Gyrator
The perfect gyrator.
blockType: AcausalFoundation.Electrical.Elements.Gyrator
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Description
Block Gyrator It can be used to implement inductance using a capacitor. The main advantage of a gyrator is that an equivalent inductance can be created using a capacitor much smaller in size than a coil. In practice, the gyrator is implemented using an operational amplifier and additional passive elements.
Block Gyrator It is an ideal lossless gyrator described by the following equations:
where
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— input voltage;
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— output voltage;
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— current flowing into the positive input terminal;
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— current flowing from the positive output terminal;
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— equivalent gyrator conductivity.
Each of the two circuits connected to the primary and secondary windings must have its own block. Electrical Reference.
Variables
Use the Initial Targets parameter group to set the priority and initial target values for the block parameter variables before modeling. For more information, see Configuring physical blocks using target values.
Ports
Conserving
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1+
—
the positive terminal of the primary winding
electricity
Details
The electrical port, which is the positive terminal of the primary winding of the gyrator.
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1−
—
the negative terminal of the primary winding
electricity
Details
The electrical port, which is the negative terminal of the primary winding of the gyrator.`
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#
2+
—
the positive terminal of the secondary winding
electricity
Details
The electrical port, which is the positive terminal of the secondary winding of the gyrator.`
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#
2−
—
the negative terminal of the secondary winding
electricity
Details
The electrical port, which is the negative terminal of the secondary winding of the gyrator.`
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Parameters
Parameters
#
Gyration conductance —
gyrator conductivity
S | nS | uS | mS | 1/Ohm
Details
Equivalent gyrator conductivity .
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| Default value |
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| Evaluatable |
Yes |