mhurhangee/ep-ind-claims huggingface dataset:
An instrument comprising: - a block with a plurality of spaced apart reaction regions; - a light source emitting light comprising at least one excitation frequency; - a lens system comprising an objective lens system, wherein said objective lens system is disposed between the light source and the plurality of reaction regions, said objective lens system comprising a field lens array, and a pupil plane, wherein said pupil plane and said light source are located on opposite sides of the field lens array, wherein said field lens array is disposed between said light source and said plurality of reaction regions, said field lens array comprising a plurality of field lens array elements, wherein individual field lens array elements in the field lens array have different radii of curvature, different positions of the centers of the curvature corresponding to the curvature of the respective field lens array elements and different thicknesses and are disposed in a light beam path between said light source and said reaction regions such that any one of said field lens array elements is capable of imaging a pupil stop located between said light source and said field lens array to a pupil located on said pupil plane, wherein an array of pupils located on the pupil plane is generated by the field lens array - a detector disposed to receive emission light beams emitted from the plurality of reaction regions wherein said objective lens system is further disposed between said plurality of reaction regions and said detector, and wherein said lens system additionally comprises an emission light objective between said field lens array and said detector such that the reaction regions are imaged onto the detector. - a block with a plurality of spaced apart reaction regions; - a light source emitting light comprising at least one excitation frequency; - a lens system comprising an objective lens system, wherein said objective lens system is disposed between the light source and the plurality of reaction regions, said objective lens system comprising a field lens array, and a pupil plane, wherein said pupil plane and said light source are located on opposite sides of the field lens array, wherein said field lens array is disposed between said light source and said plurality of reaction regions, said field lens array comprising a plurality of field lens array elements, wherein individual field lens array elements in the field lens array have different radii of curvature, different positions of the centers of the curvature corresponding to the curvature of the respective field lens array elements and different thicknesses and are disposed in a light beam path between said light source and said reaction regions such that any one of said field lens array elements is capable of imaging a pupil stop located between said light source and said field lens array to a pupil located on said pupil plane, wherein an array of pupils located on the pupil plane is generated by the field lens array - a detector disposed to receive emission light beams emitted from the plurality of reaction regions
A flexible display device comprising: a photoelectric element part; a first adhesive film formed on the photoelectric element part; a touch function part formed on the first adhesive film; a second adhesive film formed on the touch function part; and a window film formed on the second adhesive film; wherein the first adhesive film or the second adhesive film has an average slope of about -9.9 to about 0 at -20°C to 80°C based on x-axis for the distribution of storage modulus versus temperature in the function of x-axis of temperature (°C) and y-axis of storage modulus (KPa), and wherein the first adhesive film or the second adhesive film has a storage modulus of 10 KPa or more at 80°C, the adhesive film is stacked to a thickness of 500 μm and punched using an 8 mm diameter puncher, thereby preparing a specimen, the storage modulus is measured on the specimen at a temperature of -60°C to 90°C, at a heating rate of 5 °C/min, at a shear rate of 1 rad/sec, and at a strain of 1% using an 8 mm jig, wherein the first adhesive film or the second adhesive film is a cured product of the pressure-sensitive adhesive composition, and the pressure-sensitive adhesive composition comprises a monomer mixture for a (meth)acrylic copolymer having a hydroxyl group and a comonomer, and organic particles, wherein the monomer mixture comprises a (meth)acrylate monomer having the hydroxyl group and a comonomer. a photoelectric element part; a first adhesive film formed on the photoelectric element part; a touch function part formed on the first adhesive film; a second adhesive film formed on the touch function part; and a window film formed on the second adhesive film; wherein the first adhesive film or the second adhesive film has an average slope of about -9.9 to about 0 at -20°C to 80°C based on x-axis for the distribution of storage modulus versus temperature in the function of x-axis of temperature (°C) and y-axis of storage modulus (KPa), and wherein the first adhesive film or the second adhesive film has a storage modulus of 10 KPa or more at 80°C, the adhesive film is stacked to a thickness of 500 μm and punched using an 8 mm diameter puncher, thereby preparing a specimen, the storage modulus is measured on the specimen at a temperature of -60°C to 90°C, at a heating rate of 5 °C/min, at a shear rate of 1 rad/sec, and at a strain of 1% using an 8 mm jig, wherein the first adhesive film or the second adhesive film is a cured product of the pressure-sensitive adhesive composition, and the pressure-sensitive adhesive composition comprises a monomer mixture for a (meth)acrylic copolymer having a hydroxyl group and a comonomer, and organic particles, wherein the monomer mixture comprises a (meth)acrylate monomer having the hydroxyl group and a comonomer.
A method of designing a suppressor oligonucleotide for use in a nucleic acid amplification reaction to reduce non-specific amplification, the method comprising (a) identifying one or more regions of interest in the genome of a target organism; (b) for each region of interest, conducting a search of the target genome sequence using the region of interest as a query to identify regions of homology between the region of interest and the target genome; (c) selecting sections of the region of interest having the most regions of homology in the target genome; (d) designing one or more oligonucleotides in the sections selected in step (c); (e) conducting a search of the target genome with the oligonucleotides designed in step (d) to identify the oligonucleotides with the maximum number of regions of homology to the target genome that are at least 15 base pairs long, have at least 75% identity to said number of regions of homology and which span the 3'-end of the suppressor oligonucleotide while no more than 2 mismatches are present within 4 nucleotides of 3'-terminal region of the oligonucleotide and that have no regions of complementarity with the target sequence which is to be amplified in the amplification reaction; (f) selecting the oligonucleotide identified in step (e) as the suppressor oligonucleotide. (a) identifying one or more regions of interest in the genome of a target organism; (b) for each region of interest, conducting a search of the target genome sequence using the region of interest as a query to identify regions of homology between the region of interest and the target genome; (c) selecting sections of the region of interest having the most regions of homology in the target genome; (d) designing one or more oligonucleotides in the sections selected in step (c); (e) conducting a search of the target genome with the oligonucleotides designed in step (d) to identify the oligonucleotides with the maximum number of regions of homology to the target genome that are at least 15 base pairs long, have at least 75% identity to said number of regions of homology and which span the 3'-end of the suppressor oligonucleotide while no more than 2 mismatches are present within 4 nucleotides of 3'-terminal region of the oligonucleotide and that have no regions of complementarity with the target sequence which is to be amplified in the amplification reaction; (f) selecting the oligonucleotide identified in step (e) as the suppressor oligonucleotide.
A system for associating acquired images with objects, comprising - an image selector for selecting a stored image from a database comprising a plurality of stored images, the database comprising an association between the stored image and an object of interest shown in the stored image; - an image scanner for acquiring a new image comprising a representation of at least part of the object of interest, during an imaging session of a patient; - a user interface for enabling a user, during the imaging session of the patient, to indicate that the new image is to be associated with the object of interest, the user interface being provided at least in part on the image scanner; and - an associating subsystem for creating an association between the new image and the object of interest in the database. - an image selector for selecting a stored image from a database comprising a plurality of stored images, the database comprising an association between the stored image and an object of interest shown in the stored image; - an image scanner for acquiring a new image comprising a representation of at least part of the object of interest, during an imaging session of a patient; - a user interface for enabling a user, during the imaging session of the patient, to indicate that the new image is to be associated with the object of interest, the user interface being provided at least in part on the image scanner; and - an associating subsystem for creating an association between the new image and the object of interest in the database.
A system for detecting the levelness of ground engaging tools of a tillage implement, the system comprising an agricultural implement including a frame and a plurality of tool assemblies supported relative to the frame, each tool assembly including a toolbar coupled to the frame and at least one ground engaging tool coupled to the toolbar, a first sensor coupled to a first tool assembly of the plurality of tool assemblies, the first sensor configured to capture data indicative of a load acting on the at least one ground engaging tool of the first tool assembly, and a second sensor coupled to a second tool assembly of the plurality of tool assemblies, the second sensor configured to capture data indicative of a load acting on the at least one ground engaging tool of the second tool assembly, wherein the system further comprising a controller configured to monitor data received from the first sensor and the second sensor and compare at least one first monitored value associated with the load acting on the at least one ground engaging tool of the first tool assembly to at least one second monitored value associated with the load acting on the at least one ground engaging tool of the second tool assembly, the controller being configured to identify that at least a portion of the ground engaging tools are not level when the at least one first monitored value differs from the at least one second monitored value by a predetermined threshold value, chracterised in that the controller being further configured to determine at least one of a condition of soil in a field or an effectiveness of the tillage operation based on at least one of the first monitored value or the second monitored value.
A method carried out by a computing device (106, 106a); the method comprising: obtaining a component invocation message from a managed application (141, 141a) which is executable in a workspace managed by a workspace manager on the computing device (106, 106a), wherein the component invocation message is a message which invokes a component in another application; then determining whether the component invocation message is originated from a workspace other than the workspace managed by the workspace manager; then in response to determining that the component invocation message is originated from a workspace other than the workspace managed by the workspace manager, determining whether the component invocation message is intended to invoke a component in a target application in the workspace managed by the workspace manager; and then providing (1009, 1016) an instruction to the managed application (141, 141a) in response to determining whether the component invocation message is intended to invoke the component in the target application; wherein the instruction instructs the managed application to discard the component invocation message or forward the component invocation message to the target application. obtaining a component invocation message from a managed application (141, 141a) which is executable in a workspace managed by a workspace manager on the computing device (106, 106a), wherein the component invocation message is a message which invokes a component in another application; then determining whether the component invocation message is originated from a workspace other than the workspace managed by the workspace manager; then in response to determining that the component invocation message is originated from a workspace other than the workspace managed by the workspace manager, determining whether the component invocation message is intended to invoke a component in a target application in the workspace managed by the workspace manager; and then providing (1009, 1016) an instruction to the managed application (141, 141a) in response to determining whether the component invocation message is intended to invoke the component in the target application; wherein the instruction instructs the managed application to discard the component invocation message or forward the component invocation message to the target application.
An apparatus for determining whether a ventricular pacing stimulus is capturing a paced ventricle during atrial fibrillation, comprising: processing means configured to determine whether a patient is experiencing atrial fibrillation; delivering means (62, 64, 66) configured to deliver the ventricular pacing stimulus in response to determining the patient is in atrial fibrillation; sensing means (40, 42, 44) configured to sense a signal in response to the ventricular pacing stimulus; processing means configured to determine whether the ventricular pacing stimulus is effectively capturing the paced ventricle; modifying means configured to modify a pacing rate during atrial fibrillation in response to the determination of effective capture; and to increase a percentage of effective ventricular capture during atrial fibrillation responsive to modifying the pacing rate during atrial fibrillation. processing means configured to determine whether a patient is experiencing atrial fibrillation; delivering means (62, 64, 66) configured to deliver the ventricular pacing stimulus in response to determining the patient is in atrial fibrillation; sensing means (40, 42, 44) configured to sense a signal in response to the ventricular pacing stimulus; processing means configured to determine whether the ventricular pacing stimulus is effectively capturing the paced ventricle; modifying means configured to modify a pacing rate during atrial fibrillation in response to the determination of effective capture; and to increase a percentage of effective ventricular capture during atrial fibrillation responsive to modifying the pacing rate during atrial fibrillation.
A tilt detection system, comprising: a roulette wheel; at least one inclination sensor (150, 240) positioned within a rim (130, 200) of the roulette wheel; a display module (140, 220) comprising a plurality of light outputs; a processor communicatively coupled to the at least one inclination sensor and the display module, and a memory comprising instruction that, when executed by the processor, cause the tilt detection system to at least: obtain positional data from the at least one inclination sensor during operation of the roulette wheel; determine tilt data based on the positional data, wherein the tilt data is indicative of inclination of the roulette wheel relative to a baseline; determine a tilt status based on the tilt data; and activate the plurality of light outputs (310, 320) based on the tilt status, characterized in that the display module is positioned on or secured within the rim of the roulette wheel. a roulette wheel; at least one inclination sensor (150, 240) positioned within a rim (130, 200) of the roulette wheel; a display module (140, 220) comprising a plurality of light outputs; a processor communicatively coupled to the at least one inclination sensor and the display module, and a memory comprising instruction that, when executed by the processor, cause the tilt detection system to at least: obtain positional data from the at least one inclination sensor during operation of the roulette wheel; determine tilt data based on the positional data, wherein the tilt data is indicative of inclination of the roulette wheel relative to a baseline; determine a tilt status based on the tilt data; and activate the plurality of light outputs (310, 320) based on the tilt status, characterized in that the display module is positioned on or secured within the rim of the roulette wheel.
A wind turbine blade for a wind turbine rotor comprising a hub from which the wind turbine blade extends when mounted to the hub, the wind turbine blade including a shell structure of a fibre-reinforced composite material (5, 6) comprising fibres embedded in a polymer matrix, the wind turbine blade extending in longitudinal direction and having a profiled contour including a pressure side and a suction side as well as a leading edge and a trailing edge, said edges (33, 34) defining a chord plane therebetween, when seen in the longitudinal direction the profiled contour comprising a root region with a root end face, an airfoil region and optionally a transition region between root region and the airfoil region, the root region having a ring-shaped cross section with an outer surface and an inner surface, the root region comprising a plurality of elongated fastening members provided with fastening means and embedded mutually spaced apart in the fibre-reinforced polymer so as to substantially follow a circumference of the root region and allow access from the outside to the fastening means used for mounting the blade to the hub, the fastening members comprising a first end arranged at the root end face, a second end opposite the first end thereof and an outer periphery comprising an outer surface (11 a), an inner surface (11 b), a first lateral face (11 c) and an opposite second lateral face, characterised in that at least a number of the elongated fastening members are formed with a longitudinally tapering section where the outer periphery is tapering in a direction from the second end towards the first end of the fastening members over at least 10% of the longitudinal extent of the fastening members.
Apparatus for protection of an industrial robot having moving parts, having a safety sensor system for detection of objects in the working area of the industrial robot, having a safety controller which interacts with a handling controller of the industrial robot and in the process controls safety-relevant handling appliance functions as a function of signals from the safety sensor system, with the safety sensor system having non-contacting proximity sensors so that a safety-relevant part of the working area of the industrial robot is covered by the detection areas of the proximity sensors and with the proximity sensors being arranged on the base of the industrial robot, characterized in that the safety-relevant part of the working area is subdivided into sectors, with each sector having an associated non-contacting proximity sensor or a position-resolving and time-resolving sensor as the sector monitoring sensor, whose detection area corresponds to the sector associated with it, and in that each sector which is associated with one proximity sensor is subdivided into at least two zones of different safety relevance, with the safety relevance corresponding to the distance from the moving parts.
A process for producing a substrate solution that is used for measuring lipase activity in a sample and comprises, as a substrate for measuring lipase activity, 1,2-o-dilauryl-rac-glycero-3-glutaric acid (6'-methylresorufin) ester, the process comprising the steps of: directly mixing the substrate for measuring lipase activity and a side-chain-type nonreactive polyether-modified-type modified silicone oil or a polyoxyethylene/polyoxypropylene condensate to prepare a mixture; and mixing all or a portion of the mixture of step with water or an aqueous solution. directly mixing the substrate for measuring lipase activity and a side-chain-type nonreactive polyether-modified-type modified silicone oil or a polyoxyethylene/polyoxypropylene condensate to prepare a mixture; and mixing all or a portion of the mixture of step with water or an aqueous solution.
A method for wireless communications by a user equipment, UE, comprising: requesting a nonseamless wireless offload, NSWO, connection to a network during an extensible authentication protocol, EAP, procedure; and receiving, after successful authentication, a reason code from a network entity indicating NSWO is not allowed if the network does not support NSWO, wherein the reason code further indicates that a packet data network, PDN, connection is required if the network supports only single-connection; and receiving an internet protocol, IP, address if the network supports NSWO. requesting a nonseamless wireless offload, NSWO, connection to a network during an extensible authentication protocol, EAP, procedure; and receiving, after successful authentication, a reason code from a network entity indicating NSWO is not allowed if the network does not support NSWO, wherein the reason code further indicates that a packet data network, PDN, connection is required if the network supports only single-connection; and receiving an internet protocol, IP, address if the network supports NSWO.
A method of fabricating a semiconductor wafer, the method comprising: depositing an insulating layer onto a substrate, wherein the substrate comprises a silicon wafer, for example a <111> or <100> silicon wafer, sapphire or silicon carbide, wherein the substrate comprises at least one mesa comprising a stack of epitaxial Group III nitride layers for a transistor device such that an upper surface of the substrate and the mesa are covered with the insulating layer; forming a structured mask on the insulating layer having an opening above the mesa, the opening having a lateral area smaller than a lateral area of the mesa; removing a portion of the insulating layer within the opening and reducing a thickness of the insulating layer arranged above the mesa; and removing the mask and progressively removing portions of the insulating layer by chemical mechanical polishing to produce a planarised surface comprising a surface of the mesa and a surface of the insulating layer. depositing an insulating layer onto a substrate, wherein the substrate comprises a silicon wafer, for example a <111> or <100> silicon wafer, sapphire or silicon carbide, wherein the substrate comprises at least one mesa comprising a stack of epitaxial Group III nitride layers for a transistor device such that an upper surface of the substrate and the mesa are covered with the insulating layer; forming a structured mask on the insulating layer having an opening above the mesa, the opening having a lateral area smaller than a lateral area of the mesa; removing a portion of the insulating layer within the opening and reducing a thickness of the insulating layer arranged above the mesa; and removing the mask and progressively removing portions of the insulating layer by chemical mechanical polishing to produce a planarised surface comprising a surface of the mesa and a surface of the insulating layer.