We understand optics. Our experienced team of engineers and scientists has been pioneering photonics since 1999, developing cutting-edge solutions that help our customers bring breakthrough innovations to life.
We’re currently working with several lidar system manufacturers to evaluate our photonic technology, which is manufactured in a compact, surface-mount package. Developed specifically for automotive applications, these parts will help automakers enable Levels of Autonomy 3, 4, and 5 by offering enhanced environmental sensing and detection capabilities at “eye-safe” wavelengths.
We believe that our solutions will provide automakers with the technology they need to enable a high-performance lidar solution that’s more compact and less expensive than options currently on the market, most of which are only available in expensive hermetic metal packages that are difficult to integrate into automotive applications. The solutions leverage 1550 nm technology that’s safer for the retina than 905 nm solutions, helping automakers ensure that in-vehicle lidar systems are safe for drivers, passengers, and pedestrians alike.
Our solutions are based on technology we acquired as part of our 2020 Voxtel acquisition, and has achieved outstanding results in customer lab evaluations. These solutions are sensitive from 950 nm - 1700 nm, and leverage a flip-chip bonding process to a silicon sub-mount that will be compatible with solder reflow processes, allowing for easy integration into manufacturing flows. The final package will be compatible with automotive AEC-Q100 (Grade 3) and AEC-Q102 requirements.
Our first photoreceiver product is currently planned for mid 2023, which will include a custom ASIC/ROIC that will enable higher levels of performance and simpler integration into automotive platforms though a digital interface. Future parts will also include higher pin counts (BGA) and compatibility with ATE to allow for 100% test and compliance with a standard datasheet.
If you’re interested in learning more, please contact us at email@example.com.
March 17, 2022
P0175 - In this technical article an analysis is presented of the error introduced into estimates of avalanche photodiode (APD) lidar performance by assuming Gaussian distribution of the APD multiplication gain.Learn More
December 15, 2021
P0190 - This paper reports an extension of the Dead Space Multiplication Theory (DSMT) that enables determining the spatial distribution of the impact ionizations for arbitrary heterojunction multiplication regions.Learn More
August 24, 2021
P0176 - In this technical article, the relationship between the probability of false alarm, as calculated from the false-alarm rate (FAR), and the probability of detection as it relates to measuring target distance with a lidar system, are discussed.Learn More
March 16, 2022
P0196 - In this technical article the design, fabrication, and test of an InGaAs avalanche photodiode (APD) for 950–1650 nm wavelength sensing applications are reported.Learn More
March 09, 2022
P0180 - In this technical article, a system engineering perspective to eye-safe lidar-system design for high-level advanced driver-assistance sensor systems and a design trade study including 1.5-micron spot-scanned, line-scanned, and flash-lidar systems are presented.Learn More
March 08, 2022
P0197 - This technical article provides the means to analytically determine the spatial distribution of electron and hole impact-ionization events in an arbitrarily specified heterojunction multiplication region.Learn More