Miniature beam steering, mirror positioning developers’ kits now available for purchase at Digi-Key and Mouser
Rotary piezoelectric smart stages with embedded controllers make the system smaller, easier to use than galvo systems
Rotary piezoelectric smart stages with embedded controllers make the system smaller, easier to use than galvo systems
Developed with leading researchers, the MPM System is the first micromanipulator optimized for silicon probe insertion and independent, automated positioning of five or more probes simultaneously.
Case Study: A neuroscience researcher successfully used M3-LS Linear Smart Stage assemblies for positioning of probes during in-vivo recording. New Scale engineers then collaborated on an integrated multi-probe positioning assembly to meet the needs of this market.
Case study: Piezo focus system enables portable cytometers, expands access to healthcare in resource-limited settings. A customer wanted to create a backpack-portable blood analyzer for use in resource-limited settings that do not have access to institutional laboratory instruments and services. New Scale’s miniature precision focus system helped to make it possible.
Patents cover a new rotary piezoelectric motor that achieves very high rotational speed with significant torque in a very small diameter, and a compact wide-angle optical beam steering assembly that has been commercialized in the M3-RS-U Rotary Smart Stages and beam steering developer’s kits.
Miniature M3-FS Focus Module and M3-LS Linear Smart Stage with built-in controllers have new, dramatically improved lifetime specification of >10 million moves.
New Scale worked with NASA JPL/Caltech to design and manufacture a fiber optic positioning system using rotary piezoelectric SQUIGGLE micro motors for the Prime Focus Spectrograph (PFS). The PFS is a fiber fed multi-object spectrometer for the Subaru Telescope that will conduct a variety of targeted surveys for studies of dark energy, galaxy evolution, and galactic archaeology. The key to the instrument is a high density array of fiber positioners placed at the prime focus of the Subaru Telescope. The system, nicknamed the “Cobra” fiber positioner, will be capable of rapidly reconfiguring the array of 2,394 optical fibers to the image positions of astronomical targets in the focal plane with high accuracy.