mhurhangee/ep-ind-claims huggingface dataset:
Wiper arm with pantograph dynamic action, comprising a main rod and a secondary rod, characterized in that of the said main rod and secondary rod each comprises a negative lift surface profile the cross section of which is delimited by an upper side (25a, 25b), a lower side (26a, 26b), and, in the direction of the air flow, an anterior edge (23a, 23b) referred to as the leading edge and a posterior edge (24a, 24b) referred to as the trailing edge opposite the leading edge (23a, 23b), and in that, in the position as mounted on a vehicle, the arm is positioned with respect to the vehicle surface that is to be wiped in such a way that the said lower sides (26a, 26b) of the cross sections of the rods (2a, 2b) face towards the surface that is to be wiped, so as to press the arm more firmly against the surface that is to be wiped.
A computer-implemented process, comprising: receiving an arbitrary source content comprising a sequence of one or more words in a source language; extracting a plurality of features from the source content; applying a machine-learned predictive linguistic-based model to the features to predict a source complexity score; wherein the source complexity score represents a predicted level of difficulty for localizing the source content into a destination content in a destination language; and presenting the complexity score via a user interface; wherein the machine-learned predictive linguistic-based model is trained on features extracted from a plurality of source assets or resources that have been successfully localized into the destination language, and on a number of times that each of the plurality of source assets or resources was localized into the destination language before the localization was deemed to be acceptable. receiving an arbitrary source content comprising a sequence of one or more words in a source language; extracting a plurality of features from the source content; applying a machine-learned predictive linguistic-based model to the features to predict a source complexity score; wherein the source complexity score represents a predicted level of difficulty for localizing the source content into a destination content in a destination language; and presenting the complexity score via a user interface; wherein the machine-learned predictive linguistic-based model is trained on features extracted from a plurality of source assets or resources that have been successfully localized into the destination language, and on a number of times that each of the plurality of source assets or resources was localized into the destination language before the localization was deemed to be acceptable.
Liquid mixture constituted of 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and of niacinamide compound chosen from niacinamide, N,N-diethylniacinamide, N-picolylniacinamide, and N-allylniacinamide.
An electrically-powered lighting device, including: - a first and a second supply contact, - at least one light emitting diode set between a first terminal and a second terminal, the at least one light emitting diode conductive from said first terminal towards said second terminal, and - a rectifier circuit including: - first and second rectifier branches, said first and second rectifier branches conductive from said first supply contact towards said first terminal and from said second terminal towards said second supply contact, respectively, and - third and fourth rectifier branches, said third and fourth rectifier branches conductive from said second supply contact towards said first terminal and from said second terminal towards said first supply contact, respectively, wherein the device includes at least one substrate (16; 160, 161, 162; 160, 1612) with said at least one light emitting diode and said rectifier circuit (D1, D2, D3, D4) arranged on said at least one substrate, wherein said at least one substrate includes: - a main portion with said at least one light emitting diode, - at least one appendix portion (161, 162; 1612) with said rectifier circuit (D1, D2, D3, D4), wherein at least one of said first and second supply contacts includes a containment member hosting at least one of the rectifier branches of the rectifier circuit (D1, D2, D3, D4). - a first and a second supply contact, - at least one light emitting diode set between a first terminal and a second terminal, the at least one light emitting diode conductive from said first terminal towards said second terminal, and - a rectifier circuit including: - first and second rectifier branches, said first and second rectifier branches conductive from said first supply contact towards said first terminal and from said second terminal towards said second supply contact, respectively, and - third and fourth rectifier branches, said third and fourth rectifier branches conductive from said second supply contact towards said first terminal and from said second terminal towards said first supply contact, respectively, - first and second rectifier branches, said first and second rectifier branches conductive from said first supply contact towards said first terminal and from said second terminal towards said second supply contact, respectively, and - third and fourth rectifier branches, said third and fourth rectifier branches conductive from said second supply contact towards said first terminal and from said second terminal towards said first supply contact, respectively, - a main portion with said at least one light emitting diode, - at least one appendix portion (161, 162; 1612) with said rectifier circuit (D1, D2, D3, D4),
A moulding unit for hardening light-curing polymer compositions, comprising: - at least one mould for receiving a light-curing polymer composition, - at least one transparent layer which is in contact with the light-curing polymer composition and which is permeable for the UV rays, characterized in that the transparent layer which is in contact with the light-curing polymer composition, is composed of polymethacrylate and that the moulding unit furthermore comprises - at least one liquid layer which is arranged such that rays pass through it during the irradiation of the transparent layer. - at least one mould for receiving a light-curing polymer composition, - at least one transparent layer which is in contact with the light-curing polymer composition and which is permeable for the UV rays, characterized in that the transparent layer which is in contact with the light-curing polymer composition, is composed of polymethacrylate and that the moulding unit furthermore comprises - at least one liquid layer which is arranged such that rays pass through it during the irradiation of the transparent layer.
A method of detecting an overburden event, the method comprising: receiving a first signal from a sensor disposed in a wellbore, wherein the signal comprises an indication of an acoustic signal received at one or more depths within the wellbore, wherein the signal is indicative of the acoustic signal across a frequency spectrum, receiving a second signal comprising an indication of a pressure or flow within the wellbore, determining a plurality of frequency domain features of the acoustic signal across the frequency spectrum; comparing the plurality of frequency domain features to an overburden event signature, determining, for one or more depths within the wellbore, a presence of an overburden event based on the plurality of frequency domain features matching the overburden event signature at one or more depths in the wellbore, correlating the overburden event with the pressure or flow, determining a presence and location of the overburden event based on the presence of the overburden event and the correlation of the overburden event with the pressure or flow; and generating an output indicative of the presence and the location of the overburden event. receiving a first signal from a sensor disposed in a wellbore, wherein the signal comprises an indication of an acoustic signal received at one or more depths within the wellbore, wherein the signal is indicative of the acoustic signal across a frequency spectrum, receiving a second signal comprising an indication of a pressure or flow within the wellbore, determining a plurality of frequency domain features of the acoustic signal across the frequency spectrum; comparing the plurality of frequency domain features to an overburden event signature, determining, for one or more depths within the wellbore, a presence of an overburden event based on the plurality of frequency domain features matching the overburden event signature at one or more depths in the wellbore, correlating the overburden event with the pressure or flow, determining a presence and location of the overburden event based on the presence of the overburden event and the correlation of the overburden event with the pressure or flow; and generating an output indicative of the presence and the location of the overburden event.
A shaping apparatus for shaping a workpiece, the apparatus comprising; a mounting arrangement; a first pair of shaping members mounted to the mounting arrangement and comprising a material having a first linear coefficient of thermal expansion, and a spacer located between the first pair of shaping members, the spacer comprising a material having a second linear coefficient of thermal expansion; a second pair of shaping members comprising a material having a third linear coefficient of thermal expansion, each of the second pair of shaping members comprising a clamping surface located adjacent the spacer, the second pair of shaping members being mounted to the mounting arrangement by a bracket; the spacer being mounted to the mounting arrangement and located between the second pair of shaping members; wherein the first and third linear coefficients of thermal expansion are higher than the second linear coefficient of thermal expansion such that on heating of the apparatus, expansion of the first pair of shaping members toward the spacer is substantially prevented by the spacer, and expansion of the each of the second pair of shaping members away from the spacer is prevented by the brackets, such that thermal expansion of the shaping members causes end parts of the first pair of shaping members to expand away from the spacer, and the clamping surface of the second pair of shaping members to expand toward the spacer.
A process for forming an integrated circuit interconnect structure, said process comprising: a) providing a partially-completed and planarized interconnect structure comprising an electrically insulating surface and an electrically conductive, copper-containing surface; b) depositing a protecting agent that comprises two or more compounds, each compound having one or more dialkylamide groups bonded to silicon, over said electrically insulating surface to synergistically reduce affinity of said electrically insulating surface to a precursor comprising manganese, cobalt, chromium or vanadium; c) selectively depositing a metal selected from the group consisting of manganese, cobalt, chromium and vanadium on at least a part of the electrically conductive copper-containing surface. a) providing a partially-completed and planarized interconnect structure comprising an electrically insulating surface and an electrically conductive, copper-containing surface; b) depositing a protecting agent that comprises two or more compounds, each compound having one or more dialkylamide groups bonded to silicon, over said electrically insulating surface to synergistically reduce affinity of said electrically insulating surface to a precursor comprising manganese, cobalt, chromium or vanadium; c) selectively depositing a metal selected from the group consisting of manganese, cobalt, chromium and vanadium on at least a part of the electrically conductive copper-containing surface.
A laminated structure appropriate for use in constructing walls, floors, ceilings or doors, said laminated structure comprising: two external layers (902, 910) of one or more materials each having an interior surface, wherein each external layer (902, 910) of a material comprises a material selected from the group consisting of gypsum, ceramic, wood, magnesium oxide (MgO), cement, concrete and ceramic mixtures employing phosphates; at least one internal constraining layer covering an area that is less than the area of the interior surfaces; and two or more internal layer(s) of a viscoelastic glue (904, 908) applied to the interior surface of the external layers (902, 910) and separated by the at least one internal constraining layer, wherein each of said layers of viscoelastic glue (904, 908) is patterned to cover an area less than the area of the interior surfaces, and wherein at least a portion of the area of the interior surfaces is not covered by any of the internal layers of viscoelastic glue (904, 908) and the internal constraining layer; thereby allowing moisture to pass through said structure. two external layers (902, 910) of one or more materials each having an interior surface, wherein each external layer (902, 910) of a material comprises a material selected from the group consisting of gypsum, ceramic, wood, magnesium oxide (MgO), cement, concrete and ceramic mixtures employing phosphates; at least one internal constraining layer covering an area that is less than the area of the interior surfaces; and two or more internal layer(s) of a viscoelastic glue (904, 908) applied to the interior surface of the external layers (902, 910) and separated by the at least one internal constraining layer, wherein each of said layers of viscoelastic glue (904, 908) is patterned to cover an area less than the area of the interior surfaces, and wherein at least a portion of the area of the interior surfaces is not covered by any of the internal layers of viscoelastic glue (904, 908) and the internal constraining layer; thereby allowing moisture to pass through said structure.
An electric machine and a cooling system for cooling the electric machine; the electric machine (6;206) comprising a stator (8; 208) comprising a stator supporting structure (11; 211) and a plurality of active stator sectors supported by the stator supporting structure (11; 211), and a rotor (7; 207) which rotates about an axis of rotation and has a rotor supporting structure (10; 210) and a plurality of active rotor sectors supported by the rotor supporting structure (10; 210); the cooling system (27; 127; 227) comprising a cooling circuit (28; 128; 128, 228) extending partly along a plurality of through channels (9, 19, 21) adjacent to at least the active rotor sectors or the active stator sectors; wherein the plurality of through channels (9, 19, 21) extend, parallel to the axis of rotation, between a cooling fluid inlet end and a cooling fluid outlet end; wherein the cooling system (27; 127) comprises a suction assembly (29; 129) designed to draw cooling fluid from the outlet end of the plurality of through channels (9, 19); the cooling circuit (28; 128) extending partly along the suction assembly (29; 129); wherein the plurality of through channels (19, 21) comprise a plurality of straight through channels (19, 21), each adjacent to a respective active rotor sector; wherein each active rotor sector comprises at least two rows of magnetized modules, stacked radially with respect to the axis of rotation; the plurality of straight through channels (19, 21) comprising a plurality of intermediate through channels, each bounded by two rows of magnetized modules of a respective active rotor sector.
A reagent composition for flow cytometric immunophenotyping of leukocytes comprising at least eight distinct fluorochrome-conjugated antibodies comprising a set of at least three identification antibodies for the identification of a leukocyte population of interest and at least four characterization antibodies for further characterization and/or classification of said leukocyte population, wherein the antibodies are directed against the following combination of markers: CD45, CD138, CD38, CD56, β2micro, CD19, CyIgκ and CyIgλ. CD45, CD138, CD38, CD56, β2micro, CD19, CyIgκ and CyIgλ.
A process for preparing a gas diffusion electrode for brine electrolysis comprising laminating a reaction layer containing an electrode catalyst, a gas diffusion layer containing the conductive carrier, and a collector, wherein said electrode catalyst is an electrode catalyst for oxygen reduction comprising particulate carbon as the conductive carrier, and a mixture containing (i) a particulate noble metal and (ii) at least one particulate rare-earth oxide containing cerium oxide and having an alkaline-earth metal as solid solution therein, the mixture being supported on the conductive carrier. (i) a particulate noble metal and (ii) at least one particulate rare-earth oxide containing cerium oxide and having an alkaline-earth metal as solid solution therein,
An image processing apparatus (1; 1b) that detects an abnormal part from an intraluminal image, the apparatus comprising: a gradient information calculating unit that calculates gradient information for each pixel, based on pixel values of the intraluminal image; a closed region creating unit (17; 19b) that, based on the gradient information, defines a closed region on the intraluminal image such that the closed region does not include, on an inside thereof, any pixel of which a gradient strength is equal to or higher than a predetermined value, and also, a boundary of the closed region does not curve toward an interior of the closed region, with a curvature equal to or larger than a predetermined value; and an abnormal part detecting unit that detects the abnormal part from the inside of the closed region. a gradient information calculating unit that calculates gradient information for each pixel, based on pixel values of the intraluminal image; a closed region creating unit (17; 19b) that, based on the gradient information, defines a closed region on the intraluminal image such that the closed region does not include, on an inside thereof, any pixel of which a gradient strength is equal to or higher than a predetermined value, and also, a boundary of the closed region does not curve toward an interior of the closed region, with a curvature equal to or larger than a predetermined value; and an abnormal part detecting unit that detects the abnormal part from the inside of the closed region.
A user-adjustable external cardiac pacemaker comprising a first input interface configured to receive a signal representation of a cardiac event having a pulse amplitude; a first output interface configured to output one or more stimuli generated by the cardiac pacemaker; and a second output interface configured to output adjustment information indicative of a user adjustment to at least one of i) an apparatus for controlling operation of the pacemaker in a training mode and ii) an ECG generator or a dedicated training sub-system. a first input interface configured to receive a signal representation of a cardiac event having a pulse amplitude; a first output interface configured to output one or more stimuli generated by the cardiac pacemaker; and a second output interface configured to output adjustment information indicative of a user adjustment to at least one of i) an apparatus for controlling operation of the pacemaker in a training mode and ii) an ECG generator or a dedicated training sub-system. i) an apparatus for controlling operation of the pacemaker in a training mode and ii) an ECG generator or a dedicated training sub-system.
Process for the preparation of a nanoparticulate UV protectant, characterised in that a) a nanoparticulate metal oxide is subjected to hydrothermal treatment, where the hydrothermal treatment is carried out in a closed container at temperatures in the range from 140 to 360°C and b) a silicon dioxide coating is subsequently applied. a) a nanoparticulate metal oxide is subjected to hydrothermal treatment, where the hydrothermal treatment is carried out in a closed container at temperatures in the range from 140 to 360°C and b) a silicon dioxide coating is subsequently applied.
A dental furnace comprising a heating element which is designed to deliver heating energy to the combustion chamber, the heating element having at least a first electrical connection and a second electrical connection and being designed as a resistive heating element, each electrical connection being supported against the dental furnace outside the combustion chamber and carrying an adjacent current-carrying part of the heating element, characterized in that the heating element has at least two current-carrying heating element portions (48, 50) which are laterally adjacent to each other in a transition region being non-current-carrying and extending away from the heating element portion (48, 50), in that the transition region supports at least the two adjoining heating element portions (48, 50) and in turn is supported against the dental furnace at a location spaced apart from the electrical connections (16, 18).
A flexible pipe comprising a resin pipe having a thickness of greater than 5 mm, the resin pipe being formed from a resin having a CO 2 permeability coefficient P(CO 2) of 20 × 10 -9 cm 3 ·cm/cm 2 ·s·cmHg or lower at 150°C; a CH 4 permeability coefficient P(CH 4) of 10 × 10 -9 cm 3 ·cm/cm 2 ·s·cmHg or lower at 150°C; a ratio D(CO 2)/S(CO 2) between a CO 2 diffusion coefficient D(CO 2) and a CO 2 solubility coefficient S(CO 2) of 3 × 10 -5 Pa·m 2 /s or higher at 150°C; and a ratio D(CH 4)/S(CH 4) between a CH 4 diffusion coefficient D(CH 4) and a CH 4 solubility coefficient S(CH 4) of higher than 15 × 10 -5 Pa·m 2 /s at 150°C, wherein P(CO 2), P(CH 4), D(CO 2), D(CH 4), S(CO 2) and S(CH 4) are determined by photoacoustic detection using a Hilase WaSul-Perm system with N 2 flow at the detection side and test gas flow at the test gas side.
A retractable sensor system a switchgear cabinet having a user accessible area and an inaccessible area, the retractable sensor system comprising: a rack mountable in the inaccessible area of the switchgear cabinet; a slider configured to retain a plurality of sensors, the slider movably engaged to the rack to slide in one direction to a racked-in position in which the sensors are located to sense conditions in the switchgear cabinet and to slide in an opposite direction to a racked-out position in which the sensors are drawn into the user accessible area of the switchgear cabinet; and at least one sensor being retained by the slider, characterized by said at least one sensor comprising: at least one of an optical sensor, a thermal sensor, a pressure sensor and a vibration sensor and/or a sensor positioned away from switchgear components to sense a condition in the switchgear cabinet when the slider is in the racked-in position. a rack mountable in the inaccessible area of the switchgear cabinet; a slider configured to retain a plurality of sensors, the slider movably engaged to the rack to slide in one direction to a racked-in position in which the sensors are located to sense conditions in the switchgear cabinet and to slide in an opposite direction to a racked-out position in which the sensors are drawn into the user accessible area of the switchgear cabinet; and at least one sensor being retained by the slider, characterized by said at least one sensor at least one of an optical sensor, a thermal sensor, a pressure sensor and a vibration sensor and/or a sensor positioned away from switchgear components to sense a condition in the switchgear cabinet when the slider is in the racked-in position.