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Laser micromachining is a collection of processes involving sub-millimeter machining of small parts or features on a material using precise and controlled techniques. This subtractive (material removal) process typically involves using specialized lasers to cut, drill, ablate, or otherwise shape materials with accuracy and precision.
Laser micromachining allows for the laser-based machining of extremely fine features or structures, typically between a few microns and several hundreds of microns. These very fine, smooth features can be created with reduced heat affected zones and reduced post process cleaning. Micromachining applications are rapidly growing in popularity as picosecond and femtosecond lasers are becoming more available.
The adoption of laser micromachining has seen its most rapid adoption in the medical industry because short pulse micromachining lasers deliver superb quality when machining a variety of materials used for implantable devices. On this page, you will find a list of all of the micromachining lasers we offer at RPMC.
The ALTAIR series produces high average powers up to 20W and ultrashort femtosecond pulses of <150 fs (<250 fs for VERSA configuration) at a high repetition rate of 80 MHz (others available). Ideal for bioimaging/biophotonics applications such as multiphoton microscopy, the ALTAIR provides high stability and excellent beam quality due to its mode-locked fiber design. It offers a range of options such as GDD pre-compensation, custom wavelengths, harmonics, repetition rates, and more. With a simplified fiber design that requires little to no maintenance compared to DPSS and Ti:Sapphire counterparts, the ALTAIR is the preferred solution for both OEM and researchers in the microscopy and life sciences fields.
The CEUV series is a commercial line of compact and efficient DPSS laser sources, capable of operating over a wide range of pulsing conditions (duty-cycle and PRF), in a low SWaP package, with average power up to ≈5W @ 266nm, 10W @ 355nm or 532nm, 20W @ 1064nm. This series of DPSS lasers provides a combination of compact, efficient, and high-power performance in a rugged design suitable for harsh environments and airborne applications. The design has been tested in brassboard hardware and a prototype is being developed.
The DIADEM series is a compact, versatile, air-cooled, high-energy, ultrafast femtosecond laser, operating at 1030 or 1064 nm for advanced micro-machining applications. Available with up to 40µJ of pulse energy, pulse widths down to ≈ 400 fs, an M² < 1.2, and single-shot up to 2MHz repetition rate, the DIADEM has many pulse control features such as adjustable pulse duration, selectable repetition rate from 40 MHz down to single-shot, or fine pulse energy tuning so that pulses can be emitted in various modes (on demand via external signal, burst of pulses with configurable pulse separation). A 1300 nm version is also available for deep brain imaging.
The Onda series is a DPSS nanosecond OEM laser platform designed for high-end applications requiring excellent beam quality and high peak power in materials such as metals, glass, plastics, and various delicate and hard materials. This compact and easy to use laser series is available in wavelengths of 266, 355, 532, and 1064nm, with an extended operating temperature range and superior performance to cost ratio. The Onda series’ internal optical layout and accurate temperature management enable high output energies without compromising the lifetime of the THG and FHG stages.
The Q-SHIFT series of Q-switched DPSS lasers is designed for researchers and application specialists working in micromachining, dermatology, LIDAR, time-resolved laser spectroscopy, and LIBS applications. With its built-in nonlinear wavelength conversion stage, this series allows the production of unconventional fundamental DPSS wavelengths, including 1163, 1177, 1300, 1317, 1551 and 1571 nm options, making it an ideal choice for those seeking wavelengths that are not accessible with conventional solid-state laser sources. With the optional harmonics generator, it is possible to generate up to the 4th harmonic for each fundamental wavelength, providing even more versatility.
The SIRIUS series is a very compact, high-energy hybrid ultrafast laser for advanced micro-machining applications and supercontinuum pumping, offering over 60µJ and > 5 W @ 1064 nm, with pulses below 10 ps from single shot to 1MHz and an M² of < 1.2. SIRIUS is a fully configurable laser offering various pulse generation modes: selectable pulse durations and repetition rates, burst, gating and fine energy control. This laser series is specifically designed to allow for ergonomic and user-friendly operation. Also available in green or UV wavelengths, SIRIUS is ideally suited for selective ablation, electronics, and photonic applications.
The VaryDisk Series is a high-energy, multi-milli-Joule laser system suitable for laboratory investigations or industrial use. This thin disk regenerative amplifier can amplify femtosecond, picosecond, or nanosecond pulses with amplification factors up to 10⁶. With a range of output specifications to choose from, including multiple seed lasers, customers can select the ideal configuration to meet their needs. The base configuration offers up to 150 W average power @ 1030 nm, 15 – 150 mJ pulse energy, 1 ns pulse width (compressible to < 2 ps), and a repetition rate range of 1 kHz to 10 kHz.
The Wedge series is a line of DPSS lasers designed specifically for OEM applications such as micro machining of hard and soft materials, specialty marking, glass and crystal engraving, LIDAR, LIBS, spectroscopy, and medical diagnostics. These diode–pumped lasers, based on proprietary fast Q-switching technology, are compact, sealed, and monolithic which makes them insensitive to vibrations and harsh environments. With high peak powers and relatively low energy and heat generation, they allow efficient ablation and non-linear interaction with most materials. The compact and lightweight package is a great benefit in LIDAR and other aerospace applications, while short pulses provide extremely precise time-of-flight measurements.