mhurhangee/ep-ind-claims huggingface dataset:
A photosensitizer, for use in treating acne by photodynamic therapy in an animal, wherein said PDT comprises: a) subjecting the skin of said animal to a mechanical or chemical pretreatment, in particular a pretreatment with sandpaper; b) applying to the skin of said animal a composition comprising said photosensitizer for a duration of 27, 28, 29, 30, 31, 32 minutes, preferably of 30 minutes; c) removing the photosensitizer; and d) photoactivating said photosensitizer 2.5 hours later for a duration of at least 2 hours with natural light. a) subjecting the skin of said animal to a mechanical or chemical pretreatment, in particular a pretreatment with sandpaper; b) applying to the skin of said animal a composition comprising said photosensitizer for a duration of 27, 28, 29, 30, 31, 32 minutes, preferably of 30 minutes; c) removing the photosensitizer; and d) photoactivating said photosensitizer 2.5 hours later for a duration of at least 2 hours with natural light.
A row unit, comprising: an upright frame portion comprising front and rear-facing sides, the front facing side configured to be coupled to a tool bar; a fore and aft extending frame coupled on one end to the rear-facing side, the fore and aft extending frame operably coupled to one or more disc openers and plural gauge wheels; a pair of arms pivotably and independently coupled to the fore and aft extending frame; a pair of closing wheels, each operably coupled to one of the pair of arms; and a pair of down force components, each coupled between the upright frame and the one of the pair of arms. an upright frame portion comprising front and rear-facing sides, the front facing side configured to be coupled to a tool bar; a fore and aft extending frame coupled on one end to the rear-facing side, the fore and aft extending frame operably coupled to one or more disc openers and plural gauge wheels; a pair of arms pivotably and independently coupled to the fore and aft extending frame; a pair of closing wheels, each operably coupled to one of the pair of arms; and a pair of down force components, each coupled between the upright frame and the one of the pair of arms.
Device for the automated diffusion of at least one volatile substance, the device comprising: - emission means configured for periodically diffusing the at least one volatile substance; and - at least one battery; - at least one photovoltaic cell configured for transforming light energy into electric energy and storing said electric energy in the at least one battery,generating electric energy over time (t) for first environmental conditions and second environmental conditions, wherein in the first environmental conditions there is more light than in the second environmental conditions, the speed at which electric energy is generated being also greater in the first environmental conditions than in the second environmental conditions, a steeper slope being observed; - an electronic controller configured for determining activation intervals of the emission means depending at least on the transformed light energy, characterized in that: the electronic controller measures said steeper slope and it is used for adaptively modifying the control of the emission means, the electronic controller using the battery energy level as input information for performing adaptive control since said level is directly related to the amount of transformed light energy, the adaptive control performed by the electronic controller determining the time intervals in which the emission means are active, actively causing the diffusion of the volatile substance, reducing an emission frequency when the energy reserves drop, the time in which the emission means are active being maximized. - emission means configured for periodically diffusing the at least one volatile substance; and - at least one battery; - at least one photovoltaic cell configured for transforming light energy into electric energy and storing said electric energy in the at least one battery,generating electric energy over time (t) for first environmental conditions and second environmental conditions, wherein in the first environmental conditions there is more light than in the second environmental conditions, the speed at which electric energy is generated being also greater in the first environmental conditions than in the second environmental conditions, a steeper slope being observed; - an electronic controller configured for determining activation intervals of the emission means depending at least on the transformed light energy, the electronic controller measures said steeper slope and it is used for adaptively modifying the control of the emission means, the electronic controller using the battery energy level as input information for performing adaptive control since said level is directly related to the amount of transformed light energy, the adaptive control performed by the electronic controller determining the time intervals in which the emission means are active, actively causing the diffusion of the volatile substance, reducing an emission frequency when the energy reserves drop, the time in which the emission means are active being maximized.
Control device, in particular for an electrical and/or electronic device, which has a base element and an actuating element that can be rotated manually with respect to the base element about an actuation axis, the control device also having a sensor unit for detecting a movement of the actuating element about the actuation axis, characterized in that the sensor unit comprises an acceleration sensor, wherein the acceleration sensor is configured to measure the gravitational acceleration as a function of the movement of the actuating element, wherein the control device has an evaluation unit which is coupled to the acceleration sensor and which is configured to determine the orientation of the actuating element relative to the direction of the gravitational acceleration, wherein the acceleration sensor comprises an at least two-axis acceleration sensor, of which the sensing axes extend in a sensing plane perpendicular to the actuation axis, wherein, at least when the control device is used, the sensing plane extends substantially parallel to the gravitational field, wherein the acceleration sensor is rotationally fixedly arranged on the actuating element in such a way that, during a rotation of the actuating element about the actuation axis, the sensing plane is also rotated about the actuation axis.
Beverage preparation machine comprising at least one boiler and a rotary stirring device comprising a rotary tool about an axis A and intended to stir a preparation contained in a container, said rotary stirring device comprising a conveying guide pipe for conveying hot water and/or steam from the at least one boiler to the rotary tool, said conveying guide pipe comprising a tubular portion of length L, that extends along the axis A between a first end on which the rotary tool is arranged and a second end arranged on a drive shaft by means of a coupling device, characterised in that the conveying guide pipe comprises a vent valve of said guide pipe when the latter transitions to a negative pressure, said vent valve being dimensioned to prevent said preparation from rising towards the interior of the tubular portion, the vent valve being of the umbrella type comprising an elastic cap and an elastic rod arranged perpendicularly and as a single block with the cap, the rod extending horizontally along an axis B and the cap extending vertically, the cap and the rod being made of silicone.
An under voltage lockout circuit configured to set a minimum turn-on voltage for a load, comprising: an input node configured to receive an input voltage; a first resistor and a second resistor; a first transistor configured to become conductive to supply the input voltage to the load when the input voltage to the under voltage lockout circuit exceeds a threshold; and a second transistor directly electrically coupled to the first transistor, the second transistor configured to become conductive to supply the input voltage to said first resistor and not to the load when the input voltage to the under voltage lockout circuit falls below the threshold, characterised in that a collector of the second transistor is electrically coupled, through the first resistor, to the input node and configured to be electrically coupled to a terminal of the load wherein a base of the second transistor is electrically coupled to a collector of the first transistor through said second resistor, and wherein the collector of the first transistor is directly electrically coupled to a node, wherein the node is directly electrically coupled to the second resistor and configured to be directly coupled to another terminal of the load. an input node configured to receive an input voltage; a first resistor and a second resistor; a first transistor configured to become conductive to supply the input voltage to the load when the input voltage to the under voltage lockout circuit exceeds a threshold; and a second transistor directly electrically coupled to the first transistor, the second transistor configured to become conductive to supply the input voltage to said first resistor and not to the load when the input voltage to the under voltage lockout circuit falls below the threshold, characterised in that a collector of the second transistor is electrically coupled, through the first resistor, to the input node and configured to be electrically coupled to a terminal of the load wherein a base of the second transistor is electrically coupled to a collector of the first transistor through said second resistor, and wherein the collector of the first transistor is directly electrically coupled to a node, wherein the node is directly electrically coupled to the second resistor and configured to be directly coupled to another terminal of the load.
An energy delivery device comprising: an antenna comprising an inner conductor; and a permanent sharp tip positioned at the distal end of the antenna, wherein the permanent sharp tip is encapsulated in a biocompatible material thereby rendering the distal end of the energy delivery device non-sharp, wherein the width of the permanent sharp tip encapsulated in a biocompatible material is not larger than the width of the antenna, wherein the biocompatible material is any material that upon exposure to ablation energy will disintegrate and/or melt and/or dissolve and/or sublime resulting in a non-encapsulated conductive permanent tip; characterized in that the energy delivery device is configured to allow circulation of coolant therethrough. an antenna comprising an inner conductor; and a permanent sharp tip positioned at the distal end of the antenna, wherein the permanent sharp tip is encapsulated in a biocompatible material thereby rendering the distal end of the energy delivery device non-sharp, wherein the width of the permanent sharp tip encapsulated in a biocompatible material is not larger than the width of the antenna, wherein the biocompatible material is any material that upon exposure to ablation energy will disintegrate and/or melt and/or dissolve and/or sublime resulting in a non-encapsulated conductive permanent tip; characterized in that the energy delivery device is configured to allow circulation of coolant therethrough.
A method for preparing a medical product, preferably a continuous method, the method comprising - providing an aqueous dispersion of nanofibrillar cellulose, - providing a nonwoven fabric, - immersing the nonwoven fabric in the aqueous dispersion of nanofibrillar cellulose to form a coating on the nonwoven fabric, - passing the immersed nonwoven fabric through a prefined gap to define the thickness of the coating on the immersed nonwoven fabric without pressing, and - dewatering the immersed nonwoven fabric, - optionally repeating the immersing and passing through the gap at least once, to obtain the medical product. - providing an aqueous dispersion of nanofibrillar cellulose, - providing a nonwoven fabric, - immersing the nonwoven fabric in the aqueous dispersion of nanofibrillar cellulose to form a coating on the nonwoven fabric, - passing the immersed nonwoven fabric through a prefined gap to define the thickness of the coating on the immersed nonwoven fabric without pressing, and - dewatering the immersed nonwoven fabric, - optionally repeating the immersing and passing through the gap at least once, to obtain the medical product.
A feedback method for cooperative multipoint, CoMP, communication at a user equipment, UE in a communication system, the feedback method comprising: receiving channel status information, CSI, report information; the method further characterized by comprising: determining a number of bits of a CSI request field, based on a number of cells; receiving downlink control information, DCI, including the CSI request field; interpreting (1002, 1006, 1010, 1012) the CSI request field, based on the determined number of bits of the CSI request field; and triggering an aperiodic CSI report, based on the interpreted CSI request field and the received CSI report information. receiving channel status information, CSI, report information; the method further characterized by comprising: determining a number of bits of a CSI request field, based on a number of cells; determining a number of bits of a CSI request field, based on a number of cells; receiving downlink control information, DCI, including the CSI request field; interpreting (1002, 1006, 1010, 1012) the CSI request field, based on the determined number of bits of the CSI request field; and triggering an aperiodic CSI report, based on the interpreted CSI request field and the received CSI report information.
Method for preparing solid microcapsules comprising the steps of: a) the addition, with stirring, of a composition C1, comprising at least one active ingredient, in a photocrosslinkable polymer composition C2, the compositions C1 and C2 not being miscible with each other, wherein an emulsion comprising drops of composition C1 dispersed in composition C2, is obtained; b) the addition, with stirring, of the emulsion in a composition C3, the compositions C2 and C3 not being miscible with each other, the viscosity of the composition C3 being greater than the viscosity of the emulsion, and being greater than 2,000 mPa.s at 25°C, wherein a double emulsion comprising drops dispersed in the composition C3, is obtained; c) applying shear to the emulsion, the applied shear rate being less than 1000 s -1, wherein a double emulsion is obtained comprising controlled-size drops dispersed in the composition C3; and d) the photopolymerization of the composition C2, wherein solid microcapsules dispersed in the composition C3 are obtained. a) the addition, with stirring, of a composition C1, comprising at least one active ingredient, in a photocrosslinkable polymer composition C2, the compositions C1 and C2 not being miscible with each other, wherein an emulsion comprising drops of composition C1 dispersed in composition C2, is obtained; b) the addition, with stirring, of the emulsion in a composition C3, the compositions C2 and C3 not being miscible with each other, the viscosity of the composition C3 being greater than the viscosity of the emulsion, and being greater than 2,000 mPa.s at 25°C, wherein a double emulsion comprising drops dispersed in the composition C3, is obtained; c) applying shear to the emulsion, the applied shear rate being less than 1000 s -1, wherein a double emulsion is obtained comprising controlled-size drops dispersed in the composition C3; and d) the photopolymerization of the composition C2, wherein solid microcapsules dispersed in the composition C3 are obtained.
A gas turbine engine exhaust panel mounting system comprising a panel, a casing and an attachment assembly for removably connecting the panel to the casing, the attachment assembly comprising: a retaining portion; a clamping portion; and a 'C'-shaped connecting link, the connecting link having a first attachment portion and an opposite second attachment portion, the first and second attachment portions (132, 134) being connected to one another by a centre portion, each of the first and second attachment portions (132, 134) being substantially parallel to one another and extending in the same direction from respective ends of the centre portion, the first attachment portion being fixedly connected to the casing by the clamping portion, and the second attachment portion being slidingly connected to the panel by the retaining portion, and characterised in that the clamping portion comprises a first end and an opposite second end, the first end having a slot adapted to accommodate the first attachment portion, the second end being connected to the casing. a retaining portion; a clamping portion; and a 'C'-shaped connecting link, the connecting link having a first attachment portion and an opposite second attachment portion, the first and second attachment portions (132, 134) being connected to one another by a centre portion, each of the first and second attachment portions (132, 134) being substantially parallel to one another and extending in the same direction from respective ends of the centre portion, the first attachment portion being fixedly connected to the casing by the clamping portion, and the second attachment portion being slidingly connected to the panel by the retaining portion, and characterised in that the clamping portion comprises a first end and an opposite second end, the first end having a slot adapted to accommodate the first attachment portion, the second end being connected to the casing.
Process for the manufacture of a product containing a photocatalytically active titanium compound, which comprises at least one step wherein the photocatalytically active titanium compound is contacted with a biopolymer in a liquid phase comprising a solvent having a carbonyl function and a C-H bond in α-position to said carbonyl function, and an inhibitor selected from one or more acids and one or more alcohols or mixtures thereof, wherein the solvent is a ketone and the inhibitor comprises a carboxylic acid or a polyol.
A process for the preparation of a compound of formula or a pharmaceutically acceptable salt thereof; comprising reacting a compound of formula with a compound of formula, wherein L 1 is a leaving group; in the presence of an inorganic base; wherein the inorganic base does not form water when reacted with or contacted with an acid and is selected from K 2 HPO 4 and K 3 PO 4; in a first organic solvent; at a temperature in the range of from about 40°C to about 70°C; to yield the corresponding compound of formula; and reacting the compound of formula to yield the corresponding compound of formula.
An implantable stimulator device, comprising: a plurality of electrode nodes (E N) adapted to be implanted adjacent to tissue to be stimulated; current source circuitry comprising a plurality of first stages, each first stage comprising: a current source for sourcing a sourced output current, and a switch bank comprising plurality of switches (S N) each connected directly to one of the electrode nodes for receiving the sourced output current and for directing the sourced output current to any of the plurality of electrode nodes; and current sink circuitry comprising a plurality of second stages, each second stage comprising: a current sink for sinking a sinked output current, and a switch bank comprising a plurality of switches each connected directly to one of the electrode nodes for receiving the sinked output current and for directing the sinked output current from any of the plurality of electrode nodes. a plurality of electrode nodes (E N) adapted to be implanted adjacent to tissue to be stimulated; current source circuitry comprising a plurality of first stages, each first stage comprising: a current source for sourcing a sourced output current, and a switch bank comprising plurality of switches (S N) each connected directly to one of the electrode nodes for receiving the sourced output current and for directing the sourced output current to any of the plurality of electrode nodes; and a current source for sourcing a sourced output current, and a switch bank comprising plurality of switches (S N) each connected directly to one of the electrode nodes for receiving the sourced output current and for directing the sourced output current to any of the plurality of electrode nodes; and current sink circuitry comprising a plurality of second stages, each second stage comprising: a current sink for sinking a sinked output current, and a switch bank comprising a plurality of switches each connected directly to one of the electrode nodes for receiving the sinked output current and for directing the sinked output current from any of the plurality of electrode nodes. a current sink for sinking a sinked output current, and a switch bank comprising a plurality of switches each connected directly to one of the electrode nodes for receiving the sinked output current and for directing the sinked output current from any of the plurality of electrode nodes.
A method for detecting a leak in a specimen contained in a test chamber, the method comprising the following steps: positioning the specimen in the test chamber, evacuating the test chamber, measuring the partial pressure of a gas within the test chamber as a measuring signal M during the evacuation of the test chamber, characterized in that the method further comprises the following steps: forming a difference D from the progression of the signal M(t) over time t and a fitting function F(t), representing the gas proportions in the measuring signal M, which results from diffusion and/or desorption from a wall of the test chamber or the specimen and includes the term t -n, where n is a positive rational number, and judging the presence of a leak in the specimen based on the differential signal D. positioning the specimen in the test chamber, evacuating the test chamber, measuring the partial pressure of a gas within the test chamber as a measuring signal M during the evacuation of the test chamber, characterized in that the method further comprises the following steps: forming a difference D from the progression of the signal M(t) over time t and a fitting function F(t), representing the gas proportions in the measuring signal M, which results from diffusion and/or desorption from a wall of the test chamber or the specimen and includes the term t -n, where n is a positive rational number, and judging the presence of a leak in the specimen based on the differential signal D. forming a difference D from the progression of the signal M(t) over time t and a fitting function F(t), representing the gas proportions in the measuring signal M, which results from diffusion and/or desorption from a wall of the test chamber or the specimen and includes the term t -n, where n is a positive rational number, and judging the presence of a leak in the specimen based on the differential signal D.