FRED 24.10.3

FRED Optimum is a tool for scattered light analysis, laser system design and imaging systems from CBS Europe. It enables the modeling of optomechanical systems using ray tracing techniques and accurate simulations. FRED Optimum is widely used in various industries such as aerospace, automotive, consumer electronics and medical for the development and optimization of optical systems.

Allameh Brain, FRED Optimum software allows users to model and analyze optical systems with high accuracy by providing various capabilities such as GPU-based ray tracing, 3D CAD file import/export, coherent and incoherent light simulation, and multivariate optimization. This software also provides high flexibility in the design and simulation process by supporting BASIC scripting and distributed computing capabilities. FRED has become one of the essential tools in optical engineering by providing advanced tools for scattered light analysis, lighting system design, and laser system simulation.

FRED Optimum Software Features

• Speed ​​up ray tracing calculations by up to 100 times compared to multithreaded CPU calculations
• Supports formats such as IGES, STEP, and OBJ
• Possibility of simulating laser systems and analyzing the effects of coherent and incoherent interference and diffraction
• Optimization of design parameters using advanced algorithms
• Ability to model and analyze light scattering on surfaces and volumes to control disturbing lights
• Using up to 127 processing cores and the ability to distribute calculations across a network of computers
• Ability to automate tasks and customize simulation processes using the BASIC scripting language

Application

• Scattered Light Analysis in Imaging Systems: Investigating and Reducing the Effects of Interfering Light in Astronomical Cameras and Telescopes
• Lighting Systems Design: Development and optimization of lighting systems such as light pipes, freeform optics, and LED displays
• Optical instrument design: simulation and optimization of instruments such as interferometers, spectrometers, and optical sensors
• Laser systems development: Modeling and optimizing laser systems for applications such as fiber optic coupling and laser line generators.
• Medical applications: Design and analysis of optical systems in medical equipment such as endoscopes and modeling of light scattering in human tissues