1. A portable device for ejecting continuous streams of electrically charged fluid at a target, comprising:
a. An electrically non-conductive housing having:
i. A first barrel comprising;
(1) a first metal nozzle defining a first fluid ejection orifice;
(2) a first tubular reservoir for electrically conductive fluid;
(3) a first intake conduit for pressurized gas into the first barrel;
(4) a first piston element that is:
(a) located between the first reservoir and the first intake conduit; and
(b) is capable of being pushed along the interior of the first barrel by differential air pressure;
ii. A second barrel comprising;
(1) a second metal nozzle defining a second fluid ejection orifice;
(2) a second reservoir for electrically conductive fluid;
(3) a second intake conduit for pressurized gas into the second barrel;
(4) a second piston element that is
(a) located between the second reservoir and the second intake conduit; and
(b) is capable of being pushed along the interior of the second barrel by differential air pressure;
b. One or more compressed gas enclosures, each comprising a housing capable of retaining a liquefied gas cartridge;
c. A liquefied gas cartridge located within each compressed gas enclosure, each liquefied gas cartridge being capable of forcing high pressure gas through the first and second conduits for pressurized gas into the first and second piston elements;
d. A means to rupture the one or more liquefied gas cartridges causing high pressure gas to be released into the at least one compressed gas enclosure; and
e. a high voltage power source comprising in electrical circuit, a battery power supply and a voltage converter, said voltage converter in electrically conducting relation with said first and second metal nozzles for imparting a high voltage electrical charge at a first potential to said first fluid exiting said first ejection nozzle and at a different potential to said second fluid exiting said second ejection nozzle.
2. The device of claim 1, wherein the compressed gas enclosure comprises a housing with an adjustable pressure regulated gas exhaust and a gas pressure outlet which can be used for pneumatically activated accessory functions.
3. The device of claim 2, wherein the pneumatically activated accessory functions include a gas pressure onoff switch that activates a secondary pair of barrels.
4. The device of claim 1, wherein the means to rupture the one or more liquefied gas cartridges comprise an electrically activated lance capable of puncturing the liquefied gas cartridge.
5. The device of claim 1, wherein the liquefied gas comprise carbon dioxide CO2.
6. An electrically non-conductive housing having:
a. a first set of barrels comprising;
i. a first set of metal nozzles defining a first set of fluid ejection orifices;
ii. a first reservoir for electrically conductive fluid;
iii. a first intake conduit for pressurized gas into the first set of barrels;
iv. a first piston(s) element that is;
(1) located between the first reservoir and the first intake conduit; and
(2) is capable of being pushed along the interior of the first set of barrels by differential air pressure;
b. a second set of barrels comprising;
i. a second set of metal nozzles defining a second fluid ejection orifice;
ii. a second reservoir for electrically conductive fluid;
iii. a second intake conduit for pressurized gas into the second set of barrels;
iv. a second piston(s) element that is:
(1) located between the second reservoir and the second intake conduit; and
(2) is capable of being pushed along the interior of the second set of barrels by differential air pressure;
c. one or more compressed gas enclosures, each comprising a housing capable of retaining a liquefied gas cartridge;
d. a liquefied gas cartridge located within each compressed gas enclosure, each liquefied gas cartridge being capable of forcing high pressure gas through the first and second conduits for pressurized gas into the first and second piston elements;
e. a means to rupture the one or more liquefied gas cartridges causing high pressure gas to be released into the at least one compressed gas enclosure; and
f. a high voltage power source comprising in electrical circuit a battery power supply and a voltage converter, said voltage converter in electrically conducting relation with said first set and second set of metal nozzles for imparting a high voltage electrical charge at a first potential to said first fluid exiting said first ejection nozzles and at a different potential to said second fluid exiting said second ejection nozzles.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A method of fabricating a rechargeable battery, the method comprising:
forming a protective circuit board portion into one single body through resin molding;
connecting the protective circuit board portion to a bare cell; and
respectively electrically connecting two electrical terminals of the protective circuit board portion to two electrodes of the bare cell.
2. The method of claim 1, wherein the bare cell and the protective circuit board portion are connected together by an adhesive member.
3. The method of claim 1, wherein the protective circuit board portion includes a Protective Circuit Module (PCM) formed by molding the PCM portion of a protective circuit board having two extended electrical terminals with a hot-melt resin.
4. The method of claim 1, further comprising positioning an exterior material, which exposes at least one external electrode terminal portion, on an exterior of the protective circuit board portion connected to the bare cell.
5. The method of claim 4, wherein the exterior material is positioned by one of either covering with a thermal shrinkage tube, casing with a hard case, taping with a thin resin, or molding with a hot-melt resin.
6. A method of fabricating a rechargeable battery, the method comprising:
forming a protective circuit board portion having a PTC, a Protective Circuit Module (PCM), a PCB substrate and two electrical terminals into one single body;
attaching the protective circuit board portion to a bare cell having two electrodes; and
electrically connecting the two electrical terminals of the protective circuit board portion to the two electrodes of the bare cell,
wherein the PTC and PCM are positioned on a side of the PCB substrate that faces the bare cell.
7. The method of claim 6, wherein the bare cell and the protective circuit board portion are attached together by an adhesive member.
8. The method of claim 6, wherein the PCM of the protective circuit board portion is formed by molding the PCM of a protective circuit board with the two electrical terminals with a hot-melt resin.
9. The method of claim 6, further comprising positioning an exterior material, which exposes at least one external electrode terminal portion, on an exterior of the protective circuit board portion connected to the bare cell.
10. The method of claim 9, wherein the exterior material is positioned by one of either covering with a thermal shrinkage tube, casing with a hard case, taping with a thin resin, or molding with a hot-melt resin.
11. A method of fabricating a rechargeable battery, the method comprising:
forming a PCB substrate;
attaching a PTC, a Protective Circuit Module (PCM), and two electrical terminals to the PCB substrate to form a single body protective circuit board using resin molding;
attaching the protective circuit board to a bare cell having two electrodes with an insulation plate and a base case placed between the protective circuit board and the bare cell; and
electrically connecting the two electrical terminals of the protective circuit board portion to the two electrodes of the bare cell,
wherein the PTC and PCM are positioned on a side of the PCB substrate that faces the bare cell.
12. The method of claim 11, wherein the bare cell and the protective circuit board are attached together by an adhesive member.
13. The method of claim 11, wherein the base case is molded of a resin and is shaped to accommodate the PTC and PCM of the protective circuit board.
14. The method of claim 11, further comprising positioning an exterior material, which exposes at least one external electrode terminal portion, on an exterior of the protective circuit board connected to the bare cell.
15. The method of claim 14, wherein the exterior material is positioned by one of either covering with a thermal shrinkage tube, casing with a hard case, taping with a thin resin, or molding with a hot-melt resin.