PUFF SENSING AND POWER CIRCUITRY FOR VAPORIZER DEVICES

1 - 30 . (canceled)

31 . A vaporizer device comprising;

a vaporizer device body shell;

an internal skeleton disposed within the vaporizer device body shell; and

a gasket configured to prevent passage of liquids between a volume within a cartridge-receiving receptacle of a vaporizer device body and a volume within the vaporizer device body shell containing internal electronic circuitry, wherein the gasket comprises a connective feature via which a pressure sensing device that is connected to part of the internal electronic circuitry is exposed to air pressure in the cartridge-receiving receptacle, and the gasket comprises a supportive rib positioned to be compressed between the vaporizer device body shell and a part of the internal skeleton.

32 . The vaporizer device as in claim 31 , wherein the internal electronic circuitry comprises one or more electronic components and/or circuit boards.

33 . The vaporizer device as in claim 31 , wherein the volume within the vaporizer device body shell further contains a power source.

34 . The vaporizer device as in claim 31 , wherein the gasket is formed of one or more of silicon, Silicone70A, NBR 70 A, NANCAR 1052 70A, and a mixture of 80% Silicone/20% Flourisilicone, 70A.

35 . The vaporizer device as in claim 31 , wherein the vaporizer device further comprises an additional pressure sensing device positioned to detect a second air pressure representative of ambient air pressure to which the vaporizer device is exposed.

36 . The vaporizer device as in claim 35 , wherein the vaporizer device further comprises a controller configured to perform operations comprising:

receiving a first signal from the pressure sensing device representative of the first pressure and a second signal from the additional pressure sensing device representative of the second pressure,

determining, based on at least the first signal and the second signal, that a puff is occurring, the puff comprising air flowing along an airflow path in reaction to a user drawing on a mouthpiece, and

causing, in response to the determining, an electrical current to be delivered to a resistive heating element of the vaporizer device, the electrical current causing heating of a vaporizable material for forming of an inhalable aerosol in the air flowing along the airflow path.

37 . The vaporizer device as in claim 36 , wherein the vaporizer device further comprises an additional sensor, and wherein the operations further comprise receiving a third signal from the additional sensor, and wherein the determining that the puff is occurring is also based on the third signal.

38 . The vaporizer device as in claim 37 , wherein the additional sensor comprises an accelerometer or another motion sensing device.

39 . The vaporizer device as in claim 36 , wherein the airflow path includes a known and well-characterized orifice size, and wherein the pressure sensing device provides a measurement of a pressure drop resulting from a user taking the puff, wherein the operations performed by the controller further comprise:

calculating an air velocity and volumetric flow rate;

determining an amount of the vaporizable material converted to a vapor phase per unit time; and

controlling an amount of the inhalable aerosol generated for a given volume of air based on the calculating and the determining.

40 . The vaporizer device as in claim 39 , wherein the operations performed by the controller further comprise: controlling a temperature of the heater.

41 . The vaporizer device as in claim 39 , wherein the operations performed by the controller further comprise: providing a consistent aerosol concentration across different puff strengths.

42 . The vaporizer device as in claim 39 , wherein the operations performed by the controller further comprise: applying a correction for ambient pressure to correct for effects of atmospheric pressure on an amount of airflow.

43 . The vaporizer device as in claim 39 , wherein the operations performed by the controller further comprise:

prompting the user to take a sample puff or a series of sample puffs; and

characterizing and storing information regarding a relative strength of a puffing power of the user.

44 . The vaporizer device as in claim 43 , wherein the operations performed by the controller further comprise: varying a size of the pressure drop required to indicate the puff based on the relative strength of the puffing power of the user to better detect actual puffs and reject false positives in detection of user puffing activity.

45 . A vaporizer device comprising an electrical contact pin for electrical coupling with a contact of a cartridge configured to be insertably received within a cartridge-receiving receptacle of a vaporizer device body, the electrical contact pin comprising a liquid-resistant feature.

46 . The vaporizer device as in claim 45 , wherein the liquid-resistant feature comprises a spring for urging a plunger of the electrical contact pin, the spring being formed of and/or coated with a material that has a reduced conductivity relative to the plunger and/or to a barrel within which the plunger moves.

47 . The vaporizer device as in claim 45 , wherein the liquid-resistant feature comprises one or more of an anti-corrosion coating, and a broadened contact surface, and a structural feature.

48 . The vaporizer device as in claim 45 , wherein the liquid-resistant feature comprises a structural feature.

49 . The vaporizer device as in claim 48 , wherein the structural feature comprises elimination of any spring-driven feature and/or of features that require movement of two or more mechanical parts relative to one another.

50 . The vaporizer device as in claim 48 , wherein the structural feature comprises the electrical contact pin having a solid structure that does not require movement of conductive parts of the electrical contact pin relative to each other.