MultiSplit V2

• Four way image splitter
• 4 images on a single camera
• Supports sensors up to 29.4mm

Product Description

We can now couple onto C, T, or F mount cameras

Now we are four! Our OptoSplit and OptoSplit Bypass two-way image splitters and their TripleSplit (OptoSplit III) threeway cousin are now at last joined by our MultiSplit V2 fourway splitter. While a fourway design poses a greater technical challenge, which is why it took us a little longer to develop, it is potentially a very attractive product from a user point of view, as the four images are in a 2×2 square format rather than the linear rectangular one that the other splitters in our family generate. Furthermore, the continuing improvements in camera technology potentially allow the individual images to be acquired at megapixel resolution, which makes this form of image capture an increasingly viable alternative to the multiple camera approach, although of course we can also support that method if you prefer!

Just as with the other splitters in the Cairn family, the splitting can be performed on the basis of wavelength or polarisation, allowing applications where there is a requirement for simultaneous, or high speed, acquisition of multiple emission bands or polarisation states. The optical pathway is first split into two, and each of these pathways is then independently split a second time before refocussing to generate the four images. The simultaneous acquisition of these images offers a major benefit over manual or electronic filter changers, as there is no need to pause acquisition while the filter position is changed. This allows your camera to be operated in a fast streaming mode.

Multi-depth imaging

With the MultiSplit V2 the further possibility of simultaneous multidepth imaging is particularly attractive, as we can now do this at four depths rather than just two or three. In this application the splitting itself is on a neutral basis, but corrector lenses in the individual channels cause the focus to be at a different depth in the sample for each one, allowing the simultaneous acquisition of a four-channel “mini-z” stack.

Whilst optimised for coupling to a scientific microscope, the MultiSplit V2 can also be used with camera lenses or any other system of lenses which produce an image plane of suitable size and f/number (again please ask for details).

MultiSplit 2 Data Sheet MultiSplit V2 Manual Get a Quote Comparisons Back to Image-Splitters

Additional information

Applications

• Ratiometric calcium, voltage & pH imaging
• Förster Resonance Energy Transfer (FRET)
• Simultaneous multi fluorescent probe imaging
• Polarisation studies (anisotropy)
• Simultaneous phase contrast / DIC and fluorescence
• Simultaneous multi Z depth imaging
• Total Internal Reflection Fluorescence (TIRF)
• Spinning disk confocal
• Single Plane Illumination Microscopy (SPIM)
• 3D super resolution PALM/STORM (using cylindrical lenses)

Features

• Compact design with integral C-mount input and output ports as standard (F and T mount on request)
• Support for sensors up to 29.4mm diagonal
• Budget friendly alternative to four cameras
• 425nm to 875nm AR coatings on all optical surfaces
• 40mm diameter proprietary optics
• Simple & precise controls for image registration
• Magnetic cube mount for enhanced registration
• Interchangeable filter / dichroic holders
• Emission filter dimensions – 25mm diameter
• Recommended dichroic dimensions – 26x38x2mm (lambda/2 flatness)
• Angled and flat auxiliary drop-in holders for 25mm ND filters and chromatic correction lenses (1 inch on request)
• 1x magnification available as standard
• Optional polarisation splitting kit including beamsplitter cube and rotatable polariser
• Central adjustable rectangular diaphragm for user defined field of view
• Improved camera clamps for enhanced rigidity

Additional information

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Recent publications

2021

Fast, live-cell imaging of 15 intracellular compartments by deep learning segmentation of super-resolution data

2020

High-dimensional super-resolution imaging reveals heterogeneity and dynamics of subcellular lipid membranes

2019

High-speed multifocal plane fluorescence microscopy for three-dimensional visualisation of beating flagella

Simultaneous fluorescence imaging of tilted focal planes at two depths in thick neural tissue: Implementation with remote focus in a widefield electrophysiological microscope

October 2016 – Dissection of molecular assembly dynamics by tracking orientation and position of single molecules in live cells – Read here