mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a network node, for obtaining a nominal power "P 0 " of transmissions on an uplink channel and a pathloss compensation factor "α", which are to be used by a user equipment in a power control process for a cell of a cellular network, wherein the user equipment is served by the cell, wherein the cell is associated to a non-regular scenario, at least partly defined by respective locations of further cells of the cellular network, the further cells being neighbours to the cell, which is located at a location within the cellular network, wherein the method comprises: for each further cell: generating a respective regular scenario in relation to the cell, wherein the generation is at least based the respective location corresponding to said each further cell and the location of the cell; and determining a respective P 0 and a respective a for each respective regular scenario; wherein the method comprises: applying a statistical formula to each of the respective P 0 and the respective α to obtain the nominal power and the path loss compensation factor to be applied by the user equipment in the cell. generating a respective regular scenario in relation to the cell, wherein the generation is at least based the respective location corresponding to said each further cell and the location of the cell; and determining a respective P 0 and a respective a for each respective regular scenario; wherein the method comprises: applying a statistical formula to each of the respective P 0 and the respective α to obtain the nominal power and the path loss compensation factor to be applied by the user equipment in the cell.
A method of retrofitting a heating, ventilation, air conditioning, and refrigeration (HVACR) system including an air handling unit and refrigerant lines (26, 28) having one or more brazed, soldered, or mechanical joints to connect the refrigerant lines to the air handling unit, wherein the one or more brazed, soldered, or mechanical joints are external to the air handling unit, the method comprising: removing a refrigerant from the HVACR system, the refrigerant being a non-flammable refrigerant; adding refrigerant to the HVACR system, the refrigerant being added having a global warming potential that is relatively lower than the refrigerant removed from the HVACR system, and the refrigerant being added having a relatively higher flammability than the refrigerant removed from the HVACR system; characterized by installing an enclosure over the one or more brazed, soldered, or mechanical joints that are external to the air handling unit, the enclosure including a vent aperture, and wherein installing the enclosure includes fluidly connecting the vent aperture to the air handling unit for venting into the air handling unit. removing a refrigerant from the HVACR system, the refrigerant being a non-flammable refrigerant; adding refrigerant to the HVACR system, the refrigerant being added having a global warming potential that is relatively lower than the refrigerant removed from the HVACR system, and the refrigerant being added having a relatively higher flammability than the refrigerant removed from the HVACR system; characterized by installing an enclosure over the one or more brazed, soldered, or mechanical joints that are external to the air handling unit, the enclosure including a vent aperture, and wherein installing the enclosure includes fluidly connecting the vent aperture to the air handling unit for venting into the air handling unit.
Cement or gypsum-containing building boards, wherein the building boards comprise graphene and/or graphene oxide, and wherein the building board comprises a plurality of material layers, wherein at least one of the plurality of material layers is a graphene or graphene oxide layer composed of graphene paper or graphene oxide paper.
A motorcycle tire having a tread portion, the tire comprising: the tread portion comprising a central region (Cr) having a 28% region of a tread development width and a center corresponding to a tire equator, a pair of middle regions (Mr) each having a 14% region of the tread development width from an axially outer edge of the central region (Cr), and a pair of inner shoulder regions (Sr) each having a 14% region of the tread development width (Tw) from each axially outer edge of each middle region (Mr); the tread portion being provided with a plurality of inner inclined grooves each extending from an inner end located within the central region (Cr) to an outer end located within one of the middle regions (Mr) characterized in that the tread portion being further provided with a plurality of outer inclined grooves each extending from an inner end located within one of the middle regions (Mr) to one of the inner shoulder regions (Sr) with an inclination; a central groove area ratio, which is a ratio of a groove area to a ground contact surface within the central region (Cr), being in a range of from 34% to 39%; each middle groove area ratio, which is a ratio of a groove area to a ground contact surface within each middle region (Mr), being in a range of from 14% to 19%; and each inner shoulder groove area ratio, which is a ratio of a groove area to a ground contact surface within each inner shoulder region (Sr), being in a range of from 14% to 19%. the tread portion comprising a central region (Cr) having a 28% region of a tread development width and a center corresponding to a tire equator, a pair of middle regions (Mr) each having a 14% region of the tread development width from an axially outer edge of the central region (Cr), and a pair of inner shoulder regions (Sr) each having a 14% region of the tread development width (Tw) from each axially outer edge of each middle region (Mr); the tread portion being provided with a plurality of inner inclined grooves each extending from an inner end located within the central region (Cr) to an outer end located within one of the middle regions (Mr) characterized in that the tread portion being further provided with a plurality of outer inclined grooves each extending from an inner end located within one of the middle regions (Mr) to one of the inner shoulder regions (Sr) with an inclination; a central groove area ratio, which is a ratio of a groove area to a ground contact surface within the central region (Cr), being in a range of from 34% to 39%; each middle groove area ratio, which is a ratio of a groove area to a ground contact surface within each middle region (Mr), being in a range of from 14% to 19%; and each inner shoulder groove area ratio, which is a ratio of a groove area to a ground contact surface within each inner shoulder region (Sr), being in a range of from 14% to 19%.
A method of operating an engine assembly including a turbine having a turbine shaft and an intermittent internal combustion engine having an engine shaft, the method comprising: rotating the engine shaft at a first rotational speed; driving the turbine with exhaust gases of the intermittent internal combustion engine to rotate the turbine shaft and to drive a rotatable load with the turbine shaft, the engine shaft being mechanically disengaged from the turbine shaft such that the engine shaft rotates independently from the turbine shaft; increasing a rotational speed of the engine shaft from the first rotational speed until the turbine shaft reaches a second rotational speed; characterised in further comprising: after the turbine shaft has reached the second rotational speed, adjusting the rotational speed of the engine shaft until the turbine shaft and the engine shaft are drivingly engageable with each other; and drivingly engaging the turbine shaft with the engine shaft such that both the turbine shaft and the engine shaft are in driving engagement with the rotatable load. rotating the engine shaft at a first rotational speed; driving the turbine with exhaust gases of the intermittent internal combustion engine to rotate the turbine shaft and to drive a rotatable load with the turbine shaft, the engine shaft being mechanically disengaged from the turbine shaft such that the engine shaft rotates independently from the turbine shaft; increasing a rotational speed of the engine shaft from the first rotational speed until the turbine shaft reaches a second rotational speed; characterised in further comprising: after the turbine shaft has reached the second rotational speed, adjusting the rotational speed of the engine shaft until the turbine shaft and the engine shaft are drivingly engageable with each other; and drivingly engaging the turbine shaft with the engine shaft such that both the turbine shaft and the engine shaft are in driving engagement with the rotatable load. after the turbine shaft has reached the second rotational speed, adjusting the rotational speed of the engine shaft until the turbine shaft and the engine shaft are drivingly engageable with each other; and drivingly engaging the turbine shaft with the engine shaft such that both the turbine shaft and the engine shaft are in driving engagement with the rotatable load.
A sulfide gas concentration measuring device, comprising: an exhaled breath collection tool to be put to a subject to introduce exhaled breath of the subject thereinto; a pressure regulator comprising an inlet port receiving the exhaled breath from the exhaled breath collection tool; a sulfide gas sensor connected to an outlet port of the pressure regulator to measure a concentration of sulfide gas in the exhaled breath discharged from the outlet port; and characterized by a pressure measuring device configured to measure a pressure in the inlet port of the pressure regulator to make the subject aware of the measured pressure, and further characterized in that the pressure in the outlet port of the pressure regulator is equal to the pressure in an inlet port of the sulfide gas sensor, and the pressure regulator, by keeping the pressure in the outlet port of the pressure regulator at a predetermined set pressure, keeps the pressure in the inlet port of the sulfide gas sensor at the predetermined set pressure. an exhaled breath collection tool to be put to a subject to introduce exhaled breath of the subject thereinto; a pressure regulator comprising an inlet port receiving the exhaled breath from the exhaled breath collection tool; a sulfide gas sensor connected to an outlet port of the pressure regulator to measure a concentration of sulfide gas in the exhaled breath discharged from the outlet port; and characterized by a pressure measuring device configured to measure a pressure in the inlet port of the pressure regulator to make the subject aware of the measured pressure, and further characterized in that the pressure in the outlet port of the pressure regulator is equal to the pressure in an inlet port of the sulfide gas sensor, and the pressure regulator, by keeping the pressure in the outlet port of the pressure regulator at a predetermined set pressure, keeps the pressure in the inlet port of the sulfide gas sensor at the predetermined set pressure.
Double-walled tube section for constructing a double-walled tube segment suitable for underpressure applications characterised in that the double-walled tube segment comprises an elongated curved outer shell part forming the outer wall of the double-walled tube segment and a plurality of inner shell parts, wherein the elongated curved outer shell part comprises a curved central portion and a folded portion at least one of the long edges (3b, 3c) wherein the folded portion forms a flange folded towards the centrepoint M of the curvature, wherein each inner shell part comprises a flat central portion having long edges and short edges, and a folded portion folded away from the centrepoint of the curvature at at least one of the long edges (4b, 4c), the folded portion having a curved edge to match the curvature of the elongated curved outer shell part, wherein the plurality of inner shell parts are joined together along their long edges (4b, 4c), and wherein the plurality of inner shell parts are joined to the inner surface of the elongated curved outer shell part along the curved edge of the folded edge portion.
Method for fabricating a substrate comprising the following successive steps: - providing a substrate of semiconductor on insulator type where the semiconductor is a layer made from first semiconductor material (Sc 1) and the insulator is a layer made from electrically insulating material; - depositing a layer made from second semiconductor material (Sc 2) by full wafer epitaxy on the layer made from first semiconductor material (Sc 1), the second semiconductor material (Sc 2) being different from the first semiconductor material (Sc 1); - etching the layer made from first semiconductor material (Sc 1) and the layer made from second semi-conductor material (Sc 2) to delineate at least two active areas each comprising layers of first semiconductor material (Sc 1) and of second semi-conductor material (Sc 2), the at least two active areas being at least two salient bumps; - leaving a first active area (za 1) uncovered and covering a second active area with a protective material; and - removing the layer made from second semiconductor material (Sc 2) of the first active area (za 1) so as to obtain a main surface (A 1) made from first semi-conductor material (Sc 1), the second active area (za 2) comprising a main surface (A 2) made from second semiconductor material (Sc 2) and the layer made from first semiconductor material (Sc 1). - providing a substrate of semiconductor on insulator type where the semiconductor is a layer made from first semiconductor material (Sc 1) and the insulator is a layer made from electrically insulating material; - depositing a layer made from second semiconductor material (Sc 2) by full wafer epitaxy on the layer made from first semiconductor material (Sc 1), the second semiconductor material (Sc 2) being different from the first semiconductor material (Sc 1); - etching the layer made from first semiconductor material (Sc 1) and the layer made from second semi-conductor material (Sc 2) to delineate at least two active areas each comprising layers of first semiconductor material (Sc 1) and of second semi-conductor material (Sc 2), the at least two active areas being at least two salient bumps; - leaving a first active area (za 1) uncovered and covering a second active area with a protective material; and - removing the layer made from second semiconductor material (Sc 2) of the first active area (za 1) so as to obtain a main surface (A 1) made from first semi-conductor material (Sc 1), the second active area (za 2) comprising a main surface (A 2) made from second semiconductor material (Sc 2) and the layer made from first semiconductor material (Sc 1).
An injection unit positioning apparatus comprising an injection unit and an apparatus for aligning an outlet of the injection unit with an inlet of a mold mounted between the platens of a molding machine, the apparatus for aligning comprising: a positioning assembly interconnecting the injection unit to a molding machine, the positioning assembly including an angular positioning assembly that permits rotation of the injection unit through a sweep plane about a sweep axis and a linear positioning assembly that permits linear translation of the injection unit on the sweep plane along a translation axis, wherein the sweep axis is substantially perpendicular to an inlet surface of the mold and substantially parallel to an elevation axis of the injection unit positioning apparatus, the sweep plane extending radially outward from the sweep axis, the sweep plane being a plane through which the outlet of the injection unit passes when the injection unit is rotated about the sweep axis and characterised in that the translation axis is substantially transverse to the sweep axis, wherein an elevation of the outlet of the injection unit and a height relative to the inlet surface of the mold remains substantially constant during rotation of the injection unit through the sweep plane and during linear translation of the injection unit on the sweep plane. a positioning assembly interconnecting the injection unit to a molding machine, the positioning assembly including an angular positioning assembly that permits rotation of the injection unit through a sweep plane about a sweep axis and a linear positioning assembly that permits linear translation of the injection unit on the sweep plane along a translation axis, wherein the sweep axis is substantially perpendicular to an inlet surface of the mold and substantially parallel to an elevation axis of the injection unit positioning apparatus, the sweep plane extending radially outward from the sweep axis, the sweep plane being a plane through which the outlet of the injection unit passes when the injection unit is rotated about the sweep axis and characterised in that the translation axis is substantially transverse to the sweep axis, wherein an elevation of the outlet of the injection unit and a height relative to the inlet surface of the mold remains substantially constant during rotation of the injection unit through the sweep plane and during linear translation of the injection unit on the sweep plane.
A fluid pressure increasing/decreasing machine (100, 100A, 100B) capable of continuously supplying an output pressure, comprising: at least three pressure chambers (1H, 1R, 2H, 2R) in a fluid pressure cylinder (1, 2) or a plurality of fluid pressure cylinders (1, 2) operating inter-connectedly, wherein respective pressure-receiving areas of said at least three pressure chambers (1H, 1R, 2H, 2R) are different from one another; a first pipe conduit connecting a source of supply and said at least three pressure chambers (1H, 1R, 2H, 2R); a second pipe conduit connecting a destination of supply and said at least three pressure chambers (1H, 1R, 2H, 2R); a third pipe conduit connecting at least two pressure chambers of said at least three pressure chambers (1H, 1R, 2H, 2R) and a tank; a control valve (6H, 6R, 7H, 7R) provided between each of said at least three pressure chambers (1H, 1R, 2H, 2R) and the first, second, and third pipe conduits (C1, C2, C3); and a control device configured to control the control valve (6H, 6R, 7H, 7R) so that at least one input pressure chamber and at least one output pressure chamber are switchable among said at least three pressure chambers (1H, 1R, 2H, 2R), the input pressure chamber being applied with an input pressure, the output pressure chamber creating an output pressure including a pressure higher than the input pressure and a pressure lower than the input pressure, wherein at least one of said at least three pressure chambers (1H, 1R, 2H, 2R) is capable of being either of said input pressure chamber and said output pressure chamber. at least three pressure chambers (1H, 1R, 2H, 2R) in a fluid pressure cylinder (1, 2) or a plurality of fluid pressure cylinders (1, 2) operating inter-connectedly, wherein respective pressure-receiving areas of said at least three pressure chambers (1H, 1R, 2H, 2R) are different from one another; a first pipe conduit connecting a source of supply and said at least three pressure chambers (1H, 1R, 2H, 2R); a second pipe conduit connecting a destination of supply and said at least three pressure chambers (1H, 1R, 2H, 2R); a third pipe conduit connecting at least two pressure chambers of said at least three pressure chambers (1H, 1R, 2H, 2R) and a tank; a control valve (6H, 6R, 7H, 7R) provided between each of said at least three pressure chambers (1H, 1R, 2H, 2R) and the first, second, and third pipe conduits (C1, C2, C3); and a control device configured to control the control valve (6H, 6R, 7H, 7R) so that at least one input pressure chamber and at least one output pressure chamber are switchable among said at least three pressure chambers (1H, 1R, 2H, 2R), the input pressure chamber being applied with an input pressure, the output pressure chamber creating an output pressure including a pressure higher than the input pressure and a pressure lower than the input pressure, wherein at least one of said at least three pressure chambers (1H, 1R, 2H, 2R) is capable of being either of said input pressure chamber and said output pressure chamber.
Beverage container, at least comprising a housing having a bottom, a lid and a wall region connecting the bottom to the lid; wherein the beverage container has a first volume which can be partially filled with a liquid; wherein the beverage container further comprises a pressure container having a third volume, said pressure container being arranged in the first volume; wherein the first volume has a largest height between the bottom and the lid along an axial direction; wherein the container has, between a first end and a second end, a length along the axial direction, wherein the first end is arranged adjacent to the bottom and the second end adjacent to the lid, such that a further movement of the pressure container along the axial direction is at least restricted; characterized in that the pressure container is arranged adjacent to the wall region.
An antisense oligonucleotide directed against the interior of exon 50 of the dystrophin pre-mRNA which facilitates the masking of the exon from the splicing apparatus and the exclusion of the exon from the final mRNA.
A luminescent nanosheet having a double, a triple or a quadruple perovskite structure with an element providing a luminescence center and being solid-solubilized therein, wherein the perovskite structure is comprised of a tantalum oxide or a niobium oxide, and said luminescence center element is a rare earth element (ion), wherein the double perovskite tantulum oxide luminescent nanosheet comprises A 2 Ta 3 O 10 where A is selected from alkali, metals (Li, Na, K, Rb, Cs), alkaline earth metals (Mg, Ca, Sr, Ba) and rare earths (Y, La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu).
Method of exploiting an underground formation containing hydrocarbons on the basis of measurements of at least one categorical property relating to said formation, in which, by means of a computer, a first meshed representation of said formation is constructed, each mesh of said first representation including a value of said categorical property, and in which, on the basis of said first meshed representation, at least one second meshed representation of said formation is constructed, the resolution of said second representation being lower than the resolution of said first representation, with the result that a mesh of said second representation corresponds to a group of meshes of said first representation, and, for each of said meshes of said second representation and for said property, at least the following step is executed: A. a value representing values of said property in said meshes of said group of meshes of said first representation corresponding to said mesh of said second representation is determined, and said representative value is assigned to said mesh of said second representation, the method being characterized in that at least the following step is executed: B. change parameters for going from said second representation to said first representation are determined by means of a linear combination applied between the value assigned to said mesh of said second representation and the values of said property in the meshes of the group of meshes of said first representation corresponding to said mesh of said second representation, said change parameters allowing said first representation to be reconstructed on the basis of said second representation, said linear combination consisting of a subtraction; and in that, by means of at least said second representation, said change parameters and said linear combination, there is determined at least said optimum exploitation scheme of the hydrocarbons of said formation and said formation is exploited as a function of said exploitation scheme. A. a value representing values of said property in said meshes of said group of meshes of said first representation corresponding to said mesh of said second representation is determined, and said representative value is assigned to said mesh of said second representation,