Castor Dynamic Scene Simulation enables engineers and researchers to model moving objects and terminals within 3D environments and analyse how wireless channel behaviour evolves over time.
Powered by Ranplan's GPU-native Castor ray-tracing engine, it combines physics-based propagation simulation with configurable dynamic scenarios, supporting wireless network design, channel modelling and advanced communications research.
Model moving objects and terminals with configurable paths and timelines.
Analyse radio propagation using GPU-native 3D ray tracing.
Investigate multipath, delay, Doppler, angular and polarisation characteristics.
Develop repeatable scenarios for wireless design, digital twins and 5G/6G research.
Analyse how wireless channel characteristics evolve as objects and terminals move through a 3D environment.
Powered by Ranplan's GPU-native Castor engine, Dynamic Scene Simulation uses physics-based 3D ray tracing to calculate radio propagation across successive simulation frames.
By capturing changes in propagation paths and multipath behaviour, engineers and researchers can investigate the effects of movement on wireless communications and gain a more detailed understanding of time-varying radio channels.
Investigate how moving machinery, autonomous robots and vehicles influence radio propagation in factories, warehouses and other industrial environments.
Analyse time-varying channel conditions associated with moving terminals and vehicles to investigate mobility-related wireless behaviour.
Extend 3D digital representations of physical environments with dynamic radio channel simulations to investigate how changing conditions affect wireless propagation.
Develop repeatable scenarios to study multipath propagation, Doppler effects and time-varying channels, supporting research into emerging wireless communication technologies.
