Mechanism for storage of refrigerated calibration and quality control material

1. A refrigerated storage assembly for integration into a clinical analyzer comprising:

an insulated housing;

an insulated door assembly comprising one or more doors;

one or more thermoelectric coolers; and

a refrigerated base assembly contained within the insulated housing and beneath the insulated door assembly, wherein the refrigerated base assembly comprises:

an interior thermal sink thermally coupled to the one or more thermoelectric coolers,

one or more thermal sensors,

a plurality of receptacles arranged in an array, each receptacle configured to receive one of a plurality of fluid tubes, and

a plurality of removable evaporation covers, configured to rest on the refrigerated base assembly without contacting the plurality of fluid tubes and configured to be moved by a sample handling robot arm,

wherein when the one or more doors are closed, the refrigerated base assembly provides a refrigerated environment configured for multi-day storage of at least one of a control and a calibrator fluid contained within the plurality of fluid tubes.

2. The refrigerated storage assembly of claim 1 , wherein the insulated door assembly comprises a first and a second door that opens and closes in a sliding manner.

3. The refrigerated storage assembly of claim 2 , wherein each of the first and second doors is controlled by a motor and a rack and pinion gear mechanism.

4. The refrigerated storage assembly of claim 2 , wherein the door assembly is configured to be opened when the robot arm moves the first door, the second door being coupled to the first door via a rack and pinion gear mechanism.

5. The refrigerated storage assembly of claim 1 , wherein the one or more thermoelectric coolers comprises three thermoelectric coolers, each cooler comprising a Peltier cooling device, a fan, and a heatsink.

6. The refrigerated storage assembly of claim 1 , wherein the plurality of evaporation covers comprise an external shape having a top portion having a diameter substantially similar to a diameter of each of the fluid tubes and a base portion having a diameter large enough to surround a top portion of each fluid tube.

7. The refrigerated storage assembly of claim 1 , wherein the plurality of evaporation covers comprise a polymer material and one or more magnets that magnetically couple to the refrigerated base assembly.

8. The refrigerated storage assembly of claim 6 , wherein the plurality of evaporation covers are configured such that each evaporation cover does not touch each of the plurality of fluid tubes when placed onto the refrigerated base assembly.

9. The refrigerated storage assembly of claim 1 , further comprising a plurality of channels and at least one drain, wherein the plurality of channels and the at least one drain are configured to remove condensation from within the insulated housing.

10. The refrigerated storage assembly of claim 1 , wherein the plurality of receptacles each comprise a V-shaped wall and a spring that pushes each of the fluid tubes into the V-shaped wall.

11. A sample handler module for use in an in vitro diagnostics (IVD) analysis system comprising:

a robot arm;

a plurality of input drawers configured to receive trays of sample fluids; and

a refrigerated storage assembly configured to store at least one of a control and calibrator fluid for multi-day storage, wherein the refrigerated storage assembly comprises:

an insulated housing,

an insulated door assembly comprising one or more doors,

one or more thermoelectric coolers, and

a refrigerated base assembly contained within the insulated housing and beneath the insulated door assembly, wherein the refrigerated base assembly comprises:

a metal plate thermally coupled to the one or more thermoelectric coolers,

one or more thermal sensors, and

a plurality of receptacles arranged in an array, each receptacle configured to receive one of a plurality of fluid tubes.

12. The sample handler module of claim 11 , wherein the insulated door assembly comprises a first and a second door that open and close in a sliding manner.

13. The sample handler module of claim 12 , wherein each of the first and second doors is controlled by a motor and a rack and pinion gear mechanism.

14. The sample handler module of claim 12 , wherein the door assembly is configured to be opened when the robot arm moves the first door, the second door being coupled to the first door via a rack and pinion gear mechanism.

15. The sample handler module of claim 11 , wherein the one or more thermoelectric coolers comprises three thermoelectric coolers, each cooler comprising a Peltier cooling device, a fan, and a heatsink.

16. The sample handler module of claim 11 , further comprising a plurality of evaporation covers that are configured to be placed over each of the plurality of fluid tubes.

17. The sample handler module of claim 16 , wherein the plurality of evaporation covers comprise one or more magnets that magnetically couple to the refrigerated base assembly.

18. The sample handler module of claim 16 , wherein the plurality of evaporation covers are configured such that each evaporation cover does not touch each of the plurality of fluid tubes when placed onto the refrigerated base assembly.

19. The sample handler module of claim 11 , wherein the insulated housing comprises a bottom surface having a plurality of channels and at least one drain, wherein the plurality of channels and the at least one drain are configured to remove condensation from within the insulated housing.

20. The sample handler module of claim 11 , wherein the plurality of receptacles each comprise a V-shaped wall and a spring that pushes each of the fluid tubes into the V-shaped wall.

21. A method for automated storage of at least one of a control and calibrator fluid, comprising steps of:

opening, using at least one of a sample handling robot arm and a motor, an insulated door assembly to a refrigerated chamber;

lifting at least one of a plurality of evaporation covers contained within the refrigerated chamber using the sample handling robot arm;

placing at least one of a plurality of fluid tubes containing at least one of a control and a calibrator fluid into one of a plurality of receptacles in the refrigerated chamber using a robot arm;

replacing the at least one of a plurality of evaporation covers over the at least one of a plurality of fluid tubes using a robot arm;

closing the insulated door assembly to the refrigerated chamber; and

regulating, via a processor, temperature of the refrigerated chamber using at least one thermoelectric device.