Laser Institute of America
Executive Director
Applicote
Chief Executive Officer
Fluid Dynamics Division Pall Corporation/Memtec Jun 1996 - Sep 2002
Vice President Research and Development
Education:
Laser Institute of America
Cornell University
Doctorates, Doctor of Philosophy, Materials Science, Engineering
Skills:
R&D Product Development Manufacturing Materials Science Laser Photonics Product Management Program Management Engineering Management Process Engineering Cross Functional Team Leadership Business Strategy Leadership New Business Development Business Development Start Ups Project Management Intellectual Property Materials Development Team Organisation Research and Development
Interests:
Development and Consulting Materials and Process Research
Laser Institute of America Nonprofit Organization Management · Professional Organization · Other Social Advocacy Organizations · Non-Profit Organizations
13501 Ingenuity Dr SUITE 128, Orlando, FL 32826 4073801553, 4073805588, 8003452737
Nathaniel R. Quick Manager
Lightgen, LLC Business Services at Non-Commercial Site
110 Longleaf Ln, Altamonte Springs, FL 32714
Nathaniel R Quick Managing
FIPRO LLC Business Services at Non-Commercial Site
894 Silverado Ct, Lake Mary, FL 32746
Us Patents
Process For Producing High Quality Metallic Fiber Mesh
Nathaniel R. Quick - Lake Mary FL Michael Liberman - Deland FL
Assignee:
USF Filtration Separations Group, Inc. - Deland FL
International Classification:
B23P 1700
US Classification:
294191, 29424, 29423
Abstract:
The process for making fine metallic mesh is disclosed comprising the steps of cladding an array of metallic wires with an array cladding material to provide an array cladding. The array cladding is drawn for reducing the diameter thereof and for reducing the corresponding diameters of each of the metallic wires for producing a clad array of fine metallic fibers within the array cladding. The array cladding is fashioned into a mesh by weaving, braiding, crocheting and the like thereby forming a series of bends in the clad array for reducing interaction between adjacent portions of the array cladding. The array cladding material is removed for producing fine metallic mesh from the array of the fine metallic fibers.
Nathaniel R. Quick - Lake Mary FL Tao Li - Newark DE Robert Malanga - Longwood FL
Assignee:
USF Filtration and Separations Group, Inc. - Timonium MD
International Classification:
F23D 1412
US Classification:
431328, 126 92 AC, 126 91 A
Abstract:
An improved gas burner for a gas burner assembly and method of making is disclosed comprising a porous burner element extending between a first and a second end. The porous burner element comprises a sintered matrix of metallic fibers. A first end cap is formed from a rigid metallic material and is secured to the first end of the porous burner element. A second end cap comprises a sintered matrix of metallic fibers. The second end cap is secured to the second end of the porous burner element solely by the metallic fibers of the porous burner element bonding with the metallic fibers of the second end cap. In another embodiment of the invention, the porous burner element has a plurality of pleats for increasing the surface area of the porous burner element.
Nathaniel R. Quick - Lake Mary FL Clinton V. Kopp - Castle Hill, AU Michael Liberman - Deland FL Alexander Sobolevsky - Deland FL Michael C. Murray - Eustis FL
Assignee:
USF Filtration and Separations Group, Inc. - Timonium MD
International Classification:
H01G 4228
US Classification:
3613061, 361311, 29 2542
Abstract:
An apparatus and process for making a capacitor comprising a first capacitor plate element covered with a spacing material selected for forming a capacitor dielectric. The first capacitor plate element and the spacing material is encased with a second capacitor element. The second capacitor plate element is drawn for reducing the outer diameter thereof. A multiplicity of the capacitor elements are inserted within a second capacitor plate connector. The second capacitor plate connector is drawn for reducing the outer diameter of the metallic tube and for electrically interconnecting the multiplicity of the second capacitor plate elements with the second capacitor plate connector to form a second capacitor plate. The multiplicity of the first capacitor elements are interconnected with a first capacitor plate connector to form a first capacitor plate. The spacing material is replaced with a dielectric material to form the capacitor thereby.
Process For Making Fine And Ultra Fine Metallic Fibers
Nathaniel R. Quick - Lake Mary FL Michael Liberman - Deland FL Alexander Sobolevsky - Deland FL Raymond R. McNeice - Debary FL
Assignee:
Pall Filtration and Separations Group Inc. - Timonium MD
International Classification:
B23P 1700
US Classification:
294191, 29423, 29424
Abstract:
A process for making fine and ultra-fine metallic fibers is disclosed comprising arranging a multiplicity of metallic wires to form an assembly of the metallic wires. The assembly of the metallic wires is wrapped with a wrapping material to form a wrapped assembly. A plurality of the wrapped assemblies are inserted into a tube for providing a cladding. The cladding is drawn for reducing the outer diameter thereof and for reducing the cross-section of each of the multiplicity of metallic wires within the cladding to transform the multiplicity of metallic wires into a multiplicity of fine or ultra-fine metallic fibers. The cladding is removed for providing the multiplicity of fine or ultra-fine metallic fibers. In one example, the metallic wires are coated with a coating material formed from the same material as the wrapping material and the cladding material.
An improved seal and method of making is disclosed for sealing a filter element to a filter mounting. The improved seal comprises a bonding pad formed from a sintered matrix of randomly oriented metallic fiber. The bonding pad is disposed between the filter element and the filter mounting A mechanical fastener coacts between the filter element and the filter mounting for compressing the bonding pad to provide a seal between the filter element and the filter mounting. The bonding pad may be heated to create a frangible seal.
An apparatus and method is disclosed for drawing continuous metallic wire having a first diameter to a metallic fiber having a reduced second diameter. A feed mechanism moves the wire at a first linear velocity. A laser beam heats a region of the wire to an elevated temperature. A draw mechanism draws the heated wire at a second and greater linear velocity for providing a drawn metallic fiber having the reduced second diameter.
Nano-Size Semiconductor Component And Method Of Making
A method is disclosed for making a nano-size semiconductor component within a wide-bandgap semiconductor substrate. A first thermal energy beam is directed onto a first portion of the wide-bandgap semiconductor substrate to change the structure of the wide-bandgap semiconductor substrate into a first element of the semiconductor component. A second thermal energy beam is directed onto a second portion of the wide-bandgap semiconductor substrate adjacent to the first portion to form a second element of the semiconductor component.
Nathaniel R. Quick - Lake Mary FL, US Aravinda Kar - Oviedo FL, US Yonggang Li - Orlando FL, US Raymond R. McNeice - Debary FL, US
International Classification:
B21D 37/16
US Classification:
723425, 72286, 72288, 723421, 72364, 72378, 72 38
Abstract:
An apparatus and method is disclosed for drawing continuous metallic wire having a first diameter to a metallic fiber having a reduced second diameter. A feed mechanism moves the wire at a first linear velocity. A laser beam heats a region of the wire to an elevated temperature. A draw mechanism draws the heated wire at a second and greater linear velocity for providing a drawn metallic fiber having the reduced second diameter.