Abstract: A probe including a first sensor having a first magnetometer and a first accelerometer and a second sensor having a second magnetometer and a second accelerometer is configured for determining the distance and direction to a marker. The marker may be magnetic and may be surgically inserted into a patient's body to mark a specific location. The probe may be used to locate the marker, thus identifying the location. The probe may include a microprocessor that receives an output from the first sensor and an output from the second sensor and determines the distance and direction to the marker.

Abstract: A probe including a first sensor having a first magnetometer and a first accelerometer and a second sensor having a second magnetometer and a second accelerometer is configured for determining the distance and direction to a marker. The marker may be magnetic and may be surgically inserted into a patient's body to mark a specific location. The probe may be used to locate the marker, thus identifying the location. The probe may include a microprocessor that receives an output from the first sensor and an output from the second sensor and determines the distance and direction to the marker.

Abstract: A probe including a first sensor having a first magnetometer and a first accelerometer and a second sensor having a second magnetometer and a second accelerometer is configured for determining the distance and direction to a marker. The marker may be magnetic and may be surgically inserted into a patient's body to mark a specific location. The probe may be used to locate the marker, thus identifying the location. The probe may include a microprocessor that receives an output from the first sensor and an output from the second sensor and determines the distance and direction to the marker.

Abstract: An apparatus for locating an embedded passive integrated transponder (PIT) tag is provided. An embodiment of the locating apparatus includes a resonator capable of electromagnetically coupling to the PIT tag, and a feedback circuit connected to the resonator and configured to monitor a load conductance of the resonator. A distance between the resonator and the PIT tag is indicated by a change in the monitored load conductance when the resonator and the PIT tag are electromagnetically coupled. Another embodiment includes a resonator capable of stimulating a response signal from a PIT tag, and a processing circuit capable of calculating the distance between the resonator and the PIT tag based on the amplitude of the response signal.

Abstract: A method of manufacturing a scratch resistant, touch sensor comprising: (1) applying a non-polymer protective coating solution to a touch sensor; and (2) forming a cross-linked polymer structure by curing the protective coating solution.

Abstract: Touch sensor circuits are used in touch screens for displays and graphical interfaces and may be, for example, resistive or capacitive touch sensor circuits. The touch sensor circuits may be manufactured using at least one catalytically active printable ink that may contain a plurality of radiation-curable binders, a plurality of coated electrically conductive nano-particles, a solvent, and may contain photo-initiators. The plurality of nanoparticles are coated by one of surfactants, polymers, or carbon. The ink is formulated to be used in a printing process such as a flexographic printing process or inkjet process to print complicated geometrics for microscopic patterns, particularly high resolution conductive patterns.

Abstract: A catalytic photoresist composition includes a negative photoresist component and a catalyst component that includes catalytic nanoparticles. The negative photoresist component content is in a range between 30 percent and 95 percent of the composition by weight. The catalyst component content is in a range between 5 percent and 70 percent of the composition by weight.

Abstract: A dual web conveyance system includes a first unwind unit configured to unspool a first web from a first spool, a first rewind unit configured to spool the first web around a second spool, a second unwind unit configured to unspool a second web from a third spool, a second rewind unit configured to spool the second web around a fourth spool, and a control system. The control system includes a first drive control unit configured to control a first unspooling speed of the first unwind unit, a first tension control unit configured to control a first spooling tension of the first rewind unit, a second drive control unit configured to control a second unspooling speed of the second unwind unit, and a second tension control unit configured to control a second spooling tension of the second rewind unit.

Abstract: A probe including a first sensor having a first magnetometer and a first accelerometer and a second sensor having a second magnetometer and a second accelerometer is configured for determining the distance and direction to a marker. The marker may be magnetic and may be surgically inserted into a patient's body to mark a specific location. The probe may be used to locate the marker, thus identifying the location. The probe may include a microprocessor that receives an output from the first sensor and an output from the second sensor and determines the distance and direction to the marker.

Abstract: A method of manufacturing a flexographic printing plate includes designing a photomask patterned design. The photomask patterned designed is laser-ablated into a thermal imaging layer. The laser-ablated thermal imaging layer is laminated to a top side of a flexographic printing plate substrate. A bottom side of the flexographic printing plate substrate is exposed to UV-A radiation. The top side of the flexographic printing plate substrate is exposed to UV-A radiation. The thermal imaging layer is removed. The flexographic printing plate substrate is developed. A flexographic printing system for printing a photomask includes an ink roll, an anilox roll, a printing plate cylinder, a flexographic printing plate disposed on the printing plate cylinder, and an impression cylinder. The flexographic printing plate comprises embossing patterns corresponding to a photomask patterned design. The flexographic printing plate may be used in a flexographic printing system to manufacture a photomask with flexography.

Abstract: A scratch resistant film formed by altering a surface energy of at least a portion of a substrate and disposing a first layer of coating on the substrate. The first layer of coating comprises a plurality of functionalized monomers and a solvent. The substrate then may enter a transition zone to wet the first layer of coating, wherein wetting the first layer of coating comprises disposing the substrate in a transition zone subsequent to disposing the first layer of coating. The first layer of coating is cured, and a second layer of coating is disposed on the first layer of coating, wherein the second layer of coating has a lower surface energy than the first layer of coating. The substrate may then enter a transition zone and be subsequently cured. A scratch-resistant film is formed; this film may be transparent, translucent, opaque, or combinations thereof.

Abstract: Touch screen structures may have a capacitive touch sensor made up of a polarizer film or analyzer. Disclosed herein is a method of producing a capacitive touch sensor using a roll-to-roll handling system comprising: printing, by a first flexoplate and a first ink, a first pattern on a first side of a polarizer film. A second pattern is printed by a second flexoplate and a second ink on the second side of the film. The film is cured and the first and the second pattern are plated and assembled.

Abstract: A radiation-curable hard-coat composition includes a principal resin that includes multi-(meth)acrylate functionalized oligomers or polymers and a free radical-polymerization initiator. The initiator includes at least two photo-initiators in a predetermined ratio that generate a highly reactive species when irradiated with radiation.

Abstract: A radiation-curable optically clear coating composition for patterned deposition on a touch sensor includes a principal resin that includes multi-(meth)acrylate functionalized oligomers or polymers and a free radical-polymerization initiator that includes at least one surface curing agent and at least one deep curing agent.

Abstract: A method of depositing a patterned coating in a multi-station flexographic printing system includes printing a coating in a pattern on a roll-to-roll substrate material with a first flexographic printing station, routing the printed roll-to-roll substrate material from the first flexographic printing station to a subsequent flexographic printing station, and curing the printed roll-to-roll substrate material at the subsequent flexographic printing station.

Abstract: An embodiment of a touch sensor assembly including a rollable touch sensor further including an active touch sensor area that is configured to sense the location of a touch event by a user thereon. The rollable touch sensor is configured to be rolled and deformed without losing electrical conductivity. The touch sensor assembly further includes a support assembly coupled to the rollable touch sensor, the support assembly including a receptacle that is configured to receive and hold an electronic device.

Abstract: A method includes disposing a conductive pattern on a substrate. Self-assembling monolayers are applied to exposed portions of the conductive pattern. The self-assembling monolayers self-organize and bond to the exposed portions of the conductive pattern. The substrate is cleaned.

Abstract: In at least some embodiments, a film for use with an edge-lit backlight includes a substrate. The film also includes a graphics layer and light-extraction features in contact with the substrate. The graphics layer and the light-extraction features are on opposite surfaces of the substrate.

Abstract: A touch screen includes a front linear polarizer, a touch sensor, and a front display substrate. The touch sensor includes a first conductive mesh disposed on a top side of an optically isotropic substrate and a second conductive mesh disposed on a bottom side of the optically isotropic substrate. A top side of the first conductive mesh is coupled to a bottom side of the front linear polarizer. A bottom side of the second conductive mesh is coupled to a top side of the front display substrate.

Abstract: A method of manufacturing a flexographic printing plate includes designing a photomask patterned design. The photomask patterned designed is laser-ablated into a thermal imaging layer. The laser-ablated thermal imaging layer is laminated to a top side of a flexographic printing plate substrate. A bottom side of the flexographic printing plate substrate is exposed to UV-A radiation. The top side of the flexographic printing plate substrate is exposed to UV-A radiation. The thermal imaging layer is removed. The flexographic printing plate substrate is developed. A flexographic printing system for printing a photomask includes an ink roll, an anilox roll, a printing plate cylinder, a flexographic printing plate disposed on the printing plate cylinder, and an impression cylinder. The flexographic printing plate comprises embossing patterns corresponding to a photomask patterned design. The flexographic printing plate may be used in a flexographic printing system to manufacture a photomask with flexography.