mhurhangee/ep-ind-claims huggingface dataset:
An explosion proof enclosure (400; 500; 600; 700; 800) configured to be disposed in a hazardous ambient environment, the enclosure (400; 500; 600; 700; 800) comprising: an enclosure cover (402; 502; 702); an enclosure body (424; 524; 624; 724; 824), the enclosure cover (402; 502; 702) and the enclosure body (424; 524; 624; 724; 824) being configured to be detachably coupled to each other, wherein the enclosure body (424; 524; 624; 724; 824) comprises at least one wall that forms a cavity (407; 507; 607; 707; 807) that is enclosed when the enclosure cover (402; 502; 702) is coupled to the enclosure body (424; 524; 624; 724; 824); at least one electrical device disposed within the cavity (407; 507; 607; 707; 807); and at least one illuminated viewing system, wherein the at least one illuminated viewing system (480; 580; 680; 780; 880) comprises: a window (490; 590; 690; 790; 890) disposed in an aperture of the enclosure cover (402; 502; 702) or the at least one wall of the enclosure body (624; 824); and at least one light source assembly (442; 542; 642; 742; 842; 942; 1042; 1142), which is disposed within the window or within the cavity (507; 607; 707; 807) and that is configured to direct light within the cavity (407; 507; 607; 707; 807) in which the at least one electrical device is disposed; wherein the window (490; 590; 690; 790; 890) and the aperture form a flame path (469; 569; 669; 769) therebetween. an enclosure cover (402; 502; 702); an enclosure body (424; 524; 624; 724; 824), the enclosure cover (402; 502; 702) and the enclosure body (424; 524; 624; 724; 824) being configured to be detachably coupled to each other, wherein the enclosure body (424; 524; 624; 724; 824) comprises at least one wall that forms a cavity (407; 507; 607; 707; 807) that is enclosed when the enclosure cover (402; 502; 702) is coupled to the enclosure body (424; 524; 624; 724; 824); at least one electrical device disposed within the cavity (407; 507; 607; 707; 807); and at least one illuminated viewing system, wherein the at least one illuminated viewing system (480; 580; 680; 780; 880) comprises: a window (490; 590; 690; 790; 890) disposed in an aperture of the enclosure cover (402; 502; 702) or the at least one wall of the enclosure body (624; 824); and at least one light source assembly (442; 542; 642; 742; 842; 942; 1042; 1142), which is disposed within the window or within the cavity (507; 607; 707; 807) and that is configured to direct light within the cavity (407; 507; 607; 707; 807) in which the at least one electrical device is disposed; a window (490; 590; 690; 790; 890) disposed in an aperture of the enclosure cover (402; 502; 702) or the at least one wall of the enclosure body (624; 824); and at least one light source assembly (442; 542; 642; 742; 842; 942; 1042; 1142), which is disposed within the window or within the cavity (507; 607; 707; 807) and that is configured to direct light within the cavity (407; 507; 607; 707; 807) in which the at least one electrical device is disposed; wherein the window (490; 590; 690; 790; 890) and the aperture form a flame path (469; 569; 669; 769) therebetween.
A machine for treating a textile fabric with air, comprising a tunnel for pneumatically transporting the fabric, impact grilles facing the openings of the tunnel, means for injecting the air into the tunnel above and/or below the fabric and comprising at least one diverting valve (16;18) located substantially half way along the tunnel and having two channels (16a,16b; 18a,18b) which are oriented to direct the air flow (F;F') entering the tunnel in one direction or the other, characterized in that the at least one valve is equipped with an adjustable baffle (17;19) adapted to shut off access of the air to the channels (16a,16b; 18a,18b) either wholly or partly and in that while the baffle partially shut off access to one of the channels, simultaneously leaves the other channel open, dividing the air flow (F;F') into two unequal components, one (F 1;F 1 ') larger, which is directed towards one end of the tunnel, and one (F 2;F 2 ') smaller which is directed in the opposite direction towards the other end of the tunnel.
A liquid ejecting apparatus comprising: a carriage which includes an ejecting unit arranged to eject liquid onto a medium, and which can move in a reciprocating direction, wherein the carriage includes a catching unit (38a, 38b) arranged to catch mist which occurs along with ejecting of the liquid from the ejecting unit on at least one side of the ejecting unit in the reciprocating direction, wherein the catching unit includes a fan arranged to cause the mist to move from the catching unit by generating an air current, wherein the catching unit is extended in an intersecting direction which intersects the reciprocating direction, and a catching port is provided on a side facing the medium, characterized in that the fan is provided on one end side of the intersecting direction, and can blow air toward the other end side from the one side, and wherein the fan can blow air in a direction away from the medium. a carriage which includes an ejecting unit arranged to eject liquid onto a medium, and which can move in a reciprocating direction, wherein the carriage includes a catching unit (38a, 38b) arranged to catch mist which occurs along with ejecting of the liquid from the ejecting unit on at least one side of the ejecting unit in the reciprocating direction, wherein the catching unit includes a fan arranged to cause the mist to move from the catching unit by generating an air current, wherein the catching unit is extended in an intersecting direction which intersects the reciprocating direction, and a catching port is provided on a side facing the medium, characterized in that the fan is provided on one end side of the intersecting direction, and can blow air toward the other end side from the one side, and wherein the fan can blow air in a direction away from the medium.
An as-sintered ceramic matrix composite comprising: between 10 wt% to 20 wt% cBN; between 40 wt% to 80 wt% aluminum oxide; between 10 wt% to 50 wt% silicon nitride; 5 wt% or less of an additive selected from oxides of lanthanoids or scandium; 0 to 20 wt% yttrium oxide; and up to 15 wt% ceramic whiskers. between 10 wt% to 20 wt% cBN; between 40 wt% to 80 wt% aluminum oxide; between 10 wt% to 50 wt% silicon nitride; 5 wt% or less of an additive selected from oxides of lanthanoids or scandium; 0 to 20 wt% yttrium oxide; and up to 15 wt% ceramic whiskers.
A computer-implemented method for predicting a readout of a second assay from a readout of a first assay, the method comprising: obtaining, for one or more experimental conditions, a readout from the first assay; predicting, using the readout from the first assay, a readout from the second assay using a machine learning model comprising: a first assay model that has been trained to provide a latent representation of a readout from the first assay, using training data comprising readouts from the first assay for a plurality of experimental conditions; a second assay model that has been trained to reconstruct a readout from the second assay using a latent representation of said readout, using training data comprising readouts from the second assay for a plurality of experimental conditions; and a translation model that has been trained to predict a latent representation of the second assay model from a latent representation of the first assay model, using training data comprising readouts from the first and second assays for a plurality of experimental conditions. obtaining, for one or more experimental conditions, a readout from the first assay; predicting, using the readout from the first assay, a readout from the second assay using a machine learning model comprising: a first assay model that has been trained to provide a latent representation of a readout from the first assay, using training data comprising readouts from the first assay for a plurality of experimental conditions; a second assay model that has been trained to reconstruct a readout from the second assay using a latent representation of said readout, using training data comprising readouts from the second assay for a plurality of experimental conditions; and a translation model that has been trained to predict a latent representation of the second assay model from a latent representation of the first assay model, using training data comprising readouts from the first and second assays for a plurality of experimental conditions. a first assay model that has been trained to provide a latent representation of a readout from the first assay, using training data comprising readouts from the first assay for a plurality of experimental conditions; a second assay model that has been trained to reconstruct a readout from the second assay using a latent representation of said readout, using training data comprising readouts from the second assay for a plurality of experimental conditions; and a translation model that has been trained to predict a latent representation of the second assay model from a latent representation of the first assay model, using training data comprising readouts from the first and second assays for a plurality of experimental conditions.
A work site barrier system comprising: a barrier comprising a top portion having a groove, which groove comprises opposing side walls, wherein at least one side wall comprises first and second wall portions (120, 121) being positioned adjacent to each other and at different distances to a central plane of the groove measured in a direction normal to the plane, wherein the plane extends between an entrance opening of the groove and a bottom of the groove; a panel; and a connector arranged to connect said panel to said barrier, wherein the connector comprises a panel engagement portion connected with the panel, and a barrier engagement portion arranged to be received in said groove, wherein the barrier engagement portion comprises a fixing device, arranged to engage at least one side wall at at least one of said first and second wall portions in order to fix the barrier engagement portion to the barrier. a barrier comprising a top portion having a groove, which groove comprises opposing side walls, wherein at least one side wall comprises first and second wall portions (120, 121) being positioned adjacent to each other and at different distances to a central plane of the groove measured in a direction normal to the plane, wherein the plane extends between an entrance opening of the groove and a bottom of the groove; a panel; and a connector arranged to connect said panel to said barrier, wherein the connector comprises a panel engagement portion connected with the panel, and a barrier engagement portion arranged to be received in said groove, wherein the barrier engagement portion comprises a fixing device, arranged to engage at least one side wall at at least one of said first and second wall portions in order to fix the barrier engagement portion to the barrier.
A composition comprising chocolate and green coffee, wherein cocoa bitterness is reduced, which composition has no coffee flavour and contains 41 wt-% cocoa liquor, 14 wt-% cocoa powder, 10 wt-% ground coffee, 18.7 wt-% cocoa butter, 16 wt-% sucrose, 0.3 wt-% lecithin and vanilla, and up to 0.3 wt-% stevia replacing cocoa butter, or 38.68 wt-% cocoa liquor, 11.69 wt-% cocoa powder, 9.11 wt-% ground coffee, 15.07 wt-% cocoa butter, 24.87 wt-% sucrose, 0.55 wt-% soya lecithin, 0.01 wt-% vanilla and 0.02 wt-% stevia.
A double gear pump that is provided with: a drive gear; two driven gears (21, 22) that are oppositely arranged with the drive gear therebetween; a first bearing that supports a drive shaft of the drive gear, and a second and a third bearing (37, 38) that support rotating shafts of the two driven gears (21, 22). wherein the length of the first bearing is formed shorter than the lengths of the second and third bearings (37, 38) the first bearing comprises a pair of bearing portions (36a, 36b) that are oppositely arranged with the drive gear there between, the pair of bearing portions (36a, 36b) of the first bearing having the same length in the shaft direction, the second bearing comprises a pair of bearing portions (37a, 37b) that are oppositely arranged with a first driven gear therebetween, the third bearing comprises a pair of bearing portions (38a, 38b) that are oppositely arranged with a second driven gear therebetween, the double gear pump being characterised in that the pair of bearing portions (37a, 37b) of the second bearing and the pair of bearing portions (38a, 38b) of the third bearing have the same length in the shaft direction, and the length of the pair of bearing portions (36a, 36b) of the first bearing in the shaft direction is shorter than the length of the pair of bearing portions (37a, 37b) of the second bearing and the pair of bearing portions (38a, 38b) of the third bearing in the shaft direction. a drive gear; two driven gears (21, 22) that are oppositely arranged with the drive gear therebetween; a first bearing that supports a drive shaft of the drive gear, and a second and a third bearing (37, 38) that support rotating shafts of the two driven gears (21, 22). wherein the length of the first bearing is formed shorter than the lengths of the second and third bearings (37, 38) the first bearing comprises a pair of bearing portions (36a, 36b) that are oppositely arranged with the drive gear there between, the pair of bearing portions (36a, 36b) of the first bearing having the same length in the shaft direction, the second bearing comprises a pair of bearing portions (37a, 37b) that are oppositely arranged with a first driven gear therebetween, the third bearing comprises a pair of bearing portions (38a, 38b) that are oppositely arranged with a second driven gear therebetween, the double gear pump being characterised in that the pair of bearing portions (37a, 37b) of the second bearing and the pair of bearing portions (38a, 38b) of the third bearing have the same length in the shaft direction, and the length of the pair of bearing portions (36a, 36b) of the first bearing in the shaft direction is shorter than the length of the pair of bearing portions (37a, 37b) of the second bearing and the pair of bearing portions (38a, 38b) of the third bearing in the shaft direction.
A fluororubber composition comprising a peroxide-crosslinkable fluoropolymer, a polyol compound, a peroxide crosslinking agent, a co-crosslinking agent, and no polyol crosslinking aid, said composition containing 0.1 to 3 parts by weight of the polyol compound, 0.1 to 4 parts by weight of the peroxide crosslinking agent, and 1 to 9 parts by weight of the co-crosslinking agent per 100 parts by weight of the peroxide-crosslinkable fluoropolymer, said peroxide-crosslinkable fluoropolymer being at least one selected from tetrafluoroethylene/hexafluoropropylene/ vinylidene fluoride copolymers and tetrafluoroethylene/ perfluoroalkyl vinyl ether/ vinylidene fluoride copolymers.
Cable tie (1, 100, 110, 120, 130) including an elongate flexible material strip provided with a first side and a second side, which are opposite, said first side comprising a notched section, said cable tie (1, 100, 110, 120, 130) comprising at a first end of material strip a fastening head comprising a first opening provided with a ratchet and which protrudes with respect to the longitudinal axis of material strip, and at a second end of material strip an insertion element that is free and arranged to be introduced in said fastening head, first opening passing longitudinally through said fastening head between an entry ending at a free end of fastening head and an exit ending towards a junction area between material strip and fastening head, cable tie (1, 100, 110, 120, 130) wherein, in a tying position of said cable tie (1, 100, 110, 120, 130), said material strip passes through first opening of fastening head from said entry towards said exit so that material strip forms a closed loop, and notched section of first side of material strip cooperates with ratchet of fastening head to allow the movement of notched section with respect to first opening in a single direction and prevent its movement in an opposite direction, said fastening head comprising moreover a second opening that passes through it transversally, arranged between junction area and first opening, so that, in tying position of said cable tie (1, 100, 110, 120, 130), exit of first opening ends inside of loop and towards second opening, characterized in that said fastening head comprises a section protruding with respect to the longitudinal axis of material strip, oriented towards one of the first or second side (12, 13) of material strip, and in which first opening is arranged, in that said protruding section is inclined by an acute angle with respect to the longitudinal axis of material strip, and in that said first opening comprises an internal wall inclined by the same angle forming a guide channel arranged for guiding material strip through said second opening towards the outside of loop.
Measurement device for determining the three-dimensional orientation of a body relative to two reference directions lying in an in particular horizontal plane, having a housing to be placed on a surface or on an edge of a body to be measured, having a plurality of inclinometer systems (11, 12, 13, 14, 15, 16, 17) for determining steady-state three-dimensional positions or of tilting or rotational movements relative to predefined inertial directions, there being at least four or more individual inclinometers (11, 12, 13, 14, 15, 16, 17) within the housing, whose respective reference or active directions are oriented in accordance with different directions in space in order to register a component of the acceleration due to gravity, and each of the combinations of in each case three individual inclinometers (11, 12, 13, 14, 15, 16, 17) combined to form one inclinometer triad supplying a respective triad measured result, which indicates the three-dimensional angular orientation of the measurement device or of a body with which the latter makes contact in accordance with the directional coordinates of roll and pitch, so that a plurality of triad measured results can be determined; so that, furthermore, from a plurality of triad measured results, by means of averaging or other computational methods, an overall measured result can be provided, which indicates a more accurate angular orientation of the measurement device or a body with which the latter makes contact with regard to the aforementioned directional coordinates of roll and pitch, as compared with individual triad measured results.
A method of making a rotor for a permanent magnet motor, said rotor comprising a rotor body for emplacement of magnets thereon, the rotor body having a generally cylindrical shape with an interior surface and an exterior surface, which method comprises, for each pole of the motor, the steps of: (a) applying a plurality of magnets (M1, M2) to a surface of the rotor body, the magnets held to the rotor body by magnetic force; (b) emplacing a shunt structure over the plurality of magnets (M1, M2) on said rotor body to inhibit inter-magnet action during application of further magnets adjacent said plurality of magnets, whereby each pole on said rotor is constructed from a plurality of magnets with the same magnetic pole orientation on said rotor body, said shunt structure directing magnetic flux of at least some of said plurality of magnets to facilitate placement of magnets on the rotor body. (a) applying a plurality of magnets (M1, M2) to a surface of the rotor body, the magnets held to the rotor body by magnetic force; (b) emplacing a shunt structure over the plurality of magnets (M1, M2) on said rotor body to inhibit inter-magnet action during application of further magnets adjacent said plurality of magnets, whereby each pole on said rotor is constructed from a plurality of magnets with the same magnetic pole orientation on said rotor body, said shunt structure directing magnetic flux of at least some of said plurality of magnets to facilitate placement of magnets on the rotor body.
A first communication device for a communication system, the first communication device being configured to transmit at least one first symbol in a first physical resource block bundling in a radio channel to a second communication device; and transmit at least one second symbol in a second physical resource block bundling to the second communication device upon determining that a delay spread of the radio channel exceeds a cyclic prefix length of the first symbol, wherein a size of the second physical resource block bundling is larger in the frequency domain than a size of the first physical resource block bundling. transmit at least one first symbol in a first physical resource block bundling in a radio channel to a second communication device; and transmit at least one second symbol in a second physical resource block bundling to the second communication device upon determining that a delay spread of the radio channel exceeds a cyclic prefix length of the first symbol, wherein a size of the second physical resource block bundling is larger in the frequency domain than a size of the first physical resource block bundling.
A light emitting diode comprising: a substrate having a side surface; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer, a second conductivity type semiconductor layer, and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer, respectively; a side reflection layer covering the side surface of the substrate; and a capping layer covering an upper surface of the substrate and the side reflection layer; a light transmitting material layer interposed between the side surface of the substrate and the side reflection layer; a lower end of the light transmitting material layer is flush with a lower end of the side reflection layer characterized in that a lower end of the side reflection layer is flush with a lower end of the capping layer. a substrate having a side surface; a semiconductor stack disposed under the substrate and comprising a first conductivity type semiconductor layer, a second conductivity type semiconductor layer, and an active layer interposed between the first conductivity type semiconductor layer and the second conductivity type semiconductor layer; an ohmic reflection layer electrically connected to the second conductivity type semiconductor layer; a first bump pad and a second bump pad disposed under the ohmic reflection layer and electrically connected to the first conductivity type semiconductor layer and the second conductivity type semiconductor layer, respectively; a side reflection layer covering the side surface of the substrate; and a capping layer covering an upper surface of the substrate and the side reflection layer; a light transmitting material layer interposed between the side surface of the substrate and the side reflection layer; a lower end of the light transmitting material layer is flush with a lower end of the side reflection layer characterized in that a lower end of the side reflection layer is flush with a lower end of the capping layer.