mhurhangee/ep-ind-claims huggingface dataset:
A cardioplegic solution comprising potassium (K +), magnesium (Mg 2+), sodium (Na +), chloride (Cl -), gluconate, acetate, sulfate (SO 4 2-), THAM and mannitol dissolved in water, wherein the potassium (K +) concentration is 27 (±5%) to 33 (±5%) mEq/L, the magnesium (Mg 2+) concentration is 16 (±5%) to 20 (±5%) mEq/L, the sodium (Na +) concentration is 120 (±5%) to 146 (±5%) mEq/L, the chloride (Cl -) concentration is 106 (±5%) to 130 (±5%) mEq/L, the gluconate concentration is 20 (±5%) to 24 (±5%) mmol/L, the acetate concentration is 22 (±5%) to 28 (±5%) mmol/L, the sulfate (SO 4 2-) concentration is 6 (±5%) to 9 (±5%) mmol/L, the THAM concentration is between 5 (±5%) to 30 (±5%) mmol/L and mannitol concentration is 2 (±5%) to 5 (±5%) g/L.
A visual light communication, VLC, method for a lighting system comprising an LED driver and a plurality of LEDs or LED groups (722, 724), the method comprising the steps of: - receiving a set-point representing a desired illumination characteristic and data that is to be transmitted using VLC; and - determining a current profile for each LED or LED group (722, 724) of the plurality of LEDs or LED groups based on the desired illumination characteristic represented by the set-point, whereby an envelope of a combined current profile of the current profiles is modulated in order for a corresponding intensity variation as perceived by a sensor to represent a variable length VLC code representing the data, the VLC code comprising one or more code words, a code word comprising a plurality of symbols, whereby each of the plurality of symbols is characterized by a respective predetermined period; - generating one or more control signals (730.3) to drive the plurality of LEDs or LED groups (722, 724) in accordance with the current profiles in order for the plurality of LEDs or LED groups (722, 724) to transmit the VLC code. - receiving a set-point representing a desired illumination characteristic and data that is to be transmitted using VLC; and - determining a current profile for each LED or LED group (722, 724) of the plurality of LEDs or LED groups based on the desired illumination characteristic represented by the set-point, whereby an envelope of a combined current profile of the current profiles is modulated in order for a corresponding intensity variation as perceived by a sensor to represent a variable length VLC code representing the data, the VLC code comprising one or more code words, a code word comprising a plurality of symbols, whereby each of the plurality of symbols is characterized by a respective predetermined period; - generating one or more control signals (730.3) to drive the plurality of LEDs or LED groups (722, 724) in accordance with the current profiles in order for the plurality of LEDs or LED groups (722, 724) to transmit the VLC code.
A system for the iontophoretic transdermal delivery of a therapeutically effective amount of iron for the treatment of iron deficiency, the system comprising: a patch comprising an electrode (24, 26, 31, 36, 100) and a chelated iron complex comprising an iron ion electrostatically bound to a chelating agent and wherein the chelated iron complex comprises a therapeutically effective amount of iron for the treatment of iron deficiency, wherein the electrode (24, 26, 31, 36, 100), is configured to deliver an electrical current to the skin (20, 30, 24, 31, 21) such that the current transports the chelated iron complex across the skin (20, 30, 24, 31, 21), and wherein the iron ion is sufficiently electrostatically bound by the chelating agent so that the iron ion is chromogenically un-reactive with the skin during transport. a patch comprising an electrode (24, 26, 31, 36, 100) and a chelated iron complex comprising an iron ion electrostatically bound to a chelating agent and wherein the chelated iron complex comprises a therapeutically effective amount of iron for the treatment of iron deficiency, wherein the electrode (24, 26, 31, 36, 100), is configured to deliver an electrical current to the skin (20, 30, 24, 31, 21) such that the current transports the chelated iron complex across the skin (20, 30, 24, 31, 21), and wherein the iron ion is sufficiently electrostatically bound by the chelating agent so that the iron ion is chromogenically un-reactive with the skin during transport.
A method for manufacturing a device for transmitting power through a wall including at least two conducting bars (14A, 14B, 14C, 16) each having a cross-section larger than 700 mm 2 and a support plate shared by said conducting bars, each conducting bar traversing the support plate through an orifice (20A, 20B, 20C, 22) and protruding on either side of the support plate, characterized in that it includes the following steps: - pre-fabricating, in a mold and from a material that is initially malleable, the support plate having the passage orifices (20A, 20B, 20C, 22) for the conducting bars (14A, 14B, 14C, 16), the orifices (20A, 20B, 20C, 22) being integral by molding; - inserting a conducting bar (14A, 14B, 14C, 16) into each orifice (20A, 20B, 20C, 22) of the previously molded support plate; and - providing the connection between the conducting bars (14A, 14B, 14C, 16) and the support plate. - pre-fabricating, in a mold and from a material that is initially malleable, the support plate having the passage orifices (20A, 20B, 20C, 22) for the conducting bars (14A, 14B, 14C, 16), the orifices (20A, 20B, 20C, 22) being integral by molding; - inserting a conducting bar (14A, 14B, 14C, 16) into each orifice (20A, 20B, 20C, 22) of the previously molded support plate; and - providing the connection between the conducting bars (14A, 14B, 14C, 16) and the support plate.
A method for stimulating production from a hydrocarbon-bearing rock formation having a wellbore drilled in the formation, the method comprising: a) passing tubing into the wellbore, wherein the tubing has housed within it at least one flexible conduit of smaller diameter than the tubing; b) passing the conduit through the formation, such that the conduit extends laterally with respect to the wellbore and the conduit communicates between the interior of the tubing and the formation; and c) initiating production of hydrocarbons from the wellbore; characterized in that: the tubing has pre-formed apertures spaced along its length, and the method comprises: d) extending the conduit through one of the pre-formed apertures into the formation; e) passing acid under pressure through the tubing and through the conduit and then into the formation while advancing the conduit; f) once the conduit has reached its maximum extent in the formation, continuing to pass acid into the formation until a cavity is created adjacent a distal end of the conduit; and g) removing applied pressure in the well so that fluids in the formation can be produced to the surface and the cavity can collapse. a) passing tubing into the wellbore, wherein the tubing has housed within it at least one flexible conduit of smaller diameter than the tubing; b) passing the conduit through the formation, such that the conduit extends laterally with respect to the wellbore and the conduit communicates between the interior of the tubing and the formation; and c) initiating production of hydrocarbons from the wellbore; d) extending the conduit through one of the pre-formed apertures into the formation; e) passing acid under pressure through the tubing and through the conduit and then into the formation while advancing the conduit; f) once the conduit has reached its maximum extent in the formation, continuing to pass acid into the formation until a cavity is created adjacent a distal end of the conduit; and g) removing applied pressure in the well so that fluids in the formation can be produced to the surface and the cavity can collapse.
Method for routing within a mobile terminal (1.1) emulating a contactless payment card and comprising a plurality of secure elements (1.5; 1.6; 1.7; 2.6; 2.8; 2.10) that can dialogue with a near field radio communication component (1.4; 2.3), comprising the following steps: - a step of reception by the radio communication component of a message coming from a payment terminal (1.2; 2.5); characterised in that it further comprises, if the command received is a selection command intended to receive the list of available applications: - a step (4.2) of forming said list from a stored table, said list containing all or some of the applications available in all the secure elements; - a step (4.3) of sending said list to the payment terminal in response to the selection command received; and in that it further comprises, if the command received is an application selection command: - a step (4.4) of consulting said stored table in order to identify the secure element hosting the selected application; - a step (4.5) of storing the secure element identified as an active secure element; - a step (4.6) of relaying said application selection command to the active secure element; and in that it further comprises, for all the other commands received, a step (4.7) of relaying said received command to the active secure element. - a step of reception by the radio communication component of a message coming from a payment terminal (1.2; 2.5); - a step (4.2) of forming said list from a stored table, said list containing all or some of the applications available in all the secure elements; - a step (4.3) of sending said list to the payment terminal in response to the selection command received; - a step (4.4) of consulting said stored table in order to identify the secure element hosting the selected application; - a step (4.5) of storing the secure element identified as an active secure element; - a step (4.6) of relaying said application selection command to the active secure element;
Method for activating a spindle lock in a power tool, wherein the power tool comprises a tool fitting for receiving a tool, as well as a motor and device electronics characterized by the following method steps: a) carrying out a first rotary movement with the tool fitting of the power tool in a first direction of rotation, wherein the first rotary movement can be defined by an angle of rotation and/or a rotational speed and wherein limit values for the angle of rotation and/or the rotational speed are stored in the power tool, b) activation of the spindle lock by the device electronics of the power tool if at least one of the limit values for the angle of rotation and/or the rotational speed is exceeded. a) carrying out a first rotary movement with the tool fitting of the power tool in a first direction of rotation, wherein the first rotary movement can be defined by an angle of rotation and/or a rotational speed and wherein limit values for the angle of rotation and/or the rotational speed are stored in the power tool, b) activation of the spindle lock by the device electronics of the power tool if at least one of the limit values for the angle of rotation and/or the rotational speed is exceeded.
Door assembly encompassing a door with a door leaf for shutting and opening a frame, whereby a latch installation is installed for the detachable fastening of the door by the frame, and which includes an apron with at least one latch element activated by a hub and at least one actuation element with actuation section attached to the hub via movable coupling, which extends along a main axis and which can be activated by an operating person for mechanical unlatching of the latch element with an operating force aligned toward the door leaf, whereby the main axis of the actuation section can be arranged vertically or horizontally depending on gravitational force, whereby the actuation element encompasses a swiveling component adjustable in conjunction with the hub, which is adjustable via the actuation element, distinguished by the fact that the swiveling component is arranged or can be arranged in such a way that it can swivel around a swiveling component axis, which can optionally run coaxially or offset to the swiveling axis of the hub.
An oral self micro-emulsifying pharmaceutical composition, which is selected from the group consisting of: (i) a formulation comprising gemcitabine or its pharmaceutically acceptable salt in an amount of 2.00% (w/w), water in an amount of 20.00% (w/w); glycerol and PEG together in an amount of 32.30% (w/w); and polysorbate and oleoyl polyoxylglycerides together in an amount of 45.70% (w/w), wherein the % (w/w) values are based on the total weight of the pharmaceutical composition; (ii) a formulation comprising gemcitabine in an amount of 2.00% (w/w); water in an amount of 20.00% (w/w); propylene glycol and PEG in an amount of 32.30% (w/w); and polysorbate and oleoyl polyoxylglycerides in an amount of 45.70% (w/w), wherein the % (w/w) values are based on the total weight of the pharmaceutical composition; and (iii) a formulation comprising gemcitabine in an amount of 1.98% (w/w); water in an amount of 19.8% (w/w); glycerol and PEG together in an amount of 31.98% (w/w); polysorbate and oleoyl polyoxylglycerides together in an amount of 45.25% (w/w); and D-α-tocopheryl polyethylene glycol 1000 succinate (TPGS) in an amount of 0.99% (w/w), wherein the % (w/w) values are based on the total weight of the pharmaceutical composition. (i) a formulation comprising gemcitabine or its pharmaceutically acceptable salt in an amount of 2.00% (w/w), water in an amount of 20.00% (w/w); glycerol and PEG together in an amount of 32.30% (w/w); and polysorbate and oleoyl polyoxylglycerides together in an amount of 45.70% (w/w), wherein the % (w/w) values are based on the total weight of the pharmaceutical composition; (ii) a formulation comprising gemcitabine in an amount of 2.00% (w/w); water in an amount of 20.00% (w/w); propylene glycol and PEG in an amount of 32.30% (w/w); and polysorbate and oleoyl polyoxylglycerides in an amount of 45.70% (w/w), wherein the % (w/w) values are based on the total weight of the pharmaceutical composition; and (iii) a formulation comprising gemcitabine in an amount of 1.98% (w/w); water in an amount of 19.8% (w/w); glycerol and PEG together in an amount of 31.98% (w/w); polysorbate and oleoyl polyoxylglycerides together in an amount of 45.25% (w/w); and D-α-tocopheryl polyethylene glycol 1000 succinate (TPGS) in an amount of 0.99% (w/w), wherein the % (w/w) values are based on the total weight of the pharmaceutical composition.
A position-indicating module comprising a position sensor consisting of a mobile element, capable of being driven directly by an operator or by a mechanical or electromechanical drive element, and a detection unit outputting electrical information dependent on the position of the mobile assembly, without contact with the mobile assembly as well as at least one illumination element including at least one light source, characterised in that the mobile assembly includes an area capable of allowing the light beam from said illumination element to pass through, and in that the illumination element is located opposite said area, in that the mobile element comprises a magnet, and the detection unit comprises a magnetosensitive probe capable of measuring the variation of the magnetic field induced by the movement of the magnet, and in that the electrical supply state of the illumination element is dependent on the signal output by the detection unit.
A cartridge for an aerosol-generating system, the cartridge comprising: a storage container containing a supply of aerosol-forming substrate; a fluid-permeable heating element positioned across an opening in the storage container; a protective cover coupled to the storage container and covering the fluid-permeable heating element; at least one air inlet, at least one air outlet and an airflow path from the at least one air inlet to the at least one air outlet; wherein the protective cover is configured such that a portion of the airflow path is between the protective cover and the fluid-permeable heating element. a storage container containing a supply of aerosol-forming substrate; a fluid-permeable heating element positioned across an opening in the storage container; a protective cover coupled to the storage container and covering the fluid-permeable heating element; at least one air inlet, at least one air outlet and an airflow path from the at least one air inlet to the at least one air outlet; wherein the protective cover is configured such that a portion of the airflow path is between the protective cover and the fluid-permeable heating element.
Macitentan for use in the treatment and/or prevention of pulmonary arterial hypertension in human, wherein the dosage of macitentan is 60 to 90 mg per day.
A method for producing containers filled with liquids, and in particular with beverages, wherein plastics material preforms are heated by a heating device, are then conveyed to a shaping device and are shaped by this shaping device to the plastics material containers, and, after that, the plastics material containers are conveyed to a filling device and are filled with the liquid, and wherein the containers are conveyed inside a clean room at least during the filling and are sterilized by a first sterilization device at least in part before the filling with the liquid inside the clean room, wherein the plastics material preforms are pre-sterilized by means of a second sterilization device before the sterilization by the first sterilization device, characterized in that the second sterilization device has a movable carrier, on which a plurality of stressing devices is arranged which act upon at least an inner wall of the plastics material preforms with charge carriers and/or an electromagnetic radiation and wherein this pre-sterilization is carried out outside the clean room and wherein the pre-sterilization with the second sterilization device is carried out after the heating with the heating device.
A display device comprising: - an emissive display panel (14,16) having a display output face and comprising spaced apart light emissive display pixels; - a polarization-sensitive view forming arrangement (10,12) over the display output face, for directing light of a given first polarization from different pixels into different directions thereby enabling multiple views to be displayed in different directions simultaneously, wherein the view forming arrangement passes light of a second orthogonal polarization without significant change of direction; and - a polarization filter for blocking light of the first polarization arranged behind the display output face, namely on the opposite side of the emissive display panel to the view forming arrangement, wherein the display device has at least two modes of operation: - a first, see-through mode of operation in which the display panel (14,16) does not emit light and the display device blocks the light of the first polarization but allows light of the second polarization to pass through in both opposite directions through the display device, through the spacing between the light emissive display pixels; and - a second, 3D display mode in which the emissive pixels output light of the first polarization from the display output face and the view forming arrangement forms multiple views in one output direction. - an emissive display panel (14,16) having a display output face and comprising spaced apart light emissive display pixels; - a polarization-sensitive view forming arrangement (10,12) over the display output face, for directing light of a given first polarization from different pixels into different directions thereby enabling multiple views to be displayed in different directions simultaneously, wherein the view forming arrangement passes light of a second orthogonal polarization without significant change of direction; and - a polarization filter for blocking light of the first polarization arranged behind the display output face, namely on the opposite side of the emissive display panel to the view forming arrangement, - a first, see-through mode of operation in which the display panel (14,16) does not emit light and the display device blocks the light of the first polarization but allows light of the second polarization to pass through in both opposite directions through the display device, through the spacing between the light emissive display pixels; and - a second, 3D display mode in which the emissive pixels output light of the first polarization from the display output face and the view forming arrangement forms multiple views in one output direction.
A process for producing magnetic iron oxide fine particles having an average primary particle diameter of 5 to 15 nm and an average secondary particle diameter of 10 to 60 nm, a surface of the respective magnetic iron oxide fine particles being coated with a carboxyl group-containing polymer, which process comprises the steps of: heating an aqueous solution in which the carboxyl group-containing polymer is dissolved, to a temperature of 90 to 100°C in a nitrogen atmosphere; adding a solution of a ferrous salt and a ferric salt and an alkali solution to the aqueous solution to react with each other at the same temperature; cooling the resultant solution to room temperature and then adding ethanol to the resulting solution to obtain a precipitate; removing a supernatant liquid from the solution, and then dispersing the precipitate in water and subjecting the resulting dispersion to dialysis to obtain a water dispersion comprising the magnetic iron oxide fine particles whose surface is coated with the carboxyl group-containing polymer; and freeze-drying the water dispersion to obtain the magnetic iron oxide fine particles. heating an aqueous solution in which the carboxyl group-containing polymer is dissolved, to a temperature of 90 to 100°C in a nitrogen atmosphere; adding a solution of a ferrous salt and a ferric salt and an alkali solution to the aqueous solution to react with each other at the same temperature; cooling the resultant solution to room temperature and then adding ethanol to the resulting solution to obtain a precipitate; removing a supernatant liquid from the solution, and then dispersing the precipitate in water and subjecting the resulting dispersion to dialysis to obtain a water dispersion comprising the magnetic iron oxide fine particles whose surface is coated with the carboxyl group-containing polymer; and freeze-drying the water dispersion to obtain the magnetic iron oxide fine particles.
A liquid injection structure comprising a sleeve, an elastic member, a positioning member disposed in the sleeve and fixedly connected to the sleeve, and a liquid injection tube slidably arranged between the sleeve and the positioning member; wherein one end of the elastic member abuts against the sleeve, the other end of the elastic member abuts against the liquid injection tube, the sleeve is provided with a first liquid injection port, one end of the liquid injection tube away from the first liquid injection port is provided with a second liquid injection port; when the liquid injection tube abuts against the positioning member, the first liquid injection port is not communicated with the second liquid injection port; by sliding the liquid injection tube relative to the positioning member, the liquid injection tube compresses the elastic member, and the sealing of the positioning member to the liquid injection tube is removed such that the first liquid injection port is communicated with the second liquid injection port.
A laminate characterized by laminating a layer A of a polycarbonate resin which contains a structural unit derived from a dihydroxy compound having, as part of the structure thereof, a site represented by the following formula, and a structural unit other than the structural unit derived from said dihydroxy compound to a layer B of an aromatic polycarbonate resin, wherein the dihydroxy compound is a dihydroxy compound represented by the following formula, and wherein a content of the structural unit derived from the dihydroxy compound represented by the above formula in the polycarbonate resin to be used for forming the layer A is 35% by mole or higher and 90% by mole or less.