We report a semiconductor-based, low-noise, 10.24 GHz actively mode-locked laser with 4.65 fs of relative timing jitter and a 0.0365% amplitude fluctuation (1 Hz to 100 MHz) of the optical pulse train. The keys to obtaining this result were the laser\u27s high optical power and the low phase noise of the rf source used to mode lock the laser. The low phase noise of the rf source not only improves the absolute and relative timing jitter of the laser, but also prevents coupling of the rf source phase noise to the pulse amplitude fluctuations by the mode-locked laser. (c) 2006 Optical Society of America
This dissertation details work on high repetition rate semiconductor mode-locked lasers. The qualiti...
We report on the development of an ultralow-noise, external-cavity, actively mode-locked semiconduct...
In this letter, we report, what is to our knowledge, the lowest-noise pulsetrain produced to date wi...
We report a semiconductor-based, low-noise, 10.24 GHz actively mode-locked laser with 4.65 fs of rel...
We report on a 10.24 GHz actively mode-locked laser with 4.65 fs of relative timing jitter and 0.036...
We report a low noise, frequency stabilized, semiconductor based, 10.287 GHz actively mode-locked la...
A low noise, semiconductor based, frequency stabilized, 10.24 GHz mode-locked laser with a pulse tim...
A semiconductor-based mode-locked laser source with low repetition rate, ultralow amplitude, and pha...
A semiconductor-based mode-locked laser source with low repetition rate, ultralow amplitude, and pha...
Mode-locked laser designs for both time and frequency domain based applications are presented. It is...
Recent experimental work on semiconductor-based harmonically mode-locked lasers geared toward low no...
We report the generation of optical pulse trains with 8.5 fs timing jitter (10 Hz to 10 MHz) from a ...
We report the generation of optical pulse trains with 8.5 fs timing jitter (10 Hz to 10 MHz) from a ...
Recent experimental work on semiconductor-based harmonically mode-locked lasers geared toward low no...
We report on the development of an ultralow-noise, external-cavity, actively mode-locked semiconduct...
This dissertation details work on high repetition rate semiconductor mode-locked lasers. The qualiti...
We report on the development of an ultralow-noise, external-cavity, actively mode-locked semiconduct...
In this letter, we report, what is to our knowledge, the lowest-noise pulsetrain produced to date wi...
We report a semiconductor-based, low-noise, 10.24 GHz actively mode-locked laser with 4.65 fs of rel...
We report on a 10.24 GHz actively mode-locked laser with 4.65 fs of relative timing jitter and 0.036...
We report a low noise, frequency stabilized, semiconductor based, 10.287 GHz actively mode-locked la...
A low noise, semiconductor based, frequency stabilized, 10.24 GHz mode-locked laser with a pulse tim...
A semiconductor-based mode-locked laser source with low repetition rate, ultralow amplitude, and pha...
A semiconductor-based mode-locked laser source with low repetition rate, ultralow amplitude, and pha...
Mode-locked laser designs for both time and frequency domain based applications are presented. It is...
Recent experimental work on semiconductor-based harmonically mode-locked lasers geared toward low no...
We report the generation of optical pulse trains with 8.5 fs timing jitter (10 Hz to 10 MHz) from a ...
We report the generation of optical pulse trains with 8.5 fs timing jitter (10 Hz to 10 MHz) from a ...
Recent experimental work on semiconductor-based harmonically mode-locked lasers geared toward low no...
We report on the development of an ultralow-noise, external-cavity, actively mode-locked semiconduct...
This dissertation details work on high repetition rate semiconductor mode-locked lasers. The qualiti...
We report on the development of an ultralow-noise, external-cavity, actively mode-locked semiconduct...
In this letter, we report, what is to our knowledge, the lowest-noise pulsetrain produced to date wi...