Systems and methods for optimizing emissions from simultaneous activation of electrosurgery generators
A method for optimizing emissions from simultaneous activation of electrosurgery generators is presented including delivering first energy to a first target tissue via a first energy module, the first energy represented as a first waveform having a first phase, delivering second energy to a second target tissue via a second energy module, the second energy represented as a second waveform having a second phase, applying the first energy in a first energy mode, and applying the second energy in a second energy mode. The method further includes the steps of comparing the first phase of the first energy waveform with the second phase of the second energy waveform and adjusting a relative phase between the first and second energy waveforms based on the comparison step.
1. A method for optimizing emissions from simultaneous activation of first and second electrosurgical generators, the method comprising:
delivering first energy to a first target tissue via the first generator, the first energy represented as a first waveform having a first phase;
delivering second energy to a second target tissue via the second generator, the second energy represented as a second waveform having a second phase;
applying the first energy in a first energy mode in a predetermined time period;
applying the second energy in a second energy mode in the predetermined time period;
comparing the first phase of the first energy waveform with the second phase of the second energy waveform in one or more of a plurality of sub-periods; and
adjusting a relative phase between the first and second energy waveforms based on the comparison step, the second waveform being delayed for a period of time to allow for optimum destructive interference.
2. The method according to claim 1 , wherein the first generator is coupled to a first micro-catheter and the second generator is coupled to a second micro-catheter.
3. The method according to claim 2 , wherein the first micro-catheter applies the first energy to the first target tissue and the second micro-catheter applies the second energy to the second target tissue.
4. The method according to claim 1 , wherein the relative phase is adjusted at predefined frequencies.
5. The method according to claim 1 , wherein:
the one or more of the plurality of sub-period is two or more of the plurality of sub-periods; and
the predetermined amount is an integer multiple of sub-periods.
6. The method according to claim 5 , wherein:
the comparing step comprises identifying a combined waveform of the first waveform and the second waveform having a lowest constructive interference among a plurality of phase differentials between the first and second waveforms, the phase differentials being associated with an associated one of the plurality of sub-periods; and
the integer multiple of sub-periods being associated with the lowest constructive interference.
7. The method according to claim 1 , wherein the first energy mode and the second energy mode are of a different type.
8. The method according to claim 1 , wherein the adjusting step includes offsetting the first phase from the second phase by a predetermined amount.
9. A method for optimizing emissions from simultaneous activation of electrosurgery generators, the method comprising:
delivering first energy represented as a first waveform via a first surgical instrument to a first target tissue;
delivering second energy represented as a second waveform via a second surgical instrument to a second target tissue;
comparing the first waveform to the second waveform; and
adjusting a relative phase of the first and second waveforms to offset constructive interference, the adjusting step including offsetting the first waveform from the second waveform by a predetermined amount,
wherein the first energy is delivered via a first energy module and the second energy is delivered via a second energy module, the first and second energy modules are configured to draw power from a common backplane, and the second waveform is delayed for a period of time to allow for optimum destructive interference.
10. The method according to claim 9 , wherein the comparing step involves performing sampling of the first and second waveforms in regions surrounding the zero crossings of the first and second waveforms.
11. The method according to claim 10 , wherein sampling data surrounding the zero crossings of the first and second waveforms is provided to a software algorithm for computing the relative phase between the first and second waveforms.
12. The method according to claim 9 , wherein the comparing step including comparing zero crossings of the first waveform with zero-crossings of the second waveform to determine the relative phase between the first and second waveforms.