Simulated Natural Climate Artificial Climate Incubator

FEATURES

1 high quality mirror stainless steel, high quality steel spray tank semi-circular corners, easy to clean, inside adjustable baffle spacing.

2 LCD screen, a screen display multiple sets of data, easy to understand, easy to observe and operate. Simple operation and high precision temperature control than the original digital form.
3 is equipped with the most advanced fuzzy PID intelligent temperature controller, the fluctuation is small, with a timer function (0-9999min)
3 with a separate limit temperature alarm system, exceeds the limit temperature is automatically interrupted, ensures experiments run safely and no accident would happen.
4 with 4 ~ 20mA standard current signal, RS485 interface can be connected to the recorder and the computer, to record changes in temperature parameters.
5 unique stainless steel circulating air duct, forced air circulation, temperature uniformity.
6. Number of microscopic timing function keys with computer temperature controller, temperature control is accurate and reliable;
7. The use of mirror stainless steel, semi-circular arc corners easy to clean, inside adjustable shelf spacing;
8. The glass observation window, easy to understand observation;

SPECIFICATION

Artificial Climate Chamber for Simulating Natural Climate

An artificial climate chamber for simulating natural climate is a laboratory device used to simulate different environmental conditions, such as temperature, humidity, and light, and is widely used in fields such as botany, microbiology, agriculture, and environmental science. This equipment allows precise control and adjustment of climate conditions to study the effects of various climates on living organisms (such as plants, microorganisms, etc.).

1. Temperature and Humidity Control:

• These chambers are typically equipped with precise temperature and humidity control systems. The temperature range usually varies from 5°C to 50°C, and the humidity range is from 40% to 95% RH (relative humidity).

• The control system can simulate different seasonal, weather, or specific natural climate conditions, providing high-precision climate simulation for research.

2. Light Simulation:

• The lighting system typically includes artificial light sources, such as LED lamps or fluorescent tubes, to simulate day-night cycles, varying light intensities, and light periods.

• The light control system can simulate sunlight exposure, diurnal and seasonal changes, supporting research on photosynthesis in plants and growth studies in microorganisms.

3. Dual or Multi-Zone Design:

• Some high-end artificial climate chambers feature a dual or multi-zone design, which allows for multiple independent, controlled environmental zones within the same unit. For example, one side may simulate daytime temperature and humidity conditions, while the other side simulates nighttime conditions.

• This design allows users to conduct experiments under different conditions simultaneously, increasing the diversity and flexibility of the research.

4. Gas Exchange and Air Circulation:

• Some chambers come equipped with a gas exchange system that adjusts the concentration of carbon dioxide, oxygen, and other gases to simulate natural changes in the atmosphere.

• The air circulation system ensures even airflow distribution within the chamber, maintaining the stability and uniformity of the environment.

5. Intelligent Control System:

• Advanced artificial climate chambers are typically equipped with intelligent control systems featuring touch screen interfaces, making it easy for users to adjust parameters such as temperature, humidity, and light with precision.

• These systems may support remote control and monitoring, allowing for real-time adjustments. Some devices also support connection with computers or mobile devices for live viewing and adjustments of the experimental environment.

6. Data Recording and Alarm Functions:

• The chamber typically includes data logging functions, recording parameters such as temperature, humidity, and light intensity, which allows users to trace the changes that occurred during the experiment.

• If environmental conditions exceed set limits, the chamber automatically sends alarms to alert users to take timely action, preventing experimental data deviations.

1. Plant Growth Research:

• Artificial climate chambers can be used for various plant growth studies, especially to examine the effects of different light, temperature, and humidity conditions on plant growth.

• They can simulate different seasonal and climate conditions, supporting research on plant breeding, photosynthesis, and the impact of climate change on plants.

2. Agriculture and Horticulture:

• In agricultural and horticultural research, artificial climate chambers are used to optimize plant growth conditions, conducting experiments on seed germination, plant growth cycles, etc.

• They are crucial for studying crop growth, pest and disease control, and other aspects under various climate conditions.

3. Microbial Cultivation:

• These chambers are used to study microbial growth under specific climate conditions, such as examining bacterial and fungal growth patterns and adaptability under varying temperature and humidity environments.

4. Ecology and Environmental Research:

• The chambers are used to simulate the responses of organisms to different climate change conditions, studying the impacts of climate change on ecosystems and species.

• They help research how species adapt to extreme climate conditions and predict potential ecological impacts of future climate changes.

5. Environmental Control Experiments:

• By precisely controlling temperature, humidity, and light conditions, the chambers simulate the diversity of natural environments for climate and environmental science experiments.

Artificial climate chambers for simulating natural climates are essential devices in laboratory research. They allow for the simulation of various natural climate conditions and provide reliable environmental control for research in fields such as botany, microbiology, agriculture, and environmental science. By precisely adjusting temperature, humidity, and light parameters, these devices help researchers better understand how the environment affects the growth, development, and adaptation of organisms, providing theoretical support for agriculture, ecological protection, and climate change issues.