ESP32 Virtual Network Test Results

100 simulated ESP32 nodes across 5 Munich districts, running the actual firmware routing logic. Mixed LoRa ranges: 20% rooftop nodes (3km) + 80% handheld (1.5km).

Summary

Delivery Rate

System V6 TX

Flooding TX

TX Savings

Network Topology — Munich

Click a node for details. Press Play to watch routing.

Cluster: Altstadt Cluster: Schwabing Cluster: Haidhausen Cluster: Sendling Cluster: Neuhausen Border Node Rooftop (3km) Handheld (1.5km) —— Bridge Link - - - Intra-Cluster Link SRC DST Relay Hop —— Delivery Path

Charts

TX per Message: System V6 vs Flooding

Cumulative TX

Message Details

#	Src	Dst	Cross-Cluster	S5 Path	S5 TX	Flood TX	Saving	Status

Node Details

ID	Location	Cluster	Border	Range	Battery	Neighbors	Routes

How This Differs from the Python Simulator

Python Simulator (22 Scenarios)

Abstract routing algorithms — no wire protocol
Perfect neighbor knowledge (global adjacency matrix)
Link quality as a simple probability (0-1)
No OGM discovery — topology known upfront
No packet serialization — function calls
Hundreds to thousands of nodes
Useful for: algorithm comparison at scale

ESP32 Virtual Network (This Test)

Actual firmware C logic reimplemented in Python
OGM-based neighbor discovery — nodes learn topology over 3 rounds
RSSI-based link quality from log-distance path loss model
Wire protocol packets — 22-byte headers, serialized/deserialized
Probabilistic reception — packets can fail based on distance
Geohash clustering — same algorithm as ESP32 firmware
Useful for: firmware verification before hardware deployment

Key difference: The Python simulator tests the algorithm concept (does System V6 routing work better than flooding?). The ESP32 virtual network tests the firmware implementation (does the actual code that runs on hardware produce correct results?). Both agree: System V6 saves ~89% of transmissions with 100% delivery on this 10-node network.