mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting an analyte in a solution, the system comprising: an array of optical sensors comprising capture probes; a first magnet configured to generate a first magnetic field that forces a plurality of magnetic particles in the solution toward the optical sensors; a second magnet configured to generate a second magnetic field that tends to force the plurality of magnetic particles away from the optical sensors, the second magnetic field having a spatially-varying magnetic field gradient such that different ones of the optical sensors are located in areas where the second magnetic field has different strengths; and a detector configured to detect changes in an optical property of the optical sensors, the change in the optical property for each optical sensor resulting from binding events involving the analyte, a magnetic particle, or the capture probe at the optical sensor, wherein the detector is further configured to determine information about a binding strength of one or more of the binding events based on different changes in the optical property for optical sensors at different locations in the presence of the second magnetic field. an array of optical sensors comprising capture probes; a first magnet configured to generate a first magnetic field that forces a plurality of magnetic particles in the solution toward the optical sensors; a second magnet configured to generate a second magnetic field that tends to force the plurality of magnetic particles away from the optical sensors, the second magnetic field having a spatially-varying magnetic field gradient such that different ones of the optical sensors are located in areas where the second magnetic field has different strengths; and a detector configured to detect changes in an optical property of the optical sensors, the change in the optical property for each optical sensor resulting from binding events involving the analyte, a magnetic particle, or the capture probe at the optical sensor, wherein the detector is further configured to determine information about a binding strength of one or more of the binding events based on different changes in the optical property for optical sensors at different locations in the presence of the second magnetic field.
A system for producing a heat-hardened, sheet-like workpiece, comprising - an input store for storing a plurality of unhardened sheet metal blanks, - an annealing furnace which is downstream of the input store and has a workpiece inlet and a workpiece outlet, - a workpiece feed device situated between the input store and the workpiece inlet of the annealing furnace, - a temperature-controlled heat-hardening forming press which is downstream of the annealing furnace and can be opened and closed vertically, - a workpiece transfer device which is situated between the workpiece outlet of the annealing furnace and the heat-hardening forming press and has a loader which can be moved into and out of the open heat-hardening forming press, - a cooling station downstream of the heat-hardening forming press, and - a workpiece removal device which is situated between the heat-hardening forming press and the cooling station and has an unloader which can be moved into and out of the open heat-hardening forming press, the loader and the unloader being arranged at two different heights and being designed to be in the open heat-hardening forming press at the same time, characterised in that catches for the heat-hardened workpiece when the heat-hardening forming press is opened are arranged on the upper die of the heat-hardening forming press, wherein the catches also fix the heat-hardened workpiece on the upper die in a position lifted off from the latter, and the unloader and the loader find space in the open heat-hardening forming press below the heat-hardened workpiece held on the upper die by the catches. - an input store for storing a plurality of unhardened sheet metal blanks, - an annealing furnace which is downstream of the input store and has a workpiece inlet and a workpiece outlet, - a workpiece feed device situated between the input store and the workpiece inlet of the annealing furnace, - a temperature-controlled heat-hardening forming press which is downstream of the annealing furnace and can be opened and closed vertically, - a workpiece transfer device which is situated between the workpiece outlet of the annealing furnace and the heat-hardening forming press and has a loader which can be moved into and out of the open heat-hardening forming press, - a cooling station downstream of the heat-hardening forming press, and - a workpiece removal device which is situated between the heat-hardening forming press and the cooling station and has an unloader which can be moved into and out of the open heat-hardening forming press, the loader and the unloader being arranged at two different heights and being designed to be in the open heat-hardening forming press at the same time, characterised in that catches for the heat-hardened workpiece when the heat-hardening forming press is opened are arranged on the upper die of the heat-hardening forming press, wherein the catches also fix the heat-hardened workpiece on the upper die in a position lifted off from the latter, and the unloader and the loader find space in the open heat-hardening forming press below the heat-hardened workpiece held on the upper die by the catches.
A method of forming an optical coating, comprising the steps: providing a glass substrate; depositing a buffer layer on the substrate via plasma enhanced chemical vapor deposition at a first plasma bias voltage ranging from 50 V to 90 V; and depositing at least one layer of an optical coating on the buffer layer via plasma enhanced chemical vapor deposition, the deposition of the optical coating carried out at a second plasma bias voltage ranging from 100 V to 140 V. providing a glass substrate; depositing a buffer layer on the substrate via plasma enhanced chemical vapor deposition at a first plasma bias voltage ranging from 50 V to 90 V; and depositing at least one layer of an optical coating on the buffer layer via plasma enhanced chemical vapor deposition, the deposition of the optical coating carried out at a second plasma bias voltage ranging from 100 V to 140 V.
A harvester cleaning system comprising: louvers with louver wires connected to the louvers, each of the louver wires having a main portion about which the louver wire pivots and a lever portion and an adjustment arm having slots receiving the lever portion of each of the louver wires, the adjustment arm being movable to pivot the louver wires to pivot the louvers, characterized by a bar comprising spaced rails and rungs between the rails, the rungs forming pockets along the bar, wherein the lever portion of each louver wire is received within one of the pockets. louvers with louver wires connected to the louvers, each of the louver wires having a main portion about which the louver wire pivots and a lever portion and an adjustment arm having slots receiving the lever portion of each of the louver wires, the adjustment arm being movable to pivot the louver wires to pivot the louvers, characterized by a bar comprising spaced rails and rungs between the rails, the rungs forming pockets along the bar, wherein the lever portion of each louver wire is received within one of the pockets.
A rolling equipment including: a rolling device comprising a pair of rolling mill rolls (16A, 16B) provided to sandwich a metal strip and an unwinding device for uncoiling the metal strip at an entrance side of the rolling mill rolls in a traveling direction of the metal strip, the rolling device being configured to roll the metal strip by the pair of rolling mill rolls, and a control device for controlling the rolling device; characterized in that, after passing a tip part of the metal strip through the pair of rolling mill rolls in a state where a gap between the pair of rolling mill rolls is larger than a strip thickness of the metal strip, the control device is configured to press the metal strip by the pair of rolling mill rolls in a state where exit-side tension applied to the metal strip is zero; make entrance-side tension applied to the metal strip by the unwinding device become larger than zero and start rotation of the pair of rolling mill rolls. a rolling device comprising a pair of rolling mill rolls (16A, 16B) provided to sandwich a metal strip and an unwinding device for uncoiling the metal strip at an entrance side of the rolling mill rolls in a traveling direction of the metal strip, the rolling device being configured to roll the metal strip by the pair of rolling mill rolls, and a control device for controlling the rolling device; characterized in that, after passing a tip part of the metal strip through the pair of rolling mill rolls in a state where a gap between the pair of rolling mill rolls is larger than a strip thickness of the metal strip, the control device is configured to press the metal strip by the pair of rolling mill rolls in a state where exit-side tension applied to the metal strip is zero; make entrance-side tension applied to the metal strip by the unwinding device become larger than zero and start rotation of the pair of rolling mill rolls.
A locking cylinder having a core movable in a housing, having an electronic locking mechanism, having an actuator which can be actuated by the blocking mechanism for the adjustment of a blocking body of the blocking mechanism movable between a closing position selectively blocking the movement of the core relative to the housing or a releasing open position and wherein the blocking body is movable during a movement of a non-return device (15, 18 23, 28, 37) into the position blocking the movement of the core, wherein the blocking body abuts against the movable non-return device (15, 18, 23, 28, 37) of the locking cylinder and the non-return device (15, 18, 23, 28, 37) has at least one non-return body (16, 17, 24, 25, 29, 30, 38, 39) movable relative to the blocking body, characterized in that the non-return device (15, 23, 28, 37) has at least two non-return bodies (16, 17, 24, 25, 29, 30, 38, 39) connected in each case to the blocking body and the non-return bodies (16, 17, 24, 25, 29, 30, 38, 39) have different pulse properties and that the non-return bodies (16, 17, 24, 25, 29, 30, 38, 39) are guided in the core and are opposite a core pin of the blocking body guided in the core.
A nonwoven fabric, comprising: (i) a first outermost spunbond layer comprising a first plurality of continuous fibers that are thermally fused and compacted against one another and define a microporous film on an outermost surface of the nonwoven fabric, the first plurality of continuous fibers comprises a first polymeric composition having a first melting point; (ii) a second outermost spunbond layer comprising a second plurality of continuous fibers; and (iii) at least a first meltblown layer and/or melt-fibrillated layer comprising a first plurality of meltblown fibers and/or melt-fibrillated fibers having a substantially non-deformed configuration and being located directly or indirectly between the first outermost spunbond layer and the second outermost spunbond layer, the first plurality of meltblown fibers and/or melt-fibrillated fibers comprises a third polymeric composition having a third melting point; wherein the first melting point is lower than the third melting point; wherein the first outermost spunbond layer, the second outermost spunbond layer, or both comprise a thermally area-bonded layer at a nip pressure from 262.690 to 525.380 kN/m (1500 to 3000 pounds per linear inch). (i) a first outermost spunbond layer comprising a first plurality of continuous fibers that are thermally fused and compacted against one another and define a microporous film on an outermost surface of the nonwoven fabric, the first plurality of continuous fibers comprises a first polymeric composition having a first melting point; (ii) a second outermost spunbond layer comprising a second plurality of continuous fibers; and (iii) at least a first meltblown layer and/or melt-fibrillated layer comprising a first plurality of meltblown fibers and/or melt-fibrillated fibers having a substantially non-deformed configuration and being located directly or indirectly between the first outermost spunbond layer and the second outermost spunbond layer, the first plurality of meltblown fibers and/or melt-fibrillated fibers comprises a third polymeric composition having a third melting point; wherein the first melting point is lower than the third melting point;
A method for fabricating a white-light LED chip, comprising the ordered steps of: - providing a plurality of blue-light LED chips, having a top surface and a bottom surface, wherein each blue-light LED chip has at least one contact pad on the top surface of the blue-light LED chip; - attaching the bottom surfaces of the blue-light LED chips on a substrate; - forming a protective layer on the contact pads of the top surfaces of the blue-light LED chips; - forming a phosphor material on the top surfaces of the blue-light LED chips including areas of the contact pads; - providing a mold and performing a molding process on the phosphor material to form a pattern of a phosphor layer on the top surfaces of the blue-light LED chips whereby as a result of the molding process, the phosphor layer is formed on the top surfaces of the blue-light LED chips except for areas of the contact pads; - removing the mold after forming the pattern of the phosphor layer; - removing the protective layer from the contact pads; and - dividing the substrate between the adjacent blue-light LED chips to form a plurality of white-light LED chips. - providing a plurality of blue-light LED chips, having a top surface and a bottom surface, wherein each blue-light LED chip has at least one contact pad on the top surface of the blue-light LED chip; - attaching the bottom surfaces of the blue-light LED chips on a substrate; - forming a protective layer on the contact pads of the top surfaces of the blue-light LED chips; - forming a phosphor material on the top surfaces of the blue-light LED chips including areas of the contact pads; - providing a mold and performing a molding process on the phosphor material to form a pattern of a phosphor layer on the top surfaces of the blue-light LED chips whereby as a result of the molding process, the phosphor layer is formed on the top surfaces of the blue-light LED chips except for areas of the contact pads; - removing the mold after forming the pattern of the phosphor layer; - removing the protective layer from the contact pads; and - dividing the substrate between the adjacent blue-light LED chips to form a plurality of white-light LED chips.
An optical system for a stereo endoscope including a monoscopic endoscope having an entrance pupil that is divided into a left half and a right half thereby creating two stereoscopic images that are observed from a left perspective and a right perspective, the optical system comprising: an objective lens, the entrance pupil having an optical axis, a prism block located adjacent to an entrance pupil side of the objective lens, the prism block including a first rhomboidal prism and a second rhomboidal prism, wherein the first rhomboidal prism has a first corner and the second rhomboidal prism has a second corner, the first corner and the second corner being in contact at a point located on the optical axis of the entrance pupil, wherein the first rhomboidal prism of the prism block deflects all rays extending through a left half of the entrance pupil to the left and transfers a first stereoscopic image from the left half of the entrance pupil to the left and the second rhomboidal prism of the prism block deflects all rays extending through a right half of the entrance pupil to the right and transfers a second stereoscopic image from the right half of the entrance pupil to the right, characterised in that: the entrance pupil is located at an exit surface of a deflection prism, and the prism block is cemented on said exit surface of the deflection prism. an objective lens, the entrance pupil having an optical axis, a prism block located adjacent to an entrance pupil side of the objective lens, the prism block including a first rhomboidal prism and a second rhomboidal prism, wherein the first rhomboidal prism has a first corner and the second rhomboidal prism has a second corner, the first corner and the second corner being in contact at a point located on the optical axis of the entrance pupil, wherein the first rhomboidal prism of the prism block deflects all rays extending through a left half of the entrance pupil to the left and transfers a first stereoscopic image from the left half of the entrance pupil to the left and the second rhomboidal prism of the prism block deflects all rays extending through a right half of the entrance pupil to the right and transfers a second stereoscopic image from the right half of the entrance pupil to the right, characterised in that: the entrance pupil is located at an exit surface of a deflection prism, and the prism block is cemented on said exit surface of the deflection prism.
Method for the production of fabrics (I,II) which are at least partially pile-free in which in each consecutive weft insertion cycle on a face-to-face weaving machine, one or more weft threads, are inserted into a shed between warp threads (1a-14a, 1b-14b) of a number of warp thread systems lying alongside one another, in which each warp thread system (1a-14a), (1b-14b) comprises one or more figure warp threads (1a-8a),(1b-8b), in which each figure warp thread is allocated to one of the fabrics (I,II), and in which the warp threads (1a-14a),(1b-14b) are positioned in each shed in such a way that two fabrics (I,II) are woven above one another with at least one pile-free zone in which each figure warp thread (1a-8a),(1b-8b) corresponding to a desired pattern is either pattern-determining in the fabric to which this figure warp thread is allocated or is incorporated into that fabric (I, II) in a non-pattern-determining way, characterized in that in at least one pair (1a-14a,1b-14b) of two warp thread systems lying alongside one another, two or more sets(1a,1b),(2a,2b),... (8a,8b) of two figure warp threads with the same appearance are provided, the appearance of the figure warp threads of each set being different from the appearance of the figure warp threads of each other set, whereby the figure warp threads with the same appearance of each set (1a,1b),(2a,2b),... (8a,8b) belong to a different warp thread system (1a-14a), (1b-14b) of the pair and are, respectively, allocated to a different fabric (I,II), so that for each set (1a,1b),(2a,2b),... (8a,8b) of two figure warp threads with the same appearance, per pair of warp thread systems, a figure warp thread with said appearance is available in both fabrics (I,II) to determine the pattern in said pile-free zone(s).
A turbine vane assembly for a gas turbine engine comprising: a turbine vane include an airfoil extending from a root, the airfoil having a perimeter; and a shroud having an aperture (78; 178) receiving the airfoil, with a single shroud substantially surrounding the airfoil at the perimeter, the perimeter including pressure and suction sides (222, 224) and leading and trailing edges (226, 28), with the single shroud extending from the leading and trailing edges (226, 228) along and adjacent to both the high and low pressure sides (222, 224); a case supporting the root, wherein the root includes legs axially spaced from one another, each leg including spaced apart feet supported on the case; wherein the shroud is a platform near the root, the platform secured to the vane; and wherein the shroud is constructed from a ceramic matrix composite material. a turbine vane include an airfoil extending from a root, the airfoil having a perimeter; and a shroud having an aperture (78; 178) receiving the airfoil, with a single shroud substantially surrounding the airfoil at the perimeter, the perimeter including pressure and suction sides (222, 224) and leading and trailing edges (226, 28), with the single shroud extending from the leading and trailing edges (226, 228) along and adjacent to both the high and low pressure sides (222, 224); a case supporting the root, wherein the root includes legs axially spaced from one another, each leg including spaced apart feet supported on the case; wherein the shroud is a platform near the root, the platform secured to the vane; and wherein the shroud is constructed from a ceramic matrix composite material.
A system for detecting an analyte of interest in a sample comprising: an optical sensor that comprises a ring resonator; a capture probe attached to a surface of the optical sensor, wherein the capture probe is capable of binding to the analyte; an antibody capable of specifically binding to the analyte or a complex formed between the analyte and the capture probe; a particle attached to the antibody or capable of binding to the antibody; and a detector, wherein said optical sensor has a resonant wavelength that is shifted by said antibody bound to said complex or analyte, when the analyte is bound to the capture probe, such that said optical sensor is configured to sense said antibody combined with said analyte or complex, and the particle is adapted to amplify the shift of the resonant wavelength, and wherein the detector determines the concentration of the analyte in the sample based on the shift of the resonant wavelength resulting from multiple binding events at the ring resonator. an optical sensor that comprises a ring resonator;