Temporal jitter analyzer and analyzing temporal jitter

1. A temporal jitter analyzer for analyzing temporal jitter, the temporal jitter analyzer comprising:

a time delay controller that produces a control signal;

a time delay member in communication with the time delay controller and that:

receives the control signal from the time delay controller;

receives a first primary signal; and

produces a delayed primary signal from the first primary signal such that delayed primary signal is delayed from first primary signal based on control signal;

a delay measurement circuit in communication with the time delay member and that:

receives the delayed primary signal from the time delay member;

receives a third primary signal; and

produces a time delay measurement signal from the first primary signal and the third primary signal;

an edge generator in communication with the time delay member and that receives the delayed primary signal from the time delay member and produces a reference signal from the delayed primary signal;

a decision circuit in communication with the edge generator and that:

receives the reference signal from the edge generator;

receives a detector signal; and

produces a raw decision signal from the detector signal such that a value of the raw decision signal depends on the reference signal; and

a decision circuit readout in communication with the edge generator and the decision circuit and that:

receives the reference signal from the edge generator;

receives the raw decision signal from the decision circuit; and

produces a decision signal from the raw decision signal based on the reference signal.

2. The temporal jitter analyzer of claim 1 , further comprising a countable pulse generator in communication with the decision circuit readout and that:

receives the decision signal from the decision circuit readout;

receives the detector signal; and

produces an early pulse and a late pulse from the detector signal based on the decision signal.

3. The temporal jitter analyzer of claim 1 , further comprising a signal generator in communication with the time delay member and the delay measurement circuit and that produces a primary signal that is split into the first primary signal and the third primary signal.

4. The temporal jitter analyzer of claim 1 , further comprising a data medium in communication with the delay measurement circuit and that receives the time delay measurement signal from the delay measurement circuit.

5. The temporal jitter analyzer of claim 1 , further comprising a frequency divider that:

receives a second primary signal; and

produces an stimulus drive signal from the second primary signal such that the stimulus drive signal and the second primary signal have different frequencies.

6. The temporal jitter analyzer of claim 5 , further comprising an optical source in communication with the frequency divider and that:

receives the stimulus drive signal from the frequency divider; and

produces a photon pulse from the stimulus drive signal.

7. The temporal jitter analyzer of claim 6 , further comprising a detector in communication with the optical source and that:

receives the photon pulse from the optical source; and

produces the detector signal from the photon pulse.

8. The temporal jitter analyzer of claim 5 , further comprising an amplifier in communication with the frequency divider and the optical source and that receives the stimulus drive signal from the frequency divider and amplifies the stimulus drive signal that is received by the optical source.

9. The temporal jitter analyzer of claim 5 , wherein decision circuit receives the stimulus drive signal from the frequency divider and produces the raw decision signal based on the stimulus drive signal.

10. The temporal jitter analyzer of claim 1 , wherein the detector signal, the first primary signal, and the third primary signal have a stable phase relationship.

11. A temporal jitter analyzer for analyzing temporal jitter, the temporal jitter analyzer comprising:

a time delay controller that produces a control signal;

a time delay member in communication with the time delay controller and a frequency divider and that:

receives the control signal from the time delay controller;

receives a stimulus drive signal from the frequency divider; and

produces a delayed primary signal from the stimulus drive signal;

a delay measurement circuit in communication with the time delay member and a primary photon detector and that:

receives the delayed primary signal from the time delay member;

receives a primary signal from the primary photon detector; and

produces a time delay measurement signal from the delayed primary signal and the primary signal;

an optical source that produces a photon pulse;

the primary photon detector in communication with the optical source and the delay measurement circuit and that:

receives the photon pulse; and

produces the primary signal from the photon pulse;

a frequency divider in communication with the primary photon detector and the photon pulse and that:

receives the primary signal from the primary photon detector;

produces the stimulus drive signal from the primary signal; and

communicates the stimulus drive signal to the time delay member;

a detector in communication with the optical source and that receives the photon pulse a produces a detector signal from the photon pulse;

an edge generator in communication with the time delay member and that receives the delayed primary signal from the time delay member and produces a reference signal from the delayed primary signal;

a decision circuit in communication with the edge generator and the detector and that:

receives the reference signal from the edge generator;

receives the detector signal from the detector; and

produces a raw decision signal from the detector signal such that a value of the raw decision signal depends on the reference signal; and

a decision circuit readout in communication with the edge generator and the decision circuit and that:

receives the reference signal from the edge generator;

receives the raw decision signal from the decision circuit; and

produces a decision signal from the raw decision signal based on the reference signal.

12. The temporal jitter analyzer of claim 11 , further comprising a countable pulse generator in communication with the decision circuit readout and the detector and that:

receives the decision signal from the decision circuit readout;

receives the detector signal from the detector; and

produces an early pulse and a late pulse from the detector signal based on the decision signal.

13. The temporal jitter analyzer of claim 11 , further comprising an optical beam splitter in communication with the primary photon detector, the optical source, and the detector and that receives the photon pulse from the optical source, splits the photon pulse that is received by the primary photon detector and detector.

14. The temporal jitter analyzer of claim 11 , further comprising a data medium in communication with the delay measurement circuit and that receives the time delay measurement signal from the delay measurement circuit.

15. The temporal jitter analyzer of claim 11 , wherein the detector signal and the primary signal have a stable phase relationship.

16. A process for analyzing temporal jitter, the process comprising:

producing, by a time delay controller, a control signal;

receiving, by a time delay member, the control signal from the time delay controller;

receiving, by the time delay member, a first primary signal;

producing, by the time delay member, a delayed primary signal from the first primary signal such that delayed primary signal is delayed from first primary signal based on control signal;

receiving, by a delay measurement circuit, the delayed primary signal from the time delay member;

receiving, by the delay measurement circuit, a third primary signal;

producing, by the delay measurement circuit, a time delay measurement signal from the first primary signal and the third primary signal;

receiving, by an edge generator, the delayed primary signal from the time delay member;

producing, by the edge generator, a reference signal from the delayed primary signal;

receiving, by a decision circuit, the reference signal from the edge generator;

receiving, by the decision circuit, detector signal;

producing, by the decision circuit, a raw decision signal from the detector signal such that a value of the raw decision signal depends on the reference signal;

receiving, by a decision circuit readout, the reference signal from the edge generator;

receiving, by the decision circuit readout, the raw decision signal from the decision circuit; and

producing, by the decision circuit readout, a decision signal from the raw decision signal based on the reference signal to analyze temporal jitter.

17. The process of claim 16 , further comprising:

receiving by a frequency divider, a second primary signal;

producing, by the frequency divider, a stimulus drive signal from the second primary signal such that the stimulus drive signal and the second primary signal have different frequencies;

receiving, by an optical source, the stimulus drive signal from the frequency divider; and

producing, by the optical source, a photon pulse from the stimulus drive signal.

18. The process of claim 17 , further comprising receiving, by the decision circuit, the stimulus drive signal from the frequency divider; and

producing, by the decision circuit the raw decision signal based on the stimulus drive signal.

19. The process of claim 18 , further comprising:

receiving, by a detector, the photon pulse from the optical source; and

producing, by the detector, the detector signal from the photon pulse.

20. A process for analyzing temporal jitter, the process comprising:

producing, by a time delay controller, a control signal;

receiving, by a time delay member, the control signal from the time delay controller;

receiving, by the time delay member, a stimulus drive signal from the frequency divider;

producing, by the time delay member, a delayed primary signal from the stimulus drive signal;

receiving, by a delay measurement circuit, the delayed primary signal from the time delay member;

receiving, by the delay measurement circuit, a primary signal from the primary photon detector;

producing, by the delay measurement circuit, a time delay measurement signal from the delayed primary signal and the primary signal;

producing, by an optical source, a photon pulse;

receiving, by the primary photon detector, the photon pulse;

producing, by the primary photon detector, the primary signal from the photon pulse;

receiving, by a frequency divider, the primary signal from the primary photon detector;

producing, by the frequency divider, the stimulus drive signal from the primary signal;

communicating, by the frequency divider, the stimulus drive signal to the time delay member;

receiving, by a detector, the photon pulse;

producing, by the detector, a detector signal from the photon pulse;

receiving, by the edge generator, the delayed primary signal from the time delay member;

producing, by the edge generator, a reference signal from the delayed primary signal;

receiving, by a decision circuit, the reference signal from the edge generator;

receiving, by the decision circuit, the detector signal from the detector;

producing, by the decision circuit, a raw decision signal from the detector signal such that a value of the raw decision signal depends on the reference signal;

receiving, by a decision circuit readout, the reference signal from the edge generator;

receiving, by the decision circuit readout, the raw decision signal from the decision circuit; and

producing, by the decision circuit readout, a decision signal from the raw decision signal based on the reference signal to analyze temporal jitter.