Abstract:
An aerosol generator device comprises an elongate body with an interior passageway extending longitudinally to its mouth end. The device receives an interchangeable, pressurised canister charged with a nicotine containing liquid that is discharged in a metered dose on manual actuation of a trigger that causes a valve in the canister to open and discharge through a discharge tube. Inner and outer collar members releasably couple the canister with a bayonet action. The trigger is rotatably mounted on the body about a trigger axis spaced from and extending transversely of the longitudinal axis of the device, and has a manually depressible surface portion under a flexible cover, and a camming surface portion that drives a slidable nozzle member inwardly of the body to press the discharge tube inwardly of the canister and the valve so as to form an aerosol from the liquid released from the canister.
Abstract:
An aerosol generator has a generally cylindrical body with a mouthpiece at one end a removable canister received within the body, the canister containing pressurised fluid, an interior, continuous canister valve and a depressible discharge tube that releases the fluid into the body. An electrically operable valve controls the discharge of the fluid from the canister towards the mouthpiece, and a nozzle forms an aerosol of the fluid that discharges from the canister. A pressure switch switches in response to a pressure reduction at the mouthpiece and supplies electrical power from internal batteries to the valve to produce a discharge of the fluid through the valve to create an aerosol in the mouthpiece for the consumer.
Abstract:
An aerosol generator comprising a body, a mouthpiece on the body and a delivery mechanism delivers aerosol for inhalation by a consumer into the mouthpiece by turning the mouthpiece and body relative to one another. The aerosol is generated from liquid dispensed from a canister having a discharge tube depressible inwardly to open an interior valve. A nozzle member is driven inwardly against the discharge tube of the canister when the mouthpiece and body are turned relative to one another, to open the valve and create the aerosol.
Abstract:
A portable, handheld breath-actuated inhaler comprises a generally cylindrical body that comprises body portions 1, 3 that receive a canister 2 of pressured fluid such a nicotine to be inhaled in an aerosol by a user, a mouthpiece 7 in the first body portion 1 configured to deliver an amount of the aerosol to the mouth of the user from the canister. A trigger is cocked ready for releasing pressurized fluid from the canister by manually sliding the body portions 1, 3 towards one another. The trigger comprises a compression spring 26 and a cam 33 which engages a pressure sensitive puff lever 28 with a plate 29 that releases the cocked trigger when a user sucks on the mouthpiece and draws in air through air inlet opening 26. Release of the trigger releases spring 26 which slides the body portions apart and also opens a valve in the canister so as to deliver the aerosol to the mouthpiece.
Abstract:
A cut-resistant and shred-resistant absorbent sheet material including an absorbent substrate and cut-resistant particles distributed through the substrate. Preferably, the absorbent substrate comprises cellulosic material and the particles comprise polymeric materials having an average size of at least about 100 micrometers, and most preferably between 100 and 1000 micrometers. It is also preferred that the absorbent substrate is provided in an amount of at least 50 percent by weight and is substantially free of inorganic free filler particulate. In addition, it is preferred that the sheet material has a basis weight of at least 100 pounds per 3000 ft2, and that the particles are provided in an amount of between about 10 percent and about 50 percent by weight of the sheet. The sheet material can be made using typical paper making processes. Preferably, heat and/or pressure are applied to the sheet material to cause the particles to at least partially flow, so as to bond to the absorbent substrate. It is also preferred that the sheet material exhibit an absorbent efficiency of at least 0.2, a cut-resistance at least 30 kgf/cm, a wet abrasion loss of less than about 400 mg/100 revolutions, and a dry abrasion loss of less than about 300 mg/100 revolutions.