Universal Tool Clamp
Equipment Accessories, Motion Control, Probe StationExpand Your Micromanipulator for Diverse Precision Applications
Precisely manipulate a wide variety of tools and devices using your micromanipulator
Overview | Specifications | Gallery | | Related Products | Resources and Support
Unlock the full potential of your Ossila Micromanipulator. This essential accessory transforms your system, enabling accurate manipulation of diverse tools beyond standard electrical probes. From fluid dispensing to optical alignment, it extends your experimental capabilities, bringing micron-level precision to new applications while enhancing your flexibility and compatibility. Effortlessly attach and precisely position tools or devices from 1 mm to 13 mm in diameter, including:
- Syringes and Micropipettes: For accurate fluid dispensing, cell injection, or sample collection.
- Optical Fibers: For precise light coupling, alignment, and spectroscopy.
- Vacuum Needles: For delicate material handling, picking, and placing.
- Custom Probes: Adapt your micromanipulator for bespoke experiments.
Mounted on the micromanipulator arm, the clamp can be angled ±90 degrees, allowing for virtually any tool approach or contact angle. The 25 mm long V-groove clamping mechanism ensures consistent tool alignment and minimizes movement. Plus, the compact dimensions ensure minimal interference around your sample or device under test.
Compact Design
Preserve precision and simplicity in
high-density setups
Broad Tool Compatibility
Securely holds tools from 1 mm to
13 mm in diameter
Effortless Attachment
Quick and easy to install and swap tools, optimizing your workflow
Specifications
Tool Diameter Range | 1-13 mm |
---|---|
Material | Anodized Aluminum |
Dimensions (L x W x H) | 25 x 22 x 40 mm |
Weight | 18 g |
Universal Tool Clamp Gallery
Related Products
Resources
Micromanipulators have revolutionized the way we study living cells and cellular systems. In combination with a microscope, the technique uses high-precision tools to delicately manipulate single cells or subcellular components.
Read more...