Kunal Shah, Ph.D.
**** * **** ***, # *-*** Phone: 971-***-****
Kennewick, WA 99336 Email: *****.*****@*****.***
Seeking a job solving cutting edge technological problems. Interests
include low-k/high-k dielectric materials, material design of nanostructure
materials; predicting the electronic structure, mechanical, thermal,
chemical properties of materials; next generation electronic nanodevices.
EDUCATION
2005 Ph.D., Materials Science & Engineering, University of Florida,
Gainesville, FL
Advisor: Dr. Susan B. Sinnott
2003 M.S., Materials Science & Engineering, University of Florida,
Gainesville, FL
2000 B.E., Polymer Science, L.D. College of Engineering, Gujarat
University, India
PROFESSIONAL EXPERIENCE
Research Scientist 2009-
Present Pacific Northwest National Lab (PNNL), Richland, WA
. Leading efforts to estimate defect formation energies, ionization
potentials, electron mobilities, carrier life time to identify new
candidate semiconducting gamma radiation detection materials using
materials informatics
. Guiding efforts for optical property based band gap estimation methods
for semiconducting radiation detection materials
. Lead scientist for multiscale modeling to deliver toolkit for
lightweight alloys across multiple length scales
Sr. Research Scientist 2005-
2008 Intel Corp., Portland, OR
. Directed efforts to predict dielectric properties of low-k/high-k
dielectric materials of microelectronic devices (quantum modeling)
. Guided activities to identify failure mechanism (prevent outgassing)
of low-k dielectric polymer materials interfaces
. Led efforts to predict mechanical properties (stress-strain behavior,
energy release rate, tensile strength, fracture properties) and
thermal properties (coefficient of thermal expansion during thermal
cycling) of low-k dielectric polymeric materials of microelectronic
device (using large scale atomistic modeling)
. Conducted project to predict adhesion properties of interfaces of low-
k/high-k dielectric materials interfaces of microelectronic devices
(using quantum and large scale atomistic modeling)
. Lead scientist for universal force-field development for
microelectronic device materials application to run large scale
atomistic modeling simulations
. Senior scientist for infrastructure development of large atomistic
simulations and quantum simulations
. Provided guidance for improved parallelization to run large scale
atomistic simulations on 1000s of nodes (billions of atoms)
. Managed a project to achieve polymer dielectric as low as k < 2.3
(prediction and experimental results) by polymer material design
Graduate Research Assistant 2000-2005
Department of Materials Science & Engineering, University of Florida, FL
Computational modeling studies of materials
. Developed Micelle-MD, Molecular Dynamics (MD) simulation code to study
surfactants/micelle properties and behavior in aqueous media and at
solid/liquid interface to model Chemical Mechanical Polishing slurry.
Ported at nanoHUB Purdue University
. Parallelized Micelle-MD with different schemes to distribute workload
over multiple processors. Analyzing performance and comparing
performance of physical and virtual machines
. Led efforts to study morphology, structure and mechanical properties
of self-assembled micelle in aqueous media and at interface
(silica/graphite surfaces)
Process Engineer (Student Intern) 1999
Process Engineer, Kabra Extrusion Technik Inc., India (A German
collaboration)
. Worked as an intern at the assembly line of polymer products
SKILLS
Technical
. Semiconductor Device Physics: Carrier transport, bandstructure
calculations (geometry and material dependent ), role of high-k on
bandstructure to enable process development of 45, 32 nm scale devices
. Quantum Simulations: Density functional method, polarizability for
dielectric constant of materials, quantum effects in nanodevices, band
structure calculations (GAUSSIAN, VASP, WIEN2K)
. MD Simulations: MD simulations method with atomistic approach, force
field development and implementation, charged interaction with Ewald
summation, statistical mechanics. (Micelle-MD, LAMMPS, NAMD, GROMACS)
. Monte Carlo Simulations: Implementation of Monte Carlo simulation
method to study energy minimization and equilibrium of the system
. Continuum Simulations: Merging Continuum simulation method with MD
simulation method involving molecular mechanics and macroscopic thermo-
fluid transport
. Programming Skills:
o Involved with scientific programming for more than 8 years with
the use of C, C++ and FORTRAN
o Parallel Programming with MPI: MPI (Message Passing Interface)
libraries, parallel algorithms, distributing workload schemes -
modified atom decomposition and spatial decomposition,
performance analysis
Leadership
. Manage interns and junior engineers at PNNL
. Responsible for knowledge transfer and design of experiments from
computational simulations predictions
. Managed a computational/experimental group of 5 people at Intel Corp.
. Professional affiliation: American Chemical Society (2006- present)
PATENT
USPTO #200********, "Polymer interlayer dielectric and passivation
materials for microelectronic device", 2009
PUBLICATIONS
. "Morphology of surfactant aggregates in aqueous media: Molecular
Dynamics simulations", Patrick Y. Chiu, Kunal Shah, Susan B. Sinnott,
submitted for review
. "Identification of new candidate semiconducting gamma radiation
detection materials via informatics-based property maps", Kim F.
Ferris, Kunal J. Shah, Dumont M. Jones, invited paper, IEEE Nuclear
Science Symposium, 2010
. "Assessing optical property-based band gap estimation methods for
semiconducting radiation detection materials", Timothy B. Seifert, Kim
F. Ferris, Kunal J. Shah, Dumont B. Jones, invited paper, IEEE Nuclear
Science Symposium, 2010
. "Nanoindentation of surfactant aggregates", Patrick Y. Chiu, Kunal
Shah, Susan B. Sinnott, Journal of Colloid and Interface Science, 349
(1), 196-204, 2010
. Internal technical reports, Intel Corp.
o "Solution of outgassing and failure of polymer interlayer
dielectric and passivation materials interfaces for next
generation microelectronic devices ", 2008
o "Improvement strategies of adhesion and mechanical properties of
polymer interlayer dielectric and passivation materials for next
generation microelectronic devices", 2007
o "Development of methodologies to predict stress vs. strain
curves and failure resistance of materials for next generation
microelectronic devices", 2006
. "Comparison of morphology and mechanical properties of surfactant
aggregates at water-silica and water-graphite interfaces from
molecular dynamics simulations", Kunal Shah, Patrick Y. Chiu, Susan B.
Sinnott, Journal of Colloid and Interface Science, 296 (1), 342-349,
2006
. "Micelle", Kunal Shah, Patrick Y. Chiu, Jing Xu, Susan B. Sinnott,
DOI: 10254/nanohub-r1653.2. (DOI: 10254/nanohub-r1653.2), 2006
. "Study of properties and behavior of surfactants and micelles at the
solid/liquid interface using molecular dynamics simulations", Kunal
Shah, Ph.D. dissertation, University of Florida, 2005
. "Morphology and mechanical properties of surfactant aggregates at
water-silica interfaces: Molecular Dynamics simulations", Kunal Shah,
Patrick Y. Chiu, Mayank Jain, Jos Fortes, Brij Moudgil, Susan B.
Sinnott, Langmuir, 21 (12), 5337 -5342, 2005
REFERENCES
Available upon requests