RESEARCH
AREAS
Applied
and Computational Mathematics, Computational Fluid Dynamics and
Rheology of
Complex Fluids, Kinetic Theory, Continuum Mechanics, Computational
Biomechanics, Biomaterials and Biofluids, Cell dynamics, Materials Science
EDUCATION
Ph.D, Mathematics,
The Ohio State University, Columbus, Ohio, 1991
MS, Mathematics, The
Ohio State University, Columbus, Ohio, 1988
BS, Mathematics,
Nankai University, Tianjin, P. R. China, 1982
PROFESSIONAL
EMPLOYMENT
2003-Present, Professor, Department of Mathematics, Florida State University
2004-2007, Director of Applied and Computational Mathematics Program, Florida State University (FSU)
2001-2003,
Associate
Professor, Department of Mathematics, Florida State University
1/1999-5/1999, Visiting
Associate Professor, Department of Mathematics, The University of
North
Carolina at Chapel Hill (UNC-CH)
1991-2001,
Assistant
Professor, Associate Professor, Department of Mathematical Sciences, Indiana
University-Purdue
University Indianapolis
1/1990-4/1990, Research Associate, CNLS, Los Alamos National Lab
GUEST APPOINTMENT
2005-Present, S. S. Chern Professor, Nankai University, Tianjin, P. R. China
ACTIVE
RESEARCH GRANT
1. 9/1/2006-8/31/2009,
NSF-DMS, PI.
2.
9/1/2006-8/31/2009,
NSF-DMS, Co-PI.
3.
12/1/2007-11/30/2010,
AFOSR, PI.
4.
9/1/02007-8/31/2008, NSF-SCREMS, PI.
PUBLICATIONS
1.
M. G.
Forest and Q. Wang, ``Change-of-Type Behavior in Viscoelastic Slender Jet
Models'', Theoretical and Computational Fluid Dynamics, 2 (1990), pp. 1-25.
2.
S. E. Bechtel, M. G. Forest, and Q.
Wang, `` Non-isothermal Modeling of Fiber Spinning'', Recent Advances in
Non-Newtonian Flows, edited by D. A. Siginer, AMD-Vol. 153, FED-Vol. 141, ASME,
New York, 1992, pp. 37-48.
3.
M. G. Forest and Q. Wang, ``Dynamics of Viscoelastic Slender Jets'', Siam
Journal on Applied Math, 54 (4) (1994), pp. 996-1033.
4.
M. G. Forest and Q. Wang, ``Numerical Simulation of Nonisothermal Fiber
Spinning Processes'', Recent Advances In Non-Newtonian Flows, edited by G. C.
Vradis and D. A. Signer, FED-Vol 179, ASME, New York, 1994, pp. 11-21.
5.
Q. Wang, M. G. Forest, and S. E. Bechtel, ``1-D models of Thin Filaments
of Polymeric Liquid Crystals'', Developments in Non-Newtonian Flows, edited by
D. A. Signer and S. E. Bechtel, AMD-Vol 191, FED-Vol 206, ASME, New York, 1994,
pp. 109-118.
6.
Q. Wang, M. G. Forest, and S. E. Bechtel, ``Modeling Onset of Failure in
Polymeric Liquid Filaments '', Developments in Non-Newtonian Flows, edited by D.
A. Signer and S. E. Bechtel, AMD-Vol 191, FED-Vol 206, ASME, New York, 1994, pp.
97-108.
7.
Q. Wang, ``On a 1-D Thin Filament Model for Liquid Crystal Polymers'',
Proceedings of the 14th Imacs World Congress, edited by W. F. Ames, Georgia
Tech, July 11-15, 1994, pp. 986-988.
8.
Q. Wang,
``Interfacial Instability in Core-Annular Johnson-Segalman Flows'', Developments
in Non-Newtonian Flows, edited by D. A. Signer and H. P. Wang, FED-Vol 231 MD-Vol
66, ASME, New York, 1995, pp. 53-63.
9.
Q. Wang, S. E Bechtel and M. G. Forest, ``Modeling and Computation of the
Onset of Failure in Polymeric Liquid Filaments'', Journal of Non-Newtonian Fluid
Mechanics, 58 (1995), pp. 97-129.
10.
Q. Wang, ``Stability of Thin Filament Flows of Polymeric Liquid
Crystals'', Proceedings of ICIAM 95, Hamburg, Germany, July 4-7, 1995.
11.
Q. Wang, ``Couette Flows of Liquid Crystal Polymers'', Rheology and Fluid
Mechanics of Nonlinear Materials, edited by D. A. Siginer and S. G. Advani, AMD-Vol.
217, ASME, New York, 1996, pp. 109-122.
12.
M. G. Forest, Q. Wang, and S. E. Bechtel, ``1-D Models for Thin Filaments
of Liquid Crystalline Polymers: Coupling of Orientation and Flow in the
Stability of Simple Solutions'', Physica D 99 (4) (1997), pp. 527-554.
13.
M. G. Forest, Q. Wang, and S. E. Bechtel, ``1 Dimensional Isothermal
Spinning Models for Liquid Crystalline Polymer Fibers'', Journal of Rheology 41
(1997), pp. 821-850.
14.
Q. Wang, ``Comparative Studies on Closure Approximations in Flows of
Liquid Crystal Polymers. I. Elongational Flows'', Journal of Non-Newtonian Fluid
Mechanics 72 (1997), pp. 141-162.
15.
Q. Wang, ``Comparative Studies on Closure Approximations in Flows of
Liquid Crystal Polymers. II. Fiber Flows'', Journal of Non-Newtonian Fluid
Mechanics 72 (1997), pp. 163-185.
16.
Q. Wang,
``Biaxial Steady States and Their Stability in Shear Flows of Liquid Crystal
Polymers'', Journal of Rheology 41 (1997), pp. 943-970.
17.
M. G. Forest and Q. Wang, ``The
Role of Microstructure in Taming the Raleigh Instability of Cylindrical Jets'',
Physica D 123 (1998), pp. 161-182.
18.
M. G. Forest and Q. Wang, ``Anisotropic
microstructure-induced reduction of the Raleigh instability for liquid
crystalline polymers'', Physics Letters A 245 (1998), pp. 518-526.
19.
Q. Wang, M. G. Forest and H. Zhou, ``Dynamics of free surface and pure
elongational flows of liquid crystalline polymers'', Rheology and Fluid
Mechanics of Nonlinear Materials, edited by D. A. Siginer and D. DeKee, FED-Vol
246, MD-Vol 81, ASME, New York, 1998, pp. 101-114.
20.
S. E. Bechtel, M. G. Forest, Q. Wang and Hong Zhou,
``Free Surface Viscoelastic Fibers and Jets'', Advances in the Flow and
Rheology of Non-Newtonian Fluids Parts A and B, Elsevier Science, 1999, pp.
1069-1116.
21.
Q. Wang and M. G. Forest, ``Near-equilibrium dynamics of Doi models for
liquid crystal polymer flows: catastrophic
and regularized behavior'', Journal of Non-Newtonian Fluid Mechanics 83 (1999),
pp. 131-150.
22.
M. G. Forest, H. Zhou and Q. Wang, `` A model study of the spinning of
thermotropic liquid crystalline polymers: fiber performance predictions and
bounds on throughput'', Advances in Polymer Technology 18 (4) (1999), pp.
314-335.
23.
M. G. Forest, Q. Wang and H. Zhou, ``Nonhomogeneous patterns and core
defects in elongational flows of liquid crystalline polymers'', Journal of
Rheology 43 (6) (1999), pp. 1573-1583.
24.
M. G.
Forest, Q. Wang and H. Zhou, ``Homogeneous pattern selection and director
instabilities of nematic liquid crystal polymers induced by elongational
flows'', Physics of Fluids, 12 (3) (2000), pp. 490-498.
25.
Q. Wang, ``Special cylindrical free surface jets of liquid crystalline
polymers and their stability'', Journal of Non-Newtonian Fluid Mechanics, 90
(2000), pp. 25-45.
26.
M. G. Forest, H. Zhou and Q. Wang, ``Thermotropic
liquid crystalline polymer fibers'', Siam Journal on Applied Math, 60(4) (2000),
pp. 1177-1204.
27.
Q. Wang, ``Illposedness in
thermomechanically consistent constrained theory for materials with prescribed
temperature-dependent density'' Journal of Applied Mechanics, 67 (2000), pp.
29-32.
28.
M. G. Forest, Q. Wang and H. Zhou, ``Exact
banded patterns from a Doi-Marrucci-Greco model of nematic liquid crystal
polymers'', Physical Review E, 61 (6) (2000), pp. 6655-6662.
29.
M. G. Forest, Q. Wang and H. Zhou, ``Methods for the exact construction
of mesoscale spatial structures in liquid crystal polymers'', Physica D 152-152
(2001), pp. 288-309.
30. M. G. Forest, Q. Wang and H.
Zhou, ``On the phase diagram for discotic liquid crystals in simple elongational
flows'', Liquid Crystals 28(5) (2001), pp. 717-720.
31.
Q. Wang,
``The role of Surface Elasticity in Capillary Instability of Cylindrical Jets of
Liquid Crystalline Polymers'', Journal of Non-Newtonian Fluid Mechanics 100
(1-3) (2001), pp. 97-114.
32.
Q. Wang, ``A hydrodynamic theory of nematic liquid crystalline polymers
of different configurations'', Journal of Chemical Physics, 116 (2002) pp.
9120-9136,
33.
Qi Wang, Weinan E, Chun Liu, and Pingwen Zhang, `` Kinetic theories for
flows of nonhomogeneous rodlike liquid crystalline polymers with a nonlocal
intermolecular potential'', Physical Review E, 65(5) (2002), pp. 0515041-0515047.
34.
M. G. Forest and Q. Wang, `` Monodomain response of finite-aspect-ratio
macromolecules in shear and related linear flows'', Rheological Acta 42 (2003),
20-46.
35.
M. G. Forest, Q. Wang, and R. Zhou, ``Symmetries of the Doi kinetic
theory for nematic polymers of finite and infinite aspect ratio:
at rest and in linear flows,'' Physical Review E 66(3) (2003), P031712.
36.
M. G. Forest, Q. Wang, and R. Zhou, ``Explicit flow-aligned orientational
distribution function for dilute nematic polymers in weak shear,’’ RHEOLOGY
AND FLUID MECHANICS OF NONLINEAR MATERIALS, edited by D. A. Siginer, D. DeKee,
and S. Bakhatiyarov, ASME, New York, 2002.
37.
M. G. Forest, Q. Wang, and R. Zhou, ``Full tensor alignment criteria for
sheared nematic polymers'', J. of Rheology 47(1) (2003), pp. 105-127.
38.
S. E.
Bechtel, M. G. Forest, F. J. Rooney, Q. Wang, ``Thermal Expansion Models of
Viscous Fluids Based on Limits of Free Energy'', Physics of Fluids,
15(9) (2003), 00.
2681-2693.
39.
Q. Wang, M. G. Forest and R. Zhou, ``A hydrodynamic theory for solutions
of nonhomogeneous nematic liquid crystalline polymers with density variations,''
J. of Fluid Engineering, 126 (2004), pp180-188.
40.
M. G. Forest, Q. Wang, and R. Zhou, ``The weak shear phase diagram for
nematic polymers,'' Rheological Acta, 43(1) (2004), pp. 17-37.
41.
M. G. Forest, R. Zhou, and Q. Wang, "Scaling behavior of kinetic
orientational distributions for dilute nematic polymers in weak shear," J.
Non-Newtonian Fluid Mechanics, 116 (2004), pp. 183-204.
42.
M. G. Forest, Q. Wang, H. Zhou, R. Zhou, "Scaling Structure scaling
properties of confined nematic polymers in plane Couette cells: the weak flow
limit," J. Rheology, 48(1) (2004), pp.175-192.
43.
M. C. Calderer, M. G. Forest, and Q. Wang, "Kinetic Theories and
Mesoscopic Models for Solutions of Nonhomogeneous Liquid Crystal Polymers,"
J. Non-Newtonain Fluid Mechanics, 120 (2004), pp. 69-78.
44.
M. G. Forest, Q. Wang, R. Zhou, and E. Coate, "Monodomain response
of arbitrary aspect ratio nematic polymers in general linear planar flows,"
J of Non-Newtonian Fluid Mechanics, 118(1)
(2004), pp. 17-31.
45.
S. E. Bechtel, F. Rooney, and Q. Wang, "A thermodynamic definition
of pressure for incompressible viscous fluids," International J. of
Engineering Science, (42) 19-20 (2004), pp. 1987-1994.
46.
M. G.
Forest, Q. Wang, and R. Zhou, The flow-phase diagram of Doi-Hess theory for
sheared nematic polymers II: finite
shear rates, Rheological Acta, Vol
44(1) (2004), pp. 80-93.
47.
X. Zheng, M. G. Forest, R. Zhou, and Q. Wang, "Likelohood and
expected -time statistica of monodomain attractors in sheared discotic and
rodlike nematic polymers," Rheological Acta, Vol 44(3) (2005), pp. 219-234.
48.
S. E. Bechtel, M. G. Forest,
F. Rooney, and Q. Wang, "Investigation of simplified thermal expansion
models compressible Newtonian Fluids applied to nonisothermal plane Couette and
Poisuille flows," Physics of Fluids, in press 2005.
49.
M. G. Forest, R. Zhou, and Q. Wang, "Chaotic boundaries of nematic
polymers in mixed shear and extensional flows," Physical Review Letters, 93
(8) (2004), pp. 088301-088305.
50.
X. Zheng, M. G. Forest, R. Lipton, R Zhou, Q. Wang, “Exact scaling laws
for electrical conductivity properties of nematic polymer nano-composite
monodomains,” Advanced Functional Materials, Vol. 15 (4) (2005), pp. 627-638.
51.
R. Zhou, M. G. Forest, and Q. Wang, “Kinetic structure
simulations of nematic polymers in plane Couette cells, I: The algorithm and
benchmarks,” SIAM MMS, Vol. 3 (4), pp.
853-870, 2005.
52.
H. Zhou, M. G. Forest, X. Zheng, Q. Wang, R. Lipton, “Extension-enhanced conductivity of liquid
crystalline polymer nano-composites,” Macromolecular Symposia, 228 (2005), pp.
81-89.
53.
M. G. Forest, R. Zhou, Qi Wang, X. Zheng, R. Lipton, “ Anisotropy
and Heterogeneity of Nematic Polymer Nano-Composite Film Properties,” IMA
Volume 141, Moldeing of Soft Matter, pp. 85-98, 2005.
54.
H. Zhou, H. Wang, M. G. Forest, and Q. Wang, “A new proof on
uniaxial equilibria of Smoluchowski equation for rodlike nematic polymers,”
Nonlinearity (18) (2005), pp. 2815-2825
55. M. G. Forest, R. Zhou, and Q. Wang, Kinetic structure simulations of nematic polymers in plane Couette cells, II. SIAM MMS, (4) (2005), pp. 1280-1304.
56.
M. G. Forest, R. Zhou, Qi Wang,
X. Zheng, R. Lipton, “Anisotropy and dynamics ranges in effective properties
of sheared nematic polymer nano-composites,” Advanced Functional Materials,
(15)(2005), pp. 2029-2035.
57. Q. Wang, S. Sircar, and H.
Zhou, “Steady state solutions of the Smoluchowski equation for nematic
polymers under imposed fields,” Communications in Mathematical Sciences, 4(3)
(2005), 605-620.
58.
M. G. Forest and Q. Wang, Hydrodynamic theories for blends of flexible
polymer and nematic polymers, Physical Review E, 72 (2005), 041805.
59.
Z. Cui, M. G. Forest, and Q. Wang, "On weak plane Couette and
Poiseuille flows of rigid rod and platelet ensembles," Siam Journal on
Applied Math, 66(4) (2006), pp. 1227-1260.
60.
Z. Cui, M. C. Calderer, Q. Wang, "A kinetic theory for flows of
cholesteric liquid crystal polymers," Discrete and Continuous Dynamical
Systems-Series B, 6(2) (2006), pp 291-310.
61.
Z. Cui and Q. Wang, "A continuum mechanics model for flows of chiral
nematic polymers and permeation flows," J. of Non-Newtonian Fluid
Mechanics, 128(1) (2006), 44-61.
62.
G. Ji, Q. Wang, P. Zhang, H. Zhou, “Equilibrium solution of
Smoluchowski equations of an extended polar nematic liquid crystals,” Physics
of Fluids 18 (2006), 1-17.
63. M. G. Forest, S. Sircar, Q. Wang, and R. Zhou, “Monodomain dynamics for rigid rod & platelet suspensions in strongly coupled coplanar linear flow and magnetic fields II: Kinetic theory “, Physics of Fluids, 18 (10) 2006, pp. 103102 (1-14).
64.
A.
Kataoka, B. C. W. Tanner, J. M. Macpherson, X. Xu, Q. Wang, M. Reginier, T.
Daniel and Chase P. B. Chase, “Spatially explicit, nanomechanical
models of the muscle half sarcomere: Implications for mechanical tuning in
atrophy and fatigue,” Acta Astronautica, 60 (2) (2007), pp 111-118.
65.
H. Zhou, H. Wang, Q. Wang, and M. G. forest, “Characterization of
stable kinetic equilibria of rigid, dipolar rod ensembles for coupled
dipole-dipole and excluded-volume potentials,” Nonlinearity, 20 (2007),
27-297.
66.
M. G. Forest, Q. Wang, and R. Zhou,
“Monodomain dynamics for rigid rod & platelet suspensions in
strongly coupled coplanar linear flow and magnetic,” J. Rheology, 51 (2007),
1-21.
67.
M. G. Forest, R. Zhou, and Q. Wang, “Nano-rod
suspension flows:
a 2D Smoluchowski-Navier-Stokes solver”, International Journal of
Numerical Analysis and modeling, 4 (3-4) (2007), pp. 478-488.
68.
H. Zhou, H. Wang, and Q. Wang, “Nonparallel solutions of extended
nematic polymers under an external field, Discrete and Continuous Dynamical
Systems-Series B, 7 (4) (2007), pp. 907-929.
69.
H.
Zhou, M. G. forest, and Q. Wang, “Anchoring-induced texture & flow
feedback of nematic polymers in shear cells,” to appear Discrete Dynamical
Systems Series B, 8 (3) (2007), pp. 707-733.
70.
M.
G. Forest, R. Zhou, and Q. Wang, “Spatial coherence, rheological chaotic
dynamics, and hydrodynamic feedback of nematic polymers in plate-driven
shear,” Siam Journal on Multiscale Modeling and Simulation, MMS, 6 (3) (2007),
pp. 858-878.
71.
G Ji, Q. Wang, P. Zhang, H. Wang, and H. Zhou, “Steady states of
homogeneous, rigid, extended nematic polymers under imposed magnetic fields and
their stability,” in press Communication in Mathematical Sciences, 5(4)
(2007), pp. 917-950.
72.
T. Y. Zhang, N. Cogan, and Q. Wang, “Phase Field Models for Biofilms.
II. 2-D Numerical Simulations of Biofilm-Flow Interaction,”
Communications in Computational Physics, to
appear 2008.
73. Xiaofeng Yang, Zhenlu Cui, M. G. Forest, Qi Wang, and Ruhai Zhou,
Dimensional Robustness & Instability of Sheared Semi-dilute, Nano-rod
Dispersions, submitted to Siam Journal on Multiscale Modeling and Simulation, to
appear 2008.
74. T.
Y. Zhang, N. Cogan, and Q. Wang, “Phase Field Models for Biofilms. I. Theory
and 1-D simulations,” Siam Journal on Applied Math., to appear 2008.
BOOK CHAPTERS
75.
Q. Wang, “Introduction to Constitutive Modeling of Macromolecular,” DYNAMICS IN MODELS OF COARSENING, COAGULATION, CONDENSATION AND QUANTIZATION, Lecture Notes Series, Institute for Mathematical Sciences, National University of Singapore, edited by W. Bao and J. Liu, World Scientific, Singapore, 2007.76. Q.
Wang, “Modeling of polymeric liquids”, to appear in a book on Complex
Fluids, edited by T Li, Contemporary Math., 2008.
SPECIAL ISSUES and BOOKS EDITED
E
DITORIAL BOARD:1. Discrete and Continuous Dynamical Systems- Series B.