Imaris

Import 4D microscopy images of cancer cells.

Use AI-powered segmentation to identify individual cells.

Apply object tracking algorithms to track cell movements.

Quantify cell migration speed, directionality, and distance.

Generate statistical reports and visualizations of cell migration patterns.

Import 3D microscopy images of neurons.

Use manual or automated tracing tools to reconstruct neuron morphology.

Quantify neuron length, branching patterns, and spine density.

Analyze neural circuits and identify synaptic connections.

Generate 3D reconstructions of neurons and neural circuits.

Import 3D microscopy images of cells.

Use AI-powered segmentation to identify subcellular structures.

Quantify protein localization and colocalization within cells.

Analyze protein dynamics using time-lapse imaging.

Generate statistical reports and visualizations of protein distribution and dynamics.

Import 4D microscopy images of developing embryos.

Use cell segmentation and tracking algorithms to follow cell lineages.

Quantify cell division, migration, and differentiation.

Analyze morphogenetic movements and tissue remodeling.

Generate 3D reconstructions of developing embryos.

Import 3D microscopy images of cells treated with drug candidates.

Use AI-powered segmentation to identify cells and subcellular structures.

Quantify changes in cell morphology, protein expression, and cell viability.

Compare the effects of different drug candidates on cellular processes.

Generate statistical reports and visualizations of drug efficacy.

Import 3D microscopy images of organoids.

Use AI-powered segmentation to identify different cell types and structures within the organoid.

Quantify organoid size, shape, and cellular organization.

Analyze cell-cell interactions and tissue architecture.

Generate 3D reconstructions of organoids.