List of Publications
(Reprints of most papers available upon request)
Book
1.
Igor Tsukerman, Computational
Methods for Nanoscale Applications: Particles, Plasmons, and Waves, Springer, Nanostructure
Science and Technology series, 2007.
Book Chapters
2.
Masha Sosonkina and Igor Tsukerman, Parallel
solvers for flexible approximation schemes in multiparticle
simulation, Lecture Notes in Computer
Science, Springer: Berlin / Heidelberg, vol. 3991 (eds. Vassil
N. Alexandrov, Geert Dick
van Albada, Peter M.A. Sloot,
Jack Dongarra), pp. 54−62, 2006. ISBN: 3-540-34379-2, ISSN: 0302-9743, DOI:
10.1007/11758501_12.
3.
Achim Basermann, Igor Tsukerman, Parallel Generalized
Finite Element Method for Magnetic Multiparticle
Problems, Springer Series: Lecture Notes in Computational
Science and Engineering, LNCS 3402, M. Daydé
et al. (Eds.), pp. 325–339, 2005. http://www.springerlink.com/index/10.1007/11403937_26
4.
Igor Tsukerman, Toward Generalized Finite Element
Difference Methods for Electro- and Magnetostatics, Springer Series: Mathematics in Industry,
Vol. 4, W.H.A. Schilders,
Jan W. ter Maten, S.H.M.J. Houben, (Eds.), pp. 58−77, 2004. ISBN: 3-540-21372-4.
5.
Th.
Apel, M. Berzins, P.K. Jimack, G. Kunert, Alexander Plaks, Igor Tsukerman, M. Walkley,
Mesh Shape and Anisotropic Elements: Theory and Practice, in The Mathematics of Finite Elements and Applications X, J.R. Whiteman (ed.), Elsevier: Amsterdam,
2000, pp. 367-376.
6.
Adalbert Konrad, I.A.
Tsukerman, Applications of Integral and Differential Methods to Electromagnetic
Field Problems, in: Finite Elements, Electromagnetics
and Design,
S.R.H. Hoole (ed.), Elsevier: Amsterdam, 1995.
Book Review
7.
Igor Tsukerman, Book review: A. Bondeson,
T. Rylander and P. Ingelström,
Computational Electromagnetics, Springer, 2005. SIAM Review, vol. 49, No. 1,
pp. 173–175, 2007.
Papers
recently accepted
8.
Jianhua
Dai, Igor Tsukerman, František Čajko,
and Mark I. Stockman, Electrodynamic effects in plasmonic nanolenses, Phys. Rev. B, 2008 (to appear).
9.
František Čajko and Igor Tsukerman, Flexible approximation
schemes for wave refraction in negative index materials, IEEE Trans.
Magn., Vol. 44,
April 2008 (to appear).
10.
Igor Tsukerman and František Čajko, Photonic band structure computation using
FLAME, IEEE Trans.
Magn., Vol. 44, April 2008 (to appear).
11.
Jianhua
Dai, Igor Tsukerman, Flexible approximation schemes with adaptive grid
refinement,
IEEE
Trans. Magn., Vol. 44,
April 2008 (to appear).
12.
Igor Tsukerman, Can
negative-index materials be homogeneous?
Paper 6987-65,Photonics Europe, April 2008.
13.
František Čajko, Igor Tsukerman, Fritz Keilmann,
and Rainer Hillenbrand, Finite
element electrodynamic simulations in near-field
infrared microscopy, Paper 6988-22, Photonics
Europe, April 2008.
Papers
recently submitted or in preparation
14.
Igor Tsukerman, František Čajko, Jianhua Dai, Electrodynamic analysis of plasmonic
enhancement, invited paper for NanoBiotechnology
(in preparation).
15.
Igor Tsukerman, Negative refraction and the minimum
lattice cell size, submitted.
16.
Igor Tsukerman, Negative refraction requires strong inhomogeneity, submitted.
http://arxiv.org/abs/0710.0011
17.
M. Brehm, F. Keilmann, F. Čajko and I.
Tsukerman, Measurement and simulation of back-scattering spectra in apertureless infrared near-field microscopy (in
preparation).
18.
M. Sosonkina, I. Tsukerman, E. Ivanova, S. Voskoboynikov,
Iterative methods for flexible approximation schemes in multiparticle
simulation (in preparation).
Refereed Journal Publications
19.
D. Mehtani, N. Lee, R.D. Hartschuh, A. Kisliuk, M.D.
Foster, A.P. Sokolov, F. Čajko
and I. Tsukerman, Optical properties and enhancement factors of the tips for apertureless near-field optics, Journal of Optics A: Pure and Applied
Optics, vol. 8, S183−S190, 2006, doi:10.1088/1464-4258/8/4/S19.
20.
J. Dai, I. Tsukerman, A. Rubinstein, S. Sherman, New
computational models for electrostatics of macromolecules in solvents, IEEE Trans.
Magn., Vol. 43, No. 4, pp. 1217−1220, 2007.
doi:10.1109/TMAG.2006.890959.
21.
H. Pinheiro, J.P. Webb, I. Tsukerman, Flexible local
approximation models for wave scattering in photonic crystal devices, IEEE Trans.
Magn., Vol. 43, No. 4, pp. 1321−1324, 2007.
doi: 0.1109/TMAG.2006.891004.
22. Igor
Tsukerman, A class of difference schemes with flexible local approximation, The Journal of Computational Physics, vol. 211, No. 2, January 2006, pp. 659−699, doi:10.1016/j.jcp.2005.06.011
23. Igor
Tsukerman, Electromagnetic applications of a new finite-difference calculus, IEEE Trans.
Magn., vol. 41, No. 7, pp. 2206−2225, 2005.
24. Igor
Tsukerman, Flexible local approximation method for electro- and magnetostatics, IEEE Trans. Magn., v. 40, No. 2, pp. 941–944, 2004.
25.
Igor Tsukerman, Efficient computation of long-range
electromagnetic interactions without Fourier Transforms, IEEE Trans. Magn., v. 40, No. 4, pp. 2158–2160, 2004.
26.
Derek Halverson, Gary Friedman, Igor Tsukerman, Local approximation
matching for open boundary problems, IEEE Trans.
Magn., v. 40, No. 4, pp. 2152−2154, 2004.
27.
Igor Tsukerman, Spurious numerical solutions in
electromagnetic resonance problems, IEEE Trans.
Magn.,
vol. 39, No. 3, pp. 1405–1408, 2003.
28.
Igor Tsukerman, Symbolic algebra as a tool for understanding
edge elements, IEEE Trans.
Magn.,
vol. 39, No. 3, pp.1111–1114, 2003.
29.
Igor Tsukerman, General tangentially continuous vector
elements, IEEE Trans.
Magn.,
vol. 39, No. 3, pp. 1215–1218, 2003.
30.
Alexander Plaks, Igor
Tsukerman, Gary Friedman, Benjamin Yellen,
Generalized Finite Element Method for magnetized nanoparticles,
IEEE Trans.
Magn.,
vol. 39, No. 3, pp. 1436–1439, 2003.
31.
Igor
Tsukerman, Finite element
differential-algebraic systems for eddy current problems, Numerical Algorithms, vol. 31, pp.319–335,
2002.
32.
Leonid Proekt, Igor
Tsukerman, Method of overlapping
patches for electromagnetic computation, IEEE Trans.
Magn.,
vol. 38, No. 2, pp.741−744, 2002.
33.
Leonid Proekt, Sergey Yuferev, Igor Tsukerman, Nathan Ida, Method of overlapping patches for electromagnetic
computation near imperfectly conducting cusps and edges, IEEE Trans. Magn., vol. 38, No. 2, pp.649−652,
2002.
34.
I.A. Tsukerman, V.V. Dombrovski, Finite element simulation of time-dependent electromagnetic
fields in the end zone of superconducting motors, IEEE Trans. Magn., vol. 38, No.
2, pp.1265−1268, 2002.
35.
Leonid
B. Proekt and Igor Tsukerman, Accuracy of the finite
element solution of a wave problem with a curved perfectly matched layer, IEEE Trans.
Magn., vol. 37, No. 5, Part 1, pp. 3246–3250, 2001.
36.
Alexander
Plaks, Igor Tsukerman, S. Painchaud,
and L. Tabarovsky, Multigrid
methods for open boundary problems in geophysics, IEEE Trans.
Magn., vol. 36, No. 4, p.633−636, 2000.
37.
Igor
Tsukerman and Alexander Plaks, Hierarchical basis
multilevel preconditioners for 3D magnetostatic
problems, IEEE
Trans. Magn.,
vol. 35, No.3, pp.1143−1146,
1999.
38.
Igor
Tsukerman and Alexander Plaks, Refinement strategies and approximation
errors for tetrahedral elements, IEEE Trans. Magn., vol. 35, No. 3, pp.1342−1345,
1999.
39.
I.A.Tsukerman, Alexander Plaks, H.N. Bertram, Multigrid
methods for computation of magnetostatic fields in
magnetic recording problems, J.
Applied Phys., vol. 83, No. 11,
pp.6344−6346, 1998.
40.
I.A.
Tsukerman, Alexander Plaks, Comparison of accuracy
criteria for approximation of conservative fields on tetrahedra, IEEE Trans. Magn., vol. 34, pp.3252−3255,
1998.
41.
I.A.
Tsukerman, A general accuracy criterion for finite element approximation, IEEE Trans.
Magn.,
vol. 34, pp.2425−2428, 1998.
42.
I.A.
Tsukerman, Approximation of conservative
fields and the element ‘edge shape matrix’, IEEE Trans.
Magn.,
vol. 34, pp.3248−3251, 1998.
43.
I.A.
Tsukerman, Stability of the moment
method in electromagnetic problems, IEEE Trans. Magn., vol. 33, No. 2, pp.1402−1405, 1997.
44.
I.A.
Tsukerman, Accurate computation of
‘ripple solutions’ on moving finite element meshes, IEEE Trans.
Magn., vol. 31,
No. 3, pp.1472-1475, 1995.
45.
I.A.
Tsukerman, A stability paradox for time-stepping schemes in coupled
field-circuit problems, IEEE Trans. Magn., vol. 31, No. 3, pp.1857−1860, 1995.
46.
I.A.
Tsukerman, J.D. Lavers, A. Konrad, Using
complementary formulations for accurate computations of magnetostatic
fields and forces in a synchronous motor, IEEE Trans.
Magn., vol. 30,
No. 5, pp.3479−3482, 1994.
47.
I.A.
Tsukerman, Application of multilevel preconditioners
to finite element magnetostatic problems, IEEE Trans.
Magn., vol. 30,
No. 5, pp.3562−3565, 1994.
48.
I.A.
Tsukerman, Overlapping finite elements for problems with movement, IEEE Trans.
Magn., vol. 28,
No. 5, pp.2247−2249, 1992.
49.
I.A.
Tsukerman, A. Konrad, J.D. Lavers, A method for
circuit connections in time-dependent eddy current problems, IEEE Trans.
Magn., vol. 28,
No. 2, pp.1299−1302, 1992.
50.
I.A.
Tsukerman, Fast finite element solvers for problems with magnetic materials, IEEE Trans.
Magn., vol. 29,
No. 6, pp.2365−2367, 1993.
51.
I.A.
Tsukerman, Node and edge element approximation of discontinuous fields and
potentials, IEEE
Trans. Magn.,
vol. 29, No. 6, pp.2368−2370,
1993.
52.
Adalbert Konrad and
I.A. Tsukerman, Comparison of high- and low-frequency electromagnetic field
analysis, J. Phys. III France, vol. 3, pp.363−371, 1993.
53.
I.A.
Tsukerman, A. Konrad, G. Bedrosian
and M.V.K. Chari, A survey of numerical methods for
transient eddy current problems, IEEE Trans. Magn., vol. 29, No. 2, pp.1711−1716, 1993.
54.
I.A.
Tsukerman, A. Konrad, G. Meunier
and J.C. Sabonnadiere, Coupled field-circuit
problems: trends and accomplishments, IEEE Trans. Magn., vol. 29, No. 2, pp.1701−1704, 1993.
55.
I.A. Tsukerman, Error estimation for finite element
solutions of the eddy currents problem, COMPEL, 9 (2), pp.83−98, 1990.
56.
S.P. Voskoboinikov, Yu.B. Senichenkov, I.A. Tsukerman,
The rate of convergence of the two‑step gradient descent method, USSR Comp. Maths. and Math. Phys., vol. 23, No. 5, pp.131−133, 1983.
57.
G.M. Khutoretskii, V.D. Varshavskii, I.A. Zuckermann,
Computation and analysis of high‑power cryogenic turbogenerator
rotor heating conditions, Electric
Technology U.S.S.R. No.2, pp.69−75, 1985.
58.
Yu.V. Rakitskii, E.D. Shchukin, V.S. Yushchenko, I.A. Tsukerman, Yu.B.
Suris, A.I. Slutsker,
Mechanism of the formation of energy fluctuation and a method for studying it, Doklady. Physical chemistry: Proceedings of the
Academy of Sciences of the USSR, vol. 285, No. 4, pp.1204−1207,
1985. ISSN: 0012-5016.
59.
Yu.V. Rakitskii, E.B. Belopol'skaya, Yu.P. Kizimovich, I.A. Tsukerman,
Some iterative methods for solution of variational‑difference
analogs of steady‑state field equations, Power Engineering (USSR Academy of Sciences), vol. 24, No. 1, pp.67−76,
1986.
60.
G.M. Khutoretsky, V.D. Varshavsky, I.A. Tsukerman, Computer modelling
of rotor thermal field in large cryoturbogenerator, Power Engineering (USSR Academy of
Sciences), vol. 24, No. 1, pp.151−155, 1986.
61.
G.M.Khutoretsky,
V.D. Varshavsky, I.A. Tsukerman, Computer simulation
and analysis of electromagnetic processes when designing turbine generators
with non‑magnetic rotors, Elektrotekhnika,
No.10, pp.46−50, 1987. [in Russian].
62.
L.P. Boriskina, V.D. Varshavsky, L.A. Efimenko, I.A.
Tsukerman, Application of the finite element method to the computation of the
external magnetic field of electric machines, Elektrichestvo, No.9, pp.56−59, 1987 [in
Russian].
63.
Yu.P. Kizimovich, I.A. Tsukerman, Mathematical modelling of a quasi‑steady electromagnetic field, Power Engineering (USSR Academy of
Sciences), vol. 25, No. 2, pp.55−66, 1987.
64.
Yu.P. Kizimovich, I.A. Tsukerman, Mathematical modelling of a three‑dimensional quasisteady
electromagnetic field in steady‑state and transient regimes by means of
the scalar magnetic potential, Power
Engineering (USSR Academy of Sciences), vol. 26, No. 4, pp.153−158,
1988.
65.
I.A. Tsukerman, Finite‑element approximation of the
two-component vector function in the scalar magnetic potential method, Power Engineering (USSR Academy of
Sciences), vol. 26, No. 2, pp.22−31,1988.
66.
K.S. Demirchyan, Yu.V. Rakitskii, Yu.P. Kizimovich, I.A. Tsukerman,
Calculation of three‑dimensional electromagnetic fields by the scalar
magnetic potential method: numerical techniques and software, Power Engineering (USSR Academy of
Sciences), vol. 26, No. 4, pp.146−152, 1988.
67.
I.A. Tsukerman, On the accuracy
of numerical calculation of eddy currents, Izvestiya Akad. Nauk SSSR. Energetika i transport, No.5,
pp.83−93, 1989 [in Russian].
Papers in
Refereed Conference Proceedings
[*] Asterisk indicates papers that appeared first in
conference proceedings and later extended and published as refereed journal
papers (see above).
68.
M. Sosonkina, I. Tsukerman, E. Ivanova, S. Voskoboynikov,
Iterative solution techniques for flexible approximation schemes in multiparticle simulations,
9th Copper
Mountain Conference on Iterative Methods, April 2006. [*]
69.
J. Dai, I. Tsukerman, A. Rubinstein, S. Sherman, New
electrostatic models and computational methods for macromolecules in solvents, Twelfth Biennial IEEE Conference on
Electromagnetic Field Computation (CEFC 2006), Miami, FL, April 30 −
May 3, 2006. [*]
70.
J. Dai, I. Tsukerman, Flexible difference schemes with
numerical bases for electrostatic particle interactions, Twelfth Biennial IEEE Conference on Electromagnetic Field Computation (CEFC 2006),
Miami, FL, April 30 − May 3, 2006.
71.
H. Pinheiro, J.P. Webb, I.
Tsukerman, Scattering in photonic crystal devices using the Flexible Local
Approximation Method, Twelfth Biennial
IEEE Conference on Electromagnetic Field Computation (CEFC 2006), Miami, FL, April
30 − May 3, 2006. [*]
72.
I. Tsukerman, F. Čajko, A.
Kisliuk, A.P. Sokolov, Design of apertureless tips
with very high plasmon field enhancement, Photonics Europe 2006,
April 2006, Strasbourg, France.
73.
I. Tsukerman, F. Čajko, J. Dai,
Computational electromagnetics: “Plenty of room at
the bottom”, CEM 2006 −
Sixth International Conference on Computation in Electromagnetics,
April 2006, Aachen, Germany.
74.
N. Lee, R.D. Hartschuh, D. Mehtani, A. Kisliuk, M. D.
Foster, A. P. Sokolov, I. Tsukerman, Optical properties
of tips for apertureless near-field microscopy, the Great Lakes Photonics Symposium,
12-16 June 2006, Dayton, Ohio. http://spie.org/Conferences/calls/06/gl/
75.
I. Tsukerman, F. Čajko,
A.P. Sokolov, New simulation methods for nanoscale photonic structures and negative-refraction
materials, the Great Lakes Photonics
Symposium, 12-16 June 2006, Dayton, Ohio. http://spie.org/Conferences/calls/06/gl/
76.
Masha Sosonkina and Igor Tsukerman, Parallel solvers for flexible
approximation schemes in multiparticle simulation, ICCS 2006: “Advancing Science through Computation”, University
of Reading, UK, May 28−31, 2006. [*]
77.
Igor Tsukerman, F. Čajko, A.P. Sokolov,
Traditional and new simulation techniques for plasmon
nanoparticles and photonic crystals, The 5th International Conference on
Photonics, Devices and Systems, Prague, Czech Republic, June 2005.
78.
Igor Tsukerman, F. Čajko, A.P. Sokolov, New
finite-difference calculus for simulations in nanoscale
optics and photonics, Optics &
Photonics 2005, San Diego CA, 31 July − 4 August 2005, http://www.spie.org/Conferences/calls/05/am/
79.
D. Mehtani, N.H. Lee, R. Hartschuh, A. Kisliuk, M.D.
Foster, A.P. Sokolov, Igor Tsukerman, Optical
properties of the tips for apertureless near-field
microscopy, Optics & Photonics 2005,
San Diego CA, 31 July − 4 August 2005, http://www.spie.org/Conferences/calls/05/am/
80.
Igor Tsukerman, Electromagnetic finite-difference
analysis without the ‘staircase’ effect, 2005 IEEE/ACES International Conference on Wireless Communications
and Applied Computational Electromagnetics,
Honolulu HI, April 2005.
81.
Igor Tsukerman, A new computational method for plasmon resonances of nanoparticles,
2005 IEEE/ACES International Conference on Wireless Communications
and Applied Computational Electromagnetics,
Honolulu HI, April 2005.
82.
Igor Tsukerman, Gary Friedman, Derek Halverson, New
computational methods for long-range electromagnetic interactions on the nanoscale, Nanotech’2004, Boston MA, http://www.nanotech2004.com/
83.
Gary Friedman, Benjamin Yellen
and Igor Tsukerman, Design and simulation of magnetically controlled nanoscale assembly, Fourth IEEE Conference on
Nanotechnology, Munich, Germany, August 2004. http://www.nano.ei.tum.de/ieeenano2004/
84.
Gary Friedman, Benjamin Yellen
and Igor Tsukerman, Magnetically controlled assembly of micro- and nanoparticles and its simulation, 5th
International Conference on Magnetic Microspheres, Lyon, France,
May 2004. www.magneticmicrosphere.com
85.
Achim Basermann, Igor Tsukerman, Parallel Generalized
Finite Element Method for magnetic multiparticle
problems, Proceedings of VECPAR’04, vol. I, pp.9–22. http://vecpar.fe.up.pt/2004/. [*]
86.
Igor Tsukerman, Gary Friedman, Fast Fourier Transform
Methods for magnetic fields of patterned media, Proceedings of the 9th
Joint MMM-Intermag Conference, Anaheim, CA,
January 2004 http://www.magnetism.org/
87.
D. Halverson, G. Friedman Igor Tsukerman, Flexible local
approximation method for open boundary problems, Proceedings of the 9th
Joint MMM-Intermag Conference, Anaheim, CA,
January 2004 http://www.magnetism.org/ [*]
88.
Igor Tsukerman, Efficient computation of long-range
electromagnetic interactions without Fourier Transforms, Proceedings of the
9th Joint MMM-Intermag Conference,
Anaheim, CA, January 2004 http://www.magnetism.org/
[*]
89.
Igor Tsukerman, New computational methods for
electrostatics in macromolecular simulation, Proceedings of Bioinformatics’2003,
Stanford, August 2003. http://conferences.computer.org/bioinformatics/CSB2003/index03.html
90.
Igor Tsukerman, Finite Element Difference Schemes for
electro- and magnetostatics, Compumag’2003,
Saratoga Springs, NY http://www.compumag2003.com/ [*]
91.
Igor Tsukerman, Generalized Finite Element Method for
scalar and vector problems in electromagnetism, invited paper, Scientific
Computing in Electrical Engineering (SCEE-2002), Eindhoven,
The Netherlands, June 2002. http://www.it.lut.fi/mat/EcmiNL/ecmi32/node28.html
[*]
92.
Igor Tsukerman, Some paradoxes and misconceptions in
computational electromagnetics, IEEE CEFC
Conference, Perugia, Italy, June 2002. http://www.ieeemagnetics.org/CEFC02/
93.
Igor Tsukerman, Tetrahedral edge elements by symbolic
algebra, IEEE CEFC Conference, Perugia, Italy,
June 2002. http://www.ieeemagnetics.org/CEFC02/ [*]
94.
Igor Tsukerman, General tangentially continuous vector
elements, IEEE CEFC Conference, Perugia,
Italy, June 2002. http://www.ieeemagnetics.org/CEFC02/ [*]
95.
Alexander Plaks, Igor
Tsukerman, G. Friedman, B. Yellen, Generalized Finite
Element Method for magnetized nanoparticles, IEEE
CEFC Conference, Perugia, Italy, June 2002. http://www.ieeemagnetics.org/CEFC02/ [*]
96.
Igor Tsukerman, A Priori error
estimates in conventional and generalized electromagnetic FEM, Compumag’2001,
Panel Session, Evian,
France, July 2001.
97.
Leonid Proekt, Igor
Tsukerman, Method of overlapping
patches for electromagnetic computation, Compumag’2001,
Evian, France, July 2001. [*]
98.
Leonid Proekt, Sergey Yuferev, Igor Tsukerman, Nathan Ida, Method of overlapping patches for electromagnetic
computation near imperfectly conducting cusps and edges, Compumag’2001, Evian, France, July
2001. [*]
99.
I.A. Tsukerman, V.V. Dombrovski, Finite element simulation of time-dependent
electromagnetic fields in the end zone of superconducting motors, Compumag’2001, Evian, France, July
2001. [*]
100.
Igor Tsukerman and Leonid B. Proekt,
Generalized scalar and vector elements for electromagnetic computation, XI International Symposium on Theoretical Electrical
Engineering, Linz,
Austria, August 2001. http://regpro.mechatronik.uni-linz.ac.at/istet/
101.
Igor Tsukerman, Finite Element
Differential-Algebraic Systems for eddy current problems, Auckland Numerical
Ordinary Differential Equations (ANODE), Auckland, New Zealand, January
2001. http://www.math.auckland.ac.nz/~anode/ANODE2001/index.html
102.
Alexander
Plaks, Igor Tsukerman, Adaptive multigrid
methods for unbounded problems, with applications in geophysics, 16th IMACS
World Congress 2000 on Scientific Computation, Applied Mathematics and
Simulation, August 2000, Swiss Federal Institute of Technology.
103.
Alexander Plaks, Igor
Tsukerman, Adaptive
mesh refinement in open boundary problems,
5th International Workshop on Finite
Elements for Microwave Engineering, Boston, June 2000.
104. Alexander Plaks, Igor Tsukerman, Adaptive multigrid
methods for open boundary problems in layered media, IEEE CEFC Conference,
Milwaukee, WI, June 2000. http://cefc2k.aln.fiu.edu/content.shtml
105. Leonid
Proekt and Igor Tsukerman, Accuracy of the Finite
Element solution of a wave problem with a non-planar Perfectly Matched Layer, IEEE CEFC Conference, Milwaukee, WI, June
2000. http://cefc2k.aln.fiu.edu/content.shtml
106. Alexander Plaks, Igor Tsukerman, Preconditioned adaptive hierarchical
basis multigrid method for electromagnetic
applications, invited paper at XXVIth General Assembly of the
International Union of Radio Science (URSI), Toronto, August 1999.
107. I.A. Tsukerman,
Alexander Plaks, Finite Element Matrices and a priori Error Estimates,
invited paper, MAFELAP (Mathematics of Finite Elements and
Applications), London, UK, June 1999. http://www.brunel.ac.uk/~icsrbicm/maflap99/home.html
108. I.A.Tsukerman, Alexander Plaks, Finite Element Matrices and Interpolation Errors, SciCade Conference, Fraser Island, Australia,
August 1999. http://www.maths.uq.edu.au/~kb/scicade99/scicade.html
109. Leonid Proekt, Igor
Tsukerman, David Smith, Sheldon Schultz,
Olivier Martin, Numerical modeling of scattering from a dispersive sphere, International Symposium on Nonlinear
Electromagnetic Systems, Pavia, Italy, May 1999.
110. Alexander Plaks, Igor Tsukerman, S. Painchaud,
and L. Tabarovsky, Multigrid
methods for open boundary problems in geophysics, Compumag’99, Sapporo,
Japan, 1999.
111. Igor Tsukerman and
Alexander Plaks, BPX-preconditioned fully adaptive multigrid for micromagnetic
problems, 11th International
Conference on Domain Decomposition,
Greenwich, UK, July 1998.
112. Igor Tsukerman and
Alexander Plaks, Interpolation errors and two refinement
strategies for tetrahedra, 11th International Conference on Domain Decomposition, Greenwich, UK, July 1998.
113. Igor Tsukerman and
Alexander Plaks, Hierarchical basis multilevel preconditioners for 3D magnetostatic
problems, IEEE CEFC Conference, Tucson AZ, 1998. [*]
114. Igor Tsukerman and
Alexander Plaks, Refinement strategies and
approximation errors for tetrahedral elements, IEEE CEFC Conference,
Tucson AZ, 1998 [*]
115. I.A.Tsukerman, Alexander Plaks, H.N. Bertram, Multigrid methods
for computation of magnetostatic fields in magnetic
recording problems, 7th Joint MMM-Intermag
Conference, San Francisco, January 1998. [*]
116. Igor Tsukerman, A. Bossavit, Shape of finite elements and approximation in electromagnetics, Proceedings
of the International Symposium ISTET’97,
Palermo, Italy, June 1997.
117. I.A. Tsukerman,
Alexander Plaks, Comparison of accuracy criteria for
approximation of conservative fields on tetrahedra, Compumag’97,
Rio de Janeiro, 1997. [*]
118. I.A. Tsukerman, A
general accuracy criterion for finite element approximation, Compumag’97,
Rio de Janeiro, 1997. [*]
119. I.A. Tsukerman, Approximation of
conservative fields and the element ‘edge shape matrix’, Compumag’97,
Rio de Janeiro, 1997. [*]
120. I.A. Tsukerman,
Stability of the moment method in electromagnetic problems, IEEE CEFC
Conference, Okayama, Japan, March 1996.
http://www.eplab.elec.okayama-u.ac.jp/cefc.html [*]
121. I.A. Tsukerman, E. Sidoriak, J. D. Lavers, K.Weeber,
H. Karmaker, Simulation of time-dependent fields and
eddy currents with circuits and rotor motion in electrical machines, Proceedings of Compumag'95, Berlin,
Germany, July 1995.
122. I.A. Tsukerman, J.D.
Lavers, A. Konrad, K. Weeber,
H. Karmaker, Finite element analysis of static and
time-dependent fields and forces in a synchronous motor, Proceedings of the International Conference on Electrical Machines,
Paris, France, 1994.
123. I.A. Tsukerman, Accurate
computation of ‘ripple solutions’ on
moving finite element meshes, IEEE CEFC Conference, Aix-les-Bains, France, 1994. [*]
124. I.A. Tsukerman, J.D.
Lavers, A. Konrad, Using complementary formulations
for accurate computations of magnetostatic fields and
forces in a synchronous motor, Compumag’93, Miami, FL, November 1993. [*]
125. I.A. Tsukerman,
Application of multilevel preconditioners to finite
element magnetostatic problems, Compumag’93,
Miami, FL, November 1993. [*]
126. I.A. Tsukerman, Fast
finite element solvers for problems with magnetic materials, Intermag’93,
Stockholm, Sweden, 1993. [*]
127. I.A. Tsukerman, Node and
edge element approximation of discontinuous fields and potentials, Intermag’93,
Stockholm, Sweden, 1993. [*]
128. I.A. Tsukerman, A. Konrad, G. Meunier and J.C. Sabonnadiere, Coupled field-circuit problems: trends and
accomplishments, IEEE CEFC Conference, Harvey Mudd
College, Claremont, CA, August 1992. [*]
129. I.A. Tsukerman,
Overlapping finite elements for problems with movement, Intermag’92, St.
Louis, MO, 1992. [*]
130. Yu.P. Kizimovich,
I.A. Tsukerman, Numerical modelling of the 3‑D
quasi‑stationary field on the basis of the “optimal” formulation,
Proceedings of the third conference “Problemy nelineynoj elektrotekhniki”.
Part 3. Kiev, USSR, 1988, pp.57‑60 [in Russian].
131. G.M.
Khutoretsky, V.D. Varshavsky,
I.A. Tsukerman, Yu.P. Kizimovich,
I.N. Greenbaum, V.I. Leonov,
Investigation of electromagnetic processes in the 300 MW superconducting
turbine generator, Proceedings of the 9th international conference “Cryogenics‑88”,
Usti‑na‑Labe, Czechoslovakia, 1988, pp.11−18
[in Russian].
132. K.S.
Demirchian, Yu.V. Rakitsky, Yu.P. Kizimovich, I.A. Tsukerman, Computation of the 3‑D
electromagnetic fields by means of the scalar potential method: numerical
methods and software, Proceedings of the
First Conference on Theoretical Electrical Engineering, Tashkent, USSR,
1987, pp.67−68 [in Russian].
133. Yu.P. Kizimovich,
I.A. Tsukerman, Mathematical modelling of the 3‑D
electromagnetic field under steady‑state and transient conditions by
means of the scalar magnetic potential, Proceedings of the First Conference on
Theoretical Electrical Engineering, Tashkent, USSR, 1987, p.149 [in
Russian].
134. Yu.V. Rakitskii,
Yu.P. Kizimovich, I.A.
Tsukerman, A program package for electromagnetic field computations in axially
symmetric domains, Proceedings of the
seminar “Computational Methods and Mathematical Modeling”, Krasnoyarsk,
USSR, 1986, p.69 [in Russian].
135. Yu.P. Kizimovich,
I.A. Tsukerman, Numerical modeling of the spatially‑periodic quasi‑stationary
electromagnetic field, in: Modern
Problems of Power Engineering, Kiev, USSR, 1985, pp.121−123 [in
Russian].
Other
Papers
136. Igor
Tsukerman, The anatomy of negative refraction, The International Compumag Society Newsletter (ISSN 1026-0854), vol.
14, No. 3, November 2007, pp. 3−16.
137. Igor
Tsukerman, A new FD calculus: simple grids for complex problems, The International Compumag
Society Newsletter (ISSN 1026-0854), vol. 12, No. 2, July 2005, pp. 3−17.
138. I.A.
Tsukerman, L.B. Proekt, Generalized scalar and vector
elements for electromagnetic computation, The
International Compumag
Society Newsletter (ISSN 1026-0854), vol. 8, No. 2, July 2001, pp.6−12.
139. Igor
Tsukerman, A paradox of two rods, The International Compumag
Society Newsletter (ISSN 1026-0854), vol. 8, No. 2, July 2001, p.
21.
140. Igor
Tsukerman, How flat are flat elements? The International
Compumag Society Newsletter (ISSN
1026-0854), vol. 5, No. 1, March 1998, pp. 7−12.