Software-Defined Cross-Layer Broadcast Monitoring
VMA Broadcast is a software-defined monitoring framework engineered to provide full visibility across the broadcast chain — from RF acquisition to compression analysis.
In traditional infrastructures, RF monitoring, transport stream compliance, service visualization and video signal analysis are handled by separate systems. VMA integrates these layers into a unified architecture, enabling real-time correlation between signal integrity, transport behaviour and image quality.
Architecture
The VMA ecosystem combines tightly integrated components:
- RF & satellite reception with spectrum and blind scan
- DVB-S/S2 and T2-MI processing
- Transport Stream analysis (ETSI TR 101 290)
- Multi-service mosaic and service-level supervision
- Waveform, vectorscope and colour space analysis
- Live codec, macroblock and motion vector inspection
- Distributed TS monitoring via probe-based architecture
- Cross-application automation through a global macro engine
- Remote control and supervision via web interface (LAN)
All modules operate within a unified, automation-capable environment designed for engineering and operational use.
Measurement Philosophy
VMA measurement functions have been validated against professional broadcast instrumentation, including reference waveform monitors, vectorscopes, spectrum analyzers and transport stream analysers.
The design philosophy combines hardware-grade measurement discipline with the flexibility of software-defined systems.
Deployment Scenarios
VMA Broadcast is suited for:
- Uplink and contribution monitoring
- Broadcast R&D and validation laboratories
- Encoder and compression evaluation
- Satellite and hybrid distribution systems
- Advanced engineering installations
For large-scale infrastructure monitoring, VMA TS Monitor provides distributed probe-based supervision with centralized web management.
Positioning
VMA Broadcast is not a fixed-function appliance.
It is a flexible, automation-driven monitoring framework built for engineers who require cross-layer visibility and customizable workflows beyond traditional hardware solutions.