Incubators with observation windows enable users to view samples without opening the door, minimizing contamination risks and maintaining temperature stability. They also eliminate the need for external thermometers.
Digital thermostats offer greater accuracy than analog units and make tweaking less labor-intensive. Digital models often have a communication port and can communicate with other incubators in the lab.
Thermostat
The thermostat is the critical component of a good incubator, ensuring it holds a consistent temperature. There are many different types of thermostats, and the one you choose will depend on your needs & the species of eggs you’re incubating.
Some people prefer to build their incubators, which is cost-effective when using a DIY method such as cutting up styrofoam insulative sheets. However, this can take some time to complete & requires careful planning.
Often these incubators will feature a thermoelectric cooling mechanism that reduces the need for a refrigeration compressor, saving you money on your electricity bill. This can be particularly helpful when working with sensitive species such as reptile eggs or bacterial cultures.
Temperature Sensors
A refrigerator incubator with internal doors can be helpful when working on delicate samples that need to be seen without opening the chamber and affecting the temperature. You can also choose a model with an access port or internal outlet to use other lab equipment inside the incubator.
Look for a refrigerated incubator with reliable and accurate temperature sensors that offer consistent results for your research. Some of the best incubators use a standard thermocouple sensor, and others feature a Peltier device with an integrated microprocessor to ensure superior temperature control, uniformity, and alarm features. Some even provide a battery backup system that automatically switches to run on batteries if the main power fails. This feature can help preserve your work when leaving the lab after hours or on weekends.
Thermostat Controls
Choosing a refrigerated incubator with rounded corners helps eliminate tight crevices where dirt and moisture can develop. Frequent cleaning with chemical disinfection also helps reduce the likelihood of contamination within your lab incubator.
Refrigerated portable incubators help keep contents at a consistently cold temperature to encourage or stop growth in cells, tissue cultures, and other samples. These units are ideal for BOD determinations, plant and insect studies, fermentation tests, bacterial culturing, and water pollution testing.
Precision refrigerated science incubator has heavy-duty systems that optimize air circulation, temperature uniformity, and stability. They also have programmable controllers that offer several alarm functions and are well-insulated to minimize heat loss. Thermostat controls have a digital display for easy programming and viewing. This provides accurate and repeatable results.
Thermostat Settings
Foam insulation panels can be found at home improvement stores per 24″X2″ X96″ for a DIY giant incubator. They can easily be cut to size & are glued together with silicone (along all edges & seams). This type of insulation works well for this project & will ensure that eggs won’t overheat near the heating element.
Refrigerated portable incubators preserve contents at a consistently cold temperature to encourage or inhibit growth in cells, tissue cultures, and more. These models are essential for bringing biological samples into or out of the lab, whether conducting plant and insect research, bacterial culturing, fecal coliform & E. coli testing, or water pollution tests.
BOD incubators are equipped with Peltier technology to reach and maintain low temperatures necessary for the Biochemical Oxygen Demand test. UL and C-UL listed feature heavy-duty refrigeration systems available in various volumes to suit your specific application.
Temperature Sensors
Laboratory incubator temperature sensors help safeguard necessary samples like embryos or cell cultures. Because these samples are so fragile, even slight deviations from optimal temperature can ruin the experiment.
Temperature sensors convert the ambient air temperature into an electronic signal readable by the monitoring system. Many different types of sensors perform this function, including RTDs (sensors whose resistance changes with temperature) and thermistors (sensors with a non-linear resistance vs. temperature curve).
Ideally, the monitoring system should provide an easy-to-use configuration interface for choosing how the sensors are configured and how alarming should occur. This includes naming the sensors, setting their limits and sample rates, and determining who should receive alarms and how to deliver them.
