Abstract: An apparatus includes a template-former, a growth template, having a surface area containing three-dimensional features; a container which includes or retains electrolytes or other fluids from which materials are deposited, removed, or modified onto the growth template or to a structure-in-production; and a computer to plan and control said deposition, removal, or modification.

Abstract: An apparatus and method of fabricating magnetic structures utilizing nanocomposites to build bulk magnetic materials, with controlled magnetic alignments are provided. The method includes application of an editing tool, such as a laser, for patterning an editable structure that mounted on an electrically conductive substrate and filling the pattern with solid materials to create the magnetic structures.

Abstract: An apparatus includes a plurality of particles, wherein each particle contains a plurality of magnetizable (for example, ferromagnetic) and ferroelectric materials in fixed physical relationship (for example, physical contact) with one another. A method and apparatus measure magnetic fields arising from or within the plurality of particles.

Abstract: A method of fabrication produces one or more functional microparticles using a parallel pore working piece. In one embodiment, the method forms a particle that includes a segment for the oxidation of a biofuel (such as glucose) and the reduction of oxygen. The particle may be synthesized in a structure with defined and parallel, uniform, thin pores that completely penetrate the structure. Further, the functional microparticle may be configured to reside in a human or animal body or cell such that it may be self-contained fuel cell having an anode, a cathode, a separator membrane, and a magnetic component. In other embodiments, the functional microparticles may deliver energy or therapeutic materials in the body.

Abstract: Disclosed embodiments provide a method and apparatus for continuous production of micro/nanoscale particles using roll-to-roll manufacturing in combination with electroplating. The roll-to-roll process can move a mechanically flexible reel stock material along rotating elements designed to position the material for various additive, subtractive, and modification processes. In accordance with at least one embodiment, processes applied at various stations may include sputtering, electroplating, and/or etching.

Abstract: An apparatus includes a plurality of particles, wherein each particle contains a plurality of magnetizable (for example, ferromagnetic) and ferroelectric materials in fixed physical relationship (for example, physical contact) with one another. A method and apparatus measure magnetic fields arising from or within the plurality of particles.

Abstract: Disclosed embodiments are directed to promoting nerve growth through one or more mechanisms using an apparatus to rapidly change magnetic fields.

Abstract: Disclosed embodiments enable apparatus and methodologies that are provided for three-dimensional construction of tissues in the body at locations internal to the body.

Abstract: An apparatus and method for magnetic particle manipulation enables the particle to be rotated and translated independently using magnetic fields and field gradients, which produce the desired decoupled translational and rotational motion. The apparatus and the method for manipulation may be implemented in parallel, involving many particles. The rotational magnetic field used to induce rotational motion may be varied to induce particle motion, which is either in phase or out of phase with the rotational magnetic field. The magnetic fields and gradients described herein may be generated with permanent magnets, electromagnets, or some combination of permanent magnets and electromagnets.

Abstract: Disclosed embodiments provide a tool and methodologies for delivering drugs into articular cartilage of a subject's body.

Abstract: Disclosed embodiments are directed to a method and system for remotely imaging electric fields from living tissues.

Abstract: A method of fabrication produces one or more functional microparticles using a parallel pore working piece. In one embodiment, the method forms a particle that includes a segment for the oxidation of a biofuel (such as glucose) and the reduction of oxygen. The particle may be synthesized in a structure with defined and parallel, uniform, thin pores that completely penetrate the structure. Further, the functional microparticle may be configured to reside in a human or animal body or cell such that it may be self-contained fuel cell having an anode, a cathode, a separator membrane, and a magnetic component. In other embodiments, the functional microparticles may deliver energy or therapeutic materials in the body.

Abstract: A method of fabrication produces one or more functional microparticles using a parallel pore working piece. In one embodiment, the method forms a particle that includes a segment for the oxidation of a biofuel (such as glucose) and the reduction of oxygen. The particle may be synthesized in a structure with defined and parallel, uniform, thin pores that completely penetrate the structure. Further, the functional microparticle may be configured to reside in a human or animal body or cell such that i t may be self-contained fuel cell having an anode, a cathode, a separator membrane, and a magnetic component. In other embodiments, the functional microparticles may deliver energy or therapeutic materials in the body.

Abstract: An apparatus and method apply magnetic fields by generators external to a body or body part with sensors within an in vivo source that are sensitive to applied magnetic fields Through the use of these applied magnetic fields and sensitive sensors, disclosed embodiments can realize much better spatial resolution than is conventionally possible.

Abstract: Disclosed embodiments provide a method and apparatus for continuous production of micro/nanoscale particles using roll-to-roll manufacturing in combination with electroplating. The roll-to-roll process can move a mechanically flexible reel stock material along rotating elements designed to position the material for various additive, subtractive, and modification processes. In accordance with at least one embodiment, processes applied at various stations may include sputtering, electroplating, and/or etching.

Abstract: An apparatus and method for magnetic particle manipulation enables the particle to be rotated and translated independently using magnetic fields and field gradients, which produce the desired decoupled translational and rotational motion. The apparatus and the method for manipulation may be implemented in parallel, involving many particles. The rotational magnetic field used to induce rotational motion may be varied to induce particle motion, which is either in phase or out of phase with the rotational magnetic field. The magnetic fields and gradients described herein may be generated with permanent magnets, electromagnets, or some combination of permanent magnets and electromagnets.

Abstract: Disclosed embodiments enable apparatus and methodologies that are provided for three-dimensional construction of tissues in the body at locations internal to the body.

Abstract: An apparatus and method for magnetic particle manipulation enables the particle to be rotated and translated independently using magnetic fields and field gradients, which produce the desired decoupled translational and rotational motion. The apparatus and the method for manipulation may be implemented in parallel, involving many particles. The rotational magnetic field used to induce rotational motion may be varied to induce particle motion, which is either in phase or out of phase with the rotational magnetic field. The magnetic fields and gradients described herein may be generated with permanent magnets, electromagnets, or some combination of permanent magnets and electromagnets.

Abstract: A method of fabrication produces one or more functional microparticles using a parallel pore working piece. In one embodiment, the method forms a particle that includes a segment for the oxidation of a biofuel (such as glucose) and the reduction of oxygen. The particle may be synthesized in a structure with defined and parallel, uniform, thin pores that completely penetrate the structure. Further, the functional microparticle may be configured to reside in a human or animal body or cell such that it may be self-contained fuel cell having an anode, a cathode, a separator membrane, and a magnetic component. In other embodiments, the functional microparticles may deliver energy or therapeutic materials in the body.

Abstract: Disclosed embodiments are directed to promoting nerve growth through one or more mechanisms using an apparatus to rapidly change magnetic fields.