Methods and apparatus for moving aliquot samples of fluid

1. A method of moving an aliquot sample of fluid from a first fluid to a second fluid, said method comprising the steps of: (a) providing the first fluid, (b) providing the second fluid, and (c) using a shuttle valve to remove the aliquot sample of fluid from the first fluid and input the aliquot sample of fluid into the second fluid while maintaining a continuous flow path of the second fluid through the shuttle valve, wherein a continuous flow path of the first fluid and a continuous flow path of the second fluid is maintained through the shuttle valve as the aliquot sample of fluid is removed from the first fluid and inputted into the second fluid.

2. A method of moving an aliquot sample of fluid, said method comprising the steps of:

(a) providing a first fluid, and

(b) using a shuttle valve to remove the aliquot sample of fluid from the first fluid and input the aliquot sample of fluid into a second fluid flowing through the shuttle valve while maintaining (i) continuous flow of the first fluid through the shuttle valve and (ii) continuous flow of the second fluid through the shuttle valve.

3. The method according to claim 2 , wherein fluid flow of the first fluid through the shuttle valve is substantially laminar.

4. The method according to claim 2 , wherein pressure of the first fluid through the shuttle valve remains substantially constant.

5. A method of moving an aliquot sample of fluid, said method comprising the steps of:

(a) providing a static body having at least two channels therethrough such that a portion of each of the at least two channels intersects with a first surface of the static body,

(b) providing a dynamic body having an aliquot dimple that intersects with a first surface of the dynamic body, the first surface of the static body and the first surface of the dynamic body being contiguous with each other and the at least two channels and the aliquot dimple located such that the aliquot dimple is in fluid communication with one channel of the at least two channels in a first position and in fluid communication with another channel of the at least two channels in a second position,

(c) continuously flowing, a first fluid through one of the in least two channels, continuously flowing a second fluid through another of the at least two channels, aligning the aliquot dimple in the first position, allowing the aliquot sample, from the first fluid, to flow into the aliquot dimple, and

(d) moving the aliquot dimple to the second position, whereby the aliquot sample is transferred to the second fluid while the first fluid and the second fluid continuously flow through the at least two channels,

wherein at least a portion of at least one channel of the at least two channels is substantially parallel to the first surface of the static body.

6. An apparatus capable of moving an aliquot sample of fluid, said apparatus comprising: (a) a first fluid path, (b) a second fluid path, and (c) a shuttle valve capable of removing the aliquot sample of fluid from the first fluid path and inputting the aliquot sample of fluid into the second fluid path while maintaining continuous flow of a fluid through the second fluid of the shuttle valve, wherein the shuttle valve is capable of removing the aliquot sample of fluid from the first fluid path while maintaining continuous flow of a first fluid within the first fluid path and continuous flow of a second fluid within the second fluid path of the shuttle valve.

7. An apparatus capable of moving an aliquot sample of fluid, said apparatus comprising:

(a) a first fluid path,

(b) a second fluid path, and

(c) a shuttle valve capable of removing the aliquot sample of fluid from the first fluid path and inputting the aliquot sample of fluid into the second fluid path while maintaining (i) continuous fluid flow in the first fluid path through the shuttle valve and (ii) continuous fluid flow in the second fluid path through the shuttle valve.

8. The apparatus according to claim 7 , wherein the continuous fluid flow in the first fluid path through the shuttle valve is substantially laminar.

9. The apparatus according to claim 7 , wherein pressure in the first fluid path through the shuttle valve remains substantially constant.

10. An apparatus capable of moving an aliquot sample of fluid, said apparatus comprising:

(a) a static body having at least two paths therethrough such that a portion of each path of said at least two paths intersects with a first surface of the static body, and

(b) a dynamic body having an aliquot dimple that intersects with a first surface of the dynamic body, the first surface of the static body and the first surface of the dynamic body being contiguous with each other and the at least two paths and the aliquot dimple being located such that the aliquot dimple is in fluid communication with a first path of said at least two paths in a first position and in fluid communication with a second path of said at least two paths in a second position, said static body and said dynamic body being movable relative to one another so as to move said aliquot dimple from said first position to said second position while maintaining continuous fluid flow through said first path and said second path,

wherein at least a portion of the first path is substantially parallel to the aliquot dimple.

11. The apparatus according to claim 10 , wherein at least a portion of the first path is parallel to the first surface of the static body.

12. The apparatus according to claim 10 , wherein at least to portion of the second path is parallel to the first surface of the static body.

13. The apparatus according, to claim 10 , wherein the apparatus further comprises a dosing device.

14. The apparatus according to claim 10 , wherein the apparatus further comprises a sample removal device for sample analysis.

15. The apparatus according to claim 10 , wherein the apparatus further comprises a sample injection device for chromatography systems.

16. The apparatus according to claim 10 , wherein the apparatus is capable of performing at least about 5 million aliquot sample transfers from the first path to the second path before servicing of the apparatus is required.

17. The apparatus according to claim 10 , wherein the dynamic body is constructed of ultrahigh molecular weight polyethylene and the static body is constructed of natural polyetheretherketone.