SYSTEM AND METHOD FOR LIQUID-LIQUID SEPARATION
The present invention provides a mixer-settler extraction circuit for separating liquids from each other. The mixer-settler extraction circuit includes a flow distributor. The flow distributor comprises a slat assembly which directs the incoming liquid into the settling portion of the mixer-settler extraction circuit. The slats of the slat assembly may be spaced apart from each other at varying distances.
1 . A primary flow distributor comprising:
a support structure;
a first slat assembly coupled to the support structure and comprising a first and second slat;
a second slat assembly coupled to the support structure and comprising a first and second slat;
a third slat assembly coupled to the support structure and comprising a first and second slat;
wherein the first slat of the first slat assembly has a beveled edge surface and the second slat of the first slat assembly has a beveled edge surface configured to be substantially parallel to the beveled edge surface of the first slat of the first slat assembly; and
wherein the first slat of the second slat assembly has a beveled edge surface and the second slat of the second slat assembly has a beveled edge surface configured to be substantially parallel to the beveled edge surface of the first slat of the second slat assembly.
2 . The flow distributor of claim 1 , wherein the beveled edge surface of the first slat of the first slat assembly lies in an intersecting plane with the beveled edge surface of the first slat of the second slat assembly.
3 . The flow distributor of claim 1 , wherein the first slat of the third slat assembly has a square edge surface and the second slat of the third slat assembly has a square edge surface.
4 . The flow distributor of claim 3 , wherein the square edge surface of the first slat of the third slat assembly is in contact with the square edge surface and the second slat of the third slat assembly.
5 . The flow distributor of claim 3 , wherein the first slat of the third slat assembly is wider than the first slat of the first slat assembly.
6 . The flow distributor of claim 1 , wherein the first slat assembly further comprises a third slat; wherein the distance between the first slat and second slat is different from the distance between the second slat and third slat.
7 . The flow distributor of claim 1 , wherein the second slat assembly further comprises a third slat; wherein the distance between the first slat and second slat is different from the distance between the second slat and third slat.
8 . The flow distributor of claim 1 , wherein the support structure comprises a substantially chevron-shaped configuration.
9 . The flow distributor of claim 1 , wherein the support structure comprises a substantially linear configuration.
10 . The flow distributor of claim 1 , wherein the support structure comprises a corrosion resistant material.
11 . A mixer-settler assembly comprising:
a vessel configured to conduct the flow of a liquid comprising an inbound portion and an outbound portion;
a flow distributor comprising:
a support structure;
a first slat assembly coupled to the support structure and comprising a first and second slat;
a second slat assembly coupled to the support structure and comprising a first and second slat;
a third slat assembly coupled to the support structure and comprising a first and second slat;
wherein the first slat of the first slat assembly has a beveled edge surface and the second slat of the first slat assembly has a beveled edge surface configured to be substantially parallel to the beveled edge surface of the first slat of the first slat assembly; and
wherein the first slat of the second slat assembly has a beveled edge surface and the second slat of the second slat assembly has a beveled edge surface configured to be substantially parallel to the beveled edge surface of the first slat of the second slat assembly.
12 . The mixer-settler assembly of claim 11 , wherein the beveled edge surface of the first slat of the first slat assembly lies in an intersecting plane with the beveled edge surface of the first slat of the second slat assembly.
13 . The mixer-settler assembly of claim 11 , wherein the first slat of the third slat assembly has a square edge surface and the second slat of the third slat assembly has a square edge surface.
14 . The mixer-settler assembly of claim 13 , wherein the square edge surface of the first slat of the third slat assembly is in contact with the square edge surface and the second slat of the third slat assembly.
15 . The mixer-settler assembly of claim 11 , wherein the first slat of the third slat assembly is wider than the first slat of the first picket fence assembly.
16 . The mixer-settler assembly of claim 11 , wherein the first slat assembly further comprises a third slat; wherein the distance between the first slat and second slat is different from the distance between the second slat and third slat.
17 . The mixer-settler assembly of claim 11 , wherein the second slat assembly further comprises a third slat; wherein the distance between the first slat and second slat is different from the distance between the second slat and third slat.
18 . The mixer-settler assembly of claim 11 , wherein the support structure comprises a corrosion resistant material.
19 . The mixer-settler assembly of claim 11 , wherein the support structure comprises a substantially chevron-shaped configuration and the apex or the chevron faces toward the outbound portion of the vessel.
20 . The mixer-settler assembly of claim 11 , wherein the support structure comprises a substantially linear configuration.
21 . A method comprising:
introducing a liquid into an inbound portion of a vessel comprising the inbound portion and an outbound portion; and
regulating the flow of the liquid by passing the liquid through a flow distributor comprising:
a support structure;
a first slat assembly coupled to the support structure and comprising a first and second slat;
a second slat assembly coupled to the support structure and comprising a first and second slat;
a third slat assembly coupled to the support structure and comprising a first and second slat;
wherein the first slat of the first slat assembly has a beveled edge surface and the second slat of the first slat assembly has a beveled edge surface configured to be substantially parallel to the beveled edge surface of the first slat of the first slat assembly; and
wherein the first slat of the second slat assembly has a beveled edge surface and the second slat of the second slat assembly has a beveled edge surface configured to be substantially parallel to the beveled edge surface or the first slat of the second slat assembly.
22 . The method of claim 21 , wherein the first slat assembly comprises a third slat; wherein the distance between the first slat and second slat is different from the distance between the second slat and third slat.
23 . The method of claim 21 , wherein the second slat assembly further comprises a third slat; wherein the distance between the first slat and second slat is different from the distance between the second slat and third slat.
24 . The method of claim 21 , wherein the liquid is a liquid used in a liquid-liquid extraction process.
25 . The method of claim 21 , wherein the liquid comprises a metal value.
26 . The method of claim 21 , wherein the liquid comprises at least one of an aqueous and an organic phase.
27 . The mixer-settler assembly of claim 21 , wherein the support structure comprises a substantially chevron-shaped configuration and the apex of the chevron faces toward the outbound portion of the vessel.
28 . The mixer-settler assembly of claim 21 , wherein the support structure comprises a substantially linear configuration.