Mining, natural resources, and field-operations software
Mine Operations Platform Requirements Checklist
A practical engineering checklist for mining operators connecting production, equipment, safety, field work, environmental evidence, and accountable decisions.
Published by Kennedy Gichobi · Fact-checked by OpenAI Codex research review · Published · 1665 words
Define the operating decision before collecting more telemetry
Mine operations software should improve a specific decision: whether an area or asset can operate, how a shift plan changes after a constraint, where production differs from plan, which defect needs intervention, whether a control was verified, or what evidence supports an environmental or safety report. Name the decision-maker, source evidence, required timing, uncertainty, current workaround, and consequence. A dashboard with thousands of tags can still leave a supervisor unable to explain whether the next action is safe and authorized.
Map a representative operating cycle from planning through pre-start, workplace examination or local equivalent, shift handover, task allocation, equipment assignment, extraction, haulage, processing, stockpile, sampling, maintenance, incident, environmental monitoring, reconciliation, and closeout. Include underground and surface distinctions, contractors, remote sites, shared equipment, lost communications, variable geology, weather, blasting or restricted areas, and overlapping shifts. Choose a first release around one bounded workflow rather than trying to replace dispatch, maintenance, laboratory, safety, and control systems at once.
Establish jurisdiction, mine, and responsibility boundaries
Requirements differ by country, commodity, mining method, mine classification, permit, labor arrangement, and operator policy. In the United States, MSHA maintains mine safety and health reporting and data resources, while state and other authorities may add obligations. Qualified mining engineering, safety, environmental, legal, labor, and regulatory professionals must define applicable rules. Software should implement approved processes, effective dates, authority, and evidence; it should not declare a workplace safe or compliant because required fields are complete.
Model operator, site, mine, pit or underground area, permit, contractor, organizational unit, shift, responsible person, and jurisdiction explicitly. Preserve effective dates and role history. A contractor's activity may occur under the operator's coordination without making every record interchangeable. Reports, actions, and inspections need the correct mine and contractor identifiers, accountable role, and retention rule.
Build a spatial and asset model that survives operational change
Separate site, area, bench, heading, level, roadway, plant, stockpile, dump, exclusion zone, sensor location, and coordinate reference. Names and boundaries change as work advances. Store stable internal identity, geometry version, survey source, effective period, and relationship to operating plans. Do not overwrite yesterday's location definition with today's map if incidents, samples, or production must remain interpretable.
Model mobile equipment, fixed plant, component, attachment, sensor, control system, communication device, ownership, specification, location, operating state, and maintenance relationship separately. Equipment identifiers can be repainted, transferred, or reused. Preserve which component and sensor configuration applied when a reading or event occurred. Test replacements, swapped devices, rebuilt components, rental assets, and an equipment record received from two systems with different identifiers.
Represent shift planning and handover as controlled commitments
A shift plan should link tasks, location, equipment, people or crews, prerequisites, hazards, controls, materials, production targets, and dependencies. Distinguish proposed, authorized, started, paused, reassigned, completed, and cancelled work. Record who authorized material changes and why. Never let a later planning revision rewrite the plan a crew actually received.
Handover needs unresolved hazards, equipment condition, restricted areas, work in progress, isolation status, environmental issues, communications problems, and pending decisions. Require acknowledgement where policy calls for it, but do not confuse acknowledgement with understanding or control verification. Test a late hazard, absent incoming supervisor, overlapping shifts, task reassignment, paper fallback, and updates submitted after an offline device reconnects.
Keep safety observations, incidents, and investigations distinct
Separate hazard or observation, workplace examination, control verification, near miss, incident, injury or illness, emergency event, investigation, finding, corrective action, and regulatory report. They may be linked but have different authority, confidentiality, time limits, and evidence. A general issue tracker usually cannot preserve these differences safely.
MSHA Form 7000-1 instructions illustrate that reportable accidents, injuries, and illnesses require defined identification, occurrence, investigation, and outcome information and that some records are updated when later disposition becomes available. Implement the organization's approved reporting rules without turning an internal report into an automatic regulatory filing. Preserve submitted values and later amendments, responsible reviewer, delivery evidence, and the distinction between internal analysis and official submission.
Treat production data as measurements with provenance
Production records may originate from dispatch, scales, belt meters, plant control, surveys, stockpile models, laboratory results, manual counts, and finance reconciliation. Define material identity, source and destination, quantity, unit, moisture or quality basis, event time, received time, equipment, batch or movement, confidence, and correction. Preserve raw observations separately from reconciled or allocated values.
Avoid presenting one “tons produced” number without its boundary and method. Shift movement, processed feed, product, shipped quantity, and accounting allocation answer different questions. Record transformations and approved adjustments. Test duplicate truck cycles, scale drift, delayed assay, stockpile reclassification, moisture correction, clock drift, and a source system replaying several hours of events after connectivity returns.
Integrate dispatch and maintenance without hiding availability
Dispatch may own assignments, cycles, routes, and current movement. Maintenance may own work orders, inspections, component history, service, and technical release. The operations platform should link their state through stable identifiers and explicit contracts. A machine can be mechanically available but unavailable because of location, operator, access, environmental constraint, fuel, or an active hold.
Represent each condition separately and show its source, age, and authority. Failed synchronization should create an exception, not a false available status. Test a defect reported offline, a maintenance hold placed during a task, a replacement asset, inconsistent hour meters, and a completed work order whose return-to-service decision is still pending. The maintenance management software checklist covers the deeper asset and work-order lifecycle.
Build environmental monitoring around approved methods
Environmental workflows may include water, air, dust, noise, vibration, weather, tailings, waste, rehabilitation, biodiversity, discharge, and community commitments. Define permit or obligation, monitoring point, method, instrument, calibration, unit, detection limit, sample, chain of custody, laboratory, result, quality flag, threshold, reviewer, action, and report period. Requirements must come from approved permits, plans, and qualified professionals.
Distinguish real-time operational indicators from validated reportable results. Show missing, suspect, below detection, estimated, and corrected values explicitly. Do not silently replace a failed sensor reading with zero. Test timezone boundaries, missed sampling, changed instrument, duplicate laboratory result, revised threshold, outlier review, and a sample whose location geometry changed after collection.
Secure operational technology without disrupting safe operation
NIST SP 800-82 describes OT as systems that interact with the physical environment and emphasizes unique performance, reliability, and safety requirements. Inventory control, telemetry, historian, fleet, environmental, physical access, and business connections. Classify each by whether it observes, configures, or controls. Keep analytics and general web applications out of control paths unless a formal engineering and safety process establishes otherwise.
Use segmentation, least privilege, managed remote access, service identity, protected credentials, controlled removable media, allowlisting where appropriate, monitoring, tested backups, and coordinated vulnerability management. Patch timing must consider safety and availability, but “cannot patch” cannot mean “ignore risk.” Test compromised contractor access, replayed telemetry, mass export, lost field device, malicious file, unauthorized setpoint attempt, and loss of the link between enterprise identity and an isolated site.
Make dashboards explain uncertainty and responsibility
An operations center needs exception-centered views: unverified control, unavailable asset without owner, stale location, production imbalance, unresolved defect, missed sample, failed integration, and action overdue. Every exception should show source evidence, severity or consequence, owner, age, next action, and escalation. Users must be able to drill from a total into the movements, readings, and adjustments that created it.
Avoid rankings that turn noisy telemetry into automatic discipline or safety conclusions. Derived events require documented logic, data quality, contextual review, and correction. Separate detection from determination. When software recommends an action, show the relevant facts and limitations and keep accountable human authority visible.
Plan recovery, migration, and ownership before launch
Set recovery and data-loss expectations by workflow. Current restricted-area status and a monthly production report have different urgency. Rehearse network isolation, cloud outage, identity failure, corrupted telemetry, historian replay, lost device, and restoration from backup. Define degraded operation, manual authority, stale-data warnings, reconciliation, and post-recovery review.
Profile equipment masters, spatial records, shifts, tasks, inspections, incidents, production, samples, maintenance links, users, contractor records, and attachments before migration. Preserve source identifiers and historical meaning. Require client control or transferability for repositories, cloud projects, domains, site gateways, certificates, integration accounts, schemas, exports, backups, deployment, monitoring, and documentation. A safe system cannot depend on one contractor's private account.
Evaluate the platform with a difficult shift scenario
Ask a vendor or developer to trace a scenario in which a mobile asset changes area, reports a defect offline, is placed on hold in maintenance, remains assigned in dispatch, produces delayed telemetry, contributes to a production imbalance, and is connected to a safety observation and environmental reading during a network interruption. Require the team to show identity, location version, timestamps, authority, stale state, conflict handling, OT boundary, reconciliation, and recovery.
Compare specialist mine products, integration around existing dispatch and maintenance systems, and focused custom development against that scenario. The IoT platform requirements guide helps evaluate telemetry and device lifecycle, while the software incident recovery guide covers operational resilience. Share the mine type, sites, workflows, systems, connectivity, equipment, safety and environmental boundaries, volumes, and current failures through the project questionnaire, or use quick contact for a focused discussion.
Authoritative references
Related software planning guides
- Mine Operations Platform Security Guide
- Mine Operations Software Cost and Budget Guide
- Mine Operations Software Implementation Roadmap