Multi-primary distributed active transformer amplifier power supply and control
Abstract
An integrated power combiner is disclosed. The power combiner includes a first circular geometry primary winding having one or more inductive elements, such as an active winding with one or more driver stages. A circular geometry secondary winding is disposed adjacent to the first primary winding, such as an active winding with one or more driver stages. A second circular geometry primary winding is disposed adjacent to the secondary winding and has one or more inductive elements. One or more connections are provided between one or more of the inductive elements of the first circular geometry primary winding and one or more of the inductive elements of the second circular geometry primary winding.
Claims
exact text as granted — not AI-modifiedWhat is claimed is:
1. An oscillator comprising:
a first primary winding for operating configured for operation at a first frequency;
a secondary winding disposed adjacent to the first primary winding;
a second primary winding disposed adjacent to the secondary winding and for operating configured for operation at a second frequency; and
one or more connections between the first primary winding and the second primary winding, each of the one or more connections attach attached to the first primary winding at a position on the first primary winding where a voltage waveform of a fundamental frequency is will be at a minimum.
2. The oscillator of claim 1 wherein each of the one or more connections attach is attached to the second primary winding at a position on the second primary winding where the voltage waveform of the fundamental frequency is will be at the minimum.
3. An oscillator comprising:
a first primary winding for operating configured for operation at a first frequency;
a secondary winding disposed adjacent to the first primary winding;
a second primary winding disposed adjacent to the secondary winding and for operating configured for operation at a second frequency; and
one or more connections between the first primary winding and the second primary winding, including a first connection and a second connection each located at a position on the first primary winding such that the first connection and the second connection are each symmetrically distant from a point where a voltage waveform of a fundamental frequency of oscillation is will be at or near a minimum magnitude.
4. The oscillator of claim 3 wherein the first connection and the second connection are each located at a position on the second primary winding such that the first connection and the second connection are each symmetrically distant from the point where the voltage waveform of the fundamental frequency of oscillation voltage is will be at or near the minimum magnitude.
5. The oscillator of claim 4 further comprising:
two or more amplifiers coupled to the first primary winding; and
the location of each of the first connection and the second connection on the first primary winding is at one of the two or more amplifiers.
6. The oscillator of claim 5 further comprising:
two or more amplifiers coupled to the second primary winding; and
the location of each of the first connection and the second connection on the second primary winding is at one of the two or more amplifiers.
7. The oscillator of claim 5 further comprising:
two or more amplifiers coupled to the first primary winding;
two or more amplifiers coupled to the second primary winding;
the location of each of the first connection and the second connection on the first primary winding and the second primary winding is at one of the two or more amplifiers; and
a phase of a voltage waveform of a fundamental frequency of oscillation of the first primary winding and the second primary winding is will be substantially the same at each of the first connection and the second connection, respectively.
8. The oscillator of claim 7 further comprising:
a plurality of connections;
the location of each of the plurality of connections on the first primary winding and the second primary winding is at one of the two or more amplifiers; and
a phase of a voltage waveform of a fundamental frequency of oscillation of the first primary winding and the second primary winding is will be substantially the same at each of the plurality of connections.
9. The oscillator of claim 8 further comprising:
one or more first amplifiers, each having outputs connected to the first primary;
one or more second amplifiers, each having outputs connected to the second primary; and
the one or more connections each conducts are configured to conduct dc current from one or more first amplifier to one or more second amplifier.
10. The oscillator of claim 9 wherein each of the first amplifiers further comprises a dc voltage input that receives is configured to receive a dc voltage at a first voltage level, and each of the second amplifiers further comprises a dc voltage input that receives is configured to receive a dc voltage at a second voltage level.
11. The oscillator of claim 10 further comprising an inductance connected between one or more of the first amplifiers and the dc voltage input.
12. An oscillator comprising:
a first distributed active transformer for operating configured for operation at a first frequency;
a second distributed active transformer for operating configured for operation at a second frequency; and
the second distributed active transformer encircles the first distributed active transformer, and the first frequency is different from the second frequency, the second distributed active transformer is connected to the first distributed active transformer at a plurality of connection points, the connection points are located symmetrically distant from a point where an amplitude of a fundamental frequency signal on each of the first distributed active transformer and the second distributed active transformer is will be the same.
13. The oscillator of claim 12 wherein one or both of the first distributed active transformer and the second distributed active transformer each have a first primary winding and a second primary winding.
14. An oscillator comprising:
a first primary winding configured for operation at a first frequency;
a secondary winding;
a second primary winding configured for operation at a second frequency;
one or more connections between the first primary winding and the second primary winding;
one or more push-pull amplifiers coupled in series with the first primary winding;
one or more push-pull amplifiers coupled in series with the second primary winding; and
one or more connections between the first primary winding and the second primary winding, such that a phase of a signal at a connection point on the first primary winding is will be the same as a phase of a signal at a connection point on the second primary winding, and the connection points are located where an amplitude of a fundamental frequency signal is will be at a minimum, the connection points are located symmetrically distant from a point where an amplitude of the fundamental frequency signal on each of the first primary winding and the secondary winding is will be the same, but and where a phase of the fundamental frequency signal of the first primary winding is will be opposite a phase of the fundamental frequency signal of the second primary winding.
15. The oscillator of claim 12 wherein the first distributed active transformer has a primary winding and the second distributed active transformer has a primary winding, and the first distributed active transformer and the second distributed active transformer share a secondary winding.
16. The oscillator of claim 12 wherein the first distributed active transformer comprises two or more amplifiers.
17. The oscillator of claim 12 wherein the first distributed active transformer comprises two or more amplifiers coupled in series with an inductor.
18. The oscillator of claim 12 wherein the first distributed active transformer is a circular geometry distributed active transformer.Cited by (0)
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