Name |
Description |
Defaults |
Sensible default values of some most often used
quantities. |
ISmps |
An interface that defines four pins of typical power
converters. The models, derived from this interface, do not include
a voltage source (should be connected to inP and inN) and a load
(should be connected to outP and outN). |
ISmpsDport |
An extension of SMPS.BasicConverter.ISmps with an aditional
input port that allows direct setting of the duty cycle ratio
(D). |
ISmpsVport |
An extension of SMPS.BasicConverter.ISmps with aditional input
pins that allow setting of the duty cycle ratio (D) via a voltage,
e.g. output of a PID compensator. |
BuckConverter |
A buck converter, built of nonideal (lossy) elements. Losses of
a transistor, diode and inductor copper are modeled. Optionally any
lossy element can be set to 0. The duty cycle is set directly (as a
dimensionless real number between 0 and 1) and may vary during the
simulation run. |
BoostConverter |
A boost converter, built of nonideal (lossy) elements. Losses
of a transistor, diode and inductor copper are modeled. The duty
cycle is set directly (as a dimensionless real number between 0 and
100) and is constant during the simulation run. |
InvertingBuckBoostConverter |
An inverting buck - boost converter, built of nonideal (lossy)
elements. Losses of a transistor, diode and inductor copper are
modeled. Optionally any lossy element can be set to 0. The duty
cycle is set directly (as a dimensionless real number between 0 and
1) and may vary during the simulation run. |
FlybackConverter |
A single output flyback converter, built of nonideal (lossy)
elements. Losses of a transistor, diode, winding resistance,core
losses and magnetizing current are modeled. Optionally any lossy
element can be set to 0. The duty cycle is set directly (as a
dimensionless real number between 0 and 1) and may vary during the
simulation run. |
DoubleOutputFlybackConverter |
A double output flyback converter, built of nonideal (lossy)
elements. Losses of a transistor, diode, winding resistance,core
losses and magnetizing current are modeled. Optionally any lossy
element can be set to 0. All diodes are identical. The duty cycle
is set directly (as a dimensionless real number between 0 and 1)
and may vary during the simulation run. |
ForwardConverter |
A forward converter, built of nonideal (lossy) elements. Losses
of a transistor, diode, winding resistance, core losses and
magnetizing current are modeled. Optionally any lossy element can
be set to 0. All diodes are identical. The duty cycle is set
directly (as a dimensionless real number between 0 and 1) and may
vary during the simulation run. |
CukConverter |
An non-isoltaed Cuk converter, built of nonideal (lossy)
elements. Losses of a transistor, diode and inductor copper are
modeled. Optionally any lossy element can be set to 0. By default
both inductors and capacitors are identical. The duty cycle is set
directly (as a dimensionless real number between 0 and 1) and may
vary during the simulation run. |
SepicConverter |
A SEPIC (single-ended primary-inductor converter), built of
nonideal (lossy) elements. Losses of a transistor, diode and
inductor copper are modeled. Optionally any lossy element can be
set to 0. By default both inductors and capacitors are identical.
The duty cycle is set directly (as a dimensionless real number
between 0 and 1) and may vary during the simulation run. |
ZetaConverter |
A SEPIC (single-ended primary-inductor converter), built of
nonideal (lossy) elements. Losses of a transistor, diode and
inductor copper are modeled. Optionally any lossy element can be
set to 0. By default both inductors and capacitors are identical.
The duty cycle is set directly (as a dimensionless real number
between 0 and 1) and may vary during the simulation run. |