
A holistic and systemic vision is essential for project success, identifying risks, optimizing designs, and ensuring alignment with engineering and operational objectives and standards, laying the foundation for subsequent project phases.
We apply systems engineering to mining design. That means analyzing material flow, balancing mass across the plant, and validating dynamic behavior through simulation, all before construction. The point is to catch design risks when changes still cost hours, not months of rework.
From greenfield mine layouts to brownfield retrofits, +NR engineers the full mining infrastructure stack: civil works, material handling systems, facility design and water management. Everything is integrated through a single project management discipline aligned to PMBOK standards.
The transition to electric mining fleets requires more than swapping engines. It demands charging infrastructure, grid reinforcement, and rethinking how energy flows through the operation. +NR integrates electrification planning into mine design, sizing renewables, batteries and substations against production schedules and decarbonization targets. The result is investment dimensioned for what the operation actually needs.



How +NR approaches decisions on real mining projects — methodology, tooling, scope and trade-offs.
We start with a Systems Engineering diagnostic grounded in INCOSE methodology: top-down requirements review against the original design baseline, material flow analysis, and stakeholder mapping to locate the actual bottleneck, whether it is mechanical, process, control, or maintenance. Without this, any 'optimization' is guesswork. A diagnostic phase typically takes 2 to 3 weeks before we propose any intervention, and it pays for itself by avoiding the wrong fix.
We apply INCOSE V-Model verification and validation to critical transfer points, modeling them with DEM (Discrete Element Method) before construction, not after a problem appears. Design readiness reviews catch interface issues at the design phase, eliminating the majority of chute and transfer retrofits we see in operating mines. The cost is simulation hours; the saving is months of reengineering and lost production.
We treat electrification as a Systems Engineering problem (INCOSE), not an equipment swap. That means mapping the real load profile (not nameplate values), running trade studies to size infrastructure such as grid reinforcement, batteries and on-site renewables against production scenarios, and identifying which fleets or equipment make sense to electrify first based on total cost of ownership. This avoids overspending on infrastructure that will not be used.
We use DEM and SPH when there is complex granular flow (chutes, hoppers, stockpiles), multiple ore types, or a history of operational failures. The decision follows INCOSE trade study methodology: simulation cost weighed against design risk. For linear, well-behaved flows, traditional engineering is sufficient. Knowing when NOT to simulate is part of the engineering decision; using it everywhere is as wrong as never using it.
We apply PMI/PMBOK with a deliverable-level WBS, performance measurement baselines, change control boards (CCB), and risk management aligned to ISO 31000. Our PMO operates within an ISO 9001:2015 quality system. The real differentiator is risk management: most delays come from risks identified too late, not from slow execution. Surfacing them early through structured gate reviews, and pricing the contingency honestly, keeps the schedule realistic.
We work both ways. Feasibility studies usually run 8 to 16 weeks, structured around INCOSE concept-of-operations development. EPCM contracts span 12 to 36 months with PMBOK scope, schedule and cost management. Clients that engage the same team for both phases see less rework at the design-to-execution handover, because the design intent and trade-offs from the feasibility stage are preserved through the V-Model verification path.
We use INCOSE Systems Engineering as the design discipline (requirements traceability, V-Model verification and validation, MBSE for early-phase decisions) and PMBOK as the project management discipline (WBS, performance baselines, change control). Continuous improvement is governed through CMMI and ISO 9001:2015. The combination is what we call the +NR methodology, described in detail on our methodology page, and it is applied identically to greenfield mine layouts, brownfield retrofits, and plant optimization engagements.