Ed Dottery - Palm Harbor FL, US Rob Waterbury - Palm Harbor FL, US Chris Stefano - Dunedin FL, US Roy Walters - Enterprise FL, US Jeremy Rose - Largo FL, US Frank Vilardi - Largo FL, US
Assignee:
Alakai Defense Systems, Inc. - Largo FL
International Classification:
G01N 21/00
US Classification:
356 73, 356301
Abstract:
A spectroscopy system including first and second lasers. The first laser is triggered to induce a plasma, such as on a surface of a target at a stand-off distance from the target. The second laser stimulates amplified emissions from the plasma detected by one or more spectroscopes. The gain induced by the second laser detects traces of explosives and other substances on surfaces at stand-off distances. The spectroscopy systems use the same telescopic optics to collect emissions from the detection surface and activated at or just before the peak emission intensity useful for detecting element signatures and intensity ratios from the trace elements in the plasma.
Ed Dottery - Palm Harbor FL, US Kennth Pohl - Clearwater FL, US Darius Vunck - Clearwater FL, US Robert Waterbury - Palm Harbor FL, US Frank Vilardi - Largo FL, US
Assignee:
Alakai Defense Systems, Inc. - Largo FL
International Classification:
G01J 3/44
US Classification:
356301
Abstract:
A system comprises a processing system, a laser system, a telescope system, a detector system and optical systems operatively arranged such that the laser system may be capable of outputting multiple wavelengths to a common telescope system, and the detector system is capable of receiving signatures from the same telescope system, under the control of a control system. The processor system processes signals received from the detector system to determine substances identified by known signatures. For example, a plurality of detectors in the detector system each receive a range of wavelengths of the signatures received by the telescope system. For example, a variable beam diverger and variable beam expander operatively control expansion and divergence of the output the laser system. For example, a beam reducer and lenslet array may operatively transmit signatures via optical fiber bundle to one or more of the detectors.
Microwave Heating In A Vacuum Centrifugal Concentrator
Frank Vilardi - Holbrook NY James Boncore - Sayville NY Silvio Bellotti - New Hyde Park NY Yury Zlobinsky - Massapequa NY
Assignee:
Savant Instruments - Farmingdale NY
International Classification:
B01D 100
US Classification:
159 61
Abstract:
A vacuum concentrator uses microwave heating to enhance the rapid drying of a liquid specimen. Microwave heating without excessive arcing is made possible in a vacuum chamber by controlling the power of a microwave generator, by modifying antenna-like objects, and by interposing air in a direct path between opposing edges of microwave injection slots, while maintaining the vacuum condition in the vacuum chamber. This can be accomplished by using air filled plastic bosses passing through, and substantially filling the microwave injection slots. An alternate to the air filled bosses can be a non-metallic closure plate that excludes the microwave injection slots from the vacuum chamber, while allowing energy to be injected freely into the chamber. The microwave heating energy is absorbed by a vacuum chamber cover and dissipated to the atmosphere as heat.
A high speed centrifugal concentrator includes a vacuum chamber within which a centrifuge rotor is rotatably mounted for spinning a plurality of vials containing biological solutions or the like at high speed while subjecting the solution to a vacuum condition for concentrating and evaporating the latter. The vacuum chamber has a hinged cover and is completely enclosed to maintain the vacuum condition therein and the centrifuge rotor is driven by an electric motor located outside of said closed vacuum chamber and remote therefrom. The electrical circuit for driving the motor includes dynamic braking means for braking the motor in response to manual operation of a selector switch, or to the raising of the vacuum chamber cover from closed position.
Graphic Speed
Mech Design Engineer Consultant
Drs Technologies, Inc. 1998 - 2003
Senior Mechanical Engineer
North Atlantic Industries, Inc. 1994 - 1996
Mechanical Design Engineer
Skills:
Design For Manufacturing Engineering Management Systems Engineering Solid Modeling Finite Element Analysis Mechanical Engineering Tolerance Analysis Gd&T U.s. Department of Defense Engineering Aerospace Military
Frank Vilardi (1983-1987), Paul Nelson (1986-1990), Arlen Viecelli (1965-1969), Cynthia Holdreith (1977-1981), Judy Munch (1960-1964), Frank Mulvihill (1971-1973)