mhurhangee/ep-ind-claims huggingface dataset:
A composition for use in a method of photoprotection comprising topical application of said composition, said composition comprising baicalin or an extract containing same, and at least one system filtering UVA radiation comprising at least one bis-resorcinyl triazine derivative.
A system for thermally treating fluid for treatment of a patient, comprising: an energy delivery device configured to be in use positioned in the patient; and a cooling device (36, 236) that includes a thermal plate; a disposable heat exchanger cartridge (28, 228) or resilient body removably coupled to the cooling device, the cartridge (28, 228) or body including a thermally conductive surface and a fluid channel that extends through the cartridge (28, 228) or body with at least a portion of the fluid channel arranged adjacent to the thermally conductive surface, wherein the fluid channel of the heat exchanger cartridge is in fluid communication with the energy delivery device; and at least one biasing mechanism arranged to removably couple the cartridge (28, 228) or body to the cooling device (36, 236) such that the thermally conductive surface is biased against the thermal plate of the cooling device (36, 236) to transfer heat from the fluid, and a pump positioned in a supply path between the heat exchanger cartridge and the energy delivery device, the pump being configured to draw a fluid through the fluid channel of the heat exchanger cartridge at a negative pressure to chill the fluid, and configured to supply the chilled fluid to the energy delivery device at a positive pressure. an energy delivery device configured to be in use positioned in the patient; and a cooling device (36, 236) that includes a thermal plate; a disposable heat exchanger cartridge (28, 228) or resilient body removably coupled to the cooling device, the cartridge (28, 228) or body including a thermally conductive surface and a fluid channel that extends through the cartridge (28, 228) or body with at least a portion of the fluid channel arranged adjacent to the thermally conductive surface, wherein the fluid channel of the heat exchanger cartridge is in fluid communication with the energy delivery device; and at least one biasing mechanism arranged to removably couple the cartridge (28, 228) or body to the cooling device (36, 236) such that the thermally conductive surface is biased against the thermal plate of the cooling device (36, 236) to transfer heat from the fluid, and a pump positioned in a supply path between the heat exchanger cartridge and the energy delivery device, the pump being configured to draw a fluid through the fluid channel of the heat exchanger cartridge at a negative pressure to chill the fluid, and configured to supply the chilled fluid to the energy delivery device at a positive pressure.
A sorting apparatus for sorting out coins from bulk metal, in particular from non-ferrous bulk metal and/or heavy bulk metal, comprising conveying means, provided with a conveyor belt, for conveying the bulk metal in a conveying direction to a sorting slot through which coins can pass and which is defined by a roller (10, 11), and, on the side opposite the roller (10, 11), by the conveyor belt, wherein the roller (10, 11) can be rotated about an axis of rotation (6, 7, 30, 31) by means of a drive such that the metal, which cannot be conveyed through the sorting slot in the conveying direction, can be transported by the roller (10, 11) in a direction (13, 19, 22) leading away from the sorting slot such that the metal can be removed at the side, characterized in that the sorting apparatus comprises means for removing the metal on two opposite sides, which cannot be conveyed through the sorting slot in the conveying direction, and in that the means are embodied such that the removal of the metal to the two opposite sides of the conveyor belt takes place in an area in conveying direction upstream of the roller (10, 11).
A sensor module for an elevator monitoring system, comprising: a first acoustic sensor arranged to provide a first acoustic signal; a second acoustic sensor arranged to provide a second acoustic signal; characterized in that the sensor module further comprises: a first accelerometer arranged to provide a first acceleration signal; a second accelerometer arranged to provide a second acceleration signal; and a processor arranged to receive the first acoustic signal, the second acoustic signal, the first acceleration signal, and the second acceleration signal; the processor being programmed to, responsive to an input provided to the first acoustic sensor, the second acoustic sensor, the first accelerometer, and the second accelerometer, identify a direction of an elevator system noise source based on: a first time delay between the first acoustic signal and the second acoustic signal and a first spatial difference between the first acceleration signal and the second acceleration signal. a first acoustic sensor arranged to provide a first acoustic signal; a second acoustic sensor arranged to provide a second acoustic signal; a first accelerometer arranged to provide a first acceleration signal; a second accelerometer arranged to provide a second acceleration signal; and a processor arranged to receive the first acoustic signal, the second acoustic signal, the first acceleration signal, and the second acceleration signal; the processor being programmed to, responsive to an input provided to the first acoustic sensor, the second acoustic sensor, the first accelerometer, and the second accelerometer, identify a direction of an elevator system noise source based on: a first time delay between the first acoustic signal and the second acoustic signal and a first spatial difference between the first acceleration signal and the second acceleration signal.
A method for manufacturing a layered fibreboard in the dry process, in particular an ultra-light MDF layered board, comprising an average raw density of more than 400 kg/m 3, from lignocellulosic fibres (5, 6), in particular wood fibres, and a binding agent (7, 8), in which in a first step a first scattering material composed of first fibres and a binding agent and a second scattering material composed of second fibres and a second binding agent (7, 8) are produced, wherein the second fibres are selected to be coarser than the first fibres and the first fibres are selected to be more humid than the second fibres, in which in a second step a three-layered scattering mat is produced by scattering three layers (19, 20, 21) of scattering material (9, 10) on top of each other, wherein the two outer cover layers (19, 20) only contain the first scattering material and the intermediate layer formed between the two cover layers (19, 20) only contains the second scattering material, and in which in a third step the three-layered scattering mat is pressed and simultaneously heated up, and wherein the cover layers (19, 20) are formed with a density that exceeds the density of the intermediate layer by more than 50%, preferably by more than 50% through 150%, more preferably by 70% through 120%, mots preferably by 80% through 100%.
A metal aerofoil which tapers towards an edge, the aerofoil comprising: a treated region of compressive residual stress; an edge region of compressive residual stress extending from the edge; wherein the treated region is separated from the edge region by an intermediate region disposed between the treated region and the edge region, the intermediate region comprising a region of tensile residual stress; wherein the treated region is spaced apart from the edge by at least 2.5mm along a direction perpendicular to the edge. a treated region of compressive residual stress; an edge region of compressive residual stress extending from the edge; wherein the treated region is separated from the edge region by an intermediate region disposed between the treated region and the edge region, the intermediate region comprising a region of tensile residual stress; wherein the treated region is spaced apart from the edge by at least 2.5mm along a direction perpendicular to the edge.
An oral care composition comprising a) an orally acceptable acidic polymer comprising a combination of 1:4 to 4:1 copolymers of maleic anhydride or acid with another polymerizable ethylenically unsaturated monomer; and a co-polymerized product of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1: wherein n is 0, 1 or 2; b) an orally acceptable nonionic polymer, wherein the orally acceptable nonionic polymer is selected from polyethylene glycols, polypropylene glycols, poloxamers and mixtures thereof; c) an effective amount of an orally acceptable cationic active agent, wherein said orally acceptable cationic active agent is provided by an orally acceptable salt selected from zinc salts, stannous salts, chlorhexidine digluconate, and cetyl pyridinium chloride; d) a stabilizing amount of a polyamine compound, in free or orally acceptable salt form, wherein the polyamine compound is lysine; e) water; and f) an anionic surfactant, wherein the anionic surfactant comprises sodium lauryl sulfate. a) an orally acceptable acidic polymer comprising a combination of 1:4 to 4:1 copolymers of maleic anhydride or acid with another polymerizable ethylenically unsaturated monomer; and a co-polymerized product of a mixture of acrylic acid, methacrylic acid, and 2-hydroxyethyl methacrylate phosphates of Formula 1: wherein n is 0, 1 or 2; b) an orally acceptable nonionic polymer, wherein the orally acceptable nonionic polymer is selected from polyethylene glycols, polypropylene glycols, poloxamers and mixtures thereof; c) an effective amount of an orally acceptable cationic active agent, wherein said orally acceptable cationic active agent is provided by an orally acceptable salt selected from zinc salts, stannous salts, chlorhexidine digluconate, and cetyl pyridinium chloride; d) a stabilizing amount of a polyamine compound, in free or orally acceptable salt form, wherein the polyamine compound is lysine; e) water; and f) an anionic surfactant, wherein the anionic surfactant comprises sodium lauryl sulfate.
Method for automatically monitoring an apparatus for processing meat products, in particular fish, characterised by the following steps: a. measuring input signals from input sensors for acquiring geometric and/or weight data of an input meat product fed to the apparatus and for determining at least one yield-relevant prediction variable, b. measuring output signals from output sensors for acquiring geometric and/or weight data of a meat product yield and for determining at least one yield-relevant yield variable, and c. calculating a difference variable by means of a difference unit by calculating a difference between one of the prediction variables and the at least one corresponding yield variable. a. measuring input signals from input sensors for acquiring geometric and/or weight data of an input meat product fed to the apparatus and for determining at least one yield-relevant prediction variable, b. measuring output signals from output sensors for acquiring geometric and/or weight data of a meat product yield and for determining at least one yield-relevant yield variable, and c. calculating a difference variable by means of a difference unit by calculating a difference between one of the prediction variables and the at least one corresponding yield variable.
A method of protecting hair by applying to hair a composition comprising a polymeric compound consisting of poly[poly(ethylene glycol) methyl ether methacrylate-co-allyl methacrylatel.
A process for preparation of at least one of methacrylic acid and a methacrylic acid ester, comprising process steps: a1) gas phase oxidation of a C 4 compound to obtain a reaction phase comprising methacrylic acid; a2) quenching of the reaction phase to obtain a crude aqueous phase comprising methacrylic acid; a3) separation of at least a part of the methacrylic acid from the aqueous phase comprising methacrylic acid to obtain at least one crude methacrylic acid-comprising phase; a4) separation and optionally purification of at least a part of the methacrylic acid from the crude methacrylic acid-comprising phase obtained in process step a3) by means of a thermal separation process; a5) optionally, esterification of at least a part of the methacrylic acid obtained in step a4); characterized in that the C 4 compound oxidised in step a1) originates from a mixture of at least two different methacrolein comprising feed streams and this mixture comprises 1 to 99 percent by weight of a first methacrolein comprising feed stream obtained by the heterogeneously catalysed gas phase oxidation of isobutylene or tert-butyl alcohol or isobutylaldehyde or a mixture of two or more thereof, and 99 to 1 percent by weight of a second methacrolein comprising feed stream obtained by the reaction of propionaldehyde with a C 1 extending agent. a1) gas phase oxidation of a C 4 compound to obtain a reaction phase comprising methacrylic acid; a2) quenching of the reaction phase to obtain a crude aqueous phase comprising methacrylic acid; a3) separation of at least a part of the methacrylic acid from the aqueous phase comprising methacrylic acid to obtain at least one crude methacrylic acid-comprising phase; a4) separation and optionally purification of at least a part of the methacrylic acid from the crude methacrylic acid-comprising phase obtained in process step a3) by means of a thermal separation process; a5) optionally, esterification of at least a part of the methacrylic acid obtained in step a4); characterized in that the C 4 compound oxidised in step a1) originates from a mixture of at least two different methacrolein comprising feed streams and this mixture comprises 1 to 99 percent by weight of a first methacrolein comprising feed stream obtained by the heterogeneously catalysed gas phase oxidation of isobutylene or tert-butyl alcohol or isobutylaldehyde or a mixture of two or more thereof, and 99 to 1 percent by weight of a second methacrolein comprising feed stream obtained by the reaction of propionaldehyde with a C 1 extending agent. 1 to 99 percent by weight of a first methacrolein comprising feed stream obtained by the heterogeneously catalysed gas phase oxidation of isobutylene or tert-butyl alcohol or isobutylaldehyde or a mixture of two or more thereof, and 99 to 1 percent by weight of a second methacrolein comprising feed stream obtained by the reaction of propionaldehyde with a C 1 extending agent.
A nanofiltration or reverse osmosis membrane made of a diamond like carbon film, wherein the NF or RO membrane has a thickness of from 5 nm to 50 nm, and has pores penetrating the NF or RO membrane, and having a maximum pore diameter of less than 0.86 nm when the pore diameter is measured as identified in the description according to the Ferry-Renkin method.
A microwave treatment system, comprising: an electrosurgical energy source; a microwave antenna assembly operatively connected to the electrosurgical energy source, the microwave antenna assembly including: a radiating portion configured to deliver energy from the energy source to tissue of a patient, the radiating portion having an outer conductor and an inner conductor extending therethrough, the inner conductor disposed within the outer conductor and defining a longitudinal axis (X-X); wherein one of the inner conductor and the outer conductor is movable relative to the other to cause at least a portion of the outer conductor to expand radially relative to the longitudinal axis (X-X); characterized by further comprising: a repairing sealant configured to be inserted into a vessel such that the repairing sealant is disposed between an inner vessel wall of the vessel and the outer conductor, wherein the electrosurgical energy source is configured to deliver energy to at least one of the inner conductor and the outer conductor to activate the repairing sealant to repair the inner vessel wall. an electrosurgical energy source; a microwave antenna assembly operatively connected to the electrosurgical energy source, the microwave antenna assembly including: a radiating portion configured to deliver energy from the energy source to tissue of a patient, the radiating portion having an outer conductor and an inner conductor extending therethrough, the inner conductor disposed within the outer conductor and defining a longitudinal axis (X-X); wherein one of the inner conductor and the outer conductor is movable relative to the other to cause at least a portion of the outer conductor to expand radially relative to the longitudinal axis (X-X); a radiating portion configured to deliver energy from the energy source to tissue of a patient, the radiating portion having an outer conductor and an inner conductor extending therethrough, the inner conductor disposed within the outer conductor and defining a longitudinal axis (X-X); wherein one of the inner conductor and the outer conductor is movable relative to the other to cause at least a portion of the outer conductor to expand radially relative to the longitudinal axis (X-X); characterized by further comprising: a repairing sealant configured to be inserted into a vessel such that the repairing sealant is disposed between an inner vessel wall of the vessel and the outer conductor, wherein the electrosurgical energy source is configured to deliver energy to at least one of the inner conductor and the outer conductor to activate the repairing sealant to repair the inner vessel wall. a repairing sealant configured to be inserted into a vessel such that the repairing sealant is disposed between an inner vessel wall of the vessel and the outer conductor, wherein the electrosurgical energy source is configured to deliver energy to at least one of the inner conductor and the outer conductor to activate the repairing sealant to repair the inner vessel wall.
A system for heating/cooling a target unit, the system comprising: a heater/cooler unit including: a heater/cooler that includes a heater/cooler element and a heater/cooler pump; and a heat exchanger that includes a heat exchange element, wherein the heater/cooler pump is configured to pump a first fluid through the heater/cooler element and the heat exchange element and back to the heater/cooler pump; and characterised by a heat transfer fluid module including a heat transfer fluid tank (120, 300) that defines a fluid reservoir (122, 302) configured to contain a second fluid for pumping to and through the heat exchanger to transfer heating/cooling between the first fluid and the second fluid and for pumping to and through a target unit to transfer heating/cooling between the second fluid and the target unit. a heater/cooler unit including: a heater/cooler that includes a heater/cooler element and a heater/cooler pump; and a heat exchanger that includes a heat exchange element, wherein the heater/cooler pump is configured to pump a first fluid through the heater/cooler element and the heat exchange element and back to the heater/cooler pump; and characterised by a heater/cooler that includes a heater/cooler element and a heater/cooler pump; and a heat exchanger that includes a heat exchange element, wherein the heater/cooler pump is configured to pump a first fluid through the heater/cooler element and the heat exchange element and back to the heater/cooler pump; and characterised by a heat transfer fluid module including a heat transfer fluid tank (120, 300) that defines a fluid reservoir (122, 302) configured to contain a second fluid for pumping to and through the heat exchanger to transfer heating/cooling between the first fluid and the second fluid and for pumping to and through a target unit to transfer heating/cooling between the second fluid and the target unit.
A preparation method for the compound of formula II, wherein said method comprises the following step: mixing a weak base solution with a water solution containing the compound of formula I or a mixture solution of water and organic solvent(s) containing the compound of formula I, thereby obtaining the compound of formula II, wherein the cation in said weak base solution is sodium ion. mixing a weak base solution with a water solution containing the compound of formula I or a mixture solution of water and organic solvent(s) containing the compound of formula I, thereby obtaining the compound of formula II, wherein the cation in said weak base solution is sodium ion.
Method for preparation and presentation of a panoramic visualization of a maxillary region, first of all a set of volume data that represent the maxillary region of a patient being generated by means of a tomographic method, the volume data being composed of a plurality of individual volume elements ("voxels"), wherein several horizontal cutting planes that intersect the jaw are established, wherein within each cutting plane, a contour surface of the jaw that is bordered by an inner contour line and an outer contour line is defined, wherein focal curves (4, 8) are respectively defined within the contour surfaces, wherein a common development curve is determined from the focal curves (4, 8) of the cutting planes that lie on top of one another, the development curve defining a development surface that has been set up in particular vertically, wherein starting from the development surface, projection beams (10, 12) are defined in each cutting plane, that are perpendicular on the development surface and intersect the respective contour lines (2, 3), that on the projection beams (10, 12) integration intervals are defined, on which information of the volume elements is integrated, and wherein one integration forms one pixel of the panoramic visualization at a time characterized in that the integration intervals are defined within the contour surfaces.
A method in a wrist device configured to be worn by a user, the method comprising: obtaining, by the wrist device, motion data from one or more sensors, the motion data characterizing motion of the wrist device; and controlling, based on the motion data, characteristics of a vibration causing a haptic output, wherein the haptic output is configured to be output as a response to an event on the wrist device, characterized in that the controlling the characteristics of the vibration causing the haptic output comprises controlling the vibration such that the vibration is produced substantially during a first part (740A, 740B) of a motion cycle of the wrist device, wherein an absolute value of acceleration of the wrist device during the first part (740A, 740B) is less than an absolute value of acceleration of the wrist device during a second part (730A, 730B, 730C) of the motion cycle. obtaining, by the wrist device, motion data from one or more sensors, the motion data characterizing motion of the wrist device; and controlling, based on the motion data, characteristics of a vibration causing a haptic output, wherein the haptic output is configured to be output as a response to an event on the wrist device, characterized in that the controlling the characteristics of the vibration causing the haptic output comprises controlling the vibration such that the vibration is produced substantially during a first part (740A, 740B) of a motion cycle of the wrist device, wherein an absolute value of acceleration of the wrist device during the first part (740A, 740B) is less than an absolute value of acceleration of the wrist device during a second part (730A, 730B, 730C) of the motion cycle.