Developed by Microscopists, for Microscopists

In Vivo Scientific offers the most advanced live cell imaging environments available. Because all of our products have been designed and empirically tested by scientists working in the live cell microscopy field, we can ensure the absolute highest degree of temperature precision and stability.

Other incubators for live cell microscopy rely on passive, random diffusion of heated air from a single source to maintain the desired temperature setpoint at the sample (upper right panel). Since these systems provide no air-return, this heated air eventually escapes from the incubator through cracks at the microscope/incubator junction in an uncontrolled, random fashion. Because of this design, such incubators suffer from the following flaws:

  
   
 
  • Lack of temperature uniformity throughout the chamber and across the stage, causing temperature differences across multiwell plates.
  • Temperature flucturations at the sample being imaged, resulting in focus drift.
  • Electrical and vibrational interference from the heater.
  • Large changes in temperature when the imaging environment is disturbed (e.g. incubator doors opened).
   
Temperature uniformity of other incubators (left) vs. In Vivo Scientific incubators (right). Warmer temps indicated by red and cooler temps by blue.
 
In Vivo Scientific incubators are designed and empirically tested to reduce or eliminate these flaws found in other incubators. Instead of relying on passive diffusion of air to warm the incubator/sample, our incubators employ a unique diffusion grid design in combination with both an air input and an air return (middle right panel). This design results in predictable, uniform airflow throughout the chamber, eliminating cool or hot spots within the incubator itself, and vastly improving temperature stability at the sample being imaged. Maintenence of the desired temperature setpoint is achieved through the use of a precision, shielded temperature probe coupled to a peripheral heating unit. Because the heater unit can be placed away from the incubator itself, elimination of electrical and vibrational interference from the heater itself can be achieved. Accuracy +/- 0.1 deg. C can routinely be maintained at the sample itself, and 0.2 deg. C. across the microscope stage (allowing for uniform heating of multiwell dishes). These tight tolerances result in minimal focal drift once sample/incubator equilibrium has been achieved. Furthermore, because of the airflow pattern and temperature uniformity, the incubator temperature rapidly re-adjusts following the opening of incubator doors (e.g. during sample changing/manipulation or microscope hardware manipulation).
  
Left: Thermal Stability of In Vivo Scientific Incubators. Temperatures were recorded with a digital temperature probe placed at the center of the stage. High precision temperature stability is maintained over both short (left) and long (right) durations.

Right: In Vivo Scientific Incubator on a Nikon Eclipse TE-2000 Microsocpe. Incubators for Zeiss and Olympus microscopes are also available, as well as versions that accommodate confocal modules. All incubators are compatible with all commercially available cameras, light sources, filter wheels, motorized stages, and motorized nosepiecs.

All incubators are designed with ergonomics as well as performance in mind. Microscope controls are easily accessible when the incubator is installed, and focus and x,y stage controls of the microscope are outside of the incubator itself. Large, logically positioned doors allow easy access to the specimen and other microscope controls , and smaller doors allow for cords, tubing, and miscellaneous access. The incubator itself can be installed by a single person in a matter of minutes.