Operator's manual for Multiple Integrated Laser Engagement System (MILES), simulator system, firing laser, M67 (NSN 1265-01-077-6081) for M551 vehicle.

"July 1988."

Operator's manual for Multiple Integrated Laser Engagement System (MILES), simulator system, firing laser, M83 (NSN 1265-01-158-4560) for M2/M3 fighting vehicles.

Includes index.

Operator's manual : Multiple Integrated Laser Engagement System (MILES) simulator system, firing, laser, M68 (NSN 1265-01-077-6079) for VIPER rocket.

"July 1988."

Operator's manual for Multiple Integrated Laser Engagement System (MILES) simulator system, firing, laser, M80, AH-1S attack helicopter weapon system, NSN 1270-01-165-6240.

Includes index.

Operator's manual : Multiple Integrated Laser Engagement System (MILES), simulator system, firing laser, M60 (NSN 1265-01-085-1583) for M16A1 and M16A2 rifle.

"July 1988."

Operator's manual for Multiple Integrated Laser Engagement System (MILES) simulator system, firing, laser, M78, NSN 1270-01-159-0482 for OH-58 observation helicopter.

"October 1984."

Operator's manual for Multiple Integrated Laser Engagement System (MILES), simulator system, firing laser, M63 (NSN 1265-01-077-6082) for M113APC and M220 TOW vehicle.

"July 1988."

Operator's manual : Multiple Integrated Laser Engagement System (MILES) simulator system, firing laser, M62 (NSN 1265-01-090-0103) for DRAGON weapon system.

"July 1988."

Operator's manual for Multiple Integrated Laser Engagement System (MILES) indicator, simulator system, laser target interface device (LTID) (NSN 1265-01-221-9438).

"December 1989."

Hand receipt covering contents of components of end item (COEI), basic issue items (BII), and additional authorization list (AAL) for Multiple Integrated Laser Engagement System (MILES), simulator system, firing, laser, M82, NSN 1265-01-137-7697, for M1/M1A1 Abrams tank.

"November 1989."

Operator's manual for Multiple Integrated Laser Engagement System (MILES), simulator system, firing, laser, M77, NSN 1265-01-154-9887, for Chaparral weapon system.

"October 1984."

Direct cavity assessment and mode optimisation technique for DFB fibre laser

A technique for direct real-time assessment of a distributed feedback fibre laser cavity conditions during operation is demonstrated and used to provide a cavity mode conditioning feedback mechanism to optimise output performance. Negligible wavelength drift is demonstrated over a 52 mW pump power range.

All-fiber-integrated soliton-similariton laser with in-line fiber filter

We demonstrate an all-fiber-integrated Er-doped fiber laser operating in the soliton-similariton mode-locking regime. In the similariton part of the cavity, a self-similarly evolving parabolic pulse with highly linear chirp propagates in the presence of normal dispersion. Following an in-line fiber-based birefringent filter, the pulse evolves into a soliton in the part of the cavity with anomalous dispersion. The similariton and the soliton pulses are dechirped to 75.5 and 167.2 fs, respectively, outside of the cavity. Mode-locked operation is very robust, owing to the influence of the two similariton and soliton attractors that predominate each half of the laser cavity. The experimental results are supported with numerical simulations, which provide good agreement.

Direct cavity assessment and mode optimisation technique for DFB fibre laser

A technique for direct real-time assessment of a distributed feedback fibre laser cavity conditions during operation is demonstrated and used to provide a cavity mode conditioning feedback mechanism to optimise output performance. Negligible wavelength drift is demonstrated over a 52 mW pump power range.

Optimization of DFB fiber laser performance based on a superimposed cavities structure

A simple technique based on superimposed cavities structure for direct real-time assessment of a DFB fiber laser mode condition during operation is demonstrated and used to provide a cavity mode conditioning feedback mechanism to optimize output performance. Significant improvements to the output performance and robustness are achieved over the entire pump power range without ambient isolation.