Illuminated incubator PGC-D450
Features
- Features a fully stainless steel workspace with an integrated power
socket and dual-layer door system.
- Advanced LED lighting offers 8 adjustable grades with stepless
control, eliminating errors from traditional lamp aging.
- Microprocessor enables complex programming, simulating natural
environments through controlled temperature and light transitions.
- The 30-segment temperature programming function allows for detailed
replication of thermal cycles.
- Reliable compressor system ensures quiet operation and consistent
low-temperature performance with intelligent safeguards.
- 3D uniform heating technology prevents temperature stratification
within the chamber.
- High-speed digital controller and precision sensor provide
accurate, stable climatic control.
- Automatic airflow speed adjustment optimizes conditions for
different types of samples.
- System includes self-diagnostics, multiple alarms for deviations,
and parameter storage.
- Optional independent temperature limit controller adds a critical
backup safety mechanism.
Specifications
| Model | PGC-D450 |
| Chamber volume (L) | 450 |
| Temp. Control Range | Without illumination: 0℃~60℃. With illumination: 10℃~60℃ |
| Temperature | Resolution | 0.1℃ |
| Fluctuation | ± 0.5℃ |
| Uniformity | ± 1.5℃ |
| Controller | PID microprocessor control, soft touch, LED display |
| Sensor | PT100 |
| Illumination | 0-20000LX | 0-20000LX |
| Timer | Power-on, power off. Timing range: 1min~ 2970hr |
| Material | Internal | 304 stainless steel |
| External | 08F |
| Dimensions (WxDxH,mm) | Internal | 700*650*950 |
| External | 850*910*1730 |
| Net Weight(Kg) | 190 |
| Consumption Power(W) | 1630 |
| Shelf Size(mm) | 634*630 |
| Shelf Qty Standard/Maximum) | 3/13 |
| Power Supply | 220V/50Hz (Optional: 220V/60Hz, 110V/60Hz) |
*Working temperature: 5-30℃. Max. working humidity: 80%RH.
Max.working altitude: 2000m
Introduction about incubator
While primarily viewed as a scientific tool, the laboratory
incubator also represents a significant investment with ongoing
operational costs, prompting economic and sustainability
considerations. The initial purchase price varies widely based on
features, size, and brand. However, the total cost of ownership
includes energy consumption, calibration services, replacement
parts (e.g., sensors, filters), and potential downtime.
Energy-efficient models with better insulation, efficient heaters,
and smart recovery algorithms can lead to substantial savings,
especially for units running 24/7. Sustainability aspects are
gaining attention. Some manufacturers now use eco-friendly
refrigerants in cooled models and design units for easier
disassembly and recycling. The high water consumption of
traditional humidity pans in CO2 incubators is being addressed with
recirculating or waterless humidity systems.
Furthermore, the trend towards modular, repairable designs over
fully sealed units reduces electronic waste. For a lab manager,
choosing a durable, energy-efficient model from a supplier with a
strong service network is not only an operational decision but also
a financial and environmental one, aligning scientific needs with
fiscal responsibility and reduced ecological impact.