RP Fiber Power fiber lasers, amplifiers and other fiber optic device designs
Fiber lasers and amplifiers, optical waveguide lasers, fiber couplers, multi-core fibers, spiral fibers, conical fibers can be designed and optimized, and ultrashort pulses can be simulated in different fiber optic devices, such as in fiber amplifier systems, mode-locked fiber lasers, and communication systems. Ability to track and optimize fiber amplifiers and fiber lasers for a wide range of applications. Helps evaluate and eliminate various adverse effects in fiber lasers and amplifiers; can predict the performance of active fiber devices; can find the optimal fiber length, doping concentration, refractive index distribution, etc.; can calculate the relationship between doping concentration and light, accurately simulate double-clad fibers, and can also simulate time domain dynamics, can understand and optimize details such as power efficiency and noise figure.
Various devices can be designed and analyzed to optimize:
- Singlemode and multimode fibers
Calculate mode characteristics, calculate fiber coupling coefficient, and simulate the effects of fiber bending and nonlinear self-focusing effects on beam transmission and high-order optical soliton transmission.
- Fiber couplers, double cladding fibers, multicore fibers, planar waveguides
Simulate the pumping absorption of double-clad fibers, beam transmission of fiber couplers, transmission of light in conical fibers, analysis of the effect of bending, cross-saturation effects in amplifiers, leakage modes, etc.
- Fiber optic amplifiers
To study the gain saturation characteristics (continuous or pulse amplifiers), energy transfer processes of erbium-ytterbium co-doped fiber amplifiers, quenching effects, spontaneous radiation amplification, etc. in single-stage and multistage amplifiers.
- Optical fiber communication system
Analyze the effects of dispersion and nonlinear signal distortion, amplifier noise, and optimize amplifier nonlinear effects and placement.
- Fiber lasers
Analyze and optimize energy conversion efficiency, wavelength tuning range, dynamic Q tuning.
- Ultrafast fiber lasers and amplifiers
Study the formation mechanism and stability range of pulses, nonlinear effects and the effects of dispersion, parabolic pulse amplification, optimized dispersive pulse compression, sensitivity feedback, and generation of ultracontinuous spectra.
- Pulsed and ultrafast body lasers and amplifiers
Study Q switches, mode locking, etc., find out the characteristics of the desired saturation absorption, analyze feedback sensitivity, chirp pulse amplification studies and regenerative amplifier stability limit studies
Fiber data:
The software includes a variety of rare earth-doped fiber data, which can simulate a variety of fibers in real time
Various public data:
“Yb-germanosilicate” “ErYb-phosphate”
“Er-fluorozirconateF88” “Er-silicate L22”
“Er-fluorophosphateL11”
Fiber Optic Manufacturer Data:
RP Resonator laser cavity design
It can be used to design and optimize optical resonators. Not only can the resonator characteristics be simulated, but the software can calculate the effects of thermal lens effects, offsets, dispersions, Gouy phase shifts, degeneracy, etc. on beam radius and cavity patterns. The software can also be used to design a laser cavity for a given requirement, such as a given mode size at a particular location, minimum sensitivity, thermal lens effects and offsets, beam quality with minimal distortion, etc. Welcome to contact us! Tel:027-87582688 E-mail:sales@asdoptics.comPage2
ABCDEF matrix algorithm:
The calculation of the RP Resonator is based on an extended ABCDEF matrix algorithm. Compared to the ABCD matrix algorithm commonly used, it can not only calculate the mode radius, but also calculate the change in beam position due to endoscopic offset.
In addition, it can also handle wavelength-dependent refraction, such as refraction in a prism, and in the resonant cavity of a mode-locked laser, its dispersion compensation is done by a prism pair. The software calculates the optical path of different wavelengths and the resulting dispersion.
Linear and ring cavities can also be treated as one-way propagation as beams output from the laser resonant chamber. For the ring cavity, the path of the beam can be automatically closed, that is, the orientation of the first and last mirrors and the length of the path between them can be automatically calculated. The resulting settings can be displayed graphically to immediately identify possible erroneous inputs.
Specific functions and applications:
- Analyze existing resonator designs, such as checking their stabilization areas, collimation characteristics, dispersion effects, etc.
- Makes it easy to optimize complex cavity designs, such as optimizing laser performance. Refine researchers’ understanding of resonant cavities. For example, various parameters are
- demonstrated through numerical simulation.
- The software comes with a very powerful scripting language and is accompanied by a script wizard function, which makes it easy to generate large sections of script code by filling out forms (simple input numbers or mathematical formulas).
- The power of a scripting language means greater flexibility. For example, the user can define a model of an optical cavity containing multiple laser crystals, etc.
- In contrast to other similar software, RP Resonator allows users to parameterize the cavity characteristics. This means that users can define them using mathematical expressions, rather than just defining simple parameters such as cavity length, radius of curvature of the mirror, etc. In the resulting image, the user can also observe the characteristics of the optical cavity at different locations. Combined with scripting languages, there is great flexibility in the user development process. This feature is hard to find in other similar software.
instance:
Demonstrate how to define resonators and output images; more complex design examples; demonstrate how to optimize resonator design; set up multi-stage transmission amplification and automatic calculations.
Pulse transmission analog RP ProPulse
Ultrashort pulse transmission can be simulated in a variety of situations, in particular:
- Transmission in the resonator of active or passive mode-locked lasers;
- Synchronous pumping of optical parametric oscillators;
Can be analyzed:
- The effects of various effects, including a variety of more specific nonlinear effects, such as the supercontinent spectrum of photonic crystal fibers.
Specific functions and applications:
- RP ProPulse can simulate many pulse-related effects, including wavelength-dependent linear loss, absorption loss, two-photon absorption, amplitude and phase modulation of any drive signal in the modulator, laser gain, parametric amplification, second harmonics, arbitrary order dispersion, self-phase modulation, Raman effect, self-steepness, four-wave mixing, quantum noise effect, dispersion compensation (automatic optimization by software);
- The software refines the transmission algorithm of pulses in optical fibers, and the calculation speed is very fast;
- Ability to define the optics in the resonator very conveniently and flexibly;
- The friendly operation interface can display the pulse shape of different positions in the cavity, and can define the number of round trips of the beam in the cavity; – the pulse change in the simulated mode-locked laser can be used to study the relationship between steady-state pulse parameters and different input parameters or to study the instability characteristics under different conditions;
- Study the boundaries of chirp pulse amplification systems;
- Study the transmission of dispersion or solitons at optical fiber connections, and at the same time can study their noise characteristics;
- Study pulse width compression or supercontinent spectral generation in photonic crystal fibers, including higher-order dispersion, Kerr and Raman nonlinear effects, four-wave mixing, frequency effects, quantum noise, etc.
instance:
Active mode-locking; Passive mode-locking; Mold-locked fiber laser high-order optical soliton; Nonlinear pulse width compression; Adiabatic soliton compression; Soliton self-shifting
RP Coating 2.0 Film Design Software
This software is a particularly flexible and powerful thin film design software that is not limited to the standard equipment developed, but also provides developers with the ability to analyze and optimize new designs. At the same time, for industrial people who often need to quickly change the design parameters, the software is very convenient to use: the software will be the entire structure of the design fully parameterized, through a small number of parameters can be modified to control the design, without the need for a large number of film thickness value setting.
Can be designed to:
Complex multilayer optical structures such as laser mirrors, dispersion compensating mirrors, edge filters, etalons, broadband anti-reflective coatings, thin film polarization devices, and various semiconductor structures.
Can be calculated:
The basic optical properties of various structures, including reflection and transmission amplitude and phase, dispersion, internal field distribution, etc. Complex numerical optimizations can be performed. Flexible design of laser mirrors, dispersion compensating mirrors, filters, polarizers.
Specific functions and applications:
- Media mirrors (laser mirrors), including chirping mirror film designs and other types of dispersion lens films.
- Anti-reflective film design, and can be designed through techniques such as genetic algorithms to design multilayer membrane structures.
- The software comes with a large amount of material data, allowing users to quickly add other materials.
- Optical filter designs, including short- and long-pass cut-off filters, band-pass filters, monolithic or air gap standard fixtures, bulk Bragg grating, and other types of interference filters.
- Refine researchers’ understanding of thin film design.
- Analyze and optimize existing film designs.
- Polarized film design.
- Semiconductor structure design.
instance:
Bragg mirrors (comprehensive analytical design), color separations (optimized design), dual-wavelength anti-reflective films, flat panel film polarizers (numerical optimization), polarized cubes (numerical optimization), Gires–Tournoisinterferometer interferometer (including ultrashort pulse transmission analysis), comb filters, fitting of film data to measured reflection spectra, air media calibrator (including ultrashort pulse transmission analysis).
The RP Q-switch is ideal for designing active or passive Q-modulated solid-state lasers, such as fiber lasers orbulk lasers, and for analyzing spikes in CW lasers.
Specific functions and applications:
- The user can define any order of the following cavity optics: laser crystal, output coupling mirror, modulator (active Q modulation), saturation absorption (passive Q modulation), and additional loss;
- Suitable for four-level and quasi-three-level laser designs. Such as Yb: YAG laser;
- Capable of handling three levels of extra-cavity amplification;
- The software is capable of calculating pulse parameters such as energy, peak power, duration and time position;
- Can simulate spike oscillations and relaxation oscillations of CW Lasers;
- Pump power can be modulated in a variety of forms (e.g. rectangles, sinusoidal curves, etc.);
- It is possible to study in detail some unwanted phenomena such as performance degradation due to limited modulation speeds, multi-pulse phenomena caused by excessive switching times of modulators, etc.
- Text data can be output in the form of a list, which is convenient for interfacing with other software.
