Abstract: An optical fiber apparatus and a method of recovering radiation-induced-attenuation (RIA) onto a rare-earth-doped optical fiber under irradiation are provided in this disclosure. A light source is coupled to a rare-earth doped optical fiber. The light source emits a combination of mode locked pulsed light and non-mode locked quasi-continuous-wave light. The mode locked pulsed light are used to recover RIA onto the rare-earth doped optical fiber in real time, and the non-mode locked light are used to pump the rare-earth doped optical fiber as a gain medium. Each pulsed duration of the mode locked pulsed light is much shorter than operation duration of the non-mode locked light, such that an instantaneous power of the mode locked pulsed light exceeds a saturated pumping power required for the rare-earth doped optical fiber, so as to effectively elevate the core temperature of rare-earth doped fiber to achieve a confined photo-annealed recovery of RIA onto rare-earth doped fibers.

Abstract: The present invention discloses a method for non-fluorescence higher harmonic generation ground state depletion super-resolution microscopy, it includes the following steps: providing an organic material unit, focusing excitation light and ground state depletion light, generating a higher harmonic signal, performing ground state depletion and performing microscopic imaging. With the implementation of the present invention, the stimulated electrons of the organic material remains majorly on the singlet (S1) state or the triplet (T1) state, instead of the ground (S0) state, to provide modulation of the spatial distribution of the non-fluorescence signal, and make STED microscopy applicable to non-fluorescence signals to promote the resolution of the images.

Abstract: An optical fiber apparatus and a method of recovering radiation-induced-attenuation (RIA) onto a rare-earth-doped optical fiber under irradiation are provided in this disclosure. A light source is coupled to a rare-earth doped optical fiber. The light source emits a combination of mode locked pulsed light and non-mode locked quasi-continuous-wave light. The mode locked pulsed light are used to recover RIA onto the rare-earth doped optical fiber in real time, and the non-mode locked light are used to pump the rare-earth doped optical fiber as a gain medium. Each pulsed duration of the mode locked pulsed light is much shorter than operation duration of the non-mode locked light, such that an instantaneous power of the mode locked pulsed light exceeds a saturated pumping power required for the rare-earth doped optical fiber, so as to effectively elevate the core temperature of rare-earth doped fiber to achieve a confined photo-annealed recovery of RIA onto rare-earth doped fibers.

Abstract: The present invention discloses a method for non-fluorescence higher harmonic generation ground state depletion super-resolution microscopy, it includes the following steps: providing an organic material unit, focusing excitation light and ground state depletion light, generating a higher harmonic signal, performing ground state depletion and performing microscopic imaging. With the implementation of the present invention, the stimulated electrons of the organic material remains majorly on the singlet (S1) state or the triplet (T1) state, instead of the ground (S0) state, to provide modulation of the spatial distribution of the non-fluorescence signal, and make STED microscopy applicable to non-fluorescence signals to promote the resolution of the images.

Abstract: A manufacturing device of optical deflectors and a manufacturing method of the same are revealed. The manufacturing device includes a movable work platform, a substrate, a lens and a femtosecond laser source. The substrate is disposed on the movable work platform and is coated with a photoresist polymer film. The lens is arranged at one side of the movable work platform. The femtosecond laser source produces a femtosecond laser that passes through the lens and projects onto the photoresist polymer film at a non-focal position of the lens so as to produce an optical deflector. The optical deflector is produced only by the femtosecond laser projected onto the photoresist polymer film at the non-focal position. Thus the production efficiency of the optical deflector is improved.

Abstract: A manufacturing device and a manufacturing method for polymer waveguide devices are revealed. The manufacturing device includes a substrate coated with a photoresist polymer membrane and set on a work platform, a femtosecond laser emitting onto the photoresist polymer membrane, and a lens arranged between the femtosecond laser and the substrate. The polymer waveguide devices are obtained by the femtosecond laser emitting onto the photoresist polymer membrane. Without complicated manufacturing processes, the production efficiency of the polymer waveguide devices is increased.