Applications: multiphoton processes, photo-acoustic microscopy, and material processing.
Moreover, the single-frequency output has a narrow spectral width Δλ 15 kW with 50 kHz, this laser is ideal for applications such as photoacoustic microscopy, time-gated spectroscopy, and fluorescence lifetime imaging.ħ67 nm compact laser source. In terms of pulse energy, over 10 µJ at 1535 nm can be obtained directly from a very compact seed laser that can be battery-operated. Moreover, owing to the relatively short pulse duration in the range of 100 ps, the laser can provide high peak power without amplification, at both 1064 nm and 1535 nm. Compared with traditional Q-switched lasers, Picophotonics lasers offer much higher repletion rate, up to MHz region. The pulse duration can be tailored from below 100 ps at 1064 nm to 0.5 – 5 ns range at 1535 nm. The main advantage of this approach is that it enables a significant reduction of the pulse width at relatively high repetition rates, while keeping the simple and robust microchip laser architecture. The signal can be further amplified in a simple master oscillator – power amplifier (MOPA) configuration that does not affect the spectral or temporal properties of the laser. Picophotonics lasers use in-house developed semiconductor-based absorber technology (SESAM) for passive Q-switching. Following in the footsteps of his elder brother, Jussi-Pekka, one of the founders and CEO of the VECSEL technology company Vexlum - also a spin-off from Tampere’s ORC - Antti was confident he could rise to the challenge. They were working on several early phase prototypes while planning for expanding the core team, in particular to cover the business development needs. Mircea Guina (Chairman and CSO of the company) and Dr. While finishing up with his MSc, Antti started as the CEO of Picophotonics, a spin-off from the ORC, which has been set up to develop and manufacture Q-switched microchip lasers based on proprietary semiconductor saturable absorber mirror (SESAM) technology.Īs he explains, Picophotonics Oy had been founded in 2015 by Prof. The company's mission is to provide a laser platform bridging the gap between the parameters offered by the more complex mode-locked lasers delivering picosecond pulses, and conventional Q-switched lasers operating in the ns region.ĮPIC's Jose Pozo spoke with Picophotonics CEO, Antti Penttinen, and learned that his path began when he was in the first year of a BSc in Natural Sciences and Engineering at Tampere University in Finland, and Antti worked as a research assistant at Optoelectronics Research Centre (ORC), where he specialized in laser physics. “This is where innovation meets entertainment.Picophotonics, a spin-off from the Optoelectronics Research Centre at the Tampere University (Finland), focuses on the development and manufacturing of Q-switched microchip lasers based on proprietary semiconductor saturable absorber mirror (SESAM) technology. It pushes the boundaries of a remote control vehicle by combining it with one of the most talked about technologies today – augmented reality,” said Nick Beliaeff, vice president of production at Spin Master, in a statement.
Our history of disruptive innovation continues with the new Air Hogs Connect platform. “With Air Hogs, Spin Master created the RC flight category. As you do so, you can see animations on the screen, such as a soldier snaking down the rope coming down from the drone. Your job is to fly the drone over certain spots indicated on the tracking map.
In the game, Air Hogs pilots are challenged to lead a team of heroes through endless search and rescue missions and challenges to save the world from attack by alien forces. Basically, you put your finger on the screen and swipe in a direction you want the drone to fly.
SPIN MASTER DRONE HOW TO
Then you learn how to maneuver the drone back and forth. The camera recognizes the drone, and once it does so, you can tap a button to make the drone rise. You set it down on the mat, and focus the app’s camera view on the drone.
0 kommentar(er)
