mhurhangee/ep-ind-claims huggingface dataset:
Topical, cosmetic or pharmaceutical composition containing a combination of solar filters only consisting of 3 or 4 solar filters comprising: a) one or two UVA filters to obtain a critical wavelength > 370 nm, wherein when the combination of solar filters comprises one UVA filter as solar filter(s) a), it is: i. 5,6,5',6'-tetraphenyl-3,3'-(1,4-phenylene)-bis[1,2,4]triazine, and when the combination of solar filters comprises two UVA filters as solar filter (s) a), said two UVA filters correspond to i. 5,6,5',6'-tetraphenyl-3,3'-(1,4-phenylene)-bis[1,2,4]triazine, combined with another UVA filter chosen from among: ii. 1,1'-(1,4-piperazinediyl)bis[1-[2-[4-(diethylamino)-2-hydroxybenzoyl]phenyl]-methanone, iii. Butyl Methoxydibenzoylmethane (BMDBM), in a quantity less than 2% by weight with regard to the total weight of said composition, and iv. Hexyl 2-[4-(diethylamino)-2-hydroxybenzoyl] benzoate, b) 2,4-Bis[4-(2-ethylhexyloxy)-2-hydroxyphenyl]-6-(4-methoxyphenyl)-1,3,5-triazine (BEMT), and c) one or two filters chosen among UVB filters, with the proviso that the solar filters do not include octocrylene, PABA and ethylhexyl methoxycinnamate, said composition also containing a pharmaceutically or cosmetically acceptable excipient. a) one or two UVA filters to obtain a critical wavelength > 370 nm, wherein when the combination of solar filters comprises one UVA filter as solar filter(s) a), it is: i. 5,6,5',6'-tetraphenyl-3,3'-(1,4-phenylene)-bis[1,2,4]triazine, and when the combination of solar filters comprises two UVA filters as solar filter (s) a), said two UVA filters correspond to i. 5,6,5',6'-tetraphenyl-3,3'-(1,4-phenylene)-bis[1,2,4]triazine, combined with another UVA filter chosen from among: ii. 1,1'-(1,4-piperazinediyl)bis[1-[2-[4-(diethylamino)-2-hydroxybenzoyl]phenyl]-methanone, iii. Butyl Methoxydibenzoylmethane (BMDBM), in a quantity less than 2% by weight with regard to the total weight of said composition, and iv. Hexyl 2-[4-(diethylamino)-2-hydroxybenzoyl] benzoate, i. 5,6,5',6'-tetraphenyl-3,3'-(1,4-phenylene)-bis[1,2,4]triazine, and i. 5,6,5',6'-tetraphenyl-3,3'-(1,4-phenylene)-bis[1,2,4]triazine, ii. 1,1'-(1,4-piperazinediyl)bis[1-[2-[4-(diethylamino)-2-hydroxybenzoyl]phenyl]-methanone, iii. Butyl Methoxydibenzoylmethane (BMDBM), in a quantity less than 2% by weight with regard to the total weight of said composition, and iv. Hexyl 2-[4-(diethylamino)-2-hydroxybenzoyl] benzoate, b) 2,4-Bis[4-(2-ethylhexyloxy)-2-hydroxyphenyl]-6-(4-methoxyphenyl)-1,3,5-triazine (BEMT), and c) one or two filters chosen among UVB filters, with the proviso that the solar filters do not include octocrylene, PABA and ethylhexyl methoxycinnamate,
A transmitter (10; 54; 56) for a system for detecting an event corresponding to an object crossing a monitored line, wherein the transmitter is configured to successively transmit data packets independently of the occurrence of the event, each of the data packets comprising a piece of information on a number of occurrences of the event which occurred up to a transmission time (T n) of the data packet, wherein the transmission times (T n) of the successive data packets of the event are each located within a predetermined transmission time window (T WINDOW).
Device (1; 10) for processing workpieces (6;60) which preferably consist at least partially of wood, wood-based materials, plastic or the like, with: a processing unit for processing the workpieces (6; 60), a conveyor unit (2; 20) for moving the workpieces (6; 60) in relation to the processing unit at a conveying speed, and a feed unit (3; 30) for feeding the workpieces (6; 60) to the conveyor unit (2; 20), wherein the feed unit (3; 30) has at least one feed element (13; 130) which is configured to feed the workpieces (6; 60) to the conveyor unit (2; 20) at an infeed speed, wherein the infeed speed and/or the acceleration of the feed element (13; 130) to the infeed speed can be set in a variable manner, and the feed unit (3; 30) has a plurality of feed elements (13; 130) which are configured to feed the workpieces (6; 60) to the conveyor unit (2; 20) at an infeed speed, wherein the feed unit (3; 30) has at least one circulating conveyor track (10, 11; 100, 110) on which the plurality of feed elements (13; 130) can be moved in a circulating manner, characterised in that the infeed speed and/or the acceleration to the infeed speed of one or more feed elements (13; 130) can be set independently of the infeed speed of other feed elements (13; 130) of the feed unit (3; 30). a processing unit for processing the workpieces (6; 60), a conveyor unit (2; 20) for moving the workpieces (6; 60) in relation to the processing unit at a conveying speed, and a feed unit (3; 30) for feeding the workpieces (6; 60) to the conveyor unit (2; 20), wherein the feed unit (3; 30) has at least one feed element (13; 130) which is configured to feed the workpieces (6; 60) to the conveyor unit (2; 20) at an infeed speed, wherein the infeed speed and/or the acceleration of the feed element (13; 130) to the infeed speed can be set in a variable manner, and the feed unit (3; 30) has a plurality of feed elements (13; 130) which are configured to feed the workpieces (6; 60) to the conveyor unit (2; 20) at an infeed speed, wherein the feed unit (3; 30) has at least one circulating conveyor track (10, 11; 100, 110) on which the plurality of feed elements (13; 130) can be moved in a circulating manner,
A fastening bracket for slab edge formwork elements, comprising a base limb for securing the latter onto a slab formwork, a retaining limb arranged at right angles to the latter for securing a slab edge formwork plate, and nail loops arranged on the retaining limb for holding the formwork plate at a distance, the base limb having an upper and a lower cover plate (13, 11), between which a framework is formed, characterised in that the upper cover plate and the lower cover plate are connected to one another by at least one strut such that the lower end of the strut at least one strut is attached to the lower cover plate in the region of the free end of the base limb and the upper end of the strut is attached directly or indirectly to the upper cover plate in the middle area of the base limb.
A method for manufacturing a metal component, characterised in that it includes the following steps: a shell of a titanium-based material is provided, the shell having a first surface and a second surface opposite the first surface; a covering layer made of a titanium fire-resistant material is produced by additive manufacturing on the shell such that said covering layer at least partially covers the first surface and/or the second surface; and after the additive manufacturing step, the metal component is heat treated at a temperature of between 200°C and 1000°C; in that it comprises the production of a plurality of intermediate layers disposed between the shell and the covering layer, the plurality of intermediate layers being formed of a mixture of the titanium fire-resistant material and the titanium-based material, said mixture forming a composition gradient such that the intermediate layer disposed directly in contact with the covering layer made of a titanium fire-resistant material is mainly formed of the titanium fire-resistant material and conversely, the intermediate layer disposed directly in contact with the shell made of a titanium-based material being mainly formed of the titanium-based material. a shell of a titanium-based material is provided, the shell having a first surface and a second surface opposite the first surface; a covering layer made of a titanium fire-resistant material is produced by additive manufacturing on the shell such that said covering layer at least partially covers the first surface and/or the second surface; and after the additive manufacturing step, the metal component is heat treated at a temperature of between 200°C and 1000°C; in that it comprises the production of a plurality of intermediate layers disposed between the shell and the covering layer, the plurality of intermediate layers being formed of a mixture of the titanium fire-resistant material and the titanium-based material, said mixture forming a composition gradient such that the intermediate layer disposed directly in contact with the covering layer made of a titanium fire-resistant material is mainly formed of the titanium fire-resistant material and conversely, the intermediate layer disposed directly in contact with the shell made of a titanium-based material being mainly formed of the titanium-based material.
An apparatus for enhancing the contrast and brightness of a video signal displayed on a display device, the apparatus comprising: a first luminance level transformation circuit adapted to receive a luminance signal Y and chrominance (Cb, Cr) signals and reduce the level of the luminance signal to prevent the luminance signal from exceeding the colour gamut when converting the luminance signal, in response to a first control signal, and output the chrominance signals and the luminance signal Y' whose level is that of Y reduced by a gain C_gain, such that Y' = Y/C_gain; an image converting circuit adapted to receive the output signals from the first luminance level transformation circuit and convert the received signals into RGB video signals R 1, G 1 and B 1; and a second luminance level transformation circuit adapted to compensate for the reduction in the level of the luminance signal by receiving the RGB video signals R 1, G 1 and B 1 from the image converting circuit, concurrently increasing the respective levels of the RGB video signals by a gain Y_gain in response to a second control signal representative of a statistical characteristic of the luminance signal Y, whilst ensuring the preservation of colour, and outputting the RGB video signals R 2, G 2 and B 2 whose levels have been increased; wherein Y_gain = Min {(Gain x C_gain), 255/Max (R 1, G 1, B 1)}, R 2 = Y_gain x R 1, G 2 = Y_gain x G 1, B 2 = Y_gain x B 1, and Gain is a predetermined function of the maximum M 1 of the values of the R, G and B input signals from which the received luminance signal Y and chrominance signals (Cb, Cr) are derived by conversion. a first luminance level transformation circuit adapted to receive a luminance signal Y and chrominance (Cb, Cr) signals and reduce the level of the luminance signal to prevent the luminance signal from exceeding the colour gamut when converting the luminance signal, in response to a first control signal, and output the chrominance signals and the luminance signal Y' whose level is that of Y reduced by a gain C_gain, such that Y' = Y/C_gain; an image converting circuit adapted to receive the output signals from the first luminance level transformation circuit and convert the received signals into RGB video signals R 1, G 1 and B 1; and a second luminance level transformation circuit adapted to compensate for the reduction in the level of the luminance signal by receiving the RGB video signals R 1, G 1 and B 1 from the image converting circuit, concurrently increasing the respective levels of the RGB video signals by a gain Y_gain in response to a second control signal representative of a statistical characteristic of the luminance signal Y, whilst ensuring the preservation of colour, and outputting the RGB video signals R 2, G 2 and B 2 whose levels have been increased; wherein Y_gain = Min {(Gain x C_gain), 255/Max (R 1, G 1, B 1)}, R 2 = Y_gain x R 1, G 2 = Y_gain x G 1, B 2 = Y_gain x B 1, and Gain is a predetermined function of the maximum M 1 of the values of the R, G and B input signals from which the received luminance signal Y and chrominance signals (Cb, Cr) are derived by conversion.
Oligonucleotide sequence characterized in that it increases the transcription rate of a RNA typed as messenger RNA fragment encoding for a protein selected from the group consisting of enzymes, structural proteins, coenzymes, transporters, antibodies, hormones and regulators, as regulatory RNA fragment, as enzymatically active RNA fragment or as transfer RNA fragment, said oligonucleotide sequence having at least 80% sequence identity to SEQ ID NO: 1.
A garden bed enclosure or a pet enclosure including at least one elongate, substantially planar corrugated wall member having a plurality of corrugations and a wall width, and at least one post member having at least two edge channels, each at least one wall member having an edge which fits into at least one edge channel, the edge of the wall member having a plurality of projections spaced apart over a height of the wall member and which extend laterally beyond the wall width, the edge channel having a pair of spaced apart, substantially parallel flanges between which the edge of a wall member is received and an abutment shoulder on at least one of the substantially parallel flanges in order to engage the projections on the wall member to allow passage thereof in a first direction but prevent passage in a second, opposite direction.
An absorbent article comprising at least a topsheet layer and a backsheet layer, each layer having a body facing surface and a garment facing surface, and longitudinal and transversal edges, the article having a longitudinal front portion, a longitudinal back portion and a crotch portion located between the front and the back portion, the article comprising a first and a second zone of microencapsulated reversible temperature-regulating phase change material on a surface of a layer of the article, wherein the first and second zones are selected from zones having different microencapsulated reversible temperature-regulating phase change materials, different concentrations of a microencapsulated reversible temperature-regulating phase change material or comprises microencapsulated reversible temperature-regulating phase change material having different phase change temperature intervals.
A method of interconnecting a microwave package and a mother-board in a Surface Mounted Device, SMD, wherein the motherboard is arranged for carrying electrical circuitry other than said microwave package, wherein a signal path or layer of said motherboard and said microwave package, respectively, are aligned in a single plane; and characterized in that the signal path or layer of said motherboard and said package, respectively, are interconnected by a connecting component comprising a wing means having a top surface and a opposed bottom surface and four side surfaces confining the extension of the top and bottom surfaces and being provided between the top surface and the bottom surface and the top surface is a surface facing away from an air gap between the motherboard and said microwave package, wherein a connecting strip is provided on the bottom surface of the wing means, the two ends of said connecting strip forming two solder pads (28, 29) which are configured to connect the connecting element to the mother board and said microwave package, wherein furthermore a solder mask being a strip is provided onto the bottom surface of the wing means and on the connecting strip between the two solder pads (28, 29), wherein a main extension direction of the solder mask is perpendicular to a main extension direction of the connecting strip, wherein the solder mask is provided over the air gap.
A fuel metering system for supplying fuel to a plurality of loads, comprising: a gas turbine engine controller operable to supply fuel flow commands; a variable displacement piston pump including an adjustable hanger that is movable to a plurality of positions, the variable displacement piston pump configured to receive a drive torque and, upon receipt of the drive torque, to supply fuel to the plurality of loads at a flow rate dependent on it's drive speed and the position of the adjustable hanger; a hanger actuator coupled to receive hanger position commands and operable, in response thereto, to move the adjustable hanger to the commanded position; a pump control mechanism coupled to receive the fuel flow commands supplied by the gas turbine engine controller and operable, in response thereto, to supply the hanger position commands. a gas turbine engine controller operable to supply fuel flow commands; a variable displacement piston pump including an adjustable hanger that is movable to a plurality of positions, the variable displacement piston pump configured to receive a drive torque and, upon receipt of the drive torque, to supply fuel to the plurality of loads at a flow rate dependent on it's drive speed and the position of the adjustable hanger; a hanger actuator coupled to receive hanger position commands and operable, in response thereto, to move the adjustable hanger to the commanded position; a pump control mechanism coupled to receive the fuel flow commands supplied by the gas turbine engine controller and operable, in response thereto, to supply the hanger position commands.
Visualization apparatus, having an imaging optical unit for producing an observation image of an object region; having a display device containing a display for visualizing an image having a piece of orientation information, which is superposed on the observation image of the object region; having an image capturing device for capturing an image of the object region; and having a computational system that calculates image data containing the orientation information from an image of the object region that was captured with the image capturing device and transmits them to the display device; wherein the imaging optical unit comprises a binocular tube for visualizing the object region with an optical observation beam path (22a, 22b) and a beam splitter that is arranged in the optical observation beam path (22a, 22b), said beam splitter feeding the observation image of the object region to the image capturing device, and has a beam splitter that is arranged in the optical beam path (22a, 22b) and superposes the image displayed with the display device on the observation image of the object region and feeds it to the binocular tube, and wherein the computational system corrects with respect to the observation image at least one systematic error, caused by manufacturing, installation and adjustment tolerances of the display, of the image displayed with the display device during the calculation of the image data by way of setting, for the displayed image that is superposed on the observation image, at least one correction parameter from the parameter group magnification, azimuthal rotation and displacement that is ascertained from a comparison of the observation image of a reference object to a comparison object that is superposed on the observation image and visualized with the display device, characterized in that the imaging optical unit contains a magnification system having a settable magnification and the computational system has an input interface for inputting the at least one correction parameter and for inputting a display parameter for different magnifications, and a data memory that stores the display parameters that are input for different magnifications at the input interface for the image that is displayed with the display device, wherein the computational system takes the magnification of the magnification system and the correction parameters input for different magnifications into consideration when calculating the image data that are transmitted to the display device for the display of the image.
A lysis process comprising the steps of: providing a flow of lysis solution in a first direction; providing a flow of one or more additional fluids in a direction other than the direction of the flow of the lysis solution; wherein at least one of the additional fluids comprise suspended cells that produce and contain biological compounds of interest including proteins, RNAs, DNAs, viruses and phages; wherein the combined flow of the lysis solution and the at least one of the additional fluids induces shearing forces and turbulence; wherein the lysis solution and the cells are subjected to an intense shearing during a short time period of less than 10 seconds to mix the lysis solution and the cells and to lyse the cells without a permanent denaturing of the biological compounds of interest; wherein the biological compounds of interest include proteins, DNAs, DNAs, viruses and phages; wherein the intensity of the shearing is sufficient to cause substantially complete mixing of the solution and said fluids and wherein the ratio of the linear speed of the one or more additional fluids to the linear speed of the lysis solution is from 100 to 15000; and passing a combined fluid that results from the lysis solution being mixed with the one or more additional fluids comprising the biological cells through a vortex reducer to reduce or suppress any rotational velocity or any toric component of the flow and to obtain a laminar flow. providing a flow of lysis solution in a first direction; providing a flow of one or more additional fluids in a direction other than the direction of the flow of the lysis solution; wherein at least one of the additional fluids comprise suspended cells that produce and contain biological compounds of interest including proteins, RNAs, DNAs, viruses and phages; wherein the combined flow of the lysis solution and the at least one of the additional fluids induces shearing forces and turbulence; wherein the lysis solution and the cells are subjected to an intense shearing during a short time period of less than 10 seconds to mix the lysis solution and the cells and to lyse the cells without a permanent denaturing of the biological compounds of interest; wherein the biological compounds of interest include proteins, DNAs, DNAs, viruses and phages; wherein the intensity of the shearing is sufficient to cause substantially complete mixing of the solution and said fluids and wherein the ratio of the linear speed of the one or more additional fluids to the linear speed of the lysis solution is from 100 to 15000; and passing a combined fluid that results from the lysis solution being mixed with the one or more additional fluids comprising the biological cells through a vortex reducer to reduce or suppress any rotational velocity or any toric component of the flow and to obtain a laminar flow.