JPSA said the system can be used to create micron-scale features with submicron tolerances for a variety of medical device manufacturing applications. These include: micro-fluidics, sensors, nozzles, microscreens, particle traps, MEMS, MOEMS, microdicing, biosensors (lab-on-a-chip), micro-vias, photo ablation, photo machining, micromachining of plastics, ceramics, hard dielectrics, glass and metals, nondestructive high-resolution marking, micro-lithography to 1 micron resolution, high-speed drilling, selective material ablation, doping, annealing and more. Materials processed include polymers and plastics, ceramics, glass materials, metals, semiconductor materials, diamond and precious metals and others.
Recently, JPSA worked with the Massachusetts Institute of Technology to develop its 'Liver Chip" bioreactor, a device designed to mimic the human liver comprised of 3-D structures of a functioning liver with tiny channels that provide simulated blood flow.
Lamar Bullock has joined ATMC as photonic laboratory manager and will operate the new IX-300. Bullock was formerly president of Boston Laser Technology, where he developed a unique excimer laser-based manufacturing process. He also designed and built laser imaging equipment to apply this process to volume manufacturing of a medical device.
"The addition of the JPSA excimer laser system is an important asset to our technological resource base," Bullock said. "Right now, for example, we're seeing a lot of activity in the area of microfluidics. This technology has a wide range of applications, many of immediate local interest -- such as water quality, marine and environmental applications -- in addition to the recognized biomedical uses."
For more information, visit: www.atmc.umassd.edu