mhurhangee/ep-ind-claims huggingface dataset:
A deployment system for utilization onboard an airborne object including one or more deployable elements the deployment system comprising: a circumferential restraint disposable at least partially around the airborne object in a constraining position wherein the circumferential restraint prevents deployment of the deployable element; and a release mechanism mountable to the airborne object and normally residing in a first position in which the release mechanism maintains the circumferential restraint in the constraining position, the release mechanism movable to a second position to release the circumferential restraint from the constraining position and permit deployment of the deployable element, wherein the release mechanism comprises a pin actuation mechanism and wherein the pin actuation mechanism comprises: a casing mountable to the airborne object; and a pin slidably mountable to the casing, the pin normally residing in an extended position wherein the pin engages the circumferential restraint to maintain the circumferential restraint in the constraining position, the pin movable to a retracted position to release the circumferential restraint from the constraining position wherein a portion of the circumferential restraint follows a serpentine path in the constraining position, further comprising a guide member mountable to the airborne object, the guide member engaging the circumferential restraint in the constraining position to help guide the circumferential restraint along the serpentine path. a casing mountable to the airborne object; and a pin slidably mountable to the casing, the pin normally residing in an extended position wherein the pin engages the circumferential restraint to maintain the circumferential restraint in the constraining position, the pin movable to a retracted position to release the circumferential restraint from the constraining position wherein a portion of the circumferential restraint follows a serpentine path in the constraining position, further comprising a guide member mountable to the airborne object, the guide member engaging the circumferential restraint in the constraining position to help guide the circumferential restraint along the serpentine path.
A method of preparing a lithium thiophosphate comprising at least one step for the preparation of a solution S1 at a temperature T1 comprised from -200°C to 10°C, said solution S1 comprising a solvent and at least P species under the form of (PS 4) 3-, Li species under the form of Li +, and remaining sulfur under the form of polysulfide, followed by a step for removing at least a portion of the solvent from said solution S1 to obtain lithium thiophosphate.
A method for coloring an acetylated wood product, comprising: providing the acetylated wood product in a chamber; providing a coloring medium in liquid form containing one or more colorants into the chamber; causing the coloring medium to impregnate the acetylated wood product; and then heating the impregnated acetylated wood product to fix the one or more colorants to any exterior surface or any interior region of the acetylated wood product which has been impregnated by the coloring medium, without the use of binder or resin or other polymerisable chemicals, wherein the coloring medium penetrates into the acetylated wood product, and further comprising removing some or all of the coloring medium that did not penetrate into the acetylated wood product and replacing it with an uncolored liquid medium comprised of up to and including 100% water such that the acetylated wood product is completely immersed, wherein the heating is carried out in the uncolored liquid medium to heat the acetylated wood product to a temperature between 110°C to 140°C to fix the one or more colorants included in the coloring medium to those external surfaces and internal regions of the acetylated wood product impregnated by the coloring medium. providing the acetylated wood product in a chamber; providing a coloring medium in liquid form containing one or more colorants into the chamber; causing the coloring medium to impregnate the acetylated wood product; and then heating the impregnated acetylated wood product to fix the one or more colorants to any exterior surface or any interior region of the acetylated wood product which has been impregnated by the coloring medium, without the use of binder or resin or other polymerisable chemicals, wherein the coloring medium penetrates into the acetylated wood product, and further comprising removing some or all of the coloring medium that did not penetrate into the acetylated wood product and replacing it with an uncolored liquid medium comprised of up to and including 100% water such that the acetylated wood product is completely immersed, wherein the heating is carried out in the uncolored liquid medium to heat the acetylated wood product to a temperature between 110°C to 140°C to fix the one or more colorants included in the coloring medium to those external surfaces and internal regions of the acetylated wood product impregnated by the coloring medium.
A method for producing ketimine structure-containing alkoxysilane comprising; reacting an amino-functional alkoxysilane represented by general formula (wherein R 1 represents C 1-6 monovalent hydrocarbyl, R 2 represents C 1-4 alkyl, R 3 represents C 1-10 divalent hydrocarbyl or a divalent organic group represented by -R 4 -NH-R 5 - (wherein R 4 and R represent C 1-10 divalent hydrocarbyl), and n is 1, 2, or 3) with a monocarbonyl compound represented by general formula (wherein R 6 and R 7 represent the hydrogen atom or C 1-10 monovalent hydrocarbyl, but do not simultaneously represent the hydrogen atom) by heating and azeotropically distilling off the produced water along with the monocarbonyl compound to yield Ketimine structure-containing alkoxysilane represented by general formula (wherein R 1, R 2, R 3, R 6, R 7, and n are defined as above), characterized by introducing additional monocarbonyl compound at the time of the azeotropic distillation of the produced water along with the monocarbonyl compound.
A system for displaying a virtual image of a probe comprising: a three-dimensional tracking system (10,40, 80) configured to monitor actual movements of a probe(20, 22, 24, 28); a monitor and a controller/processor configured to display a computer-generated image on the monitor, said image including: a computer-generated image of a distal portion of said probe; and a virtual image of an interior of a lumen containing said computer-generated image of said distal portion of said probe as seen from a viewpoint, characterized in that said viewpoint is fixed relative to said virtual image of said lumen proximal of a distal tip of said probe, such that movement of said distal tip of said probe relative to said lumen is visible, thereby visualizing any rhythmic movement resulting from lumen movement as movement of said probe in said computer-generated image. a three-dimensional tracking system (10,40, 80) configured to monitor actual movements of a probe(20, 22, 24, 28); a monitor and a controller/processor configured to display a computer-generated image on the monitor, said image including: a computer-generated image of a distal portion of said probe; and a virtual image of an interior of a lumen containing said computer-generated image of said distal portion of said probe as seen from a viewpoint, a computer-generated image of a distal portion of said probe; and a virtual image of an interior of a lumen containing said computer-generated image of said distal portion of said probe as seen from a viewpoint,
An access control method for parallel direct current power supplies, comprising: S101, detecting single insulation resistances to ground of the direct current power supplies; S102, determining whether the single insulation resistances to ground each meet a first preset condition, and going to step S104 in a case that all the single insulation resistances to ground meet the first preset condition; S103, in a case that the single insulation resistances to ground fail to all meet the first preset condition, controlling each direct current power supply, a single insulation resistance to ground of which fails to meet the first preset condition, to be disconnected from a grid-connected inverter, controlling a direct current power supply, a single insulation resistance to ground of which meets the first preset condition, to be connected with the grid-connected inverter, and going to step S104; S104, detecting a total insulation resistance to ground of direct current power supplies currently in parallel; S105, determining whether the total insulation resistance to ground meets a second preset condition; S106, controlling a direct current power supply, a single insulation resistance to ground of which is smallest of the direct current power supplies currently in parallel, to be disconnected from the grid-connected inverter, in a case that the total insulation resistance to ground fails to meet the second preset condition; and repeatedly performing steps S104, S105 and S106 till the total insulation resistance to ground meets the second preset condition. S101, detecting single insulation resistances to ground of the direct current power supplies; S102, determining whether the single insulation resistances to ground each meet a first preset condition, and going to step S104 in a case that all the single insulation resistances to ground meet the first preset condition; S103, in a case that the single insulation resistances to ground fail to all meet the first preset condition, controlling each direct current power supply, a single insulation resistance to ground of which fails to meet the first preset condition, to be disconnected from a grid-connected inverter, controlling a direct current power supply, a single insulation resistance to ground of which meets the first preset condition, to be connected with the grid-connected inverter, and going to step S104; S104, detecting a total insulation resistance to ground of direct current power supplies currently in parallel; S105, determining whether the total insulation resistance to ground meets a second preset condition; S106, controlling a direct current power supply, a single insulation resistance to ground of which is smallest of the direct current power supplies currently in parallel, to be disconnected from the grid-connected inverter, in a case that the total insulation resistance to ground fails to meet the second preset condition; and repeatedly performing steps S104, S105 and S106 till the total insulation resistance to ground meets the second preset condition.
A method of managing information on an electronic device, comprising: determining a relative position of a user with respect to the electronic device; selecting a region about the relative position for which information is to be processed; processing the information over the selected region; determining movement of the user using at least a first capture element of the electronic device; determining movement of the electronic device using at least a second capture element of the electronic device; detecting movement between the user and the electronic device, based at least on the determined movement of the user and the determined movement of the electronic device; and in response to the detecting movement between the user and the electronic device: predicting a new relative position of the user with respect to the electronic device, based at least in part upon the detected movement, and selecting a new region about the new relative position; and attempting to verify an actual relative position of the user after the detected movement using information captured over the selected new region. determining a relative position of a user with respect to the electronic device; selecting a region about the relative position for which information is to be processed; processing the information over the selected region; determining movement of the user using at least a first capture element of the electronic device; determining movement of the electronic device using at least a second capture element of the electronic device; detecting movement between the user and the electronic device, based at least on the determined movement of the user and the determined movement of the electronic device; and in response to the detecting movement between the user and the electronic device: predicting a new relative position of the user with respect to the electronic device, based at least in part upon the detected movement, and selecting a new region about the new relative position; and attempting to verify an actual relative position of the user after the detected movement using information captured over the selected new region. predicting a new relative position of the user with respect to the electronic device, based at least in part upon the detected movement, and selecting a new region about the new relative position; and attempting to verify an actual relative position of the user after the detected movement using information captured over the selected new region.
Process for the production of wine without the addition of sulphites, characterized in that Castanea sativa flowers are used as natural preservatives, replacing the addition of synthetic sulphites.
A delivery system comprising: a fluid composition consisting of a perfume mixture, said perfume mixture containing one or more perfume materials, said one or more perfume materials selected from ethyl propionate, isobutyl acetate, beta gamma hexenol, alpha pinene, beta pinene, cis-hexenyl acetate, octanal, eucalyptol, ethyl acetate, and said perfume mixture containing functional perfume components selected from the group consisting of: iso-nonyl acetate, dihydro myrcenol (3-methylene-7-methyl octan- 7-ol), linalool (3-hydroxy-3, 7-dimethyl-l, 6 octadiene), geraniol (3, 7 dimethyl-2, 6-octadien-l- ol), d-limonene (l-methyl-4-isopropenyl-l-cyclohexene), benzyl acetate, isopropyl mystristate, and mixtures thereof, wherein said perfume mixture has a boiling point less than 250°C; and an inkjet head for delivering said fluid composition into the air. a fluid composition consisting of a perfume mixture, said perfume mixture containing one or more perfume materials, said one or more perfume materials selected from ethyl propionate, isobutyl acetate, beta gamma hexenol, alpha pinene, beta pinene, cis-hexenyl acetate, octanal, eucalyptol, ethyl acetate, and said perfume mixture containing functional perfume components selected from the group consisting of: iso-nonyl acetate, dihydro myrcenol (3-methylene-7-methyl octan- 7-ol), linalool (3-hydroxy-3, 7-dimethyl-l, 6 octadiene), geraniol (3, 7 dimethyl-2, 6-octadien-l- ol), d-limonene (l-methyl-4-isopropenyl-l-cyclohexene), benzyl acetate, isopropyl mystristate, and mixtures thereof, wherein said perfume mixture has a boiling point less than 250°C; and an inkjet head for delivering said fluid composition into the air.
Blade arrangement of a thermal turbomachine with at least one blade, which in the radial direction projects into a passage which is arranged concentrically to an axis and is exposed to throughflow by hot gas, and terminates in a blade tip which with a clearance lies opposite a heat shield which delimits the passage, wherein the blade and the heat shield are movable in relation to each other in the circumferential direction, and the blade tip and the heat shield have means (22, 23, 24) which enable a directed cutting of the blade tip into the heat shield, and wherein the heat shield has a porous thermal barrier coating as an outer, abradable coating, characterized in that the porous thermal barrier coating is a porous ceramic coating and in that the blade tip is provided only with a homogenous, metallic cover coating consisting of MCrALY.
A support device that comprises a carrier onto which the arm of the operator is seated, a movement mechanism that provides the movement of the carrier, a main body on which the movement mechanism is mounted and characterized by a. at least two sensors (8, 80) one of which is fixed on the arm of the operator and the other is fixed on the carrier and b. a control unit which provides the carrier to be brought under the arm of the operator. a. at least two sensors (8, 80) one of which is fixed on the arm of the operator and the other is fixed on the carrier and b. a control unit which provides the carrier to be brought under the arm of the operator.
A method of setting a driving voltage for an organic light emitting display device, the method comprising: sequentially supplying a plurality of different driving voltages to a display panel; detecting a panel current (I panel) flowing into the display panel for each of the plurality of different driving voltages; calculating variations of the panel current (I panel) resulting from the plurality of different driving voltages; determining an optimal driving voltage based on the variations of the panel current (I panel), wherein the optimal driving voltage is obtained by detecting the driving voltage at the current at a turning point where the derivatives (dI panel) of the panel current (I panel) according to the driving voltage is changed; further determining the optimal driving voltage by selecting the greatest of multiple driving voltages, each of the multiple driving voltages being determined as an optimal driving voltage for one of a plurality of colours of organic light emitting diodes included in the organic light emitting display device; the method characterized by further determining the optimal driving voltage by selecting a driving voltage greater than a driving voltage where the respective emission colors emit light at a desired brightness. sequentially supplying a plurality of different driving voltages to a display panel; detecting a panel current (I panel) flowing into the display panel for each of the plurality of different driving voltages; calculating variations of the panel current (I panel) resulting from the plurality of different driving voltages; determining an optimal driving voltage based on the variations of the panel current (I panel), wherein the optimal driving voltage is obtained by detecting the driving voltage at the current at a turning point where the derivatives (dI panel) of the panel current (I panel) according to the driving voltage is changed; further determining the optimal driving voltage by selecting the greatest of multiple driving voltages, each of the multiple driving voltages being determined as an optimal driving voltage for one of a plurality of colours of organic light emitting diodes included in the organic light emitting display device; the method characterized by further determining the optimal driving voltage by selecting a driving voltage greater than a driving voltage where the respective emission colors emit light at a desired brightness.
A column packing system comprising a column having a longitudinal axis, a pressure sensor for sensing the column interior pressure and/or a flow measuring device for measuring liquid flow out of said column, and a movable adapter, said movable adapter being movable while being monitored by a control unit, said system including a compressing means, including automation software and hardware, along the longitudinal axis of the column to compress a consolidated bed of bed media in said column to form a compressed packed bed which is compressed a predetermined amount, characterized in that said control unit is provided with software for monitoring and analysing a signal from said pressure sensor and/or flow measuring device in order to determine a breakpoint when said movable adapter begins to compress said consolidated bed, said breakpoint being determined to occur when there is a decrease in the pressure inside said column and/or a decrease in the flow rate of fluid out of said column, wherein said software is adapted to calculate the distance that said movable adapter has to move from said breakpoint to achieve the predetermined amount of bed compression and is able to control the movement of the movable adapter to a position corresponding to that distance.
A method for recovering pure oil stream and viscosifying polymers in polymer-flood produced water issued from an oil and gas field, comprising: - a first step of directing the polymer-flood produced water to a membrane coalescing contactor, - a second step of recovering: ∘ the pure oil stream from the membrane of said membrane coalescing contactor and; ∘ deoiled viscosified water containing residuals of viscosifying polymers remaining outside the membrane. - a first step of directing the polymer-flood produced water to a membrane coalescing contactor, - a second step of recovering: ∘ the pure oil stream from the membrane of said membrane coalescing contactor and; ∘ deoiled viscosified water containing residuals of viscosifying polymers remaining outside the membrane. ∘ the pure oil stream from the membrane of said membrane coalescing contactor and; ∘ deoiled viscosified water containing residuals of viscosifying polymers remaining outside the membrane.
A bar lock for a leaf of a window or of a door comprising a turning handle, in particular a turning handgrip, which is rotatable between a first position, in particular a closed position; a second position, in particular an open position; and a third position, in particular a tilted position; and a lock housing in which a rotational to linear conversion gear is arranged which comprises a drive element, which is rotationally fixedly connected to the turning handle and which is rotatably supported, and two respective longitudinally displaceably guided connection sliders (31, 33) displaceable opposite to one another for a respective locking bolt (17, 19), wherein the rotational to linear conversion gear is coupled in on a rotation of the turning handle from the first position into the second position to displace the connection sliders (31, 33) oppositely to one another and is decoupled on a rotation of the turning handle from the second position into the third position so that a further displacement of the connection sliders (31, 33) is suppressed, characterized in that the coupling in and the decoupling of the rotational to linear conversion gear is configured such that the drive element is arranged between the two connection sliders (31, 33) and is provided with a respective rotary driver (49, 51) at mutually oppositely disposed sides that engages into a respective rotary drive cut-out (53, 55) of the respective connection slider (31, 33) on a rotation of the turning handle from the first position into the second position and that exits the respective rotary drive cut-out (53, 55) on a rotation of the turning handle from the second position into the third position. a lock housing in which a rotational to linear conversion gear is arranged which comprises a drive element, which is rotationally fixedly connected to the turning handle and which is rotatably supported, and two respective longitudinally displaceably guided connection sliders (31, 33) displaceable opposite to one another for a respective locking bolt (17, 19), wherein the rotational to linear conversion gear is coupled in on a rotation of the turning handle from the first position into the second position to displace the connection sliders (31, 33) oppositely to one another and is decoupled on a rotation of the turning handle from the second position into the third position so that a further displacement of the connection sliders (31, 33) is suppressed, characterized in that the coupling in and the decoupling of the rotational to linear conversion gear is configured such that the drive element is arranged between the two connection sliders (31, 33) and is provided with a respective rotary driver (49, 51) at mutually oppositely disposed sides that engages into a respective rotary drive cut-out (53, 55) of the respective connection slider (31, 33) on a rotation of the turning handle from the first position into the second position and that exits the respective rotary drive cut-out (53, 55) on a rotation of the turning handle from the second position into the third position.