drilling cutting stripping precision etching milling skiving marking

Resonetics' technology can laser machine 3D medical devices as quickly and cost-effectively as 2D devices. Resonetics provides innovative micromachining for 2D and 3D medical devices.  Utilizing UV laser wavelengths, multi (9)-axis material rotation, and laser lathe technology. Resonetics micromachines medical devices of countless dimensions and shapes. MEDICAL DEVICES Bioabsorbable Stents Stents Stent Grafts Embolic filters Drug delivery devices Electrophysiology/neurological devices Catheters Intravascular Radiation Delivery Devices Angioplasty balloons Femoral Closures     Our contract manufacturing group offer prototyping, pilot production, and full production services. micro-drilling cutting stripping precision etching slots (milling) skiving marking Polyimide, 10 x 10 microns   ...with feature sizes as small as 1 micron. CO2 LASER MACHINING Resonetics also has a contract manufacturing division handling C02 laser machining, focusing on machining ceramics and silicon materials for the telecommunication, microelectronic, semiconductor and defense industries. Ceramic, 100 x 100 microns Resonetics also performs micro hole drilling for calibrated leak test orifices. These holes are used to test calibration devices. If a leak detector is not sensitive enough or is not measuring correctly, Resonetics can make leak test holes to calibrate the detectors.  These leak test holes designed to test critical flow rates in packaging can be as small as 5 microns or less.   ALUMINUM BEVERAGE LID, 5 MICRONS Resonetics designs and manufactures laser micromachining systems which are installed in hundreds of research and industrial sites around the world. We address the flat panel display, data storage, biotechnology, industrial printer and non-invasive medical device markets. The standard product line includes Excimer, CO2, Ultrafast, Solid-state and femtosecond laser micromachining systems.     Rapid Prototyping of microfluidic, bioMEMs and nanotechnology related devices in a matter of minutes.   Corporate Headquarters  E-mail: Sales@Resonetics.com 4 Bud Way Nashua, NH 03063 USA Phone: 603-886-6772 Fax: 603-886-3655 © 2006 RESONETICS, INC.Contact Us for More Information

LASER MICROMACHINING DEFINITION LASER SOURCES: Laser types: Excimer, DPSS (Nd:YAG), Femtosecond, CO2 Laser Micromachining Methods: Mask Projection, Direct Write Laser Wavelengths: 193 NM, 248NM, 266NM, 308NM, 355NM, 532 NM, 800NM, 1.06U, 10.6U 9-Axis Technology Quick and repeatable 3d part handling Autofocus Technology (AFT) Automated Compensation for Surface Variance Beam Homogenization Enhanced Production Efficiency Machine Vision Technology (MVT) Automated positioning of laser beam relative to specific feature or location In-Situ Metrology Technology (IMT) Reduce Inspection Costs Laser Lathe Technology (LLT) High-Volume Tubular Device Machining Catheter Drilling Direct Drive Technology (DDT) Percision, repeatable rotation of devices Dynamic Tension Control (DTC) Automated Mapping Technology (AMT) Automated Positioning for Repeatability and Accuracy Automated Runout Compensation Technology (ARC) Compensates for run out errors of tubular or 3D devices Long Line Homogenization Optical Technology (LLO) Higher Process Throughputsing Novel Optical technology End Point Detection (EPT) On-the-fly Compensation for Material thickness Variation Glovebox Technology Machine Thermal Sensitive Material Holographic Optics Ultra-dense Hole Array Drilling PLASTICS polyethylene nylon pvac pvdf peek polycarbonate abs pen polyimide polyurethane pebax pet pmma polystyrene Parylene   CERAMICS alumina zirconia pzt silicon carbide aluminum nitride tungsten carbide METALS tantalum tungsten nitinol platinum titanium molybdenum GLASS fused silica borosilicate sapphire diamond ruby quartz Optical resolution as small as 2 microns Bottom channel surface profile as small as +/-1 micron Intelligent RApidCAM software designed for first-time users to directly convert drawings into prototype parts. Blind channels, blind wells, through-holes or curvilinear features machined into materials such as plastics, glass, ceramics or thin metals. Laser direct-write, mask-scanning or percussion drilling capabilities allow complex structures to be seamlessly stitched.