A method and system for recycling permeated gas is disclosed. A container encapsulating a pressure vessel defines a containment volume. Gas permeating through the pressure vessel is captured in the containment volume. When a sensor detects a threshold level of permeated gas captured within the conta
A method and system for recycling permeated gas is disclosed. A container encapsulating a pressure vessel defines a containment volume. Gas permeating through the pressure vessel is captured in the containment volume. When a sensor detects a threshold level of permeated gas captured within the containment volume, a control module sends a command to open a purge valve. The open purge valve allows permeated gas captured within the containment volume to be supplied to an engine, a repressurization unit, or a secondary container.
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1. A method of recycling permeated gas, the method comprising: capturing permeated gas in a containment volume defined by a container, wherein the permeated gas escapes from a pressure vessel supplying compressed gas to an engine through a main fuel line, andwherein the container encapsulates the pr
1. A method of recycling permeated gas, the method comprising: capturing permeated gas in a containment volume defined by a container, wherein the permeated gas escapes from a pressure vessel supplying compressed gas to an engine through a main fuel line, andwherein the container encapsulates the pressure vessel;detecting, using a sensor, a threshold level of permeated gas captured within the containment volume of the container; andbased on detecting the threshold level of permeated gas, supplying the permeated gas from the containment volume to the engine, wherein supplying the permeated gas includes sending a command, from a control module, to modify a position of a purge valve. 2. The method of claim 1, wherein the container comprises a gaseous barrier encapsulating the pressure vessel. 3. The method of claim 1, wherein the pressure vessel comprises a chain of alternating main vessel portions having a first diameter and intermediate portions having a second diameter smaller than the first diameter. 4. The pressure vessel of claim 3, wherein the main vessel portions have at least one of an elongated cylindrical shape, an ovoid shape, and a spherical shape. 5. The pressure vessel of claim 3, wherein the main vessel portions include an exterior reinforcing layer. 6. The method of claim 3, wherein the container defines an interstitial space between the alternating main vessel portions of the pressure vessel to capture the permeated gas escaping from the pressure vessel. 7. The method of claim 1, wherein the pressure vessel comprises a singular main vessel portion without reduced diameter intermediate portions. 8. The method of claim 1, wherein the threshold level is based on a predetermined pressure level of the permeated gas within the containment volume. 9. The method of claim 1, wherein supplying compressed gas to the engine includes mixing compressed gas with air from an intake manifold. 10. The method of claim 9, wherein the threshold level is based on a predetermined pressure differential between a pressure within the containment volume and a pressure within the intake manifold. 11. The method of claim 1, wherein a pressure level of the permeated gas within the containment volume is lower than a pressure level of the compressed gas inside of the pressure vessel. 12. A method of recycling permeated gas, the method comprising: capturing permeated gas in a containment volume defined by a container, wherein the permeated gas escapes from a pressure vessel supplying compressed gas to an engine through a main fuel line, andwherein the container encapsulates the pressure vessel;detecting, using a sensor, a threshold level of permeated gas captured within the containment volume of the container; andbased on the sensor detecting the threshold level of permeated gas in the containment volume, supplying the permeated gas from the containment volume to a repressurization unit, wherein supplying the permeated gas includes sending a command, from a control module, to modify a position of a purge valve. 13. The method of claim 12, further comprising: supplying compressed permeated gas from the repressurization unit to the pressure vessel. 14. The method of claim 12, further comprising: supplying compressed permeated gas from the repressurization unit to a secondary container. 15. The method of claim 12, wherein the container comprises a gaseous barrier encapsulating the pressure vessel. 16. A system for recycling permeated gas, comprising: a container defining a containment volume for capturing permeated gas escaping from a pressure vessel, wherein the pressure vessel supplies compressed gas to an engine through a main fuel line, andwherein the container encapsulates the pressure vessel within the containment volume;a purge valve in fluid communication with the containment volume, wherein the purge valve has a first position to vent the permeated gas captured within the containment volume, andwherein the purge valve has a second position to block flow of the permeated gas captured within the containment volume; anda recovery fuel line in fluid communication with the containment volume, wherein the purge valve is located along the recovery fuel line. 17. The system of claim 16, wherein the recovery fuel line supplies permeated gas from the containment volume to the engine. 18. The system of claim 16, wherein the recovery fuel line supplies permeated gas from the containment volume to a repressurization unit. 19. The system of claim 16, wherein the recovery fuel line supplies permeated gas from the containment volume to a secondary container. 20. The system of claim 16, wherein a pressure level of the permeated gas within the containment volume is lower than a pressure level of the compressed gas inside of the pressure vessel.
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