Condition → transfer → recover → expose
Thermal-shock performance is not one speed number. Basket transfer, chamber recovery, specimen response and exposure time describe different parts of the cycle.
Choose the shock architecture first, then compare the approved 64–1,000 L two-zone basket models, specimen fit, utilities and real engineering evidence. Three-zone static chambers are integrated in the same family interface without borrowing two-zone specifications.

Choose the thermal-shock architecture first. The approved two-zone basket table below contains five published models from 64 to 1,000 L; three-zone chambers share this page structure but retain their own project-specific specification boundary.

One specimen basket transfers between independently prepared hot and cold zones. Select this architecture when fast environmental exchange around the same loaded fixture is the required method.
Temperature range for the supplied family: cold chamber −75 to +150°C; hot chamber +60 to +180°C. Dimensions are shown as W × H × D.

Approved reference data from the supplied model table. Final selection must still be checked against the specimen, fixture, mass, recovery basis, utilities and destination power supply.
Use the model code, workspace, observation window and basket-load class for the first selection. Project utilities and detailed engineering configuration are confirmed through enquiry.
| MODEL | VOLUME | CHAMBER RANGE | WORKSPACE W × H × D | WINDOW W × H | RACK LOAD | POSITIONING |
|---|
Source: the supplied two-zone basket model table. Cold chamber range −75 to +150°C; hot chamber range +60 to +180°C. Confirm the specimen, fixture, recovery basis, project utilities and acceptance criteria through the approved quotation and technical specification.
A servo motor and screw-drive mechanism lifts or lowers the stainless-steel basket between the upper and lower chambers. Opposed covers seal the inactive zone, while each chamber maintains its own prepared condition.
Thermal-shock performance is not one speed number. Basket transfer, chamber recovery, specimen response and exposure time describe different parts of the cycle.
The gallery has been reduced to three distinct views per category. The selected image is shown once at full size; only the two alternative views appear beside it, avoiding repeated crops of the same component.

Image policy: one overview is used whenever it can show several related details clearly. All photographs are compressed versions of the supplied real-equipment files; final approved components follow the released project specification.
This section now uses a compact engineering summary instead of repeating photographs already shown in the real-equipment gallery.
Moving-basket sensing, opposed sealing covers and position monitoring support repeatable cycling.
Composite insulation, silicone seals, a heated observation window and controlled airflow protect both conditioned zones.
Refrigeration architecture is selected from the cold endpoint, specimen load, recovery basis and site utilities.
Overtemperature, pressure, phase, overload, airflow and emergency protections form coordinated layers.
Start with the supplied source record, then separate basket transfer, chamber recovery, specimen response and exposure time. Final acceptance still follows the confirmed model, load, sensor position and method.

The full source window makes cycle continuity and repetition visible instead of reducing performance to a single marketing number.
Evidence boundary: this source is platform evidence from a three-chamber stored-condition program; it is not presented as acceptance proof for every selected two-zone basket model. Confirm the exact model-specific record during engineering review.
Use this table to prepare the engineering conversation.
Collapsing these into one “speed” claim creates acceptance disputes.
The controller coordinates zone setpoints, exposure time, basket position, cycles, defrost logic, alarms and data records. The photographed interface is from the supplied machine; final language and function set follow the selected controller release.

Send the parameters that materially affect basket size, refrigeration capacity, recovery, airflow, feedthroughs, utilities and the acceptance method.
The same inspection framework used on the temperature-and-humidity chamber page is applied here, connecting structure, transfer hardware, refrigeration, controls and release review in one traceable process.



Every process owner checks the work, the next process cross-checks the handoff, and final QA controls release. Identified issues are rectified and re-checked before sign-off.
Share the standard, specimen dimensions, fixture, mass, heat load, hot/cold profile, dwell, cycle count, utilities and acceptance basis. The selected family model is carried into the request automatically.