o General - Microsoft Office 2013: Word • Excel • PowerPoint • Outlook and Internet Explorer. o Comp... • Revit and AutoCAD Plant 3D 2013. o Ma... • Photoshop • InDesign • Illustrator CS6. Linear/Non-linear Edit... • Cool Edit Pro • Omega 32 • TV Scan • Monitor Scan and Matrix. o Computer T... • build • hardware/software installation and local...
Aug 2008 to 2000 Engineering and CADD DepartmentStar Trend, Inc.
2003 to 2000 Project Manager, Sales & MarketingGoose Creek Consolidated Independent School District
2002 to 2000 Architectural Computer-Aided Design TeacherSamsung Austin Semiconductor Austin, TX Jul 2014 to Aug 2014 Teacher Externship - Human Resources Development and Photo EngineeringWFAA-TV Dallas, TX Jan 2001 to Aug 2001 Sales & Marketing - University of North TexasLambert-Architects
May 1999 to Dec 2000 Architectural CAD DesignerNBGS International New Braunfels, TX Jan 1997 to Jan 1999 Slide Design EngineerBusch Hutchinson & Associates Inc. Baytown, TX Nov 1995 to Jan 1997 Civil Surveyor & Drafter
Education:
University of North Texas Denton, TX 1999 to 2001 BA in Radio, Television and Film, MarketingLee College Baytown, TX 1992 to 1995 A.A.S. in Design Drafting Technology - Computer-Aided Design
Skills:
o General - Microsoft Office 2013: Word, Excel, PowerPoint, Outlook and Internet Explorer. o Computer-Aided Design - AutoCAD 2014: Inventor, Revit and AutoCAD Plant 3D 2013. o Manufacturing - Computer Numerical Control (CNC) Visualmill 6.0 and VisualCAM 1.0 CAD/CAM. o Media - Adobe Premiere Pro, Photoshop, InDesign, Illustrator CS6. Linear/Non-linear Editing, Cool Edit Pro, Omega 32, TV Scan, Monitor Scan and Matrix. o Computer Technology - Windows OS, build, hardware/software installation and local-area networking.
Proceedings of an International Conference on Solid - Solid Phase Transformations: Proceedings of the International Conference on Solid-To-Solid Phase Transformations in Inorganic Materials Ptm9
Jie Zou - Pittsburgh PA David N. Lambeth - Pittsburgh PA David E. Laughlin - Pittsburgh PA
Assignee:
Carnegie Mellon University - Pittsburgh PA
International Classification:
G11B 566
US Classification:
428694TS, 428694 T, 428694 TM, 428900
Abstract:
The present invention provides a magnetic recording media incorporating Zn containing layers in close proximity to a magnetic layer to provide media having increased coercivity and lower noise. The Zn containing layer can be incorporated in a rotating, translating or stationary recording media to operate in conjunction with magnetic transducing heads for recording and reading of magnetic data, as well as other applications. The magnetic recording medium of the invention preferably includes a Co or Co alloy film magnetic layer, underlayer structures to promote epitaxial crystalline structure in the magnetic layer, and a Zn containing layer to promote isolation between the magnetic grains. The medium can further include seed layers, underlayers, intermediate layers, and overlayers. The process of manufacture includes promoting diffusion of Zn to the magnetic layer grain boundaries.
Magnetic Recording Medium With A Ga3Pt5 Structured Underlayer And A Cobalt-Based Magnetic Layer
The present invention provides a longitudinal magnetic recording media having a substrate, a Co or Co alloy based magnetic layer arid an underlayer disposed between the substrate and the magnetic layer. The underlayer is made of a material having a Ga Pt crystalline structure, most preferably Ni Al. Several intermediate layers, disposed between the underlayer and the magnetic layer may also be included.
Magnetic Films Having Magnetic And Non-Magnetic Regions And Method Of Producing Such Films By Ion Irradiation
Timothy John Klemmer - Pittsburgh PA, US Ganping Ju - Wexford PA, US René Johannes Marinus van de Veerdonk - Pittsburgh PA, US Todd Dennis Leonhardt - Pittsburgh PA, US David Eugene Laughlin - Pittsburgh PA, US
Assignee:
Carnegie Mellon University - Pittsburgh PA
International Classification:
G11B 566 G11B 570 H01J 100
US Classification:
428694T, 428611, 428900
Abstract:
Magnetic films having magnetic regions and non-magnetic regions are disclosed. The film is subjected to ion irradiation in order to produce chemically disordered regions in the film. The irradiated disordered regions may correspond to the non-magnetic regions of the film. Alternatively, the irradiated disordered regions may correspond to the magnetic regions of the film. In one embodiment, portions of a magnetic CrPtfilm are converted to non-magnetic regions by irradiating the regions with boron ions which disorder the CrPtfilm in the treated regions. The film may be patterned into magnetic regions and non-magnetic regions for applications such as magnetic recording media in computer disc drive systems.
Jian-Gang Zhu - Pittsburgh PA, US David E. Laughlin - Pittsburgh PA, US
Assignee:
Carnegie Mellon University - Pittsburgh PA
International Classification:
G11B 5/66
US Classification:
4288281, 360 59, 360135, 427128, 369 131
Abstract:
A magnetic microstructure comprising (i) a magnetic storage layer having a magnetic easy axis perpendicular to a film plane of the storage magnetic layer; (ii) a magnetic assist layer having a magnetic easy axis in the film plane; and (iii) a phase transition interlayer between the magnetic storage layer and the magnetic assist layer. The phase transition layer comprises a material, such as FeRh, that switches from antiferromagnetic at ambient to ferromagnetic at a transition temperature that is greater than ambient, but below the Curie temperature. When the phase transition interlayer is in antiferromagnetic phase, there exists little magnetic coupling between the storage and assist layers. When the interlayer changes to ferromagnetic phase, the interlayer couples the magnetic moments of the storage and assist layer ferromagnetically. If the anisotropy field-thickness product of the two layers is similar and the coupling is sufficiently strong, the effective magnetic anisotropy of the storage layer and the assist layer essentially vanishes.
Buffer Layers For L10 Thin Film Perpendicular Media
En Yang - Pittsburgh PA, US David E. Laughlin - Pittsburgh PA, US Jian-Gang Zhu - Pittsburgh PA, US
Assignee:
Carnegie Mellon University - Pittsburgh PA
International Classification:
C23C 14/00 C23C 14/32
US Classification:
2041921, 20419215, 427130
Abstract:
A process of fabricating a perpendicular magnetic recording medium. In one embodiment, the process may comprise forming a metallic buffer layer with a (002) texture on an underlayer using a deposition process performed at a temperature below 30 C. The underlayer may have a crystalline (001) texture. The process may further comprise forming a perpendicular magnetic recording layer on top of the metallic buffer layer using a deposition process performed at a temperature above 350 C. The magnetic recording layer may comprise a magnetic material with a L1crystalline structure and with a c-axis perpendicular to a plane of the perpendicular magnetic recording layer. The process may further comprise removing metal of the metallic buffer layer from a top surface of the perpendicular magnetic recording layer that moved to the top surface of the perpendicular magnetic recording layer during the forming of the perpendicular magnetic recording layer.
Michael E. McHenry - Pittsburgh PA, US Jianguo Long - San Jose CA, US Vladimir Keylin - Pittsburgh PA, US David Laughlin - Pittsburgh PA, US Joseph Huth - Butler PA, US Edward Conley - North Huntingdon PA, US
The invention discloses a soft magnetic amorphous alloy and a soft magnetic nanocomposite alloy formed from the amorphous alloy. Both alloys comprise a composition expressed by the following formula: (FeCoM)TBNwhere, M is at least one element selected from the group consisting of Ni and Mn; T is at least one element selected from the group consisting of Nb, W, Ta, Zr, Hf, Ti, Cr, Cu, Mo, V and combinations thereof, and the content of Cu when present is less than or equal to 2 atomic %; N is at least one element selected from the group consisting of Si, Ge, C, P and Al; and 0.01≦x+y
Jian-Gang Zhu - Pittsburgh PA, US David E. Laughlin - Pittsburgh PA, US
Assignee:
Carnegie Mellon University - Pittsburgh PA
International Classification:
G11B 13/04
US Classification:
369 1324, G9B 13003
Abstract:
A method of writing binary data comprising (i) heating a magnetic microstructure from an initial temperature to an above-ambient temperature that is not less than a transition temperature for the magnetic microstructure, which causes a phase transition interlayer of the magnetic microstructure to transition from an antiferromagnetic phase to a ferromagnetic phase; and (ii) reversing an orientation of magnetization of a magnetic storage layer of the magnetic microstructure with a magnetic field while the phase transition interlayer is in the ferromagnetic phase.
Highly Oriented Magnetic Thin Films, Recording Media, Transducers, Devices Made Therefrom And Methods Of Making
David N. Lambeth - Pittsburgh PA David E. Laughlin - Pittsburgh PA Wei Yang - Pittsburgh PA Heng Gong - Pittsburgh PA Jie Ziou - Pittsburgh PA
Assignee:
Carnegie Mellon University - Pittsburgh PA
International Classification:
G11B 566
US Classification:
428 653
Abstract:
The present invention provides for magnetic and magneto-optic recording media, transducers and data storage devices constructed therefrom that have highly oriented films having long range order in the crystal structure of the film. The recording medium includes a magnetic recording layer comprised of Co-based material, such as Co or one or more Co alloys having a (1010) crystal texture, a substrate, a first underlayer having a fcc structure and a (110) crystal texture disposed between the substrate and the magnetic recording layer. A second underlayer having a bcc structure and a (112) crystal texture is also disposed between the magnetic recording layer and the first underlayer. In particular, if a (110) Si single crystal substrate is non-oxidized certain metals having fcc structures, such as Ag, Cu, Al, and Au and fcc derivative structures, such L1. sub. 0 and L1. sub. 2 structures, can be epitaxially grown on the Si surface. While the one unit cell to one unit cell lattice match between fcc Ag and A4 (diamond) Si is quite poor, multiples of the Ag unit cell distance fit very well on the Si surface.
Oka Elementary School Huntington Beach CA 1981-1986, Courreges Elementary School Fountain Valley CA 1984-1985, Talbert Middle School Huntington Beach CA 1986-1989, Thurston Middle School Laguna Beach CA 1987-1987