Petri Dish Inserts - Bioscience Tools

Flow Control
Call 1-877-853-9755
Miniature Systems for
Continuous Solutions Delivery
Modular Design
Manual Units and Computerized Systems
Compatible with Imaging & Data Acquisition systems
No electrical noise during operation
Bath Perfusion & Local Application
Works with Temperature Controlled Systems
Flow Control Unit, 8 µl/min to 7.3 ml/min
This is a perfusion system for precise solution flow rate linear control over the range from 8 µl/min to 7.3
ml/min. Precision design and miniature size minimize pulsations to provide smooth perfusion. Easy to wash
and replace tubing. No contamination, no solution comes into contact with the device. Designed for stable
solution perfusion/infusion or substance application during imaging, recording, calcium and other ions measurement,
biochemical assays or small organs and animals perfusion. Can be used with perfusion chambers,
lab-on-chips, imaging chambers, miniature incubators, and small organs and animals micro-perfusion setups.
All metal body design eliminates electrical noise.
Ten-turn dials (or analog inputs) allow to calibrate the unit to apply a single or multiple substances using
manual or analog signal control through a data acquisition or imaging software. Note: the analog option will
have a BNC connector in front, instead of the 10-turn dial. The analog units can be operated by our computerized
flow controllers. The unit can operate as a 2-channel system, if a dual-tubing set is used. Can be used
to apply multiple solutions, if linked to our automated perfusion systems. Includes a power supply. Can be
also powered by 12V batteries through an optional battery connection cable. Power rating: 0.75W. The size
of the unit is 1.40 x 2.0 x 3.2 in. Multiple units can be attached to each other to form a multi-channel system
(mounting hardware is included). You can accurately mix different solutions or generate dose-response
curves using only two solutions: control and concentrated test compound. You can even generate concentration
gradients in time to simulate substance distribution in time, and concentration gradients throughout the
space of small chambers to assess chemotaxis and cell migration (an optional mixing chamber is required to
generate concentration gradients in space).
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