mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: an assembly surface comprising an array of electrodes arranged such that each of a plurality of chiplets can be positioned to cover at least one of the electrodes, each of the electrodes capable of being individually activated to apply a clamping force field to one of the chiplets, characterised in that a field generator that applies a rotation field that is orthogonal to the clamping force field applied by the electrodes, the field generator comprising an input that selects an angle of the rotation field; and a processor coupled to the electrodes and the field generator, the processor operable to: determine a desired orientation angle of a first subset of the chiplets; activate one or more of the electrodes so that a second subset of the chiplets different than the first subset is kept from rotating by the clamping force field applied by the one or more of the electrodes; and while the clamping force field is being applied, apply the rotation field at the selected angle to cause the first subset of the chiplets to be oriented at the desired orientation angle. an assembly surface comprising an array of electrodes arranged such that each of a plurality of chiplets can be positioned to cover at least one of the electrodes, each of the electrodes capable of being individually activated to apply a clamping force field to one of the chiplets, characterised in that a field generator that applies a rotation field that is orthogonal to the clamping force field applied by the electrodes, the field generator comprising an input that selects an angle of the rotation field; and a processor coupled to the electrodes and the field generator, the processor operable to: determine a desired orientation angle of a first subset of the chiplets; activate one or more of the electrodes so that a second subset of the chiplets different than the first subset is kept from rotating by the clamping force field applied by the one or more of the electrodes; and while the clamping force field is being applied, apply the rotation field at the selected angle to cause the first subset of the chiplets to be oriented at the desired orientation angle. determine a desired orientation angle of a first subset of the chiplets; activate one or more of the electrodes so that a second subset of the chiplets different than the first subset is kept from rotating by the clamping force field applied by the one or more of the electrodes; and while the clamping force field is being applied, apply the rotation field at the selected angle to cause the first subset of the chiplets to be oriented at the desired orientation angle.
An assembly forming a hand-held probe comprising: a probe body; a detector assembly disposed within the probe body comprising a detector operable to capture a focused, non-point image in the near infrared spectrum; a tethered light source assembly comprising a near infrared light source; and a tracking target; wherein the near infrared light source is movable relative to the detector such that the probe can perform both reflectance and trans-illumination measurements while the probe body is maintained in the same position. a probe body; a detector assembly disposed within the probe body comprising a detector operable to capture a focused, non-point image in the near infrared spectrum; a tethered light source assembly comprising a near infrared light source; and a tracking target; wherein the near infrared light source is movable relative to the detector such that the probe can perform both reflectance and trans-illumination measurements while the probe body is maintained in the same position.
An industrial control apparatus for controlling a production apparatus that performs processing for sequentially producing an item to be produced through a plurality of units that are arranged in a line from an upstream side toward a downstream side, the industrial control apparatus comprising: a physical quantity acquirer configured to acquire a physical quantity that represents a state of processing in a unit that is subjected to monitoring, of the plurality of units, for each cycle, a cycle being defined as a unit of processing time of processing performed by each of the plurality of units; an abnormality determiner configured to determine occurrence of an abnormality in the unit that is subjected to monitoring, based on the acquired physical quantity or a feature value that is extracted from the physical quantity; and a control instructor configured to specify, in a case where it is determined that an abnormality has occurred in the unit that is subjected to monitoring, a cycle during which a downstream unit performs processing on an item to be produced that is affected by the abnormality, and perform control so that abnormality handling processing is performed as processing in the specified cycle by the downstream unit. a physical quantity acquirer configured to acquire a physical quantity that represents a state of processing in a unit that is subjected to monitoring, of the plurality of units, for each cycle, a cycle being defined as a unit of processing time of processing performed by each of the plurality of units; an abnormality determiner configured to determine occurrence of an abnormality in the unit that is subjected to monitoring, based on the acquired physical quantity or a feature value that is extracted from the physical quantity; and a control instructor configured to specify, in a case where it is determined that an abnormality has occurred in the unit that is subjected to monitoring, a cycle during which a downstream unit performs processing on an item to be produced that is affected by the abnormality, and perform control so that abnormality handling processing is performed as processing in the specified cycle by the downstream unit.
A method comprising the steps of: coating at least a portion of the walls of a formation well bore with a resin to form a resin-coated formation portion; introducing a cement composition into the resin-coated formation portion; and allowing the cement composition to set to provide a set cement sheath neighboring the resin-coated formation portion, wherein a shear bond strength of the set cement sheath in the presence of the resin coating is greater than a shear bond strength of the cement composition or a shear bond strength of the resin, each individually. coating at least a portion of the walls of a formation well bore with a resin to form a resin-coated formation portion; introducing a cement composition into the resin-coated formation portion; and allowing the cement composition to set to provide a set cement sheath neighboring the resin-coated formation portion, wherein a shear bond strength of the set cement sheath in the presence of the resin coating is greater than a shear bond strength of the cement composition or a shear bond strength of the resin, each individually. wherein a shear bond strength of the set cement sheath in the presence of the resin coating is greater than a shear bond strength of the cement composition or a shear bond strength of the resin, each individually.
A carbon capture system comprising a Carbonator configured to adsorb carbon dioxide using a first carbon dioxide lean sorbent and a second carbon dioxide lean sorbent to generate a carbon dioxide rich sorbent, a supply of raw material containing a carbon dioxide rich sorbent, a first Calciner configured to calcine the supply of raw material by thermally decomposing, into the first carbon dioxide lean sorbent and a first carbon dioxide amount, a connection between the first Calciner and the Carbonator for transferring at least the first carbon dioxide lean sorbent to the Carbonator, characterised by further comprising a second Calciner configured to thermally decompose the carbon dioxide rich sorbent generated in the Carbonator into carbon dioxide lean sorbent and a second carbon dioxide amount, a connection between the Carbonator and the second Calciner for transferring at least the carbon dioxide rich sorbent to the second Calciner, a connection between the second Calciner and the Carbonator for transferring the second carbon dioxide lean sorbent (CaO) to the Carbonator and means for drawing a purge stream of carbon dioxide lean sorbent from the second Calciner.
Applicator instrument for applying dental compounds, with a shaft designed as a grip part and with an instrument head that comprises a support structure and a plurality of projections (14, 19, 20, 22, 23) formed on the support structure, which projections (14, 19, 20, 22, 23) are elastic and, in relation to a height extent, have less stiffness than the support structure, and which projections (14, 19, 20, 22, 23) between them enclose a receiving space (15, 21, 24) for the dental compound, wherein the receiving space opens without further restriction into the surrounding environment, wherein the projections (14, 19, 20, 22, 23) have a planar configuration, and wherein, in relation to a width extent, the projections are arranged substantially parallel to one another, with the greatest diameter of the instrument head being between 2 mm and 3 mm.
Space heating comprising a basic furnace and a channel system (30, 36, 46), the basic furnace being connected with the walls of a building by said channel system which has a plurality of independent closed warm air cycles connected to said basic furnace, each one of said cycles forming an independent draught cycle for the cyclic flow of warm air, characterized in that each one of said draught cycles of the channel system comprises a draught stone unit the upper part of which is connected to a warm air feeding channel whereas its lower part comprises a return channel leading the stuffing air back to the basic furnace, such that the warm air discharged from the basic furnace is flowing into an uppermost channel and subsequently through further channels to an outlet leading through said return channel into the basic furnace, each one of said draught stone units being inserted in a chase of said wall and composed of hollow bricks forming a plurality of horizonal channels interconnected such that they build a heating coil.
Extrusion device for the extrusion of plastic profiles with projecting, single walled profile sections, namely a nozzle plate or multiple nozzle plates (1, 1A, 1B), comprising at least one flow channel for plastic melt for the projecting, single walled profile section, wherein at least one wall region of the flow channel for plastic melt for the projecting, single walled profile section can be temperature controlled in a targeted manner with a local temperature control device for setting the flow speed of the plastic melt, wherein the at least one wall region to be temperature controlled has a length dimension of about 20 to 80 mm and/or a width dimension of about 3 to 20 mm and the local temperature control device is arranged in a spatial proximity to the at least one wall region of the flow channel for plastic melt for the projecting, single walled profile section, characterized in that a thermal insulating device is provided for at least one sub region in the nozzle plate or the multiple nozzle plates (1, 1A, 1B) for inlets of a temperature control medium, wherein the insulating device comprises an air gap and/or an insulating material. at least one flow channel for plastic melt for the projecting, single walled profile section, wherein at least one wall region of the flow channel for plastic melt for the projecting, single walled profile section can be temperature controlled in a targeted manner with a local temperature control device for setting the flow speed of the plastic melt, wherein the at least one wall region to be temperature controlled has a length dimension of about 20 to 80 mm and/or a width dimension of about 3 to 20 mm and the local temperature control device is arranged in a spatial proximity to the at least one wall region of the flow channel for plastic melt for the projecting, single walled profile section, characterized in that a thermal insulating device is provided for at least one sub region in the nozzle plate or the multiple nozzle plates (1, 1A, 1B) for inlets of a temperature control medium, wherein the insulating device comprises an air gap and/or an insulating material.
A control system for a gas turbine engine, the control system comprising: a processing system configured to control a speed of the gas turbine engine; and a memory system configured to store instructions executable by the processing system to determine at least one performance parameter associated with a stall condition of the gas turbine engine and to incrementally adjust an acceleration rate of the gas turbine engine based on detecting a degraded stall line limit according to the at least one performance parameter, wherein an acceleration schedule is incrementally reduced based on a series of detected stalls of the gas turbine engine, and incremental reduction of the acceleration schedule is limited to a power setting range in a take-off envelope. a processing system configured to control a speed of the gas turbine engine; and a memory system configured to store instructions executable by the processing system to determine at least one performance parameter associated with a stall condition of the gas turbine engine and to incrementally adjust an acceleration rate of the gas turbine engine based on detecting a degraded stall line limit according to the at least one performance parameter, wherein an acceleration schedule is incrementally reduced based on a series of detected stalls of the gas turbine engine, and incremental reduction of the acceleration schedule is limited to a power setting range in a take-off envelope.
A shooting range facility for recreational or sporting purposes comprising: - a target support plate (10; 20) which can be tilted according to several different possible inclinations with respect to a reference plane, - at least one target representation (12, 12A, 12B; 30) intended to be displayed in a plane (14; 34) of the target support plate (10; 20), characterized in that each target representation (12, 12A, 12B; 30) has several different displayable deformations (12A 0, 12A 1, 12A 2, 12B 0, 12B 1, 12B 2), respectively associated with said several different possible inclinations, these different deformations being designed so that the orthogonal projections thereof in the reference plane are all identical when they are respectively displayed in the plane (14; 34) of the target support plate (10; 20) according to the inclinations with which they are respectively associated. - a target support plate (10; 20) which can be tilted according to several different possible inclinations with respect to a reference plane, - at least one target representation (12, 12A, 12B; 30) intended to be displayed in a plane (14; 34) of the target support plate (10; 20),
A screen to be used in chip-board and OSB factories, the screen being implemented by means of meshes having different mesh sizes and comprising a number of mesh levels one above an- other, with which screen wood-based raw material is screened into different-sized fractions after chipping and drying, which screen comprises a frame part and a moving part making a circular trajectory, wherein the moving part of the screen comprises two screen modules and one frame module, characterized in that the frame module is between the screen modules.
One-component reaction system for producing rigid polyurethane foams, comprising the following constituents: A) an organic polyisocyanate component comprising a semiprepolymer, B) an isocyanate-reactive component whose isocyanate-reactive functional groups are exclusively groups having at least one Zerewitinoff-reactive hydrogen atom, C) at least one foam stabilizer, D) at least one catalyst which is suitable for catalyzing the reaction of the semiprepolymer with atmospheric moisture, E) at least one physical blowing agent having a boiling point of less than 0°C and optionally co-blowing agent and F) optionally auxiliaries and/or additives, wherein the semiprepolymer is formed by reaction of an organic polyisocyanate component A.1) which consists to an extent of at least 80% by weight of monomeric diphenylmethane diisocyanate and a polyol component A.2) having a functionality F n (based on the Zerewitinoff-reactive hydrogen atoms in the polyol component) of from > 2.0 to < 3.0 and an OH number of 28 - 350 mg KOH/g and wherein the organic polyisocyanate component A) is additionally characterized in that the content of free isocyanates which have not reacted with polyol is > 1 to < 25% by weight and the NCO content is from > 7.5 to ≤ 13% by weight, based on the total weight of the component A). A) an organic polyisocyanate component comprising a semiprepolymer, B) an isocyanate-reactive component whose isocyanate-reactive functional groups are exclusively groups having at least one Zerewitinoff-reactive hydrogen atom, C) at least one foam stabilizer, D) at least one catalyst which is suitable for catalyzing the reaction of the semiprepolymer with atmospheric moisture, E) at least one physical blowing agent having a boiling point of less than 0°C and optionally co-blowing agent and F) optionally auxiliaries and/or additives,
A beverage dispenser nozzle assembly system, comprising: a flow director; the flow director comprising a first flow path with a first liquid flowing therein and a second flow path with a second liquid flowing therein; and an elongated target characterised by; a tertiary flow assembly the tertiary flow assembly comprising a plurality of third flow paths with a plurality of third liquids flowing therein; the plurality of third liquids comprising micro-ingredients with a reconstitution ratio of about ten to one (10:1) or higher; and said elongated target positioned about the flow director such that the first liquid, the second liquid, and the plurality of third liquids merge along the elongated target, wherein the tertiary flow assembly comprises a plurality of conduits extending therethrough for the plurality of third flow paths; and wherein the plurality of conduits comprises a plurality of different sizes, each sized to accommodate different types of fluids intended to be used therein. a flow director; the flow director comprising a first flow path with a first liquid flowing therein and a second flow path with a second liquid flowing therein; and an elongated target characterised by; a tertiary flow assembly the tertiary flow assembly comprising a plurality of third flow paths with a plurality of third liquids flowing therein; the plurality of third liquids comprising micro-ingredients with a reconstitution ratio of about ten to one (10:1) or higher; and said elongated target positioned about the flow director such that the first liquid, the second liquid, and the plurality of third liquids merge along the elongated target, wherein the tertiary flow assembly comprises a plurality of conduits extending therethrough for the plurality of third flow paths; and wherein the plurality of conduits comprises a plurality of different sizes, each sized to accommodate different types of fluids intended to be used therein.
A method of preparing an antibacterial superabsorbent resin, comprising: 1) drying and pulverizing a hydrogel polymer, and then classifying into a fine powder having a particle size of less than 150 μm and a base polymer having a particle size of 150 to 850 μm; 2) mixing the fine powder, water and a copper-based antibacterial agent, thus preparing a fine-powder regranulate; 3) passing the fine-powder regranulate through a chopper and then performing drying and pulverizing; and 4) classifying the pulverized fine-powder regranulate into a superabsorbent resin having a particle size of 150 to 850 μm, thus obtaining the superabsorbent resin. 1) drying and pulverizing a hydrogel polymer, and then classifying into a fine powder having a particle size of less than 150 μm and a base polymer having a particle size of 150 to 850 μm; 2) mixing the fine powder, water and a copper-based antibacterial agent, thus preparing a fine-powder regranulate; 3) passing the fine-powder regranulate through a chopper and then performing drying and pulverizing; and 4) classifying the pulverized fine-powder regranulate into a superabsorbent resin having a particle size of 150 to 850 μm, thus obtaining the superabsorbent resin.
A method of reducing ply wrinkling during hot drape forming of a composite laminate, comprising: placing a tensioning material over an uncured composite laminate charge; sandwiching said tensioning material between the bottom face of a forming tool and the laminate charge; hot drape forming the laminate charge over said forming tool; wherein the hot drape forming includes: sealing a flexible forming membrane over the laminate charge, drawing a vacuum between the forming membrane and the tool, and using the forming membrane to form the laminate charge over surfaces of the tool; wherein the method further comprises: using the tensioning material to compress the laminate charge as the laminate charge is being formed over the forming tool including compressing the charge against the forming membrane as the forming membrane forms the charge over surfaces of the tool. placing a tensioning material over an uncured composite laminate charge; sandwiching said tensioning material between the bottom face of a forming tool and the laminate charge; hot drape forming the laminate charge over said forming tool; wherein the hot drape forming includes: sealing a flexible forming membrane over the laminate charge, drawing a vacuum between the forming membrane and the tool, and using the forming membrane to form the laminate charge over surfaces of the tool; sealing a flexible forming membrane over the laminate charge, drawing a vacuum between the forming membrane and the tool, and using the forming membrane to form the laminate charge over surfaces of the tool; wherein the method further comprises: using the tensioning material to compress the laminate charge as the laminate charge is being formed over the forming tool including compressing the charge against the forming membrane as the forming membrane forms the charge over surfaces of the tool.