Lumascopes
Applications: Bioluminescence Microscopy for Live-Cell Imaging
“Bioluminescence is an attractive alternative to fluorescence for live-cell imaging; however, its low intensity has prevented widespread adoption.”
Bioluminescence Microscopy Comes Into Focus
A recent study published in Nature highlights a clever new approach to bioluminescence microscopy—pairing a sensitive quanta image sensor with a telescope-inspired optical setup to capture long-duration, low-light signals from live cells. The results show real promise for imaging tiny structures like extracellular vesicles and low-abundance proteins in real time, without the trade-offs often associated with fluorescence.
We’re excited to see this kind of momentum building around bioluminescence. It’s a technique that opens up new possibilities for watching cells continuously, gently, and without the need for external light. That aligns closely with our own goals at Etaluma.
Meet Lumi: Our New Bioluminescence Microscope
We’ve been working on a dedicated bioluminescence system of our own, and it’s finally here. The Lumi microscope brings real-time, long-term imaging of live cells into reach, with high sensitivity and no phototoxicity. It’s a short-path, inverted microscope designed to fit in your incubator and quietly record what your cells are doing over hours—or days.
Bioluminescence imaging has been on the edge of mainstream use for a while now. With advances like QIS and compact systems like Lumi, we think it’s finally ready to shine.
For more information on these new systems, read the full research paper here.
See Other Use Cases and Features of our Lumascopes
Live cell imaging
See Etaluma – Cardiac Myocytes Undergoing Division
Cell growth and confluence
See Time Lapse Video of MSC in 2D Cell Culture
Cell migration and wound healing
See Cell Migration & Wound Healing Application Note
See Migration of MSC in 2D Cell Culture
Cell cycle protein expression
See Human HT1080 Fibrosarcoma Cells with LS600
Use of micro-environmental systems
See Bioptechs products on Etaluma LS500
Calcium assays
GCAMP5 activity in a sensory neuron
Determining transfection efficiency
In Vitro Exercise Model
Cultured skeletal muscle myotubes are electrically stimulated under hypoxic conditions and with temperature manipulations. Cell signal transduction dynamics are measured using proteomic techniques to help understand how exercise stressors are translated into fitness-promoting adaptions such as increased mitochondria. Probe in photo measures PO2 in the cell medium rather than in the atmosphere. LS620 allows visualization of contracting cells and assessment of their health.
Thank you to Dr David Clarke and his lab, Laboratory for Quantitive Exercise Biology, Simon Fraser University, British Columbia, Canada
Behavior of stem cells
See Etaluma-Human Neural Stem Cells in Culture 1
See Etaluma-Human Neural Stem Cells in Culture 2
Also see reattachment of neuronal stem cells passaged with Accutase (scroll down to see video)
Cell death assays
Apoptosis induction
Spheroid development and behavior
See 3D Spheroid Formation of MSC
See Spheroid-Migration of MSC in a PEG-Fibrinogen Hydrogel
Cultivation of yeast
See Cultivation of S. cerevisiae in Core-Shell Microcapsules
Intravital studies
See Series: Neutrophil migration intravital mouse imaging
Study of lower eukaryotes
Photomicroscopy in locations without AC power
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