mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: measuring at least one characteristic of a secondary component carrier to obtain a measurement result, where measuring is performed by an apparatus while the apparatus is in communication with a network via a primary component carrier with a network access node; and in response to the measurement result of the at least one characteristic being below a threshold, and further in response to receiving from the network access node an activation command for the secondary component carrier, considering the secondary component carrier as being undetectable. measuring at least one characteristic of a secondary component carrier to obtain a measurement result, where measuring is performed by an apparatus while the apparatus is in communication with a network via a primary component carrier with a network access node; and in response to the measurement result of the at least one characteristic being below a threshold, and further in response to receiving from the network access node an activation command for the secondary component carrier, considering the secondary component carrier as being undetectable.
A method for producing decor components which have a planar core and a printed paper as a substrate, the method comprising the following steps: - printing a decor onto a substrate by means of a digital printing facility, the decor having a decor length and decor width, - further processing the printed substrate, thus obtaining decor sheets, the dimensions of which correspond to those of the core, - pressing each decor sheet with a core and - dividing the core provided with the decor sheet into a plurality of decor components, wherein the décor length is at least as long as two decor components and at least as long as two cores, characterized in that the decor further comprises control characters, which are used for allocating the individual decor components and sorting them into packaging units. - printing a decor onto a substrate by means of a digital printing facility, the decor having a decor length and decor width, - further processing the printed substrate, thus obtaining decor sheets, the dimensions of which correspond to those of the core, - pressing each decor sheet with a core and - dividing the core provided with the decor sheet into a plurality of decor components, wherein the décor length is at least as long as two decor components and at least as long as two cores,
Electropneumatic brake device of a rail vehicle, comprising an electronic wheel-slip-protection computer for maintaining the adhesion coefficient between the wheel and the rail by controlling wheel-slip-protection valves (2a to 2d) connected thereto and in each case associated with a brake cylinder (3a to 3d), wherein the wheel-slip-protection computer has an electrical input for the specification of a braking/deceleration set-point value (C soll) and sensor means for the detection of vehicle condition variables relevant to braking, whose measured values are also transmitted to the input of the wheel-slip-protection computer, to enable the wheel-slip-protection computer also to be used for controlling the operating pressure of the service brake, characterised in that during an emergency braking operation the wheel-slip-protection computer ignores the set-point braking value (C soll) specified by the central train control system and to enable the alternative use of a load-dependent substitute set-point value (T ist) the wheel-slip-protection computer has an additional electrical input for the transmission of an actual load value.
A lighting module comprising: a light guide plate (110, 310); a first case (200a") coupled to one side of the light guide plate (110, 310); a first light source (150a, 150c, 250a) which is disposed in the first case (200a") and emits light to the one side of the light guide plate (110, 310); a second case (200b") coupled to the other side of the light guide plate (110, 310); and a second light source (150b, 150d, 250b) which is disposed in the second case (200b") and emits light to the other side of the light guide plate (110, 310), wherein the light guide plate comprises a first light guide plate and a second light guide plate disposed below the first light guide plate, characterized in that and the first light source (150a, 150c) comprises a light source emitting light to one side of the first light guide plate and a light source emitting light to one side of the second light guide plate, the light source being disposed below the light source, wherein the second light source (150b, 150d) comprises a light source emitting light to the other side of the first light guide plate and a light source emitting light to the other side of the second light guide plate, the light source being disposed below the light source, the lighting module further comprising a reflective plate disposed between the first light guide plate and the second light guide plate (110b to emit light upward and downward from the guide plate. a light guide plate (110, 310); a first case (200a") coupled to one side of the light guide plate (110, 310); a first light source (150a, 150c, 250a) which is disposed in the first case (200a") and emits light to the one side of the light guide plate (110, 310); a second case (200b") coupled to the other side of the light guide plate (110, 310); and a second light source (150b, 150d, 250b) which is disposed in the second case (200b") and emits light to the other side of the light guide plate (110, 310), wherein the light guide plate comprises a first light guide plate and a second light guide plate disposed below the first light guide plate, wherein the light guide plate comprises a first light guide plate and a second light guide plate disposed below the first light guide plate, characterized in that and the first light source (150a, 150c) comprises a light source emitting light to one side of the first light guide plate and a light source emitting light to one side of the second light guide plate, the light source being disposed below the light source, wherein the second light source (150b, 150d) comprises a light source emitting light to the other side of the first light guide plate and a light source emitting light to the other side of the second light guide plate, the light source being disposed below the light source, the lighting module further comprising a reflective plate disposed between the first light guide plate and the second light guide plate (110b to emit light upward and downward from the guide plate.
A method for generating a fluid saturation model for a subsurface region comprising: performing a first petrophysical inversion for the subsurface region with hydrocarbon flood parameters to generate hydrocarbon flood results; performing a second petrophysical inversion for the subsurface region with brine flood parameters to generate brine flood results; identifying a first set of misfits between the hydrocarbon flood results and one or both of a prior distribution and a true model; identifying a second set of misfits between the brine flood results and one or both of a prior distribution and a true model; generating a trial fluid saturation model based on at least one of the first set of misfits and the second set of misfits; performing a third petrophysical inversion for the subsurface region with the trial fluid saturation model to generate final results; generating the fluid saturation model for the subsurface region based on the final results; and managing hydrocarbons in the subsurface region based on the fluid saturation model, wherein managing hydrocarbons comprises causing a well to be drilled; wherein each one of the first, second, and third petrophysical inversion is carried out using a computer, and each one of the trial fluid saturation model and the fluid saturation model is generated using a computer. performing a first petrophysical inversion for the subsurface region with hydrocarbon flood parameters to generate hydrocarbon flood results; performing a second petrophysical inversion for the subsurface region with brine flood parameters to generate brine flood results; identifying a first set of misfits between the hydrocarbon flood results and one or both of a prior distribution and a true model; identifying a second set of misfits between the brine flood results and one or both of a prior distribution and a true model; generating a trial fluid saturation model based on at least one of the first set of misfits and the second set of misfits; performing a third petrophysical inversion for the subsurface region with the trial fluid saturation model to generate final results; generating the fluid saturation model for the subsurface region based on the final results; and managing hydrocarbons in the subsurface region based on the fluid saturation model, wherein managing hydrocarbons comprises causing a well to be drilled; wherein each one of the first, second, and third petrophysical inversion is carried out using a computer, and each one of the trial fluid saturation model and the fluid saturation model is generated using a computer.
A thermosetting composition comprising a diene-based polymer having two or more unsaturated bonds, and a polythiol derived from mercaptocarboxylic acid and a thermally radical-generating agent, wherein said diene-based polymer is a liquid styrene-butadiene copolymer having a bound styrene content of 15-90 mass% and a vinyl bond content in butadiene portion of 20-90% or said diene-based polymer is a liquid polyisoprene having hydroxy group(s) in its terminal or both terminals.
A method for weld repairing airfoils made from a nickel based super alloy material, comprising the steps of: removing a damaged portion of the airfoil; feeding powdered nickel alloy based material including 4.50-5.00% titanium and 5.0-6.0% aluminum by weight to a plasma arc welding device; charaterized by further comprising: depositing a plurality of weld beads along the damaged portion of the airfoil in a continuous bi-directional pattern with the welding device wherein there is no delay between successive weld passes; and providing a chill block for a heat sink. removing a damaged portion of the airfoil; feeding powdered nickel alloy based material including 4.50-5.00% titanium and 5.0-6.0% aluminum by weight to a plasma arc welding device; charaterized by further comprising: depositing a plurality of weld beads along the damaged portion of the airfoil in a continuous bi-directional pattern with the welding device wherein there is no delay between successive weld passes; and providing a chill block for a heat sink. depositing a plurality of weld beads along the damaged portion of the airfoil in a continuous bi-directional pattern with the welding device wherein there is no delay between successive weld passes; and providing a chill block for a heat sink.
A laser processing method for drilling a hole in a glass substrate with using a carbon dioxide laser, comprising the steps of: irradiating the laser on the glass substrate from a side of a surface of the glass substrate on which a protective sheet for laser processing is adhered so as to fonn a blind hole; removing the protective sheet from the glass substrate and perforating an annealing treatment; and being characterised by the following step: adhering a protective sheet having a resistance to hydrofluoric acid for a wet-etching process on the laser-irradiated surface of the glass substrate, and performing the wet-etching process with using hydrofluoric acid on the side of the glass substrate opposite to the laser-irradiated surface so as to convert the blind hole into a through hole. irradiating the laser on the glass substrate from a side of a surface of the glass substrate on which a protective sheet for laser processing is adhered so as to fonn a blind hole; removing the protective sheet from the glass substrate and perforating an annealing treatment; and being characterised by the following step: adhering a protective sheet having a resistance to hydrofluoric acid for a wet-etching process on the laser-irradiated surface of the glass substrate, and performing the wet-etching process with using hydrofluoric acid on the side of the glass substrate opposite to the laser-irradiated surface so as to convert the blind hole into a through hole.
A compound of Formula: wherein R 1 is KF 3 B, 2 B, NaF 3 B, wherein the R 1 substituent point of attachment is on the Boron atom; and R 2 is methyl or hydrogen, or a pharmaceutically-acceptable salt thereof. R 1 is KF 3 B, 2 B, NaF 3 B, wherein the R 1 substituent point of attachment is on the Boron atom; and R 2 is methyl or hydrogen,
A method of performing beam definition in a focused ion beam system, whereby the beam is passed through a beam-defining aperture structure comprising: a substrate (410; 610) comprising a semiconductor; a conductive layer (420; 620) supported by the substrate, the conductive layer comprising an aperture material and having an aperture opening defining portion (432; 632), wherein the aperture opening defining portion includes a hole (450; 680) that defines an aperture opening and the aperture material comprises a conductor; and a cavity (430; 650) in the substrate material below the aperture opening defining portion; characterized by selecting said aperture structure such that: a diameter of the aperture opening is smaller than a diameter of the cavity; the aperture opening defining portion comprises a portion of the conductive layer having a backside surface that is exposed by the cavity; and the portion of the aperture material around the hole is cantilevered over the cavity and not directly supported by the substrate. a substrate (410; 610) comprising a semiconductor; a conductive layer (420; 620) supported by the substrate, the conductive layer comprising an aperture material and having an aperture opening defining portion (432; 632), wherein the aperture opening defining portion includes a hole (450; 680) that defines an aperture opening and the aperture material comprises a conductor; and a cavity (430; 650) in the substrate material below the aperture opening defining portion; a diameter of the aperture opening is smaller than a diameter of the cavity; the aperture opening defining portion comprises a portion of the conductive layer having a backside surface that is exposed by the cavity; and the portion of the aperture material around the hole is cantilevered over the cavity and not directly supported by the substrate.
A lid comprising: a body having a top surface including an inner portion and an outer portion, the outer portion defining an outer periphery edge of the body, a bottom surface, and a groove separating the top surface inner portion from the top surface outer portion; and a flexible skirt integrally joined to the outer periphery edge of the body and extending therefrom, characterised in that: the groove defines a flexible zone which permits the flexible skirt to flip between a first position and a second position, and wherein movement of the flexible skirt from the first position to the second position narrows the width of the groove, wherein when the flexible skirt is in the first position the flexible skirt projects downward and away from the top surface and an edge of the flexible skirt distal from the body defines a perimeter less than the perimeter defined by the outer periphery edge of the body, and wherein the second position is inverted from the first position. a body having a top surface including an inner portion and an outer portion, the outer portion defining an outer periphery edge of the body, a bottom surface, and a groove separating the top surface inner portion from the top surface outer portion; and a flexible skirt integrally joined to the outer periphery edge of the body and extending therefrom, characterised in that: the groove defines a flexible zone which permits the flexible skirt to flip between a first position and a second position, and wherein movement of the flexible skirt from the first position to the second position narrows the width of the groove, wherein when the flexible skirt is in the first position the flexible skirt projects downward and away from the top surface and an edge of the flexible skirt distal from the body defines a perimeter less than the perimeter defined by the outer periphery edge of the body, and wherein the second position is inverted from the first position. the groove defines a flexible zone which permits the flexible skirt to flip between a first position and a second position, and wherein movement of the flexible skirt from the first position to the second position narrows the width of the groove, wherein when the flexible skirt is in the first position the flexible skirt projects downward and away from the top surface and an edge of the flexible skirt distal from the body defines a perimeter less than the perimeter defined by the outer periphery edge of the body, and wherein the second position is inverted from the first position.
An optical detection system, comprising: a microfluidic device (165, 465, 500) comprising: a first substrate; a plurality of channels formed in the first substrate, wherein at least one channel is a microfluidic channel; one or more optical alignment marks formed in the first substrate by etching into the first substrate using an isotropic etch and a square, 10 x 10 micrometer mask feature, said one or more optical alignment marks are spaced apart from the plurality of channels, each alignment mark having a curved wall; a second substrate bonded to the first substrate such that the plurality of channels are covered and the one or more optical alignment marks are closed; a light-emitting diode (110, 410); means for collimating light emitted by the light-emitting diode (130, 430); an objective lens (160, 460); means for directing the collimated light through the objective lens onto the microfluidic device (150, 450); and means for detecting a signal emitted from the microfluidic device. a first substrate; a plurality of channels formed in the first substrate, wherein at least one channel is a microfluidic channel; one or more optical alignment marks formed in the first substrate by etching into the first substrate using an isotropic etch and a square, 10 x 10 micrometer mask feature, said one or more optical alignment marks are spaced apart from the plurality of channels, each alignment mark having a curved wall; a second substrate bonded to the first substrate such that the plurality of channels are covered and the one or more optical alignment marks are closed; a light-emitting diode (110, 410); means for collimating light emitted by the light-emitting diode (130, 430); an objective lens (160, 460); means for directing the collimated light through the objective lens onto the microfluidic device (150, 450); and means for detecting a signal emitted from the microfluidic device.
Locking device for an espagnolette fitting for latching a window, a French door or the like, with a casement swivelable about a frame, having a strike element and a strike plate arranged opposite the strike element, characterized in that the strike plate or the strike element is guided orthogonally movable to a frame level and in that a movement of the strike plate or the strike element is controllable depending on the position of the strike element in the strike plate.
A method of inferring a rate of rotational diffusion of a collection of fluorophores, the method comprising: applying a first pulse of light to the collection of fluorophores to excite a plurality of fluorophores in the collection of fluorophores to produce a plurality of excited fluorophores, the first pulse of light having a first polarization and the plurality of excited fluorophores having a component of their orientation aligned with the first polarization; applying a second pulse of light to the collection of fluorophores to induce saturated stimulated emission by the plurality of excited fluorophores, the second pulse of light having a second polarization orthogonal to the first polarization; applying a third pulse of light to the collection of fluorophores to induce further saturated stimulated emission by the plurality of excited fluorophores, the third pulse of light having the second polarization and being applied after a predetermined time delay following application of the second pulse of light; detecting polarized emissions from the plurality of excited fluorophores; and inferring the rate of rotational diffusion of the collection of fluorophores based on the detected polarized emissions. applying a first pulse of light to the collection of fluorophores to excite a plurality of fluorophores in the collection of fluorophores to produce a plurality of excited fluorophores, the first pulse of light having a first polarization and the plurality of excited fluorophores having a component of their orientation aligned with the first polarization; applying a second pulse of light to the collection of fluorophores to induce saturated stimulated emission by the plurality of excited fluorophores, the second pulse of light having a second polarization orthogonal to the first polarization; applying a third pulse of light to the collection of fluorophores to induce further saturated stimulated emission by the plurality of excited fluorophores, the third pulse of light having the second polarization and being applied after a predetermined time delay following application of the second pulse of light; detecting polarized emissions from the plurality of excited fluorophores; and inferring the rate of rotational diffusion of the collection of fluorophores based on the detected polarized emissions.
A mounting tool (20, 21) for mounting an anastomotic device (10, 200, 190) to an end (120, 121) of a tubular structure, said tool (20, 21) comprising a receiving portion (48") for receiving a rigid part (11, 13, 191, 193) of said anastomotic device (10, 200); a conical portion with a large end having a profiled section comprising said receiving portion (48"), and a small end, insertable in an elastic part arranged inside the tubular structure; characterized in that the conical portion comprising a releasable portion, whereby said conical portion is insertable into the elastic part for expanding the diameter of the elastic part and for passing said elastic part beyond the large end and onto a rigid part (11, 13, 191, 193) arrangable at said receiving portion.
Method for image acquisition of a preferably structured surface (3, 19) of an object using at least two line scan cameras (2, 18) for scanning the surface (3, 19), wherein during the image acquisition a relative movement between the line scan cameras (2, 18) and the surface (3, 19) is carried out, wherein the surface (3, 19) is illuminated in a structured manner and wherein a temporal and spatial evaluation of recorded images is carried out for reconstructing the surface (3, 19), wherein based on the temporal and spatial evaluation of the individual images there are established corresponding pixels by means of algorithms which together with the imaging function enable a triangulation of surface points, wherein, with time-variable projection of light patterns, a line-by-line change of the light patterns in two of the line scan cameras (2, 18) is correlated in a site-specific manner, and wherein the recording of the surface is carried out on a line-by-line basis with a changing pattern projection.