

Large-Capacity Cooled Incubator
大容量低温培养箱
- SKU CIN-0005
- Cooling Incubators
- CE (to be confirmed)
- ISO 9001 manufacturing (to be confirmed)
- RoHS (to be confirmed)
Price on request — FOB / CIF quoted per order
Prices depend on configuration, quantity and destination port.
Key specifications
| Chamber volume | 500–1500+ L |
|---|---|
| Temperature range | 0–60 C |
| Temperature uniformity | ±1–2 C |
| Temperature fluctuation | ±0.3 C |
| Cooling system | Compressor, air-cooled |
| Shelves supplied | 6–12 or trays |
By Lab Manufacturers China Technical TeamLast reviewed Standards: IEC 61010-1, IEC 61010-2-010, DIN 12880
What is the Large-Capacity Cooled Incubator?
A large-capacity cooled incubator provides 500 to 1500 liters of refrigerated temperature control for bulk samples. It is chosen when many items must be held at one stable low temperature together in a single chamber.
What is the Large-Capacity Cooled Incubator?
A large-capacity cooled incubator provides 500 to 1500 liters of refrigerated temperature control for bulk samples. It is chosen when many items must be held at one stable low temperature together in a single chamber.
Overview
This incubator scales refrigerated temperature control to 500 to 1500 liters or more, often floor standing with double doors or a wide opening and multiple shelves or trays. Forced-air circulation with multi-zone elements and a strong refrigeration system holds uniformity of plus or minus 1 to 2 C and recovers within minutes after door openings, even with dense loads. Temperature spans 0 to 60 C, and defrost and condensation control are automated. Digital or programmable controllers with alarms and data output are standard, and some models include casters and locking doors. It serves bulk sample storage and conditioning, high-throughput shelf-life studies and industrial laboratory holding where many items must share one controlled condition.
How does it work?
A cooling incubator adds a refrigeration circuit or Peltier modules to a heated, insulated chamber. A compressor circuit evaporates refrigerant in a coil, absorbing heat, and condenses it outside; Peltier modules move heat electrically with no refrigerant, which suits smaller chambers. A Pt100 or thermistor sensor feeds a PID controller that coordinates heating and cooling to hold the setpoint from below ambient to about 60 C, switching between modes as needed. Forced-air circulation keeps uniformity within plus or minus 0.5 to 1 C, and defrost cycles prevent ice build-up on the evaporator, which would block airflow. Chamber walls are stainless steel, and doors carry heaters or heated frames to avoid condensation at low temperature. Programmable controllers, alarms and data logging support stability and shelf-life methods.
What are the key features?
- Chamber volume of 500 to 1500 liters or more
- Floor-standing with double doors or wide opening
- Strong compressor refrigeration with multi-zone air
- Uniformity of ±1 to 2 C across the chamber
- Automatic defrost and condensation control
- Casters and locking doors on some models
What are the technical specifications?
A typical large-capacity cooled incubator configuration offers chamber volume of 500–1500+ L, temperature range of 0–60 C, temperature uniformity of ±1–2 C, temperature fluctuation of ±0.3 C, cooling system of Compressor, air-cooled and shelves supplied of 6–12 or trays. Values are indicative of the product class; the exact figures for each configuration are confirmed on the quotation and the calibration documents supplied with the instrument.
Which applications is it used for?
The Large-Capacity Cooled Incubator is used in bulk sample storage at controlled temperature, high-throughput shelf-life studies, industrial laboratory sample holding and large-scale stability conditioning. Across the wider Cooling Incubators class, laboratories also deploy it for enzyme and biochemical assays at low temperature, stability and shelf-life studies and sample storage and conditioning.
Which standards and certifications apply?
Relevant standards and methods include IEC 61010-1, IEC 61010-2-010, DIN 12880, ISO 9001 and ISO 17025. Certification candidates for this model are CE, ISO 9001 manufacturing and RoHS; each is to be confirmed for the specific configuration before shipment, and certificates are supplied only where they have been issued.
Place the incubator where it can reject heat freely, with clearance around the condenser and vents, and avoid confined cabinets that raise ambient temperature. Keep the condenser fins clean, since dust reduces cooling and increases power use. Do not open the door at low temperature more than necessary, because ice forms on the evaporator and frames. Defrost on the recommended schedule, and drain condensate so it does not pool. Verify temperature at the working setpoint, not at a single midpoint, and calibrate with a reference probe at several positions. Check door heaters, gaskets and the refrigeration system during scheduled service, and keep records.
How do I select the right Large-Capacity Cooled Incubator?
Select the large-capacity cooled incubator when many items must share one controlled low temperature and repeated access to small units is inefficient. Confirm floor loading, door access, heat rejection and power. In the RFQ, specify volume, shelf layout, temperature range, uniformity and controller features.
How does it compare with other Cooling Incubators variants?
Choose a cooling incubator whenever the setpoint is at or below room temperature, because heating-only incubators cannot reach it, especially in warm rooms. Define the temperature range first, from a lower limit near 0 C for most units to lower values for specialized models, and decide whether you need humidity control. Select a compressor design for larger chambers and faster cooling, or Peltier for compact, quiet units without refrigerant. Match chamber volume to the load and check uniformity at the working temperature, since low-temperature operation widens gradients. Consider defrost strategy, condensation control, programmability and data logging, and confirm power, ventilation and heat rejection requirements.
Full specifications
| Chamber volume | 500–1500+ L |
|---|---|
| Temperature range | 0–60 C |
| Temperature uniformity | ±1–2 C |
| Temperature fluctuation | ±0.3 C |
| Cooling system | Compressor, air-cooled |
| Shelves supplied | 6–12 or trays |
| Recovery after door opening | 5–12 min |
| Defrost | Automatic |
| Cooling power | 1–3 kW |
| Power supply | 220/380 V, 50/60 Hz |
Indicative values for this product class. Final specifications are confirmed on the quotation and in the calibration documents supplied with the instrument.
Applications
- Bulk sample storage at controlled temperature
- High-throughput shelf-life studies
- Industrial laboratory sample holding
- Large-scale stability conditioning
Key features
- Chamber volume of 500 to 1500 liters or more
- Floor-standing with double doors or wide opening
- Strong compressor refrigeration with multi-zone air
- Uniformity of ±1 to 2 C across the chamber
- Automatic defrost and condensation control
- Casters and locking doors on some models
Frequently asked questions about Large-Capacity Cooled Incubator
Compressor cooling removes heat from the chamber and releases it, plus motor and control losses, into the room, typically around 1 to 3 kW of cooling plus that heat. Ventilation or air conditioning must handle it, and confined rooms overheat.
Typically five to twelve minutes after a door opening, because high power and strong airflow reheat or recool the chamber, but a full load slows recovery. Grouping access and closing the door promptly keeps conditions stable.
They protect valuable or regulated samples from unauthorised access and prevent the door from drifting open, which would waste cooling and disturb stored items. Locks also help where samples must be traceable or controlled under a quality system.
Because a standard incubator only heats. If the required setpoint is at or below room temperature, or the room is warm, a cooling incubator with refrigeration is needed to reach and hold it precisely. It also allows temperatures like 20 or 25 C in summer conditions.
Compressor refrigeration is efficient at larger volumes and can reach lower temperatures, but uses refrigerant and makes some noise and vibration. Peltier modules are compact, quiet and refrigerant-free but suit smaller chambers and use more power per degree of cooling.
Door heaters and heated frames keep glass and gaskets above the dew point, while scheduled defrost cycles melt ice from the evaporator. Condensate drains away so it does not pool, and airflow is maintained for uniform temperature.
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