A fluid, enclosed in a hollow space (236, Δs), between the relay armature (168) and the armature return element (171) pneumatically damps the collision between the relay armature (168) and the armature return element (171).

To learn how the crystals grew to such gigantic sizes, García-Ruiz studied tiny pockets of fluid trapped inside.

To learn how the crystals grew to such gigantic sizes, García-Ruiz [of the University of Granada in Spain] studied tiny pockets of fluid trapped inside.

To learn how the crystals grew to such gigantic sizes, scientist Juan Manuel García- Ruiz studied tiny pockets of fluid trapped inside.

When the button is pressed, the fluid trapped inside the body (1) passes from one area to the other inside the chamber, through holes on the shoulder of the piston, and the seal opens and enables the delivery.

After the cooling fluid (20) chills the mixture of hyperbaric gas in the encapsulating material (12), the hyperbaric gas is entrapped therewithin.

A venting system, including vent paths, may be provided in the composite tube to vent fluid that may become trapped within the wall of the composite tube.

A fluid, enclosed in a hollow space (236, Δs), between the relay armature (168) and the armature return element (171) pneumatically damps the collision between the relay armature (168) and the armature return element (171).

The fluid may be a drilling fluid, a completion fluid, a production fluid, and/or a servicing fluid.

The fluid may be a drilling fluid, a completion fluid, a production fluid, and/or a stimulation fluid.

The fluid may be a viscoelastic fluid, such as a dilatant fluid.

The fluid reservoir receives a fluid from a fluid supply.

Fluid inlet structure receives input fluid and delivers the input fluid to the fluid circuit.

A fluid fills the primary fluid chamber, the secondary fluid chamber and the fluid flow orifice.

The module has a fluid inlet, a fluid outlet, and a fluid passage connecting the fluid inlet and the fluid outlet.