The application of cylindrical wetted-wall discharge for wastewater treatment has been impeded by the lack of mathematical models.
This work focuses on the prediction of the normal stress at the wall during discharge.
One of the main causes for failure in grain silos is due to the excessive pressures exerted on the silo wall during discharge.
The flow pattern in a silo is important because it affects both the recovery of solids and the pressures on the silo wall during discharge.
The test results show that the design is effective in improving the flow conditions of the inlet, and in ensuring the desired values of water head along the guide wall and discharge capacities of the spillway.
Generally, the walls of discharge tube are at negative potential due to runaway electrons of plasma.
As already reported in the literature, in large disk-shaped voids, transition takes place from streamer mechanism to Townsend mechanism due to a conducting layer formed on the dielectric walls by discharge by-products [7, 8, 9, 10, 11].
When the design of an in-wall heat discharge system (HDS) is inappropriate, the heat stored in the system is not completely discharged into the environment, therefore an excess flow of heat is transferred to the space where the internal temperature is to be modified.
Röntgen was able to show that the radiation responsible for the fluorescence originated from the point where the electron beam struck the glass wall of the discharge tube.
On the other hand, the predicted discharge wall pressures with non-coaxial considerations are larger than those without it.
We found that the most detrimental condition with regard to the mirror deposition rate at KSTAR is the glow discharge wall cleaning (GDC) in the baking condition.
