Core Application Scenarios

• IoT Device R&D — Wireless transmitter characterization (Product positioning)

• RF Education Experiments — Spectrum analysis fundamentals teaching (Product application)

Technical Adaptation for Rental Scenarios

• Education Cost Optimization — Low-cost solution reduces laboratory investment by 50%

• Test Efficiency Improvement — One-button demodulation reduces configuration time by 70%

Intelligent Analysis Architecture

Features "Spectrum Analysis + Stimulus-Response" design: 9kHz-3GHz superheterodyne receiver chain (Phase noise ≤-100dBc/Hz@1GHz, Estimated from equivalent devices). 3GHz tracking generator enables component stimulus-response measurement (Output power range -120dBm to +20dBm, Estimated from spectrum analyzer standards). Dedicated DSP processor supports one-button AM/FM/ASK/FSK demodulation (Demodulation time ≤3ms, Based on product functionality). Multi-interface support for USB/GPIB/LAN remote control (Switching time ≤1 second, Based on product functionality).

IoT Device Test Workflow

1. Connection: Direct connection to IoT transmitter module with auto-band recognition

2. Configuration: Load pre-set IoT test template, complete setup in 3 seconds

3. Analysis: One-button demodulation of ASK/FSK modulation signals

4. Output: Generate comprehensive spectrum/modulation quality report

High-Frequency Measurement Boundary

Cable loss may cause ±1.2dB amplitude error when testing >2.5GHz (Estimated from high-frequency test characteristics). Mitigation: ① Enable cable compensation function (improves accuracy to ±0.3dB); ② Use low-loss test cables (provided with rental).