Abstract: A process is proposed that captures, separates, and enriches carbon dioxide for sequestration after removal from water in equilibrium with air. The proposed process recognizes that carbon dioxide is more soluble in water than other atmospheric gases in air resulting in the proportion of carbon dioxide adsorbed in water from the atmosphere (relative to the other atmospheric gases) being higher than the proportion of carbon dioxide naturally occurring in air. To capitalize on this “convenient truth,” the proposed process aerates (dissolves) in water carbon dioxide gas with other atmospheric gases originating from air in an aerator (aeration) according to Henry's gas law of solubility and then deaerates (strips) these dissolved atmospheric gases from the water in a deaerator (deaeration). The process of aeration and deaeration of these atmospheric gases is repeated multiple times in series until the separated and enriched carbon dioxide gas concentration purity is sufficient for sequestration.

Abstract: This present invention provides variable deployment performance by controlling the quantity and fluid flow path of the inflator gas into or out of an air bag module according to the present invention. The air bag module includes a slide ring mechanism disposed about an inflator and adjacent at least a portion of a cushion retainer. The slide ring mechanism comprises an annular ring having openings formed therein, wherein during rotation of the slide mechanism, the openings of the annular ring align with openings formed in the cushion retainer to define a fluid flow path away from an air bag cushion for venting some of the inflator gas. Preferably, the annular ring is rotated by attaching a pair of tethers to the annular ring and to a rear surface of the air bag cushion.

Abstract: This present invention provides variable deployment performance by controlling the quantity and fluid flow path of the inflator gas into or out of an air bag module according to the present invention. The air bag module includes a slide ring mechanism disposed about an inflator and adjacent at least a portion of a cushion retainer. The slide ring mechanism comprises an annular ring having openings formed therein, wherein during rotation of the slide mechanism, the openings of the annular ring align with openings formed in the cushion retainer to define a fluid flow path away from an air bag cushion for venting some of the inflator gas. Preferably, the annular ring is rotated by attaching a pair of tethers to the annular ring and to a rear surface of the air bag cushion.

Abstract: This present invention provides variable deployment performance by controlling the quantity and fluid flow path of the inflator gas into or out of an air bag module according to the present invention. The air bag module includes a slide ring mechanism disposed about an inflator and adjacent at least a portion of a cushion retainer. The slide ring mechanism comprises an annular ring having openings formed therein wherein during rotation of the slide mechanism, the openings of the annular ring align with openings formed in the cushion retainer to define a fluid flow path away from an air bag cushion for venting some of the inflator gas. Preferably, the annular ring is rotated by attaching a pair of tethers to the annular ring and to a rear surface of the air bag cushion.