750L Constant Temperature And Humidity Chamber 50%-90% Humidity Range THC-750
- External water tank design eliminates humidity fluctuations caused by internal tank temperature variations.
- Full visibility dual-layer safety glass window allows observation without environmental disturbance.
- Self-regulating compressor system minimizes temperature fluctuations (±0.3°C) for precision applications.
- 3D multi-directional heating technology achieves uniform temperature distribution within minutes.
- Intelligent dynamic coupling between temperature and humidity controllers prevents condensation issues.
- Laboratory-grade Pt100 sensor provides ±0.1°C temperature measurement accuracy.
- Automated water management system with visual and audible low-level warnings.
- Extensive programming capabilities with 99-hour timer and 50-program memory storage.
- Comprehensive protection: sensor failure alarms, deviation alerts, and continuous self-monitoring.
- Optional UV-C lamp (254nm) provides 99.9% microbial reduction between experimental runs.
| Model | THC-750 | |
| Chamber volume(L) | 750 | |
| Temperature range | 5℃~50℃ | |
| Temperature | Resolution | 0.1℃ |
| Fluctuation | ±0.5℃ | |
| Uniformity | ± 2℃ at 37℃ | |
| Controller | PID microprocessor control, soft touch, LED display | |
| Sensor | Pt 100 resistor | |
| Timer | Power-on, power off and working. Timing range: 1min-99hr | |
| Humidity range | 50%-90% | |
| Humidity | Accuracy | ±0.1%RH |
| Fluctuation | ±3%RH | |
| Controller | PID microprocessor control, soft touch, LED display | |
| Sensor | Capacitor type | |
| Material | Internal | Mirror polished 304 stainless steel |
| External | 08F | |
| Dimensions (WxDxH,cm) | Internal | 85*80*110 |
| External | 100*115*188 | |
| Net Weight(Kg) | 247 | |
| Consumption Power(W) | 3060 | |
| Shelf Size(mm) | 828*780 | |
| Shelf Qty(Standard/Maximum) | 3/17 | |
| Power Supply | 220V/50Hz (Optional: 220V/60Hz, 110V/60Hz) | |
Incubators provide essential environmental control for studies in entomology and parasitology. Researchers rearing insects for population studies, behavioral experiments, or as disease vectors (like mosquitoes or ticks) require precise control over temperature and often light/dark cycles—a role filled by environmental chambers or specialized incubators. For example, the life cycle of the malaria parasite (*Plasmodium*) within the mosquito vector is highly temperature-sensitive; studying this requires incubators set to mimic tropical conditions. In parasitology, the incubation of stool samples for diagnosing helminth (worm) eggs often uses specific temperatures to encourage larval hatching (e.g., the Baermann funnel technique).
Incubators are also used to maintain cell lines derived from insects, such as *Drosophila* or mosquito cells, which are crucial for studying arboviruses like dengue or Zika. These cell lines often have different optimal temperatures (e.g., 28°C for mosquito cells) than mammalian cells, requiring dedicated incubator space. The ability to simulate and maintain specific, stable thermal environments allows researchers to study the complex life cycles, transmission dynamics, and control methods for arthropods and parasites that impact both human health and agriculture.
Get in Touch
Have questions about our products or want to discuss a custom order? Our team is ready to help you.