Reverse velocity jet tamper disrupter enhancer with muzzle blast suppression

1. A fluid jet enhancement muzzle suppressor for use with a propellant driven disrupter, the fluid jet enhancement muzzle suppressor comprising:

a connection proximal end having a connection mechanism configured to operably connect to a propellant driven disrupter muzzle end;

a suppressor distal end;

a suppressor bore extending between the proximal end and the distal end;

an inner suppressor surface that defines the suppressor bore;

an outer suppressor surface opposably facing the inner suppressor surface;

a suppressor chamber positioned between the inner and outer suppressor surfaces;

a plurality of passages that connect the suppressor bore with the suppressor chamber, wherein the plurality of passages are sized to allow gas to move from the suppressor bore to the suppressor chamber and minimize liquid movement from the suppressor bore to the suppressor chamber;

wherein the outer suppressor surface is a continuous surface that radially isolates the suppressor chamber from a surrounding environment; and

wherein the suppressor bore has a diameter at the connection proximal end that is substantially equivalent to a propellant driven disrupter muzzle end inner diameter.

2. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the suppressor bore has a suppressor bore length and the propellant driven disrupter has a disrupter bore length, with a ratio of suppressor bore length to disrupter bore length that is greater than or equal to 0.25 and less than or equal to 1.5.

3. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the connection mechanism comprises a threaded end configured to rotationally connect to a corresponding threaded end of a disrupter barrel or a disrupter barrel adapter.

4. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the plurality of passages have an average diameter that is less than or equal to 3/16″.

5. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the plurality of passages have a spatial density of between 2 passages cm −2 to 8 passages cm −2 .

6. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the plurality of passages are confined to a distal portion of the suppressor bore, wherein the distal portion spans 50% or less of the suppressor bore longitudinal length.

7. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the plurality of passages are spatially aligned.

8. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the plurality of passages are sized so that less than 1% by mass of a disrupter fluid enters the suppressor chamber or a plurality of suppressor chambers.

9. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the plurality of passages are shaped to minimize fluid mass from entering the suppressor chamber or plurality of suppressor chambers, wherein the passages have a geometric shape that is one or more of circular, catenary, parabolic, oval, pill-shaped, star-shaped, square, rectangular and tear-drop shaped.

10. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the passages have an angle relative to the inner suppressor surface that is perpendicular, tapered, conical, or chamfered.

11. The fluid jet enhancement muzzle suppressor of claim 1 , comprising a plurality of suppressor chambers.

12. The fluid jet enhancement muzzle suppressor of claim 11 , wherein the plurality of suppressor chambers span a longitudinal length corresponding to at least 90% of a longitudinal length of the suppressor bore.

13. The fluid jet enhancement muzzle suppressor of claim 1 , further comprising one or more baffles in each suppression chamber.

14. The fluid jet enhancement muzzle suppressor of claim 13 , wherein the one or more baffles are independently shaped as a disc, a catenary or a hemisphere.

15. The fluid jet enhancement muzzle suppressor of claim 1 , wherein each suppressor chamber radially envelops the suppressor bore or partially envelops the suppressor bore.

16. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the suppression chamber has a suppression chamber width (C w ) and the suppressor bore has a bore diameter (B D ) wherein 0.5≤C w /B D ≤2 and/or a suppression chamber height C H , including 0.5≤C H /B D ≤2.

17. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the propellant driven disrupter muzzle end corresponds to a distal end of a reverse velocity jet tamper (ReVJeT) adapter connected to a propellant driven disrupter.

18. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the propellant driven disrupter muzzle end is directly connected to the proximal end of the fluid jet enhancement muzzle suppressor.

19. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the propellant driven disrupter muzzle end is indirectly connected to the proximal end of the fluid jet enhancement muzzle suppressor with a disrupter barrel adapter having a distal end that is threaded for receiving a correspondingly threaded proximal portion of the suppressor and a proximal end for mounting to the distal end of the propellant driven disrupter.

20. A fluid jet propellant driven disrupter comprising:

a disrupter barrel having:

a breech end,

a muzzle end;

a barrel lumen extending between the breech end and the muzzle end,

an inner barrel surface that defines the barrel lumen; and

an outer barrel surface that opposably faces the inner barrel surface,

wherein at least a distal portion of the disrupter barrel comprises:

a suppressor chamber positioned between the inner and outer barrel surfaces;

a plurality of passages that connect the barrel lumen with the suppressor chamber, wherein the plurality of passages are sized to allow gas to move from the barrel lumen to the suppressor chamber and minimize liquid movement from the barrel lumen to the suppressor chamber;

wherein the outer barrel surface has a proximal region that is a continuous surface that radially isolates the disrupter barrel lumen from a surrounding environment and a distal region having one or more passages that fluidly connects the suppressor chamber to a surrounding environment, and wherein the distal region spans 50% or less of a longitudinal length of the barrel from the muzzle end.

21. A method of disrupting an explosive target, the method comprising the steps of:

connecting the fluid jet enhancement muzzle suppressor of claim 1 to a disrupter;

positioning an explosive blank cartridge in a breech end of the disrupter barrel;

filling at least a portion of the barrel with a fluid projectile;

exploding the explosive blank cartridge to propel the fluid projectile out of the barrel toward the explosive target; and

temporarily trapping explosive gases in the suppressor chambers without substantial trapping of fluid to thereby dampen gas shock on a proximal end of the fluid projectile exiting the barrel, reduce a muzzle blast effect and reduce a jet reverse velocity gradient.

22. The fluid jet enhancement muzzle suppressor of claim 1 , wherein the suppressor bore diameter is constant over a longitudinal length of the suppressor bore.