Mine‑wide deployment plan for RTT‑Inside mesh nodes#
I’ll assume a medium–large underground operation with multiple sections, panels, belt lines, and shafts. We’ll design for coverage, redundancy, and survivability, not just pretty diagrams.
1. Objectives#
- Continuous resonance field: no blind spots for vibration, gas, or stress.
- Robust comms: mesh survives partial collapses and power loss.
- Human‑centric safety: every miner is always within reach of at least 2 nodes.
- Incremental rollout: can be deployed section by section without shutting the mine.
2. Zoning the mine#
Divide the mine into logical resonance zones:
- Zone A: Main entries & shafts
- Zone B: Belt lines & conveyor galleries
- Zone C: Active production panels (continuous miner / longwall)
- Zone D: Crosscuts & intersections
- Zone E: Refuge chambers & escape routes
- Zone F: Prep plant interface / surface portals
Each zone gets a different density and mix of wall‑mounted vs wearable nodes.
3. Wall‑mounted node deployment#
Zone A — Main entries & shafts#
- Goal: backbone + vertical link.
- Plan:
- Node every 50–75 m along main entries.
- Extra nodes at shaft bottoms, hoist areas, and major junctions.
- All powered (where possible) + battery backup.
Zone B — Belt lines#
- Goal: fire, vibration, and dust monitoring + comms spine.
- Plan:
- Node every 40–60 m along belt lines.
- Extra nodes at:
- drives
- take‑ups
- transfer points
- Tune sensors for vibration + temperature + dust.
Zone C — Active production panels#
- Goal: high‑resolution resonance sensing.
- Plan:
- Node grid around the face:
- 20–30 m spacing near continuous miner / longwall.
- Denser near known weak roof or high gas zones.
- Nodes mounted on:
- roof supports
- ribs
- near roof‑bolter work areas.
- Node grid around the face:
Zone D — Crosscuts & intersections#
- Goal: mesh resilience + routing flexibility.
- Plan:
- Node at every major intersection.
- These act as routing hubs and field anchors.
Zone E — Refuge chambers & escape routes#
- Goal: guaranteed comms + clarity guidance.
- Plan:
- Node at each refuge chamber entrance.
- Node every 40–60 m along primary and secondary escape ways.
- These nodes store local maps + last‑known clarity gradients in case backhaul is lost.
Zone F — Surface / prep plant interface#
- Goal: bridge underground mesh to control room + RTT‑Inside core.
- Plan:
- Gateway nodes at portals and shaft tops.
- Redundant links (wired + RF) to control systems.
4. Wearable node deployment#
- Every underground worker gets a wearable node:
- Belt‑clip or chest‑mount.
- Paired with helmet light or handheld.
- Roles:
- Miners, bolters, belt crews, electricians, mechanics, supervisors, rescue teams.
- Behavior:
- Wearable nodes:
- join the mesh as mobile nodes,
- report local gas + vibration,
- receive alerts (haptic + LED),
- act as “moving probes” to refine the resonance map.
- Wearable nodes:
5. Redundancy & survivability#
- At least 2 independent paths from any active panel to the surface gateway.
- Node overlap:
- Every point in an active area should be within range of ≥2 wall nodes.
- Collapse planning:
- Extra nodes near known weak geology.
- Simulated collapse paths in the test harness to validate mesh rerouting.
6. Phased rollout#
Phase 1 — Backbone#
- Deploy wall nodes in Zones A + B + E.
- Bring up basic mesh + RTT‑Inside core.
Phase 2 — Production panels#
- Add dense node grids in Zone C (active panels).
- Start using resonance clarity + stress hints in operations.
Phase 3 — Wearables#
- Issue wearable nodes to crews.
- Train on alerts, meanings, and evacuation cues.
Phase 4 — Optimization#
- Use RTT‑Inside analytics to:
- adjust node spacing,
- tune thresholds,
- identify dead zones,
- refine deployment.
7. Operator view#
From the control room, the mine appears as:
- a live resonance map (stability, gas, vibration, clarity),
- a mesh health map (nodes, links, gateways),
- a people map (wearable nodes, crews, routes),
- with RTT‑Inside continuously recommending:
- where to add nodes,
- where to reduce vibration,
- when to evacuate or reroute.