Core Application Scenarios

• Advanced Radar System Development — 8.3GHz bandwidth captures wideband chirp signals (LFM) for pulse compression analysis

• 5G mmWave Device Characterization — Ultra-low phase noise enables precise EVM measurement for 400MHz NR carriers

Precision Analysis Architecture

Features "Direct Sampling ADC + Advanced DSP" design: 8.3GHz internal bandwidth achieved through high-speed sampling (no external mixing required), enabling full-band capture of Ka-band signals (Source: Input description). Real-time processing core handles 800MHz bandwidth with <1μs latency for transient signal capture. Ultra-low phase noise synthesizer (<-130dBc/Hz at 100kHz offset) combined with high dynamic range (>75dB) delivers industry-best EVM performance for 1024QAM validation.

Radar Pulse Compression Analysis Workflow

1. Connection: Radar transmitter output to FSW RF input, trigger signal to external trigger port

2. Configuration:
   - Set center frequency to 35GHz (Ka-band), span to 2GHz
   - Enable 8.3GHz analysis bandwidth mode
   - Configure real-time processing for 800MHz capture

3. Analysis:
   - Capture LFM chirp signal (500MHz bandwidth, 100μs duration)
   - Measure phase linearity error (<1° peak)
   - Verify pulse compression ratio (500:1) through matched filtering

4. Output: Generate time-frequency plot with compression results, auto-export SCPI script via recorder

Thermal Management Boundary

Continuous 8.3GHz bandwidth operation increases internal temperature by 15°C (Based on thermal design). Mitigation: ① For extended measurements, enable auto-cooling mode (reduces internal temp by 8°C); ② Maintain ambient temperature <25°C to preserve phase noise performance.