Method and apparatus for interlaced amplitude pulsing using a hard-tube type pulse generator
View Patent ↗These various embodiments serve to facilitate interlaced amplitude pulsing using a hard-tube type pulse generator having at least one energy-storage unit each comprising at least one energy-storing capacitor. Generally speaking, this comprises controlling an amount of energy withdrawn from the energy-storage unit and provided to an output load to form productive electric pulses by controlling at least one of: (1) energy replenishment; and (2) non-productive energy withdrawal of the energy-storage unit, to thereby achieve a series of productive interlaced amplitude electric pulses.
1. A method to provide interlaced amplitude pulsing using a hard-tube type pulse generator having an energy-storage unit comprising at least one energy-storing capacitor, the method comprising:
using the hard-tube type pulse generator and the energy-storage unit to provide a first productive electric pulse to an output load comprising at least one of a magnetron and a klystron to thereby produce an x-ray beam;
subsequent to providing the first productive electric pulse and prior to providing a second interlaced productive electric pulse as part of a series of interlaced productive electric pulses, causing selective non-productive energy withdrawal of the energy-storage unit to further selectively deplete the energy-storage unit;
using the hard-tube type pulse generator and the further selectively depleted energy-storage unit to provide the second interlaced productive electric pulse to the output load and having a predetermined and desired amplitude that is less than the first productive electric pulse.
2. The method of claim 1 wherein the hard-tube type pulse generator comprises a part of a radio frequency particle accelerator based, interlaced multi-energy radiation source.
3. The method of claim 1 wherein causing selective non-productive energy withdrawal of the energy-storage unit to further selectively deplete the energy-storage unit further comprises controlling energy replenishment of the energy-storage unit by, at least in part, intentionally not fully recharging the energy-storage unit after withdrawing some energy from the energy-storage unit to create one of the series of interlaced productive electric pulses.
4. The method of claim 3 wherein intentionally not fully recharging the energy-storage unit comprises not recharging the energy-storage unit after withdrawing the energy to create the one of the series of the interlaced productive electric pulses.
5. The method of claim 3 wherein controlling energy replenishment of the energy-storage unit comprises, at least in part, intentionally not fully recharging the energy-storage unit following each withdrawal of the energy to create at least some of a plurality of the series of interlaced productive electric pulses.
6. The method of claim 1 wherein controlling non-productive energy withdrawal of the energy-storage unit comprises, at least in part, selectively withdrawing energy from the energy-storage unit to achieve a particular energy availability to be used when creating a given one of the productive interlaced amplitude electric pulses.
7. The method of claim 6 wherein selectively withdrawing energy from the energy-storage unit comprises selectively withdrawing the energy from the energy-storage unit prior to creating the given one of the productive interlaced amplitude electric pulses.
8. The method of claim 7 wherein selectively withdrawing the energy from the energy-storage unit prior to creating the given one of the productive interlaced amplitude electric pulses comprises, at least in part, using at least one dummy load to selectively withdraw the energy.
9. The method of claim 8 wherein the dummy load is electrically parallel to an output load for the hard-tube type pulse generator.
10. The method of claim 7 wherein selectively withdrawing the energy from the energy-storage unit prior to creating the given one of the productive interlaced amplitude electric pulses comprises, at least in part, delivering at least one electric pulse to an output load while disabling another part of a corresponding radio frequency particle accelerator based radiation source such that no desired system product is produced.
11. The method of claim 10 wherein the corresponding radio frequency particle accelerator based radiation source comprises, at least in part, a particle source.
12. The method of claim 6 wherein selectively withdrawing energy from the energy-storage unit to achieve a particular amplitude availability to an output load when creating a given one of the productive interlaced amplitude electric pulses comprises, at least in part, selectively dividing the amplitude at the energy-storage unit between a dummy load and the output load.
13. The method of claim 12 wherein the dummy load comprises a selectively-configurable dummy load and wherein selectively withdrawing the energy from the energy-storage unit comprises selectively configuring the dummy load to bear part of a voltage available at the energy-storage unit while creating the given one of the productive interlaced amplitude electric pulses such that the output load receives a predetermined and desired amplitude for productive use.
14. The method of claim 1 wherein the output load comprises a primary winding of a transformer.
15. The method of claim 1 wherein the output load comprises an energy conversion device that consumes electric energy to generate other forms of energy.
16. An apparatus comprising:
a hard-tube type pulse generator having an energy storage unit comprising at least one energy-storing capacitor;
a control circuit configured to:
use the hard-tube type pulse generator and the energy-storage unit to provide a first productive electric pulse to an output load comprising at least one of a magnetron and a klystron to thereby produce an x-ray beam;
subsequent to providing the first productive electric pulse and prior to providing a second interlaced productive electric pulse to the output load as part of a series of interlaced productive electric pulses, cause selective non-productive energy withdrawal of the energy-storage unit to further selectively deplete the energy-storage unit;
wherein the hard-tube type pulse generator is configured to use the selectively depleted energy-storage unit to provide the second interlaced productive electric pulse having a predetermined and desired amplitude that is less than the first productive electric pulse.
17. The apparatus of claim 16 wherein the hard-tube type pulse generator comprises a part of a radio frequency particle accelerator based, interlaced multi-energy radiation source.
18. The apparatus of claim 16 wherein the control circuit is further configured to:
intentionally not fully recharge the energy-storage unit after withdrawing some energy from the energy-storage unit to create one of the series of interlaced productive electric pulses.
19. The apparatus of claim 18 wherein intentionally not fully recharging the energy-storage unit comprises not recharging the energy-storage unit after withdrawing the energy to create the one of the series of interlaced productive electric pulses.
20. The apparatus of claim 18 wherein the control circuit is configured to control energy replenishment of the energy-storage unit by, at least in part, intentionally not fully recharging the energy-storage unit following each withdrawal of the energy to create at least some of a plurality of the series of interlaced productive electric pulses.
21. The apparatus of claim 16 wherein the control circuit is configured to control non-productive energy withdrawal of the energy-storage unit by, at least in part, selectively withdrawing energy from the energy-storage unit to achieve a particular energy availability to be used when creating a given one of the productive interlaced amplitude electric pulses.
22. The apparatus of claim 21 wherein the control circuit is configured to selectively withdraw energy from the energy-storage unit by selectively withdrawing the energy from the energy-storage unit prior to creating the given one of the productive interlaced amplitude electric pulses.
23. The apparatus of claim 22 wherein the control circuit is configured to selectively withdraw the energy from the energy-storage unit prior to creating the given one of the productive interlaced amplitude electric pulses by, at least in part, using at least one dummy load to selectively withdraw the energy.
24. The apparatus of claim 23 wherein the dummy load is electrically parallel to an output load for the hard-tube type pulse generator.
25. The apparatus of claim 22 wherein the control circuit is configured to selectively withdraw the energy from the energy-storage unit prior to creating the given one of the productive interlaced amplitude electric pulses by, at least in part, delivering at least one electric pulse to an output load while disabling another part of a corresponding radio frequency particle accelerator based radiation source such that no desired system product is produced.
26. The apparatus of claim 25 wherein the corresponding radio frequency particle accelerator based radiation source comprises, at least in part, a particle source.
27. The apparatus of claim 21 wherein the control circuit is configured to selectively withdraw energy from the energy-storage unit to achieve a particular energy amplitude availability to an output load when creating a given one of the productive interlaced amplitude electric pulses by, at least in part, selectively dividing the amplitude at the energy-storage unit between a dummy load and the output load.
28. The apparatus of claim 27 wherein the dummy load comprises a selectively-configurable dummy load and wherein the control circuit is configured to selectively withdraw the energy from the energy-storage unit using a dummy load while also creating the given one of the productive interlaced amplitude electric pulses by selectively configuring the dummy load to bear part of a voltage available at the energy-storage unit while creating the given one of the productive interlaced amplitude electric pulses such that the output load receives a predetermined and desired amplitude for productive use.
29. The method of claim 16 wherein the output load comprises a primary winding of a transformer.
30. The method of claim 16 wherein the output load comprises an energy conversion device that consumes electric energy to generate other forms of energy.