Private Network Site Survey Readiness Checklist — Mining
Before commissioning an RF survey or engaging a deployment partner, confirm your mining site is ready. This tool diagnoses your readiness across six domains — including underground propagation, emergency communications integration, leaky feeder assessment, autonomous equipment connectivity, and mine safety compliance — and generates a mining-specific site survey checklist, required documents list, and field validation sequence.
2 phases · 20 questions
~8 minutes
Mining-specific output
Printable checklist + PDF
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Phase 1 · Site Profile
Tell us about your mining operation
These six questions establish the site context that shapes your entire readiness checklist. Mining operations vary dramatically between surface, underground, and processing environments — answer based on your current operational state, not your target architecture.
Question 1 of 6
What type of mining operation is this?
Select the option that best describes the primary environment where coverage is needed.
Question 2 of 6
What stage is your deployment at?
Question 3 of 6
Which use cases will the private network need to support at this mining operation?
Select all that apply — your selection drives the survey checklist and performance requirements.
Question 4 of 6
What is the deployment urgency and programme stage?
Question 5 of 6
Is underground coverage required, and if so, is existing leaky feeder or underground Wi-Fi infrastructure present that needs to be integrated or replaced?
Underground mining is one of the most technically complex RF environments. Leaky feeder (radiating coaxial cable) is the established underground communications medium — confirming its presence and condition before survey determines whether the private network design extends, replaces, or coexists with it.
Question 6 of 6
What emergency communications systems are currently operational, and are there explosive atmosphere or gassy mine classifications that affect equipment selection?
Mine safety regulations in most jurisdictions require that emergency communications capability is maintained independently of the private network. Gassy mine or explosive atmosphere classifications require intrinsically safe or flame-proof (Ex) rated equipment — a different product category that must be confirmed before any equipment is specified.
Phase 1 of 2
Domain A · Physical Environment
Site layout and physical conditions
Mining environments are among the most challenging for RF design. Underground workings require leaky feeder or node-based coverage in confined tunnels with dust, water, and vibration. Surface pits have dynamic terrain with moving benches, haul roads, and large equipment obstructions. Capturing the full environment picture before survey design is essential.
Question 7 of 20
Are accurate site maps or drawings available for the areas requiring coverage?
CAD drawings, floor plans, or as-built documents are required for RF propagation modelling. Surveys without accurate maps rely on field measurement only, increasing design risk.
Question 8 of 20
How would you describe the RF propagation environment in the primary coverage areas?
Question 9 of 20
Are there significant dynamic obstructions that will affect coverage during normal operations?
Dynamic obstructions — moving machinery, vehicles, stacked materials — create coverage variability that static RF surveys can underestimate.
Question 10 of 20
Are there known sources of RF interference on or adjacent to the site?
Select all that apply
Domain A of 5
Domain B · Power & Backhaul
Power and connectivity at planned radio locations
Power and backhaul availability at each planned radio location is one of the most common deployment blockers in manufacturing. Identifying gaps early determines whether additional civil work, cabling, or wireless backhaul is required — all of which affect timeline and cost.
Question 11 of 20
What is the power availability at your planned radio access point locations?
Question 12 of 20
What is the fibre or Ethernet backhaul availability at planned radio locations?
Each radio access point requires a backhaul connection to the core network. In dense factory environments, running new cable is often the longest-lead civil works item.
Question 13 of 20
What connectivity infrastructure already exists on site that may be reused or integrated?
Select all that apply
Domain C · OT Systems & Devices
Operational technology, systems integration and device landscape
Mine control and safety system integration is the most operationally critical aspect of any mining private network deployment. Fleet dispatch, autonomous haulage systems, proximity detection, and emergency communications all have specific connectivity and latency requirements that must be defined before survey design begins.
Question 14 of 20
Which mine control and operational systems need to connect to or integrate with the private network?
Select all that apply
Question 15 of 20
What is the approximate number of devices that need to connect to the private network, and has a device inventory been documented?
Question 16 of 20
Have latency, throughput, and reliability requirements been defined for your most demanding use case?
AGV handover, machine vision, and safety-critical applications each have specific performance requirements that must be defined before RF design begins.
Domain D · Spectrum & Compliance
Spectrum status and regulatory requirements
Spectrum selection at mines must account for underground propagation characteristics, surface terrain, and coexistence with existing TETRA or legacy mine radio systems. Mine safety regulatory requirements directly affect equipment certification and emergency communications design. Both must be confirmed before RF design is finalised.
Question 17 of 20
What is the current status of spectrum for this deployment?
Question 18 of 20
Which mine safety and cybersecurity standards apply to this deployment?
Select all that apply — these determine security architecture requirements before vendor engagement
Domain E · Survey Logistics & Stakeholder Approvals
Access, approvals and operational constraints
Mine site access requires mine-specific safety induction, PPE appropriate for underground or open pit environments, and in many jurisdictions formal working-at-mines certification. For underground surveys, additional constraints apply: atmospheric testing, cap lamp requirements, and emergency comms check-in procedures. Confirm every access requirement before the survey team travels to site.
Question 19 of 20
What is the site access situation for the survey team?
Question 20 of 20
Which internal stakeholder approvals are needed before deployment can proceed?
Select all that still need to be secured
Your site survey checklist is ready.
Enter your details below to access your full Mining Private Network Site Survey Readiness Report — including your readiness score, field checklist, information gaps, deployment blockers, required documents, and field validation sequence.
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From: sales@tecknexus.com
Subject: Your Private Network Site Survey Readiness Report — Mining
Mining · Private Network Site Survey Readiness
Site Survey Readiness Report
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