Screen/tray method and system for wet sulphur priller
Relatively uniform spherical shaped solid pellets (prills) may be created by passing molten sulfur through a nested strainer to remove particles that would otherwise become trapped in the system, a drip tray with a heating channel attached on its underside, an injection conduit for delivery of a cooled zone of water to create solid prills, and thereafter moving the prills through a stationary curved screen to remove most of the excess water and a vibrating screen.
1. A prilling drip tray, comprising:
a tray,
said tray comprising top and bottom sides and a port configured to form a droplet, and
a channel attached to said tray bottom side,
wherein said channel is configured to provide direct contact of a fluid in said channel with said tray bottom side.
2. The prilling drip tray of claim 1 , wherein said channel is a half pipe.
3. The prilling drip tray of claim 2 , wherein said half pipe is welded to said tray bottom side.
4. The prilling drip tray of claim 1 , wherein said channel is non-linear.
5. The prilling drip tray of claim 1 , wherein said channel is linear in part and non-linear in part.
6. The prilling drip tray of claim 1 , wherein said channel is configured to make said fluid change direction as it moves through said channel.
7. The prilling drip tray of claim 6 , wherein said channel is configured to make said fluid change direction by 180 degrees.
8. The prilling drip tray of claim 1 , wherein said channel makes more than one pass on said tray bottom side.
9. The prilling drip tray of claim 1 , wherein said droplet is sulfur.
10. The prilling drip tray of claim 1 , wherein said fluid is steam.
11. The prilling drip tray of claim 1 , wherein said fluid heats said tray through thermal conduction.
12. The prilling drip tray of claim 1 , wherein said tray comprises a plurality of ports for forming a plurality of droplets.
13. A prilling drip tray, comprising:
a tray having a top side, a bottom side, and a port configured to form a droplet, and
a channel attached to said tray bottom side that is configured to make a fluid moving through said channel change direction.
14. The prilling drip tray of claim 13 , wherein said channel is configured to provide direct contact of said fluid with said tray bottom side.
15. The prilling drip tray of claim 14 , wherein said channel is a half pipe.
16. The prilling drip tray of claim 13 , wherein said channel is linear in part and non-linear in part.
17. The prilling drip tray of claim 13 , wherein said droplet is sulfur.
18. The prilling drip tray of claim 13 , wherein said fluid is steam.
19. A prilling drip tray, comprising:
a tray comprising top and bottom sides and a port configured to form a droplet, and
a channel attached to the bottom side of said tray,
wherein said channel is non-linear in part, and
wherein said channel is configured to allow direct contact of a fluid in said channel with said tray bottom side.
20. The prilling drip tray of claim 19 , wherein said channel changes direction by 180 degrees.
21. A strainer for liquid sulfur, comprising:
a strainer housing having a cylindrical shape oriented vertically,
a first filter having a cylindrical shape oriented vertically, and
a second filter having a cylindrical shape oriented vertically,
wherein said first filter is disposed in said second filter, and
wherein said second filter is disposed in said housing.
22. The strainer of claim 21 , wherein said first filter comprises mesh with a first filter ring around its top edge, wherein said second filter comprises mesh with a second filter ring around its top edge having a notch, and wherein both of said rings have an arm.
23. The strainer of claim 22 , wherein said housing has a notch on its top edge, wherein said second filter arm is disposed in said housing notch, and wherein said first filter arm is disposed in said second filter ring notch.
24. The strainer of claim 23 , wherein said housing has a first port above a second port, wherein a first conduit is in fluid communication with said first port, wherein a second conduit is in fluid communication with said second port, and wherein said first conduit intersects with said second conduit.
25. The strainer of claim 24 , further comprising a sensor in said first conduit configured to detect fluid flow and send a signal to a processor in response to said flow.
26. The strainer of claim 24 , wherein said housing is configured to receive the unstrained liquid sulfur through its top, and to move strained liquid sulfur through said second port.