E-vapor device including puncture device and sealed packet of pre-vapor formulation
An e-vapor device may include a housing shell configured to receive a supply packet containing a pre-vapor formulation, a mouthpiece secured to an end of the housing shell, a puncture device within the housing shell, and a heater structure within the housing shell and arranged to be in thermal contact with the pre-vapor formulation. The mouthpiece is configured to transition from a protracted position to a retracted position. The puncture device is configured to pierce the supply packet to release the pre-vapor formulation when the mouthpiece transitions to the retracted position. The heater structure is configured to vaporize the pre-vapor formulation to generate a vapor.
1. An e-vapor device, comprising:
a housing shell configured to receive a supply packet containing a pre-vapor formulation;
a mouthpiece secured to an end of the housing shell, the mouthpiece configured to transition from a protracted position to a retracted position;
a puncture device within the housing shell, the puncture device configured to pierce the supply packet to release the pre-vapor formulation when the mouthpiece transitions to the retracted position, the mouthpiece configured to compress the supply packet so as to cause a discharge of the pre-vapor formulation therefrom when the mouthpiece transitions to the retracted position; and
a heater structure within the housing shell and arranged to be in thermal contact with the pre-vapor formulation, the heater structure configured to vaporize the pre-vapor formulation to generate a vapor.
2. The e-vapor device of claim 1 , wherein the supply packet has an annular form.
3. The e-vapor device of claim 1 , wherein the supply packet is hermetically-sealed.
4. The e-vapor device of claim 1 , wherein the mouthpiece is configured to transition irreversibly to the retracted position.
5. The e-vapor device of claim 1 , wherein the mouthpiece has a plunger portion that is configured to slide into the housing shell during the transition to the retracted position.
6. The e-vapor device of claim 5 , wherein the plunger portion is configured to lock in place when the retracted position is reached.
7. The e-vapor device of claim 1 , wherein the supply packet has accordion sidewalls that are configured to collapse when the mouthpiece transitions to the retracted position.
8. The e-vapor device of claim 1 , wherein the puncture device is in a form of a plurality of puncture pins, each of the plurality of puncture pins including a base portion and a pointed portion on the base portion, the pointed portion configured to pierce the supply packet, the base portion configured to halt a penetration of the pointed portion into the supply packet and to support the supply packet after being pierced by the pointed portion.
9. The e-vapor device of claim 1 , wherein the puncture device is in a form of a porous plate with a plurality of pointed protrusions on a surface of the porous plate facing the supply packet.
10. The e-vapor device of claim 1 , further comprising:
a spring positioned between the mouthpiece and the supply packet, the mouthpiece configured to compress the spring when transitioning to the retracted position so as to provide a stored energy that yields a compressive force on the supply packet.
11. The e-vapor device of claim 10 , wherein the compressive force pushes the supply packet against the puncture device to pierce the supply packet and to discharge the pre-vapor formulation from the supply packet.
12. The e-vapor device of claim 10 , further comprising:
a diffuser plate positioned between the spring and the supply packet, the diffuser plate configured to distribute the compressive force over a surface of the diffuser plate.
13. A method of improving a shelf-life of a pre-vapor formulation for an e-vapor device, the method comprising:
arranging a supply packet within a housing shell of the e-vapor device so as to be between a mouthpiece secured to an end of the housing shell and a puncture device within the housing shell, the supply packet containing the pre-vapor formulation, the mouthpiece configured to transition from a protracted position to a retracted position, the puncture device configured to pierce the supply packet to release the pre-vapor formulation when the mouthpiece transitions to the retracted position, the mouthpiece configured to compress the supply packet so as to cause a discharge of the pre-vapor formulation therefrom when the mouthpiece transitions to the retracted position such that the pre-vapor formulation comes into thermal contact with a heater structure within the housing shell, the heater structure configured to vaporize the pre-vapor formulation to generate a vapor.
14. The method of claim 13 , further comprising:
forming the supply packet into an annular form prior to the arranging.
15. The method of claim 13 , further comprising:
hermetically sealing the pre-vapor formulation within the supply packet prior to the arranging.
16. The method of claim 15 , wherein the hermetically sealing includes heat sealing the pre-vapor formulation within a polymer-coated metal foil.
17. The method of claim 13 , further comprising:
pressing the mouthpiece to transition from the protracted position to the retracted position to activate the e-vapor device.
18. The method of claim 17 , further comprising:
squeezing the supply packet with a stored energy provided by a compression of a spring so as to discharge the pre-vapor formulation based on a deformation of the supply packet caused by a decompression of the spring.
19. The e-vapor device of claim 1 , wherein the housing shell defines a chamber configured to receive the supply packet, the mouthpiece configured to slide into the housing shell to compress the supply packet and to reduce a volume of the chamber.
20. The e-vapor device of claim 1 , further comprising:
an absorbent material within the housing shell, the absorbent material configured to absorb the pre-vapor formulation discharged from the supply packet.