The present invention provides a flow cytometer made of two components: a flow cytometer optical head and a disposable flow module.

A flow cytometry system is disclosed for oscillating the exterior of a flow cytometer nozzle.

The device may comprise a flow cytometer.

Disclosed is a microchip for a flowcytometer.

In particular, the system may include an enhanced resolution flow cytometer.

The invention describes a flow cytometer disinfection module for disinfecting a sheath fluid in a flow cytometer, comprising a flow cell and at least one UV-C and/or UV-B light source.

Specifically, a flow cytometer remote monitoring system which generates a viewable reduced byte data representation for each one of a plurality analyzed flow cytometer signals.

The apparatus can be configured in a flow cytometric or optical microscope configuration.

The system may include a second flow cytometer and a second network communication module, where the first and second flow cytometers are calibrated to have substantially identical fixed gain settings.

The assessment of fluorescence is preferably performed in a conventional flow cytometer.

An image flow cytometer has a flow chamber with a flow channel formed therein to permit a microparticulate sample to flow through the flow channel.

The reader provides information similar to a bead flow cytometer but in a planar format, i.e., a virtual cytometer.

Two marker removal devices (320, 324) are used in the flow cytometer.

Adherents absorbed to the exterior of the flow cytometer nozzler may also be removed.

A flow cytometer may be used as a detector of the isoelectric particles.