A large cheek cell (~60 microns in size) suspended in water is lifted and flipped over from one side to the other (Yellow false color)
|
Using a custom flow chip, polydispersed beads flowing in from the top channel are 'sorted' using a pattern of traps which transfer the larger beads into the bottom channel (Green false color)
|
Demo of the BioRyx 200 software where multiple beads are trapped in real-time with click-and-drag mouse movement (screen capture)
|
Optical traps are used to move several sperm cells away from other cells and debris (Orange false color)
|
A permanent 3D structure of colloidal spheres is assembled using optical traps (see ref paper by Chris Knutson)
|
BioRyx 200 software demo showing Point-and-click trapping of all on-screen objects
|
Two epithelial cells trapped and pulled apart viewed using darkfield illumination (LabRyx)
|
Using traps to position 2 micron spheres inside cavities etched into a glass surface
|
BioRyx 200 software demo using three-dimensional trapping to move one object over another
|
Live bacteria held in place by optical traps which orient the rod-like cells vertically until they are released
|
A 'vortex' optical trapping mode is used to rotate small beads (500 nm) in a circle (Blue false color)
|
BioRyx 200 software demo showing multiple paths that move trapped objects in three dimensions
|
Live bacterium held horizontally using an optical 'line trap' to prevent vertical alignment of rod-like cell and rotated counterclockwise(LabRyx)
|
LabRyx software demo showing a digital zoom in on 3 trapped 2.0 micron spheres which are moved over and against one another
|
BioRyx 200 software demo showing how to form a group of objects and moving them together in real time
|
|
|
BioRyx 200 software demo showing how to move a group of objects in unison along a path
|
