mhurhangee/ep-ind-claims huggingface dataset:
Use of molsidomine or one of its pharmaceutically acceptable salts, in the form of a sustained-release solid oral composition effective over 24 hours, for the manufacture of a drug for preventing or attenuating the development of atherosclerosis, wherein said composition has an in vitro dissolution rate, measured spectrophotometrically at 286 or 311 nm by the method described in the European Pharmacopoeia, 3rd edition (or USP XXIV), at 50 rpm, in 500 ml of a 0.1 N HCl medium, at 37°C, of: - 15 to 25% of molsidomine released after 1 hour - 20 to 35% of molsidomine released after 2 hours - 50 to 65% of molsidomine released after 6 hours - 75 to 95% of molsidomine released after 12 hours - >85% of molsidomine released after 18 hours - >90% of molsidomine released after 24 hours, the plasma peak of molsidomine obtained in vivo occurring 2.5 to 5 hours, preferably 3 to 4 hours, following the administration of said form, and having a value of between 25 and 40 ng/ml of plasma, wherein the above-mentioned solid oral composition contains between 14 and 24 mg of molsidomine per dosage unit intended for daily administration, and wherein said treatment has a duration of at least 6 months. - 15 to 25% of molsidomine released after 1 hour - 20 to 35% of molsidomine released after 2 hours - 50 to 65% of molsidomine released after 6 hours - 75 to 95% of molsidomine released after 12 hours - >85% of molsidomine released after 18 hours - >90% of molsidomine released after 24 hours,
An apparatus configured to control driving of a fan motor used for a refrigerator, comprising: a refrigerating chamber fan motor adapted for supplying cool air to a refrigerating chamber, a freezing chamber fan motor adapted for supplying cool air to a freezing chamber, and a mechanic chamber fan motor adapted for circulating air in a mechanic chamber; a driving unit configured to generate drive signals for driving the plurality of fan motors (10, 20, 30); a control unit configured to control operation of the driving unit; and a power unit configured to provide operation power of the driving unit and the control unit (60; characterized by a cut-off unit that is positioned between the driving unit and the power unit and configured to cut off noise and a surge voltage introduced from the power unit to the driving unit; wherein the control unit is configured to sequentially operate the plurality of fan motors (10, 20, 30) at certain delay times according to a pre-set order, when an operation command is inputted, wherein when a first of the fan motors (10, 20, 30) is operated, a second of the fan motors (10, 20, 30) is to follow after a certain delay time is lapsed, and when the second of the fan motors (10, 20, 30) is operated, a third of the fan motors (10, 20, 30) is to follow after a certain delay time is lapsed, wherein the certain delay times are previously set. a refrigerating chamber fan motor adapted for supplying cool air to a refrigerating chamber, a freezing chamber fan motor adapted for supplying cool air to a freezing chamber, and a mechanic chamber fan motor adapted for circulating air in a mechanic chamber; a driving unit configured to generate drive signals for driving the plurality of fan motors (10, 20, 30); a control unit configured to control operation of the driving unit; and a power unit configured to provide operation power of the driving unit and the control unit (60;
A method for incubating avian eggs, comprising: a. introducing avian eggs into an incubation chamber having an oxygen-containing atmosphere; b. subsequent to 'a', incubating said eggs in said incubation chamber for a period of time that is not less than 25% of the natural incubation period of said eggs; c. during said period of time of the incubating, changing an orientation of said eggs at a frequency of not less than once every two days; and d. during said period of time of said incubating, varying a temperature of said atmosphere in said incubation chamber at a frequency of not less than five times a day, the varying comprising: increasing the temperature of the atmosphere from a first temperature to a second temperature, the difference between the first temperature and the second temperature being not less than 1.0°C; and reducing the temperature from the second temperature to a third temperature, the difference between the second temperature and the third temperature being not less than 1.0°C; wherein the rate of said increasing the temperature of the atmosphere is not greater than 0.9°C/5 minutes; wherein said reducing of said second temperature to said third temperature commences after a period of at least one minute subsequent to attaining said second temperature; and wherein the rate of said reducing the temperature of the atmosphere is not greater than 0.9°/5 minutes. a. introducing avian eggs into an incubation chamber having an oxygen-containing atmosphere; b. subsequent to 'a', incubating said eggs in said incubation chamber for a period of time that is not less than 25% of the natural incubation period of said eggs; c. during said period of time of the incubating, changing an orientation of said eggs at a frequency of not less than once every two days; and d. during said period of time of said incubating, varying a temperature of said atmosphere in said incubation chamber at a frequency of not less than five times a day, the varying comprising: increasing the temperature of the atmosphere from a first temperature to a second temperature, the difference between the first temperature and the second temperature being not less than 1.0°C; and reducing the temperature from the second temperature to a third temperature, the difference between the second temperature and the third temperature being not less than 1.0°C; increasing the temperature of the atmosphere from a first temperature to a second temperature, the difference between the first temperature and the second temperature being not less than 1.0°C; and reducing the temperature from the second temperature to a third temperature, the difference between the second temperature and the third temperature being not less than 1.0°C;
An occluder for sealing a cardiac access orifice in ventricular tissue used for valve replacement, the occulder comprising: a top portion capable of expansion from a collapsed configuration on a luminal side of the orifice to an expanded configuration; and a bottom portion capable of expansion from a collapsed configuration to an expanded configuration on a side of the orifice opposite to the luminal side, wherein said top portion and said bottom portion form a central, hollow channel for housing a guide wire, wherein the occluder further comprises a channel sealing mechanism for preventing blood flow from the luminal side of the tissue orifice, wherein the channel sealing mechanism comprises a valve or at least one of a self-sealing membrane and foam.
A composition for dyeing keratin fibers, in particular human keratin fibers, comprising: - at least one oxidation dye; - at least one nonionic ether of a polyoxyalkylenated fatty alcohol of formula (i) R-(OCH 2 CH 2) n -OR', for which R denotes a linear or branched, saturated or unsaturated C 10 -C 30 hydrocarbon-based radical, R' denotes a linear or branched, saturated or unsaturated C 10 -C 30 hydrocarbon-based radical which may be substituted with a hydroxyl radical, said hydroxyl radical preferably being beta to the ether function, and n is an integer ranging from 1 to 100; - at least one compound chosen from fatty alcohols comprising at least 20 carbon atoms and fatty acid esters, the said esters being solid at room temperature and atmospheric pressure, and mixtures thereof; - at least one chemical oxidizing agent. - at least one oxidation dye; - at least one nonionic ether of a polyoxyalkylenated fatty alcohol of formula (i) R-(OCH 2 CH 2) n -OR', for which R denotes a linear or branched, saturated or unsaturated C 10 -C 30 hydrocarbon-based radical, R' denotes a linear or branched, saturated or unsaturated C 10 -C 30 hydrocarbon-based radical which may be substituted with a hydroxyl radical, said hydroxyl radical preferably being beta to the ether function, and n is an integer ranging from 1 to 100; - at least one compound chosen from fatty alcohols comprising at least 20 carbon atoms and fatty acid esters, the said esters being solid at room temperature and atmospheric pressure, and mixtures thereof; - at least one chemical oxidizing agent.
A method of producing a photocatalytic bituminous product, said method comprising: - impregnating a sheet with an organic layer; - coating said organic layer with an inorganic layer, wherein said coating comprises - sprinkling said organic layer with mineral granulates, and thereafter - further coating said organic layer with mineral granulates by depositing photocatalytic titanium dioxide nanoparticles onto said organic layer with mineral granulates thereby depositing photocatalytic titanium dioxide nanoparticles onto the sprinkled mineral granulates. - impregnating a sheet with an organic layer; - coating said organic layer with an inorganic layer, - sprinkling said organic layer with mineral granulates, and thereafter - further coating said organic layer with mineral granulates by depositing photocatalytic titanium dioxide nanoparticles onto said organic layer with mineral granulates thereby depositing photocatalytic titanium dioxide nanoparticles onto the sprinkled mineral granulates.
Handle for pots, pans, and similar cooking vessels, comprising a handgrip including actuation means of anchoring members removable from a pot, or similar cooking vessels, said anchoring members including a gripping head and being movable from a non operative configuration, where they are disengaged from said pot, to a coupling configuration, where they are locked to portions of said pot, wherein in the coupling configuration, portions of the inner and outer walls of the pot are locked onto the handle respectively between the gripping head and at least one respective abutment surface of the handgrip, whereby the inner and outer walls of the pot define a thickness, wherein said actuation means are associated to locking members of said anchoring members in said coupling configuration, for safely and effectively gripping pots, pans and similar cooking vessels, wherein the actuation means comprise at least a lever element hinged to said handgrip, associated with at least one first end thereof to said anchoring members and engageable with a second end thereof to said locking members in said coupling configuration,: in which said locking members are also removably engaged in an interlocking manner with said anchoring members and said anchoring members comprise at least second elastic compensation means for different thickness of the wall of the pot.
A stretch fabric with excellent snap back performance, wherein the stretch fabric is a warp knitted fabric formed by hard yarns and elastic yarns, wherein the included angle α between a sinker loop of the elastic yarn and the knitting direction of a needle loop is 0-10°, and the included angle β between the sinker loop of the hard yarn and the knitting direction of the needle loop is 5-85°, when measured by the method of the description; and wherein the elastic yarn is a polyurethane fiber and the polyurethane fiber is the reaction product of polyether diol having a side chain and a diisocyanate compound with two or more diamine compounds, wherein the molar ratio of ethylenediamine contained in the diamine compound to a branched aliphatic diamine compound having 3 to 5 carbon atoms is 98: 2 to 82: 18.
A computer implemented method for designing an electronic circuit using a circuit simulator to simulate a capacitor of the electronic circuit, the circuit simulator using an equivalent circuit model of the capacitor, the equivalent circuit model being expressed as a main resonant circuit (11, 11A, 51) in series to a capacitive circuit (13, 13A, 53), wherein the main resonant circuit (11, 11A, 51) is formed by connecting a resistive element, a capacitive element, and an inductive element in series, wherein the capacitive circuit (13, 13A, 53) is formed by connecting a resistive element and a capacitive element in parallel, the method comprising: correcting the characteristics of the capacitive element of the main resonant circuit in accordance with the applied voltage of the direct current bias voltage by multiplying the capacitance value of the capacitive element by the rate of change in the capacitance, correcting the characteristics of the capacitive element of the capacitive circuit in accordance with the applied voltage of the direct current bias voltage by multiplying the capacitance value of the capacitive element by the rate of change in the capacitance and dividing the result by the rate of change in the dielectric loss, correcting the characteristics of the resistive element of the capacitive circuit in accordance with the applied voltage of the direct current bias voltage by multiplying the resistance value of the resistive element by the rate of change in the dielectric loss and by dividing the result by the rate of change in the capacitance, wherein the rate of change in the capacitance is the rate of change in the capacitance of the capacitor of the electronic circuit which is dependent on the applied direct current bias voltage attributable to a material of the capacitor. correcting the characteristics of the capacitive element of the main resonant circuit in accordance with the applied voltage of the direct current bias voltage by multiplying the capacitance value of the capacitive element by the rate of change in the capacitance, correcting the characteristics of the capacitive element of the capacitive circuit in accordance with the applied voltage of the direct current bias voltage by multiplying the capacitance value of the capacitive element by the rate of change in the capacitance and dividing the result by the rate of change in the dielectric loss, correcting the characteristics of the resistive element of the capacitive circuit in accordance with the applied voltage of the direct current bias voltage by multiplying the resistance value of the resistive element by the rate of change in the dielectric loss and by dividing the result by the rate of change in the capacitance, wherein the rate of change in the capacitance is the rate of change in the capacitance of the capacitor of the electronic circuit which is dependent on the applied direct current bias voltage attributable to a material of the capacitor.
4-(3-Methanesulfonyl-phenyl)-1-propyl-piperidine hydrochloride salt, or a solvate thereof, in a crystalline form, wherein the crystalline form is crystalline Form II characterized by an X-ray powder diffraction pattern with reflections corresponding to the d-spacing values 8.9, 7.7, 6.7, 6.1, 5.1, 4.9, 4.3, 4.1, 3.6.
A processor (110, 400, 500, 670, 680, 1000, 1100) comprising: a plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) each to independently execute instructions; a clock distribution circuit (128, 220) including a clock signal generator to generate a clock signal and a plurality of branches (220a-c) each to provide the clock signal to one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102), wherein the clock distribution circuit (128, 220) is coupled to receive a first operating voltage from a first voltage rail and the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) are coupled to receive at least one second operating voltage from one or more second voltage rails, wherein the first operating voltage and the at least one second operating voltage are independent; and a power controller (138, 455, 555, 1160) including a clock control logic (459, 559) to dynamically modify the first operating voltage, wherein the first operating voltage is dynamically lowered to a lower voltage level than a level of the at least one second operating voltage when at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is placed into a low power mode in which the at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is powered off, and a portion of the clock distribution circuit (128, 220) is disabled, triggering a lighter load for the clock signal. a plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) each to independently execute instructions; a clock distribution circuit (128, 220) including a clock signal generator to generate a clock signal and a plurality of branches (220a-c) each to provide the clock signal to one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102), wherein the clock distribution circuit (128, 220) is coupled to receive a first operating voltage from a first voltage rail and the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) are coupled to receive at least one second operating voltage from one or more second voltage rails, wherein the first operating voltage and the at least one second operating voltage are independent; and a power controller (138, 455, 555, 1160) including a clock control logic (459, 559) to dynamically modify the first operating voltage, wherein the first operating voltage is dynamically lowered to a lower voltage level than a level of the at least one second operating voltage when at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is placed into a low power mode in which the at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is powered off, and a portion of the clock distribution circuit (128, 220) is disabled, triggering a lighter load for the clock signal.
A valve delivery system comprising: a transcatheter valve having an everted configuration and a non-everted configuration, and being compressible to a compressed configuration, the non-everted configuration having a longer length as compared with the everted configuration, the transcatheter valve comprising, a body frame that is a generally tubular member defining a body frame lumen having a body frame inner surface; a leaflet frame coupled to the body frame by a film having a plurality of U-shaped portions defining a base; and a film covering the body frame and the leaflet frame, the film coupling the body frame to the leaflet frame and defining leaflets, the coupling occurring across at least a fold region, wherein in the non-everted configuration the film in the fold region provides a hinge about which the leaflet frame may evert into the body frame into the everted configuration including the film being folded along a generally circumferential line in the fold region; and an elongated flexible catheter configured to endovascularly deploy the valve, the elongated flexible catheter having a distal section onto which the transcatheter valve is mounted in the non-everted configuration and the compressed configuration. a transcatheter valve having an everted configuration and a non-everted configuration, and being compressible to a compressed configuration, the non-everted configuration having a longer length as compared with the everted configuration, the transcatheter valve comprising, a body frame that is a generally tubular member defining a body frame lumen having a body frame inner surface; a leaflet frame coupled to the body frame by a film having a plurality of U-shaped portions defining a base; and a film covering the body frame and the leaflet frame, the film coupling the body frame to the leaflet frame and defining leaflets, the coupling occurring across at least a fold region, wherein in the non-everted configuration the film in the fold region provides a hinge about which the leaflet frame may evert into the body frame into the everted configuration including the film being folded along a generally circumferential line in the fold region; and a body frame that is a generally tubular member defining a body frame lumen having a body frame inner surface; a leaflet frame coupled to the body frame by a film having a plurality of U-shaped portions defining a base; and a film covering the body frame and the leaflet frame, the film coupling the body frame to the leaflet frame and defining leaflets, the coupling occurring across at least a fold region, wherein in the non-everted configuration the film in the fold region provides a hinge about which the leaflet frame may evert into the body frame into the everted configuration including the film being folded along a generally circumferential line in the fold region; and an elongated flexible catheter configured to endovascularly deploy the valve, the elongated flexible catheter having a distal section onto which the transcatheter valve is mounted in the non-everted configuration and the compressed configuration.
A motor rotor for a water pump, comprising: a hollow rotatable shaft having a first injection-molded part; a magnet having an axial length and being disposed circumferentially around a portion of the first injection-molded part, wherein the portion of the first injection-molded part extends through the entire axial length of the magnet; an impeller integrally formed with the first injection-molded part, said impeller being located at an axial end of the hollow rotatable shaft; and characterized by: wherein the hollow rotatable shaft further comprises a second injection-molded part extending around the first injection-molded part and over the axial length of the magnet, the second injection-molded part cooperating with the first injection-molded part to fixedly clamp the magnet between the first injection-molded part and the second injection-molded part. a hollow rotatable shaft having a first injection-molded part; a magnet having an axial length and being disposed circumferentially around a portion of the first injection-molded part, wherein the portion of the first injection-molded part extends through the entire axial length of the magnet; an impeller integrally formed with the first injection-molded part, said impeller being located at an axial end of the hollow rotatable shaft; and characterized by: wherein the hollow rotatable shaft further comprises a second injection-molded part extending around the first injection-molded part and over the axial length of the magnet, the second injection-molded part cooperating with the first injection-molded part to fixedly clamp the magnet between the first injection-molded part and the second injection-molded part.