System Analysis

End-to-End Transceiver Performance Analysis

Comprehensive system-level analysis including optical link budget, noise analysis, and bit error rate calculations for complete transceiver performance evaluation.

Interactive System Parameters

Adjust system parameters to analyze different operating conditions and performance trade-offs.

25 Gbps
2.0 km
0.2 dB/km
3.2 V
0.8 A/W
25°C
1e-12
Bit Error Rate
18.5
SNR (dB)
3.2
Power Margin (dB)
0.8
Jitter (ps)

Analysis Features

Link Budget Analysis

Comprehensive optical link budget calculation including insertion losses, fiber attenuation, and power margin analysis.

BER Performance

Bit error rate analysis as a function of received power and signal-to-noise ratio for different modulation formats and data rates.

Eye Diagram Analysis

Real-time eye diagram generation and analysis including eye opening, jitter measurement, and signal quality assessment.

Temperature Effects

Temperature-dependent analysis including thermal effects on device performance and system reliability under varying operating conditions.

System Models

The system analysis uses comprehensive models for accurate performance prediction:

Link Budget Equation

The optical link budget is calculated as:

$$P_{received} = P_{transmitted} - L_{modulator} - L_{fiber} - L_{detector} - L_{connectors}$$

Where Lmodulator, Lfiber, Ldetector, and Lconnectors are the respective losses.

BER Calculation

The bit error rate for OOK modulation is:

$$BER = \frac{1}{2} \text{erfc}\left(\frac{\sqrt{SNR}}{2\sqrt{2}}\right)$$

Where erfc is the complementary error function and SNR is the signal-to-noise ratio.

Noise Analysis

The total noise power includes thermal and shot noise:

$$N_{total} = N_{thermal} + N_{shot} = \frac{4kTB}{R} + 2qI_{ph}B$$

Where k is Boltzmann's constant, T is temperature, B is bandwidth, R is load resistance, q is electron charge, and Iph is photocurrent.