mhurhangee/ep-ind-claims huggingface dataset:
A dispensing appliance suitable for receiving a pressure driven dispensing container and for dispensing a liquid contained in said container, wherein said container comprises a body, a mouth, and a closure for closing the aperture of the pressure driven dispensing container, said closure comprising an outer shell comprising: • a substantially planar base comprising a first outer main surface and a second inner main surface separated from the outer surface by the thickness of the base, said base further comprising a first aperture fluidly connecting the outer surface to the inner surface, and being offset with respect to the centroid of the base, and • an outer peripheral skirt jutting out of the periphery of the inner surface and forming a lower rim, said peripheral skirt being suitable for enclosing and for sealingly fixing the closure to the aperture of said pressure driven dispensing container; and said lower rim comprising a crenellation comprising at least one crenel, said dispensing appliance comprising: (a) a holding portion comprising means for holding the body of said container, and a closure receiving means suitable for receiving the closure of the container, and (b) a dispensing portion comprising a first tube suitable for engaging into said first offset aperture of the closure, in fluid communication with the interior of the container, said dispensing portion being movingly connected to the holding portion to move from a first, loading position, allowing the loading of the container onto the appliance, and a second, dispensing position, allowing the dispensing of the liquid contained in the container, characterized in that, the closure receiving means comprise a crenellation comprising at least one merlon mating the crenellation of the closure. • a substantially planar base comprising a first outer main surface and a second inner main surface separated from the outer surface by the thickness of the base, said base further comprising a first aperture fluidly connecting the outer surface to the inner surface, and being offset with respect to the centroid of the base, and • an outer peripheral skirt jutting out of the periphery of the inner surface and forming a lower rim, said peripheral skirt being suitable for enclosing and for sealingly fixing the closure to the aperture of said pressure driven dispensing container; and said lower rim comprising a crenellation comprising at least one crenel, (a) a holding portion comprising means for holding the body of said container, and a closure receiving means suitable for receiving the closure of the container, and (b) a dispensing portion comprising a first tube suitable for engaging into said first offset aperture of the closure, in fluid communication with the interior of the container, said dispensing portion being movingly connected to the holding portion to move from a first, loading position, allowing the loading of the container onto the appliance, and a second, dispensing position, allowing the dispensing of the liquid contained in the container,
ain inkjet printing method for applying liquid ink to a pressure-sensitive adhesive layer of a pressure-sensitive adhesive sheet including a minute concave section and a minute convex section to print an image, comprising a step of applying the liquid ink to the pressure-sensitive adhesive layer by ejecting the liquid ink from an inkjet printing head; and a step of curing the liquid ink applied to the pressure-sensitive adhesive layer, wherein when the liquid ink applied to the pressure-sensitive adhesive layer cures, the convex section of the pressure-sensitive adhesive layer is exposed out of the cured inks
Heavy duty vehicle with a flywheel accumulator drive, having at least one flywheel storage (6a, 6b) with a generator (5a, 5b), by which kinetic energy stored in the flywheel storage (6a, 6b) can be transformed into electric energy, and having at least one electric motor (4a, 4b) for driving at least one axis line (2a, 2b) of the heavy duty vehicle, which is supplied by the generator (5a, 5b) with electric energy, characterized in that the heavy duty vehicle has a combustion engine or a fuel cell, which drives the generator, which exclusively serves for generating the electric energy required for loading the one or the flywheel storages (6a, 6b), that said electric energy is fed to the generator (5a, 5b) of the one or of the flywheel storages (6a, 6b), and that said generator (5a, 5b) rotably drives the flywheel masses of the one or of the flywheel storages (6a, 6b).
Method for testing the resistance of at least one material sample, comprising the following steps: a) introducing the material sample into a test chamber; b) producing a plasma in a plasma generator and introducing a plasma jet into the test chamber; c) forming a defined test atmosphere in the test chamber by means of the plasma jet in order to allow said test atmosphere to act on the material sample; characterized in that test atmosphere is taken from the test chamber and at least a portion of the test atmosphere taken from the test chamber is supplied after filtering and/or conditioning as a process gas to the plasma generator. a) introducing the material sample into a test chamber; b) producing a plasma in a plasma generator and introducing a plasma jet into the test chamber; c) forming a defined test atmosphere in the test chamber by means of the plasma jet in order to allow said test atmosphere to act on the material sample; characterized in that test atmosphere is taken from the test chamber and at least a portion of the test atmosphere taken from the test chamber is supplied after filtering and/or conditioning as a process gas to the plasma generator.
Use of a lithium silicate glass ceramic or a lithium silicate glass which comprise the following components Component wt.-% SiO 2 54.0 to 78.0 Li 2 O 11.8 to 19.0 Cs 2 O 4.4 to 13.0 Al 2 O 3 1.7 to 9.0 P 2 O 5 0.5 to 9.0, for coating a substrate selected from metals and alloys.
A purging circuit for purging an anodic compartment of an electrochemical cell of a fuel cell, this circuit including: - means, forming a volume, having connexity, of at least equal to 300 ml, for containing and homogenising a recovery gas, comprising a first inlet and a first outlet; - a first nonreturn valve connected to the first outlet of the means for containing a recovery gas so as to prevent a gas from being introduced into these means through the first outlet and allow a part of a gas to be flown, from the first outlet to an inlet of the anodic compartment; - a second nonreturn valve connected to the first inlet of the means for containing a recovery gas, so as to prevent a gas from being discharged, from these means, through the first inlet; - a pressure sensor able to measure the pressure of a fluid present in said circuit, for example a pressure between an outlet of said anodic compartment and the second nonreturn valve; - means (46, 48) allowing a supply gas of said compartment to be flown or prohibiting it from being flown to its inlet, as a function of pressure data from said pressure sensor and allowing gas to be flown, from the first nonreturn valve to an inlet of the anodic compartment. - means, forming a volume, having connexity, of at least equal to 300 ml, for containing and homogenising a recovery gas, comprising a first inlet and a first outlet; - a first nonreturn valve connected to the first outlet of the means for containing a recovery gas so as to prevent a gas from being introduced into these means through the first outlet and allow a part of a gas to be flown, from the first outlet to an inlet of the anodic compartment; - a second nonreturn valve connected to the first inlet of the means for containing a recovery gas, so as to prevent a gas from being discharged, from these means, through the first inlet; - a pressure sensor able to measure the pressure of a fluid present in said circuit, for example a pressure between an outlet of said anodic compartment and the second nonreturn valve; - means (46, 48) allowing a supply gas of said compartment to be flown or prohibiting it from being flown to its inlet, as a function of pressure data from said pressure sensor and allowing gas to be flown, from the first nonreturn valve to an inlet of the anodic compartment.
A network appliance (106, 200) for classifying network flows using adaptive virtual routing, the network appliance comprising: one or more processors; and virtual switch operation mode controller circuitry adapted to identify a set of candidate classification algorithms from a plurality of classification algorithm designs to perform a flow classification operation; deploy each of the candidate classification algorithms to a processor of the one or more processors; monitor a performance level of each of the deployed candidate classification algorithms; identify a candidate classification algorithm of the deployed candidate classification algorithms with a higher performance level than the performance level of each of the other deployed candidate classification algorithms; and deploy the identified candidate classification algorithm on each of the one or more processors configured to perform the flow classification operation. one or more processors; and virtual switch operation mode controller circuitry adapted to identify a set of candidate classification algorithms from a plurality of classification algorithm designs to perform a flow classification operation; deploy each of the candidate classification algorithms to a processor of the one or more processors; monitor a performance level of each of the deployed candidate classification algorithms; identify a candidate classification algorithm of the deployed candidate classification algorithms with a higher performance level than the performance level of each of the other deployed candidate classification algorithms; and deploy the identified candidate classification algorithm on each of the one or more processors configured to perform the flow classification operation.
A method of operating a processing tool to process a workpiece having at least a first hole, the method comprising: expanding at least a portion of an expansion assembly by the processing tool; the expansion assembly comprising a multi-segmented expansion assembly; sensing by at least one sensor at least one of a pressure, a position of a drive member, a distance of travel of the drive member, or a reaction force resulting from an applied force applied directly or indirectly by the expanding of the segments of the expansion assembly to an interior surface of the first hole; determining by at least one processor at least one value indicative of a response of at least a portion of at least the workpiece to the applied force applied directly or indirectly by the expanding of the at least a portion of the expansion assembly; characterised by controlling the expanding of the at least a portion of the expansion assembly by the at least one processor based at least in part on the determined at least one value, by at least: detecting a concurrent rapid increase in the reaction force along with no change in the position of the drive member; and responsive to the detected concurrent rapid increase in the reaction force along with no change in the position of the drive member, retracting the at least a portion of the expansion assembly. expanding at least a portion of an expansion assembly by the processing tool; the expansion assembly comprising a multi-segmented expansion assembly; sensing by at least one sensor at least one of a pressure, a position of a drive member, a distance of travel of the drive member, or a reaction force resulting from an applied force applied directly or indirectly by the expanding of the segments of the expansion assembly to an interior surface of the first hole; determining by at least one processor at least one value indicative of a response of at least a portion of at least the workpiece to the applied force applied directly or indirectly by the expanding of the at least a portion of the expansion assembly; characterised by controlling the expanding of the at least a portion of the expansion assembly by the at least one processor based at least in part on the determined at least one value, by at least: detecting a concurrent rapid increase in the reaction force along with no change in the position of the drive member; and responsive to the detected concurrent rapid increase in the reaction force along with no change in the position of the drive member, retracting the at least a portion of the expansion assembly. detecting a concurrent rapid increase in the reaction force along with no change in the position of the drive member; and responsive to the detected concurrent rapid increase in the reaction force along with no change in the position of the drive member, retracting the at least a portion of the expansion assembly.
A conversion circuit (220, 300, 330, 330', 340, 350) configured to supply an output voltage after converting an input voltage, wherein the input voltage comprises a first input voltage terminal and a second input voltage terminal and the output voltage comprises a first output voltage terminal and a second output voltage terminal, and the second input voltage terminal is connected to the second output voltage terminal, characterized by, the conversion circuit comprising: a first full-wave rectifier circuit comprising a first branch and a second branch connected in parallel between the first output voltage terminal and the second output voltage terminal, the first branch comprising a first winding of a transformer (Tr) and a first rectifier switch connected in series to form a first midpoint, and the second branch comprising a second winding of the transformer and a second rectifier switch connected in series to form a second midpoint; a first switch branch connected between the first input voltage terminal and the first midpoint, and comprising a first switch and a second switch connected in series to form a first connection node; and a first resonant unit directly connected between the first connection node and the second midpoint. a first full-wave rectifier circuit comprising a first branch and a second branch connected in parallel between the first output voltage terminal and the second output voltage terminal, the first branch comprising a first winding of a transformer (Tr) and a first rectifier switch connected in series to form a first midpoint, and the second branch comprising a second winding of the transformer and a second rectifier switch connected in series to form a second midpoint; a first switch branch connected between the first input voltage terminal and the first midpoint, and comprising a first switch and a second switch connected in series to form a first connection node; and a first resonant unit directly connected between the first connection node and the second midpoint.
A method for altering the propagation constant level of a region of changeable propagation constant of a silicon waveguide in an optical device, formed as part of a field effect transistor of a metal oxide silicon capacitor (MOSCAP) material system with at least one electrode in contact with the FET surface and a separate planar electrode of a prescribed non-rectangular electrode shape, the method comprising: positioning the planar electrode above the silicon waveguide and separated therefrom by the MOSCAP oxide; positioning a second electrode in electrical contact with the silicon waveguide at a first location removed from the region of changeable propagation constant; positioning a third electrode in electrical contact with the silicon waveguide at a second location removed from the region of changeable propagation constant, the second location on an opposite side of the region of changeable propagation constant with respect to the first location; projecting a non-rectangular region of changeable propagation constant into the silicon waveguide, the projected non-rectangular region substantially corresponding in shape to the non-rectangular planar electrode shape, by applying a voltage to the planar electrode; and, controlling a propagation constant level of the projected region of changeable propagation constant by varying the voltage, creating a region of differing optical function associated with the non-rectangular projected region. positioning the planar electrode above the silicon waveguide and separated therefrom by the MOSCAP oxide; positioning a second electrode in electrical contact with the silicon waveguide at a first location removed from the region of changeable propagation constant; positioning a third electrode in electrical contact with the silicon waveguide at a second location removed from the region of changeable propagation constant, the second location on an opposite side of the region of changeable propagation constant with respect to the first location; projecting a non-rectangular region of changeable propagation constant into the silicon waveguide, the projected non-rectangular region substantially corresponding in shape to the non-rectangular planar electrode shape, by applying a voltage to the planar electrode; and, controlling a propagation constant level of the projected region of changeable propagation constant by varying the voltage, creating a region of differing optical function associated with the non-rectangular projected region.
Mixture of at least nine fatty acids, selected from palmitic acid, oleic acid, stearic acid, linoleic acid, alpha-linolenic acid, gamma-linolenic acid, eicosapentaenoic acid, docosahexaenoic acid, azelaic acid and myristic acid for use in the treatment and/or prevention of inflammatory pathologies selected from atopic dermatitis, dermatomyositis, scleroderma, psoriasis, polymyositis, pemphigus, pemphigoid epidermolysis bullosa, Sjogren's syndrome, sympathetic ophthalmia, uveitis, and uveo-retinitis.
An optical security component intended to be observed in reflection, with the naked eye, according to at least one first observation face, comprising: - a first layer made of dielectric material, having a first refractive index (n 1); - at least one first diffractive structure (S 1, S 2) etched on said first layer; and in which: - said first diffractive structure is formed by a first pattern, said first pattern being formed by a set of modules disposed side-by-side, in a given direction of arrangement; - each module comprises a bas-relief with a first set of facets whose forms are determined to simulate an optical element visible in reflection, with at least one convex region and/or at least one concave region, having a profile with a variable slope in a single direction, called direction of variation of the slope, perpendicular to the direction of arrangement; - for two modules disposed side-by-side, the slope along at least one line parallel to the direction of arrangement is different between said two modules; the optical component having, in reflection and under the effect of a tilt movement about an axis parallel to said direction of arrangement, a dynamic visual effect comprising the movement of one or more graphic elements, the optical component being characterized in that: a maximum width of each module defined in the direction of arrangement is less than 300 μm, and in that the set of modules comprises a minimum number of modules such that a minimum dimension of the first structure along the direction of arrangement is greater than 1 mm. - a first layer made of dielectric material, having a first refractive index (n 1); - at least one first diffractive structure (S 1, S 2) etched on said first layer; and in which: - said first diffractive structure is formed by a first pattern, said first pattern being formed by a set of modules disposed side-by-side, in a given direction of arrangement; - each module comprises a bas-relief with a first set of facets whose forms are determined to simulate an optical element visible in reflection, with at least one convex region and/or at least one concave region, having a profile with a variable slope in a single direction, called direction of variation of the slope, perpendicular to the direction of arrangement; - for two modules disposed side-by-side, the slope along at least one line parallel to the direction of arrangement is different between said two modules;
Method for transmitting a data signal from a transmitter to a receiver in an AC voltage system having a distributor and at least one load group with one or more loads, the transmitter having a current source and a pulse generator, the pulse generator generating a signal with a predetermined or predeterminable pulse shape on the basis of the data signal and forwarding it to the current source, the transmitter being directly connected to an AC voltage system in parallel with a load and having, in particular, no coupling transformer, the transmitter using the current source to supply the signal to the AC voltage system.
A modular galley, in particular aircraft galley, comprising as utility regions a base element and at least one add-on element, divided into compartments for receiving inserts and devices, wherein the aforesaid comprise mechanical connections for connecting the elements, and comprising built-in fittings or devices as well as electrical and electronic device connection means and device supply lines, characterised in that a central element, which is arranged rearwards when viewed from the galley operator side, for lateral as well as forwards and rearwards projecting enclosure and high superstructure comprises individual housing-like utility add-ons that are to be added on gradually, wherein the central element comprises a horizontal-plane joint and vertical plane joints (LL, LQ) that extend both in the longitudinal direction and in the transverse direction.
A subsea umbilical termination assembly comprising: an umbilical termination head fixed to the end of a subsea umbilical; and an electrical and/or optical distribution unit comprising a base frame and several connectors mounted to the base frame, wherein each connector is electrically connected to an electrical cable of the subsea umbilical via the umbilical termination head or optically connected to an optical cable of the subsea umbilical via the umbilical termination head, characterized in that the umbilical termination head is circularly cylindrical and is mounted in a correspondingly shaped cavity provided inside the base frame of the distribution unit such that the umbilical termination head is centrally positioned inside the base frame of the distribution unit and the connectors are located in a space of the distribution unit radially outwardly of the umbilical termination head. an umbilical termination head fixed to the end of a subsea umbilical; and an electrical and/or optical distribution unit comprising a base frame and several connectors mounted to the base frame, wherein each connector is electrically connected to an electrical cable of the subsea umbilical via the umbilical termination head or optically connected to an optical cable of the subsea umbilical via the umbilical termination head, characterized in that the umbilical termination head is circularly cylindrical and is mounted in a correspondingly shaped cavity provided inside the base frame of the distribution unit such that the umbilical termination head is centrally positioned inside the base frame of the distribution unit and the connectors are located in a space of the distribution unit radially outwardly of the umbilical termination head.