diff --git a/examples/README.md b/examples/README.md
index 4040cd6..32ec15b 100644
--- a/examples/README.md
+++ b/examples/README.md
@@ -9,31 +9,70 @@ In all plots generated by `inire`, we distinguish between the search-time geomet
 
 ---
 
-## 1. Fan-Out (Negotiated Congestion)
-Demonstrates the Negotiated Congestion algorithm handling multiple intersecting nets. The router iteratively increases penalties for overlaps until a collision-free solution is found. This example shows a bundle of nets fanning out through a narrow bottleneck.
+## Example Index
 
-![Fan-Out Routing](07_large_scale_routing.png)
+| Example | Script | Output PNG | Summary |
+| :-- | :-- | :-- | :-- |
+| 01 | `01_simple_route.py` | `01_simple_route.png` | Single-net baseline route with one bend radius. |
+| 02 | `02_congestion_resolution.py` | `02_congestion_resolution.png` | Small multi-net negotiated-congestion example. |
+| 03 | `03_locked_paths.py` | `03_locked_paths.png` | Incremental routing with previously routed geometry treated as locked obstacles. |
+| 04 | `04_sbends_and_radii.py` | `04_sbends_and_radii.png` | S-bend and bend-radius behavior on compact routes. |
+| 05 | `05_orientation_stress.py` | `05_orientation_stress.png` | Orientation-heavy routing with flips, loops, and U-turn-like cases. |
+| 06 | `06_bend_collision_models.py` | `06_bend_collision_models.png` | Comparison of bend collision/proxy geometry models. |
+| 07 | `07_large_scale_routing.py` | `07_large_scale_routing.png` | Large fan-out through a bottleneck with negotiated congestion and expansion overlay. |
+| 08 | `08_custom_bend_geometry.py` | `08_custom_bend_geometry.png` | Custom physical bend geometry and separate custom proxy geometry. |
+| 09 | `09_unroutable_best_effort.py` | `09_unroutable_best_effort.png` | Best-effort partial routing for a blocked or unroutable net. |
 
-## 2. Bend Geometry Models
+## 01. Simple Route
+A minimal single-net example that routes one connection across an empty board and saves the result to `01_simple_route.png`.
+
+![Simple Route](01_simple_route.png)
+
+## 02. Congestion Resolution
+Demonstrates negotiated congestion on a small multi-net problem where overlapping routes must be separated over successive iterations.
+
+![Congestion Resolution](02_congestion_resolution.png)
+
+## 03. Locked Paths
+Shows how to treat previously routed geometry as fixed static obstacles in a later run.
+
+![Locked Paths](03_locked_paths.png)
+
+## 04. S-Bends And Radii
+Highlights compact routing behavior with S-bends and the configured bend radii.
+
+![S-Bends And Radii](04_sbends_and_radii.png)
+
+## 05. Orientation Stress Test
+Demonstrates the router's ability to handle complex orientation requirements, including U-turns, 90-degree flips, and loops.
+
+![Orientation Stress Test](05_orientation_stress.png)
+
+## 06. Bend Geometry Models
 `inire` supports multiple collision models for bends, allowing a trade-off between search speed and geometric accuracy:
 *   **Arc**: High-fidelity geometry (Highest accuracy).
 *   **BBox**: Simple axis-aligned bounding box (Fastest search).
 *   **Custom Manhattan Geometry**: A custom 90-degree bend polygon with the same width as the normal waveguide.
 
 Example 06 uses the Manhattan polygon as both the true routed bend geometry and the collision proxy.
-Example 08 compares the standard arc against a run that uses a custom physical bend plus a separate custom proxy polygon, with each net routed in its own session.
+
+![Bend Collision Models](06_bend_collision_models.png)
+
+## 07. Fan-Out (Negotiated Congestion)
+Demonstrates the Negotiated Congestion algorithm handling multiple intersecting nets. The router iteratively increases penalties for overlaps until a collision-free solution is found. This example shows a bundle of nets fanning out through a narrow bottleneck.
+
+![Fan-Out Routing](07_large_scale_routing.png)
+
+## 08. Custom Bend Geometry
+Compares the standard arc against a run that uses a custom physical bend plus a separate custom proxy polygon, with each net routed in its own session.
 
 ![Custom Bend Geometry](08_custom_bend_geometry.png)
 
-## 3. Unroutable Nets & Best-Effort Display
+## 09. Unroutable Nets & Best-Effort Display
 When a net is physically blocked or exceeds the node limit, the router returns the "best-effort" partial path—the path that reached the point closest to the target according to the heuristic. This is critical for debugging design constraints.
 
 ![Best Effort Display](09_unroutable_best_effort.png)
 
-## 4. Orientation Stress Test
-Demonstrates the router's ability to handle complex orientation requirements, including U-turns, 90-degree flips, and loops.
-
-![Orientation Stress Test](05_orientation_stress.png)
-
-## 5. Tiered Fidelity
-The current implementation can use a cheaper bend proxy on the first negotiated-congestion pass before later passes fall back to the configured bend model. This is controlled by `RoutingOptions.congestion.use_tiered_strategy` together with the bend collision settings described in `DOCS.md`.
+## Notes
+- Example 07 overlays expanded search nodes on the saved routing figure.
+- The current implementation can use a cheaper bend proxy on the first negotiated-congestion pass before later passes fall back to the configured bend model. This is controlled by `RoutingOptions.congestion.use_tiered_strategy` together with the bend collision settings described in `DOCS.md`.