Simulation
High-fidelity simulators for optical, RF and satellite links — model performance end-to-end before you build.
Overview
Our simulation services let you evaluate communication system performance long before hardware exists. We model the full link — transmitter, channel and receiver — capturing the physics that drive real-world behavior.
From single-link analysis to large Monte-Carlo campaigns, we help you understand margins, failure modes and trade-offs with confidence.
What we deliver
- Validated simulation models
- Performance & margin reports
- Scenario studies and visualizations
- Recommendations for design decisions
Available models & tools
Optical Wave Propagation & Turbulence Simulation
This advanced simulation package enables realistic and high-fidelity simulation of optical wave propagation through turbulent atmospheric or underwater environments. It is designed to analyze effects like beam wander, scintillation, and wavefront distortion, while also offering modules to evaluate adaptive optics (AO) correction strategies. The tool is ideal for researchers and system developers in FSO, quantum optics, remote sensing, and directed energy systems.
Optical Wireless & FSO Communication Simulation
This simulation tool provides a powerful framework for analyzing and optimizing Free-Space Optical (FSO) and Optical Wireless Communication (OWC) links under diverse environmental and system conditions. Users can evaluate link reliability, alignment precision, beam divergence, and power efficiency, while simulating real-world scenarios like atmospheric turbulence, weather effects, and transceiver placement. Ideal for both terrestrial and airborne FSO system designers.
AI-Assisted Optical Communication & System Optimization Simulation
This simulation tool leverages Artificial Intelligence (AI) and Machine Learning (ML) techniques to enhance the performance, adaptability, and reliability of optical communication systems. It integrates intelligent control strategies such as AI-driven beam tracking, adaptive modulation, and real-time system optimization. Ideal for next-generation, autonomous communication networks across terrestrial, aerial, and underwater domains.
Satellite & Deep Space Optical Communication Simulation
This simulation tool is tailored for analyzing long-distance optical links in satellite and deep-space communication systems. It offers advanced modeling of beam divergence, pointing accuracy, Doppler shifts, and space-ground atmospheric attenuation. Perfect for researchers, aerospace companies, and space agencies aiming to design or optimize high-performance optical satellite links.
Quantum Communication, QKD & Security Simulation
This advanced simulation suite focuses on secure optical quantum communication systems, offering a robust environment to analyze Quantum Key Distribution (QKD), entanglement, and eavesdropping resilience. Designed for academic research, cybersecurity experts, and next-gen communication developers, it enables the simulation of both terrestrial and underwater quantum channels with varying noise models.
Underwater Optical Wireless & Spatial Diversity Simulation
This simulation suite delivers precise modeling and analysis of underwater optical wireless communication (UOWC) systems. It focuses on evaluating link reliability in challenging aquatic environments by incorporating scattering, absorption, turbulence, and spatial diversity effects. Ideal for researchers, naval applications, and underwater exploration technologies.
Hybrid RF & Optical Communication Simulation
This simulation package is built to explore, test, and optimize hybrid RF/Optical wireless communication systems, enabling researchers and engineers to simulate the dynamic interplay between radio frequency and optical domains. It’s tailored for environments where seamless switching, high reliability, and adaptive optimization are vital for uninterrupted data delivery.
RIS-Assisted Optical Communication Simulation
This simulation tool focuses on Reconfigurable Intelligent Surface (RIS)-assisted optical communication, offering a dynamic environment to test the performance of both passive and active RIS elements for advanced beam shaping, energy focusing, and adaptive control. It enables design and optimization of RIS-enabled communication strategies in free-space and indoor optical networks.
Optical Sensing & LiDAR Simulation
This simulation tool provides a powerful and flexible platform for designing and analyzing optical sensing and LiDAR systems, enabling users to model real-world performance of 3D scanning, object detection, and mapping applications under varying environmental and system conditions.
MIMO & Spatial Diversity Optical Communication Simulation
This simulation package provides a comprehensive toolset for modeling MIMO (Multiple Input Multiple Output) and spatial diversity techniques in optical communication systems. It allows users to simulate the behavior of multi-channel optical systems, optimize signal integrity, and maximize data throughput by leveraging spatial diversity and multiplexing.
Atmospheric Turbulence & Fading Mitigation Simulation
This simulation tool provides an advanced platform for modeling atmospheric turbulence and evaluating fading mitigation techniques in optical communication systems. By simulating wavefront distortions, turbulence effects, and compensation strategies, this tool helps optimize the reliability and performance of optical links, especially in challenging atmospheric conditions.
Temperature, Salinity & Turbulence Effects Simulation for Underwater Quantum Communication
This simulation tool enables a comprehensive analysis of the impacts of temperature, salinity, and turbulence on quantum key distribution (QKD) performance in underwater environments. By simulating various environmental factors such as temperature and salinity gradients, along with turbulence-induced effects like phase noise and depolarization, this tool helps optimize quantum communication systems for reliability and performance in challenging underwater conditions.