Centrifuge rotor for separation and processing of complex fluids
A rotor is provided for use in a centrifuge system configured to spin the rotor for separating complex fluids. The rotor includes a housing configured to be secured by the centrifuge system and several chambers formed in the housing. Each chamber includes a first chamber portion having a port formed therein and a second chamber portion in fluid communication with the port of the first chamber portion. The second chamber portion may be disposed generally below the port of the first chamber portion. Other rotor designs and methods for separating complex fluids are further disclosed.
1. A rotor for use in a centrifuge system configured to spin the rotor, the rotor comprising:
a housing configured to be secured by the centrifuge system; and
at least one chamber formed in the housing, the at least one chamber including a first chamber portion having an outlet port formed therein and a second chamber portion in fluid communication with the outlet port of the first chamber portion, the first chamber portion having a bottom wall portion, the second chamber portion having a bottom wall portion disposed below the bottom wall portion of the first chamber portion, the bottom wall portion of the first chamber portion forming part of the outlet port that communicates with a channel connecting the first chamber portion to an inlet port provided in the second chamber portion, the second chamber portion being disposed generally below the outlet port of the first chamber portion, the first chamber portion being disposed inboard with respect to the second chamber portion, the bottom wall portion of the first chamber portion sloping towards the outlet port of the first chamber portion, the channel having a height and a width that are smaller than a height and a width of the first chamber portion at a location inboard of the outlet port to restrict the free flow of fluid from the first chamber portion to the second chamber portion.
2. The rotor of claim 1 , wherein the first chamber portion and the second chamber portion are configured so that when a centrifuge operation takes place, a first complex fluid component is substantially retained in the first chamber portion and a second complex fluid component is substantially retained in the second chamber portion.
3. The rotor of claim 1 , wherein the bottom wall portion of the first chamber portion slopes upwardly to the outlet port of the first chamber portion.
4. The rotor of claim 3 , wherein the first chamber portion of the at least one chamber includes an inlet/outlet opening configured to receive a complex fluid.
5. The rotor of claim 4 , wherein the first chamber portion and the second chamber portion are configured so that when a centrifuge operation takes place, a first complex fluid component is substantially retained in the first chamber portion and a second complex fluid component is retained in the second chamber portion.
6. The rotor of claim 3 , wherein the bottom wall portion of the first chamber portion is configured to direct fluid to the outlet channel.
7. The rotor of claim 1 , wherein the first chamber portion and the second chamber portion extend along a radial axis of the rotor, the first chamber portion and the second chamber portion being configured so that when a centrifuge operation takes place, a first complex fluid component is retained in the first chamber portion and a second complex fluid component is retained in the second chamber portion.
8. The rotor of claim 1 , wherein the second chamber portion has a fill line disposed generally below the outlet port of the first chamber portion, the fill line representing a volume created by the second chamber portion in which material is retained within the second chamber portion below the outlet port.
9. The rotor of claim 1 , wherein the first chamber portion includes a wall that slopes toward the outlet port of the first chamber portion.