement of the cover in order to switch from a closed position to an open position, and vice versa, and which allow the cover to stay in said closed position with respect to the frame. - a porthole glass; - a frame supporting said porthole glass and adapted to abut against said cabinet, in particular in adjacency to the load opening and - dispensing means associated with said porthole glass, said dispensing means being capable to contain a quantity of agents which is sufficient for a plurality of operating cycles of the washing machine, characterized in that said door comprises a cover which allows said dispensing means to be kept separate from the tub and from the drum when said door is closed
A method for data transmission, characterized in comprising: receiving, by a first terminal, first control information sent by a second terminal, the first control information being used for determining information of resources used for multiple sidelink, SL, transmissions; and determining, by the first terminal according to the first control information, the resources used for the multiple SL transmissions, wherein the information of resources used for multiple SL transmissions comprises information of time-domain resource and information of frequency-domain resource used for the multiple SL transmissions, characterized in that, the first control information comprises second configuration information, the second configuration information being used for determining a time offset of each transmission of the multiple transmissions relative to a time unit, wherein the time unit may be a time slot, a symbol, a subframe, a short transmission time interval, sTTI, and the determining, by the first terminal according to the first control information, the resources used for the multiple SL transmissions comprises: determining, by the first terminal according to the time offset of the each transmission relative to the time unit with the time unit as a reference, time-domain resource used for the each transmission; wherein the time unit is determined according to a time unit carrying the first control information, or an initial time unit of a current radio frame, or an initial time unit of a current radio frame period. receiving, by a first terminal, first control information sent by a second terminal, the first control information being used for determining information of resources used for multiple sidelink, SL, transmissions; and determining, by the first terminal according to the first control information, the resources used for the multiple SL transmissions, wherein the information of resources used for multiple SL transmissions comprises information of time-domain resource and information of frequency-domain resource used for the multiple SL transmissions, characterized in that, the first control information comprises second configuration information, the second configuration information being used for determining a time offset of each transmission of the multiple transmissions relative to a time unit, wherein the time unit may be a time slot, a symbol, a subframe, a short transmission time interval, sTTI, and the determining, by the first terminal according to the first control information, the resources used for the multiple SL transmissions comprises: determining, by the first terminal according to the time offset of the each transmission relative to the time unit with the time unit as a reference, time-domain resource used for the each transmission; wherein the time unit is determined according to a time unit carrying the first control information, or an initial time unit of a current radio frame, or an initial time unit of a current radio frame period.