Abstract: A method for mitigating an involuntary muscle movement in a patient by applying external vibration in multiple locations distributed about a periphery of an upper arm or forearm of the patient for an applied vibration duration that is less than the efficacy duration. Applied vibration duration as a percentage of efficacy duration is ideally less than 80%. A wearable device for performing the method has a flexible base for removably affixing to a patient's upper arm or forearm, a plurality of vibration generators, a power source, and a connected microcontroller configured to control the vibration generated by the vibration generators in accordance with a pulse frequency. The microcontroller is configured to connect to a remote controller via a communications interface. The vibration generators have a nominal vibration frequency different from the pulse frequency.

Abstract: The present invention relates to carrying out infrared emission spectroscopic measurements using a sample directly or a substrate, on which a sample is placed, coated, spun-on, deposited or in some way attached, as an external source to produce a time dependent infrared emissive signature from said sample or substrate with a subsequent analysis of this signature by an infrared spectrograph equipped with a focal plane array detector.

Abstract: Nanofiber electroprocessing apparatus comprising a conductive stylus having a 5 to 250 nm diameter tip; a collector spaced below the tip; a continuous supply of flowable polymer to the tip, and a power supply for creating a potential difference between the tip and the collector sufficient to produce a nanofiber. The conductive stylus may comprise an atomic force microscope (AFM) tip and may further be mounted within an AFM scanning holder having a mechanism for moving the tip. A method of electroprocessing a nanofiber comprises providing the conductive stylus, such as an AFM tip, providing a collector below the tip, supplying the tip with the flowable polymer, energizing the tip to create a potential difference between the tip and the collector, and thereby producing the nanofiber. Systems and methods for using nanofibers so created may be used for anticounterfeiting or object identification.