The potential of the method as a powerful technique for simulating complex engineering flows is demonstrated by applying it to calculate vortex shedding from a circular cylinder mounted between two endplates and flow in a rectangular channel with two wall-mounted obstacles.
The host was shown in a glass cylinder mounted on a base and surmounted by some sort of metal crown.
A cam is generally a disc or a cylinder mounted on a rotating shaft, which gives a special motion to a follower, through direct contact.
A circular cylinder was submerged underwater and subjected to flow, and another cylinder mounted on springs was inserted between the submerged cylinder and a generator.
The hydraulic portion of each spring is a cylinder mounted on the body sill and fitted with a plunger that is pivotally attached to the wheel linkage to form a hydraulic strut.
The interaction being modelled is the vortex-induced vibration of a low mass-damping circular cylinder mounted like an inverted pendulum in a water tunnel.
Compared with the conventional hydraulic press in which cylinder mounted in the crown, the thickness of hemispherical hydraulic cylinder could be much thinner and the crown section modulus could be much higher under the same application condition.
The present study aims at looking into the nature of the horseshoe vortex system and its interaction with the wake-flow region in the base of circular cylinder mounted on a base plate in deep water.
The apparatus and method developed was based on a gravimetric calibration in which the totalised mass recorded by the Coriolis mass meter was compared with the increase in weight of a collection cylinder mounted on a highly accurate weigh scale.
