mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic preparation comprising a UV filter combination of a) 2-phenylbenzimidazole-5-sulphonic acid and/or salts thereof, b) a compound 1 with the structure: in which R1 and R1', independently of one another, are present in the para or meta position and, independently of one another, are a hydrogen atom, a straight-chain or branched C1-C8-alkyl radical, R2 is a straight-chain or branched C1-C12-alkyl radical; and R3 is a hydrogen atom or a -CN radical; c) a dibenzoylmethane derivative, and d) a compound 2 with the structure: Compound 2. a) 2-phenylbenzimidazole-5-sulphonic acid and/or salts thereof, b) a compound 1 with the structure: in which R1 and R1', independently of one another, are present in the para or meta position and, independently of one another, are a hydrogen atom, a straight-chain or branched C1-C8-alkyl radical, R2 is a straight-chain or branched C1-C12-alkyl radical; and R3 is a hydrogen atom or a -CN radical; c) a dibenzoylmethane derivative, and d) a compound 2 with the structure: Compound 2.
An aerofoil including a root portion, a tip portion located radially outwardly of the root portion, leading and trailing edges (24, 26) extending between the root portion and the tip portion and an internal cooling passage, the aerofoil including a plurality of cooling fluid discharge apertures extending between the root portion and the tip portion in a trailing edge region to discharge cooling fluid from the internal cooling passage to an outer surface of the aerofoil in the trailing edge region and thereby provide a cooling film in the trailing edge region, the plurality of cooling fluid discharge apertures comprising first, second and third apertures (36a, b, c), a distance L is defined between the axial chord location of each aperture and the trailing edge, the aerofoil characterised in that L for the second aperture is less than L for both the first and third apertures (36a, c) and the first aperture is adjacent the root portion, thereby the flow rate of the cooling fluid discharged from the internal cooling passage to the outer surface trailing edge region varies between the root portion and the tip portion, wherein the third aperture is adjacent the tip portion.
Connection system for connecting a pipe to a main pipe, a manhole or the like at a transverse opening, wherein the connection system is connectable to the main pipe or the manhole for this purpose, comprising an at least partially soft, hollow plug-like installation insert, the outer side of which is adapted to the transverse opening and the inner side of which comprises a latching region, wherein the installation insert comprises an widened end portion having at least one bent tab partially insertable, by compressing with the tab forward, through the transverse opening of the main pipe or manhole into the latter, and wherein, in a connection state in which the connection system is connected to the main pipe or manhole, an outer abutment surface of the installation insert at least partially contacts a main pipe inner surface adjacent to and surrounding the transverse opening, and comprising a relatively harder connection piece which comprises an engagement end, a cylindrical central part having latching projections and a connection end, wherein at least one abutment element is arranged on the second end portion, opposite the widened end portion, of the installation insert, and at least one fastening element is arranged at the end, opposite the widened end portion, of the abutment surface of the installation insert, wherein the abutment element projects outwards from the second end portion and is curved towards the widened end portion.
A sensing system for imaging a subsurface structure in a sample, comprising: exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301;1401) configured to generate a pulsed or intensity-modulated excitation beam configured to generate ultrasonic pressure signals in the sample at an excitation location; wherein the exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301; 1401) is also configured to generate an interrogation beam incident on the sample at the excitation location, a portion of the interrogation beam returning from the sample that is indicative of the generated ultrasonic pressure signals; an optical system configured to focus the excitation beam or the interrogation beam below a surface of the sample; a detector (107;209;309;409;507;607;708;1109;1206;1307;1407) configured to detect the returning portion of the interrogation beam; and a processor configured to calculate an image of the sample based on a detected intensity modulation of the returning portion of the interrogation beam from below the surface of the sample. exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301;1401) configured to generate a pulsed or intensity-modulated excitation beam configured to generate ultrasonic pressure signals in the sample at an excitation location; wherein the exactly one laser source (101;201;301;401;501;601;701;1101;1201;1301; 1401) is also configured to generate an interrogation beam incident on the sample at the excitation location, a portion of the interrogation beam returning from the sample that is indicative of the generated ultrasonic pressure signals; an optical system configured to focus the excitation beam or the interrogation beam below a surface of the sample; a detector (107;209;309;409;507;607;708;1109;1206;1307;1407) configured to detect the returning portion of the interrogation beam; and a processor configured to calculate an image of the sample based on a detected intensity modulation of the returning portion of the interrogation beam from below the surface of the sample.
An internal inspection device for liquid fuel storage tanks, said device comprising: a terminal module comprising an image capturing device for capturing images of the inside of a liquid fuel storage tank, said terminal module comprising one or more pneumatic chambers for the selective admission of compressed fluid thereto, such that the position and/or orientation of said image capturing device may be modified by said selective admission of compressed fluid to said one or more pneumatic chambers, and wherein said terminal module further comprises a flexible outer cladding, made from polymeric materials, encompassing said one or more pneumatic chambers. a terminal module comprising an image capturing device for capturing images of the inside of a liquid fuel storage tank, said terminal module comprising one or more pneumatic chambers for the selective admission of compressed fluid thereto, such that the position and/or orientation of said image capturing device may be modified by said selective admission of compressed fluid to said one or more pneumatic chambers, and wherein said terminal module further comprises a flexible outer cladding, made from polymeric materials, encompassing said one or more pneumatic chambers.
An implantable medical device for determining an atrial arrhythmia event within a cardiac signal, comprising: a plurality of electrodes (17, 20, 21, 23, 24, 26) configured to sense the cardiac signal; and a processor configured to identify one or more R-waves within the sensed cardiac signal, and determine an atrial arrhythmia score for identifying the arrhythmia event based at least on the one or more R-waves; characterised in that the processor is configured to determine a sensing window associated with the one or more R-waves and having a first portion and a second portion, determine signal characteristics of the cardiac signal within the sensing window, determine whether the cardiac signal within the sensing window corresponds to a P-wave based on the determined signal characteristics, determine a signal to noise ratio of the cardiac signal within the sensing window, update the arrhythmia score when the P-wave is identified in the sensing window and the determined signal to noise ratio satisfies a signal to noise threshold. a plurality of electrodes (17, 20, 21, 23, 24, 26) configured to sense the cardiac signal; and a processor configured to identify one or more R-waves within the sensed cardiac signal, and determine an atrial arrhythmia score for identifying the arrhythmia event based at least on the one or more R-waves; characterised in that the processor is configured to determine a sensing window associated with the one or more R-waves and having a first portion and a second portion, determine signal characteristics of the cardiac signal within the sensing window, determine whether the cardiac signal within the sensing window corresponds to a P-wave based on the determined signal characteristics, determine a signal to noise ratio of the cardiac signal within the sensing window, update the arrhythmia score when the P-wave is identified in the sensing window and the determined signal to noise ratio satisfies a signal to noise threshold.
An optical member comprising an antireflection film formed on a substrate, wherein: the antireflection film has a layer formed of particles, and spaces between the particles in the layer are filled with a binder; the particles are aligned in the direction parallel to the substrate surface and stacked in a plurality of tiers; and the layer includes the particles at a two-dimensional density of 0.8 or more and 0.88 or less, with two-dimensional density being an area ratio of the particles which can be determined by image processing of a cross section of a film observed in a region of 500 nm by 500 nm by a reflection electron microscope in the direction parallel to the normal of the substrate surface at a magnification of 100000 times and which is 0.90 if the particles are spheres aligned at highest density in hexagonally packed arrangement. the antireflection film has a layer formed of particles, and spaces between the particles in the layer are filled with a binder; the particles are aligned in the direction parallel to the substrate surface and stacked in a plurality of tiers; and the layer includes the particles at a two-dimensional density of 0.8 or more and 0.88 or less, with two-dimensional density being an area ratio of the particles which can be determined by image processing of a cross section of a film observed in a region of 500 nm by 500 nm by a reflection electron microscope in the direction parallel to the normal of the substrate surface at a magnification of 100000 times and which is 0.90 if the particles are spheres aligned at highest density in hexagonally packed arrangement.
A sliding component comprising a pair of sliding members (4, 5, 14, 24, 34, 44, 54), one of the sliding members having a sliding surface (S1, S2) provided with a plurality of dynamic pressure generation grooves (7, 27, 37, 47, 50) extending from a leakage side to a sealed fluid side, wherein the sliding surface is provided with a recessed portion (9, 19A to 19E, 29, 39, 90) extending in a circumferential direction and opened to the leakage side, wherein the recessed portion (9, 19A to 19E, 29, 39, 90) communicates with the dynamic pressure generation grooves (7, 27, 37, 47), characterized in that a bottom surface of the recessed portion is formed to be higher than a bottom surface of each of the dynamic pressure generation grooves at a boundary between the recessed portion and each of the dynamic pressure generation grooves. wherein the sliding surface is provided with a recessed portion (9, 19A to 19E, 29, 39, 90) extending in a circumferential direction and opened to the leakage side, wherein the recessed portion (9, 19A to 19E, 29, 39, 90) communicates with the dynamic pressure generation grooves (7, 27, 37, 47), characterized in that a bottom surface of the recessed portion is formed to be higher than a bottom surface of each of the dynamic pressure generation grooves at a boundary between the recessed portion and each of the dynamic pressure generation grooves.
A closure device for chambers housing laser units for sheet metal strip cutting, characterized in that at the exit slit for the strip to be machined it comprises: - a parallelepiped bar arranged transversely to the strip advancement axis and the lower edges of the major side surfaces of said parallelepiped bar are bound to the longitudinal edges of a U-folded steel slab affected by a plurality of transverse incisions halting before the edges, - means (16, 18) for the vertical movement of said bar. - a parallelepiped bar arranged transversely to the strip advancement axis and the lower edges of the major side surfaces of said parallelepiped bar are bound to the longitudinal edges of a U-folded steel slab affected by a plurality of transverse incisions halting before the edges, - means (16, 18) for the vertical movement of said bar.
A hold-open device for holding open a door leaf in a hold-open position between an open position and a close position, wherein, by means of a slide element of the hold-open device, which length-displaceably engages in a guide rail of the hold-open device, the door leaf is movably guidable between the open position and the close position, including: an electromagnet with an armature, which can be brought into mechanical operative connection with the slide element for retaining the door leaf, for stopping the door leaf in the hold-open position between the open position and the close position, wherein, in an operating condition of the electromagnet, the slide element is arrestable in the guide rail, and in an idle condition of the electromagnet, the slide element is freely movable in the guide rail, wherein the electromagnet includes a flat basic body, which can be disposed in an upper functional space of the guide rail, so that, in the operating condition of the electromagnet, the slide element, in a lower guide space of the guide rail, is movable past the hold-open device, for transferring the door leaf from the hold-open position to the open position, wherein the electromagnet is formed as a clamping magnet. an electromagnet with an armature, which can be brought into mechanical operative connection with the slide element for retaining the door leaf, for stopping the door leaf in the hold-open position between the open position and the close position, wherein, in an operating condition of the electromagnet, the slide element is arrestable in the guide rail, and in an idle condition of the electromagnet, the slide element is freely movable in the guide rail, wherein the electromagnet includes a flat basic body, which can be disposed in an upper functional space of the guide rail, so that, in the operating condition of the electromagnet, the slide element, in a lower guide space of the guide rail, is movable past the hold-open device, for transferring the door leaf from the hold-open position to the open position, wherein the electromagnet is formed as a clamping magnet.
A lubricating oil composition, comprising: a) a major amount of an oil of lubricating viscosity; b) 0.4 wt. % to 2.0 wt.%, based on the total weight of the lubricating oil composition, of a non-dispersant comb polymethacrylate having a weight average molecular weight (Mw) of 390,000 g/mol to 460,000 g/mol; and c) 0.08 wt. % to 0.4 wt. %, based on the total weight of the lubricating oil composition, of a non-dispersant ethylene-based olefin copolymer having a weight average molecular weight (Mw) of 90,000 g/mol to 160,000 g/mol, the lubricating oil composition having a Kinematic Viscosity at 100° C of less than 9.3 mm 2 /s. a) a major amount of an oil of lubricating viscosity; b) 0.4 wt. % to 2.0 wt.%, based on the total weight of the lubricating oil composition, of a non-dispersant comb polymethacrylate having a weight average molecular weight (Mw) of 390,000 g/mol to 460,000 g/mol; and c) 0.08 wt. % to 0.4 wt. %, based on the total weight of the lubricating oil composition, of a non-dispersant ethylene-based olefin copolymer having a weight average molecular weight (Mw) of 90,000 g/mol to 160,000 g/mol,
A heat conducting element for air-conditioned ski jump inrun tracks having an inrun track channel extending along an inrun track channel extension direction and a track width perpendicular to the inrun track channel extension direction having the following features: • mounting means for fixing the heat conducting element in the inrun track channel of the air-conditioned ski jump inrun track and • a heat coupling region for thermally coupling the heat conducting element having a defined heat conductivity to an air-conditioning device extending in the inrun track channel of the air-conditioned ski jump inrun track, wherein the heat conductivity of the heat coupling region is more than 10 W/m K, preferably more than 50 W/m K and most preferably more than 100 is W/m K, characterized in that the heat coupling region of the heat conducting element formed in planar manner passes thermally coupled into at least one inrun track coupling region (111,112,113) formed in planar manner and arranged perpendicular to the inrun track channel extension direction at a distance to the heat coupling region, wherein the heat coupling region and the inrun track coupling region (111, 112, 113) form a surface which has mandatorily one or more borders, levels and/or recesses. • mounting means for fixing the heat conducting element in the inrun track channel of the air-conditioned ski jump inrun track and • a heat coupling region for thermally coupling the heat conducting element having a defined heat conductivity to an air-conditioning device extending in the inrun track channel of the air-conditioned ski jump inrun track, wherein the heat conductivity of the heat coupling region is more than 10 W/m K, preferably more than 50 W/m K and most preferably more than 100 is W/m K,
Structural component for a vehicle, in particular an aircraft or spacecraft, wherein the structural component has a fiber composite laminate, which comprises: a power transmission layer, which is designed to transmit electrical energy wirelessly by means of a to transmit alternating electromagnetic fields; and two current conduction layers, which electrically contact the power transmission layer; wherein the structural component further comprises: a control device, which is electrically coupled to the power transmission layer via the current conduction layers and is designed to regulate a transmission of electrical energy through the power transmission layer, thereby characterized in that the power transmission layer is integrated directly into the fiber composite laminate. a power transmission layer, which is designed to transmit electrical energy wirelessly by means of a to transmit alternating electromagnetic fields; and two current conduction layers, which electrically contact the power transmission layer; wherein the structural component further comprises: a control device, which is electrically coupled to the power transmission layer via the current conduction layers and is designed to regulate a transmission of electrical energy through the power transmission layer, thereby characterized in that the power transmission layer is integrated directly into the fiber composite laminate.
A refrigeration cycle apparatus comprising: a compressor which compresses a sucked refrigerant and discharges the compressed refrigerant; a condenser which condenses the refrigerant by performing heat exchange with a heat exchange target; a pressure reducing device (8a, 8b, 8c) which reduces a pressure of the refrigerant; an air-side heat exchanger which evaporates the refrigerant by performing heat exchange with outside air; an outdoor fan which delivers air to the air-side heat exchanger; characterised by a geothermal-side heat exchanger which evaporates the refrigerant by performing heat exchange with ground; a switching device (2, 5, 6, 7, 8a, 8b, 8c) which performs switching of a flow passage so that the air-side heat exchanger or the geothermal-side heat exchanger functions as an evaporator; and a controller configured to control the switching device (2, 5, 6, 7, 8a, 8b, 8c) so that the air-side heat exchanger and the condenser are connected in parallel, and to stop the outdoor fan, when the geothermal-side exchanger functions as the evaporator. a compressor which compresses a sucked refrigerant and discharges the compressed refrigerant; a condenser which condenses the refrigerant by performing heat exchange with a heat exchange target; a pressure reducing device (8a, 8b, 8c) which reduces a pressure of the refrigerant; an air-side heat exchanger which evaporates the refrigerant by performing heat exchange with outside air; an outdoor fan which delivers air to the air-side heat exchanger; characterised by a geothermal-side heat exchanger which evaporates the refrigerant by performing heat exchange with ground; a switching device (2, 5, 6, 7, 8a, 8b, 8c) which performs switching of a flow passage so that the air-side heat exchanger or the geothermal-side heat exchanger functions as an evaporator; and a controller configured to control the switching device (2, 5, 6, 7, 8a, 8b, 8c) so that the air-side heat exchanger and the condenser are connected in parallel, and to stop the outdoor fan, when the geothermal-side exchanger functions as the evaporator.
An apparatus for collecting a breath sample comprising: a housing, the housing is an inflatable bag or balloon; and a first cleaning reservoir, the first reservoir is formed of activated charcoal; wherein the first cleaning reservoir is removably inserted into a neck of the housing a first portion of the first cleaning reservoir extending into an interior of the housing to capture volatile organic compounds by sorbent trapping on the first cleaning reservoir to remove volatile organic compounds from within the interior of the housing when the first cleaning reservoir is removed from the housing, a second portion of the first cleaning reservoir extending from the neck to remove the first cleaning reservoir, and the first cleaning reservoir is removed from the housing before collecting the breath sample within the housing. a housing, the housing is an inflatable bag or balloon; and a first cleaning reservoir, the first reservoir is formed of activated charcoal; wherein the first cleaning reservoir is removably inserted into a neck of the housing a first portion of the first cleaning reservoir extending into an interior of the housing to capture volatile organic compounds by sorbent trapping on the first cleaning reservoir to remove volatile organic compounds from within the interior of the housing when the first cleaning reservoir is removed from the housing, a second portion of the first cleaning reservoir extending from the neck to remove the first cleaning reservoir, and the first cleaning reservoir is removed from the housing before collecting the breath sample within the housing.
A compound of the general formula: wherein, R 1 is independently selected from hydrogen, halogen, alkyl or alkoxy; "A" is alkyl, cycloalkyl or cycloalkylalkyl; "X" is CH or N; "Y" is CH 2, O or or its pharmaceutically acceptable salts. R 1 is independently selected from hydrogen, halogen, alkyl or alkoxy; "A" is alkyl, cycloalkyl or cycloalkylalkyl; "X" is CH or N; "Y" is CH 2, O or
Equipment for a wall opening comprising a general constitution plane being designed to be parallel to or to be coincident with the plane of the wall, comprising a deflection means deflecting the light passing through said equipment and said opening toward a ceiling located on the side of the emergent light, said light being called incident before passing through the equipment and the opening and said light being called emergent after passing through the equipment and the opening, characterized in that it comprises a conversion material for converting light energy, converting non-visible light into visible light, so that in the emergent light, at the light originally already in the visible passing through the equipment and the opening has added light that was not visible but that becomes so under the effect of the conversion material.