Understanding Environmental and Vibrational Control Options for Benchtop Fluorescence Microscopes

Fluctuating environmental conditions and vibrations can have a significant impact on image quality, reproducibility and experimental success in fluorescence microscopy. Especially long-term studies, live-cell experiments, high-resolution imaging, and automated imaging workflows require mechanical stability and careful control of environmental conditions such as temperature and humidity.

Different microscope designs offer varying levels of vibration reduction and environmental regulation. This overview explains the most common solutions on vibration and environmental control and highlights key considerations when selecting a system.

Vibrational Control

Stable mechanical conditions ensure the acquisition of sharp, reproducible images, particularly during long time-lapse, Z-stack, 3D, or high-resolution imaging experiments. Depending on the imaging modality used and the vibration profile of your laboratory environment, vibration-minimising features can be critical.

While widefield fluorescence imaging, especially at lower magnifications, often does not require dedicated vibration control, confocal and super-resolution imaging are more sensitive to mechanical disturbances and need vibration-reducing measures.

Fig. 1 — Stitched image of zebrafish intestine. The image was acquired using the confocal imaging modality of the BC43 system, employing 4 imaging channels, 77 z-stacks, and 28 tiles. The final stitched image comprises a total of 15,092 individual images, yet appears as a single seamless snapshot. This high-quality stitching is achieved through Borealis's uniform illumination, robust anti-vibration design, and the Imaris Stitch algorithm. (A) Full view of the intestine section. (B) Zoomed-in view highlighting structural details of the intestinal tissue. Both deconvolution and stitching options were enabled during acquisition. Sample courtesy of Julien Resseguier, NorMic, University of Oslo. Image credit: Claudia Florindo, Oxford Instruments.

Environmental Control

Maintaining stable environmental conditions is essential for reliable and reproducible imaging, particularly when working with live cells or long time-lapse experiments. Fluctuations in temperature, gas composition, humidity, or mechanical stability can introduce image drift and directly affect cell physiology.

Benchtop fluorescence microscopes differ considerably in the level of environmental control they provide. Enclosed (boxed) systems naturally reduce exposure to ambient environmental variations compared with open-frame designs. However, for specific applications such as live-cell and long-term imaging, environmental control solutions are required.

Fig. 2 — Visualising mammalian cell division with BC43. Time lapse image acquired every 3 min, using the confocal imaging modality. Cells were incubated at 37°C, Yellow: microtubules; cyan: DNA. Image credit: Ines Baião-Santos and Álvaro Tavares, Universidade do Algarve, Claudia Florindo, Oxford Instruments.

Exploring Benchtop Fluorescence Microscopes?

Learn more about the key technologies, components and practical considerations involved in selecting a benchtop fluorescence microscope.

BC43 – Exceptional Performance, Certified Quality, High Productivity

• The BC43 is mounted on feet composed of silicone dampers that provide passive vibration control, creating an exceptionally robust anti-vibration setup for the entire system. When placed on a standard laboratory bench, routine activities such as operating benchtop centrifuges or sample mixers can continue without compromising image acquisition performance. High-quality 3D stacks, multi-tile stitched images and even super-resolution images can all be acquired on the BC43.
• The BC43 supports stage-top incubators that integrate temperature, humidity, CO₂, and hypoxia control, allowing full experimental flexibility. For BSL-3/4 laboratories, the BC43 incubation solution specifically includes a coated stage-top incubator that can withstand robust decontamination protocols (decontamination procedures should be confirmed in advance).