Introduction
Thermostatic Incubator features a chamber of capacity 80 and leakage protection systems. The incubator has a double-door construction, comprising an inner glass door and an outer solid door. Additionally, it incorporates self-tuning technology, which automatically adjusts power output. Our incubator is widely used across medical, pharmaceutical, agricultural, and other scientific research laboratories.
It provides a stable and controlled environment for cell culture, microbial growth, and other biological experiments. The precise temperature and humidity control ensure consistent experimental conditions and reliable results.Applications
Our Thermostatic Incubator is used for bacterial culture, breeding, and fermentation under controlled temperatures. It is applicable in medical, pharmaceutical, biochemistry, agricultural, and industrial research labs.
Specifications
| Capacity | 80 L |
| Temperature Range | RT + 5℃ to 65℃ |
| Temperature Accuracy | 0.1℃ |
| Temperature Fluctuation | ± 0.5℃ |
| Timer Range | 0 to 9999 min or continuous |
| Control System | Microcomputer control |
| Grid (Standard/ Maximum) | 2/4 |
| Power Supply | 110 V 60 Hz/ 220 V 50 Hz |
| Power Consumption | 300 W |
| Working Chamber Dimensions | 400 × 400 × 500 mm |
| Overall Dimensions | 530 × 530 × 840 mm |
| Package Dimensions | 630 × 650 × 980 mm |
| Net Weight | 47 kg |
| Gross Weight | 62 kg |
Features
Microcomputer-based temperature control
Automatic end-of-work alarm
Flexible door with invisible hinge
Stainless-steel chamber
Double-digit digital display
FAQs
1. How does the Thermostatic Incubator maintain such precise temperature control?
Thermostatic Incubator uses a microcomputer-based self-tuning control system that constantly monitors and adjusts the heating element to maintain the target temperature. This system minimizes fluctuations to ±0.5? and provides a fine temperature accuracy of 0.1?. The double-door design, with an inner glass door and outer solid door, also reduces heat loss and stabilizes the internal environment, which is essential for sensitive biological and chemical processes.
2. Why is microcomputer-based control important in the Thermostatic Incubator ?
The microcomputer control system in the Thermostatic Incubator allows real-time monitoring, automatic adjustments, and self-tuning, which are essential for maintaining consistent experimental conditions. Unlike manual thermostatic controls, it provides greater accuracy, repeatability, and ease of operation for modern laboratory requirements.
3. How does the Thermostatic Incubator ensure sample safety during power fluctuations or over-temperature conditions?
The Thermostatic Incubator includes sound and light alarm systems that alert the user if the temperature exceeds safe limits. Combined with its microcomputer-based control, this feature helps prevent sample degradation. While it does not have an integrated power backup, its fast recovery time ensures that the internal environment quickly stabilizes after a brief interruption.
4. How does the dual-door structure of the Thermostatic Incubator benefit laboratory operations?
The dual-door system of Thermostatic Incubator is designed to reduce temperature fluctuations when accessing the chamber. The inner glass door allows users to visually inspect samples without fully opening the incubator, thereby minimizing heat loss. This feature is particularly valuable in experiments where a consistent temperature is critical for the integrity of results.
5. Can the Thermostatic Incubator be used for long-duration experiments?
Yes, the Thermostatic Incubator supports continuous operation in addition to timed runs of up to 9999 minutes. Its efficient insulation and low energy consumption (300 W) make it suitable for prolonged experiments such as microbial growth cycles, enzyme activity studies, and biochemical reactions that require stable thermal conditions over days or weeks.
Tips: For more details, quotes and customized solutions, please contact us anytime. We’re always ready to serve you professionally.

