|
THE LIBRARY OF PROGRAMS AND
ALGORITHMS FOR KEY ELEMENTS |
Methods used for the
solution of boundary-value problems of WG electromagnetics.
Mode-matching technique.
Method
of inversion of the main part of the convolution-type matrix operators.
Moment
method with the basis functions accounting for the field singularity
at
the edges.
Integral
equation method.
Basic
and modified residue-calculus technique.
Wiener-Hopf
technique.
Weber-Schafheitlien
integral technique.
Riemann-Hilbert
problem technique.
Method
of virtual decomposition.
Generalized
scattering matrix technique.
LSE-LSM
scalarization technique for 3-D problems.
Method of repeated
shortening of side arms for calculation of multiport S-matrix
Method of transversal
resonance
Methods using the spectrums
of complex eigen-frequencies
1.
H-plane discontinuities in rectangular
waveguides.
1.1. T-junction of rectangular waveguides.
1.2. Y-junction of rectangular waveguides.
1.3. Cross-junction of rectangular waveguides.
1.4. Rectangular waveguide bifurcation on N channels.
1.5. Rectangular waveguide bifurcation on two
channels.
1.6. Angled bend in a rectangular waveguide.
1.7. Inclined shortening in a rectangular
waveguide.
1.8. Truncated angled bend in a rectangular
waveguide.
1.9. Inclined dielectric interface in a
rectangular waveguide.
1.10.Symmetrical
step in a rectangular waveguide.
1.11.Nonsymmetrical
step in a rectangular waveguide.
2.
E-plane discontinuities in rectangular
waveguides.
2.1. T-junction of rectangular waveguides.
2.2. Y-junction of rectangular waveguides.
2.3. Cross-junction of rectangular waveguides.
2.4. Rectangular waveguide bifurcation on N channels.
2.5. Rectangular waveguide bifurcation on two
channels.
2.6. Angled bend in a rectangular waveguide.
2.7. Inclined shortening in a rectangular
waveguide.
2.8. Truncated angled bend in a rectangular
waveguide.
2.9. Inclined dielectric interface in a
rectangular waveguide.
2.10.Symmetrical
step in a rectangular waveguide.
2.11.Nonsymmetrical
step in a rectangular waveguide.
3.
Symmetrical discontinuities in circular
and coaxial waveguides.
3.1. Bifurcation of a circular waveguide ( - modes).
3.2. Bifurcation of a circular waveguide (-modes).
3.3. Bifurcation of a coaxial waveguide (-modes).
3.4. Bifurcation of a coaxial waveguide ( -modes, TEM).
3.5. Step in a circular waveguide (-modes).
3.6. Step in a circular waveguide (-modes).
3.7. Step in a coaxial waveguide (-modes).
3.8. Step in a coaxial waveguide (-modes, TEM).
3.9. Dielectric interface in a circular
waveguide.
3.10.Dielectric
interface in a coaxial waveguide.
4.
3-D
waveguide discontinuities in the full-mode basis.
4.1. T-junction of rectangular waveguides.
4.2. Multifurcation of a rectangular waveguide
on N channels with non-changed one of
transversal dimensions.
4.3. Symmetrical angled bend in a rectangular
waveguide.
4.4. Nonsymmetrical angled bend in a
rectangular waveguide.
4.5. Inclined shortening in a rectangular
waveguide.
4.6. Rectangular waveguides cross-junction.
4.7. Rectangular waveguides Y-junction.
4.8. Generalized plane
junction of N rectangular waveguides the cross-sections of which are
described by common coordinate system.
4.9. Generalized plane
junction of N rectangular waveguides the cross-sections of which are
described by different coordinate systems (titled cross-sections).
4.10.Normal
dielectric interface in a rectangular waveguide.
4.11.One-plane
inclined dielectric interface in a rectangular waveguide.
4.12.Bifurcation
of a circular waveguide.
4.13.Bifurcation
of a coaxial waveguide.
4.14.Step in
a circular waveguide.
4.15.Step in
a coaxial waveguide.
4.16.Junction
of circular and coaxial waveguides.
4.17.Non-axial
junction of two circular waveguides.
4.18.Dielectric
interface in a coaxial waveguide.
4.19.Dielectric
interface in a circular waveguide.
4.20.Rectangular-to-circular
waveguide junction.
4.21.Circular-to-rectangular
waveguide junction
4.22.Rectangular
waveguide tee with matching-tuning iris insert.
4.23.Rectangular
waveguide tee with matching-tuning resonant circular rod insert.
5.
Discontinuities in concrete waveguides of
complicated cross-sections and partially filled waveguides.
5.1.
Rectangular-to-symmetric
ridged waveguide junction.
5.2.
Rectangular-to-nonsymmetrical
ridged waveguide junction.
5.3.
Junction of
ridged waveguides.
5.4.
Rectangular-to-partially
filled rectangular waveguide junction.
5.5.
Bifurcation
of a partially filled rectangular waveguide by metal semi-plate.
5.6.
Junction of
two one-conductor bar-lines.
5.7.
Junction of
two multiconductor bar-lines.
5.8.
Tee junction
of rectangular bar-line and rectangular waveguide (non-contact-probe
excitation).
5.9. Tee junction of
rectangular bar-line and rectangular waveguide (contact-probe excitation).
6.
Discontinuities in generalized waveguides
of complicated cross-sections.
6.1. Plane junction of two or
more waveguides with coordinate outer and inner piecewise linear boundaries,
including multiconductor lines.
7.
Waveguide radiators.
7.1. H-plane open-ended parallel-plate
waveguide.
7.2. E-plane open-ended parallel-plate waveguide.
7.3. H-plane flanged open-ended parallel-plate
waveguide.
7.4. E-plane flanged open-ended parallel-plate
waveguide.
7.5. Open-ended circular waveguide (-modes).
7.6. Open-ended circular waveguide (-modes).
8.
Related problems - periodical structures
(Floque-waves basis).
8.1. Grating of thick semi-plates (E- and H-polarization).
8.2. Rectangular rod grating (E--
and H-polarization).
8.3. Circular rod grating (E-- and H-polarization).
8.4. Strip grating (E-- and H-polarization).
8.5. Echelette grating (E-- and H-polarization).
8.6. Corrugated grating (E-- and H-polarization).
8.7. Grating of inclined semi-plates (E- and H-polarization).
8.8. Louver-type grating (E- and H-polarization).
8.9. Dielectric interface (E- and H-polarization).
8.10.Rectangular
dielectric rod grating (E- and H-polarization).