Domain engineered MgO:LN for efficient, high-power quasi-phase matched (QPM) frequency conversion will play a key role in many NASA systems. Complex domain engineered MgO:LN crystals are needed to improve the performance of laser sources being developed at NASA-GSFC for the ASCENDS mission and laser-based methane detection for use in future Earth and Planetary science missions. Multi-element integrated waveguide components in MgO:LN which include both QPM and phase modulation could improve the performance of iodine-based wavelength locking systems being considered for the ACE Mission. The integrated-waveguide based parametric amplifier is a key building block for a programmable, broadband near-IR comb, which may find use in precision spectroscopy, spectrometer calibration used for astrophysical measurements, as well as in systems used for remote sensing. QPM parametric amplification using MgO:LN may also prove useful for shifting communications signals in the 1550/1340 nm band fart The result of this STTR partnership with Stanford, will be the development of process steps required to fabricate high quality, domain engineered MgO:LN. As a consequence, AdvR expects to continue expanding its engineered materials product offering to high performance bulk and waveguide-based MgO:LN. Efficient high power, single pass QPM conversion has many non-NASA commercially significant uses. According to a study by Electronics.ca Publications, Inc. (www.electronics.ca), the optical component market, which is currently forecast at $2.9 billion, is expected to reach $7.6 billion by 2012. While use of engineered materials represents only one portion of this market, they can enable significant performance improvements in existing technologies as well as enable a host of new technologies. Applications include gas sensing, precision spectroscopy, microwave photonics, frequency metrology, monitoring and optimization of combustion processes, multi-channel sources for fiber and free spac
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