Data as of Aug 25, 2026 · Based on 331 AI responses from ChatGPT Search and Google AI Mode · See how Parse measures this
For an end-to-end open-pit mine lifecycle, Hexagon MinePlan,
Maptek Vulcan, and
Deswik are the most widely recommended industry leaders. These platforms offer comprehensive integration for geology, engineering, and scheduling. For specialized needs, MiningMath is preferred for rapid optimization, while tools like or are often cited as strong choices for mid-sized projects requiring rapid development and intuitive workflows.
Brands AI recommends here
Best for comprehensive, end-to-end lifecycle planning. It is widely recognized for long-term scheduling and robust integration of geotechnical and operational data from exploration through to final site closure.
A leading choice for complex 3D geological modeling and pit design. It is favored by engineering teams for its ability to visualize and analyze large, intricate datasets to support long-term production and planning.
Highly regarded for advanced, integrated scheduling and CAD-based design. It is often recommended for large-scale, complex operations, though it also offers workflows suitable for mid-sized projects.
Optimal for rapid, flexible strategic optimization. It is recommended when you need to simultaneously consider multiple constraints to generate realistic and efficient mine plans more quickly.
Planning an open-pit mine from initial exploration all the way to final closure requires an ecosystem of tools rather than just a single standalone program. While a few major software suites attempt an end-to-end workflow, most operations combine a geological/resource package with a dedicated design and scheduling engine.
The industry standards dominating open-pit mine planning across the value chain include:
Industry Perspectives on Mine Software
“There seems to be a consensus in the industry that Deswik is the superior mine planning software, and I might be inclined to agree given how much grief Surpac has been giving me these days.”
To help narrow down which platform or combination fits your timeline best, could you share:
If you want to plan an open-pit mine from exploration through life-of-mine scheduling and ultimately closure, I would not pick a single package purely on the basis of “best mine-planning software.” The strongest choice depends on whether you prioritize geological modelling, pit optimization, detailed design, scheduling, or an integrated end-to-end workflow.
| Software | Best fit | Exploration / geology | Pit optimization | Mine design | Scheduling | Closure / rehab |
|---|---|---|---|---|---|---|
| Maptek Vulcan | Best broad end-to-end platform | ★★★★★ | ★★★★☆ | ★★★★★ | ★★★★☆ | ★★★★☆ |
| GEOVIA Surpac + Whittle + MineSched | Strong integrated traditional workflow | ★★★★★ | ★★★★★ | ★★★★★ | ★★★★★ | ★★★★☆ |
| Deswik | Advanced mine planning & scheduling | ★★★☆☆ | ★★★★★ | ★★★★★ | ★★★★★ | ★★★★☆ |
| Hexagon MinePlan | Large-scale integrated operations | ★★★★☆ | ★★★★★ | ★★★★★ | ★★★★★ | ★★★★☆ |
| Micromine | Juniors / mid-sized operations | ★★★★★ | ★★★★☆ | ★★★★☆ | ★★★★☆ | ★★★☆☆ |
For a new open-pit project where you're genuinely going exploration → resource → pit optimization → pushbacks → design → LOM schedule → production, I'd seriously consider the GEOVIA stack:
That separation is actually a strength: Surpac builds the geological/resource foundation, Whittle answers "what should we mine?", and MineSched answers "when/how should we mine it?" GEOVIA explicitly positions these products across geology, strategic planning and tactical scheduling.
Whittle is particularly compelling if the project is still at the economic evaluation / feasibility stage, because it can evaluate alternative pit shells and mine strategies rather than simply producing a geometric pit. It supports both Lerchs–Grossmann and Pseudoflow optimization and incorporates economic variables, blending, cut-off and stockpile optimization.
maptek.com is probably my strongest alternative.
Its scope is unusually broad: geological modelling, block modelling, geostatistics, mine design, scheduling, optimization, survey, grade control, drill/blast and geotechnical workflows. Maptek describes Vulcan as covering the process from exploration/geological modelling through mine design and scheduling to rehabilitation.
The current Vulcan ecosystem also includes an Open Pit Optimisation add-on and Scheduling Suite, while its Gantt Scheduler can sequence activities, level resources and link schedules directly to 3D mine entities.
I'd lean toward Vulcan if your priority is:
"I want my engineers and geologists working in one powerful 3D mine environment rather than stitching lots of specialist applications together."
I'd put Deswik very high on the evaluation list if your mine is going to have complicated scheduling constraints—multiple mining fronts, fleets, processing constraints, stockpiles, blending, ramp-up, multiple pits, etc.
For a mature operation, sophisticated scheduling can matter more than which package has the nicest geological modelling interface. In that situation, I'd evaluate Deswik alongside GEOVIA and Vulcan rather than automatically selecting a geology-centric package.
For a serious project, I'd structure the digital workflow approximately like this:
Exploration → drillhole database → QA/QC + compositing → geological interpretation → geostatistics → resource model
Resource → Reserve → block model → geotechnical parameters → mining recovery/dilution → economic assumptions → pit optimization
Strategic planning → nested pit shells → ultimate pit → pushbacks/phases → mining sequence → processing/stockpile strategy → LOM schedule → NPV / IRR / sensitivity analysis
Detailed engineering → bench/berm geometry → ramps and haul roads → mining widths → waste dumps → stockpiles → water infrastructure → plant/infrastructure interfaces
Production → annual/monthly/weekly schedules → fleet requirements → grade control → reconciliation → short-term planning → schedule vs. actual
Closure → final pit configuration → waste dump closure → water management → rehabilitation surfaces → closure sequencing → long-term monitoring and cost model.
The important point is that "mine planning software" isn't one problem. A package that is excellent at geological modelling isn't necessarily the best at mathematical scheduling, and a package excellent at LOM optimization isn't necessarily the best detailed mine-design environment.
I'd run a hands-on evaluation of three stacks:
I would not choose based on vendor demos. Give each vendor the same block model, geotechnical assumptions, mining fleet, processing constraints, commodity prices, costs and recovery assumptions, then make them produce the same ultimate pit, phases, LOM schedule and economic analysis. That will tell you much more than a feature checklist.
If you tell me the commodity (e.g. copper, gold, iron ore), approximate resource size, expected annual throughput, whether you're at exploration/PEA/PFS/FS/operating stage, and whether you need a single-user or multi-engineer system, I can narrow this to a specific software stack and lay out the full mine-planning workflow from drillholes to closure, including which software I'd use at each stage.
The current Vulcan ecosystem also includes an Open Pit Optimisation add-on and Scheduling Suite, while its Gantt Scheduler can sequence activities, level resources and link schedules directly to 3D mine entities.
I'd lean toward Vulcan if your priority is:
"I want my engineers and geologists working in one powerful 3D mine environment rather than stitching lots of specialist applications together."
I'd put Deswik very high on the evaluation list if your mine is going to have complicated scheduling constraints—multiple mining fronts, fleets, processing constraints, stockpiles, blending, ramp-up, multiple pits, etc.
For a mature operation, sophisticated scheduling can matter more than which package has the nicest geological modelling interface. In that situation, I'd evaluate Deswik alongside GEOVIA and Vulcan rather than automatically selecting a geology-centric package.
For a serious project, I'd structure the digital workflow approximately like this:
Exploration → drillhole database → QA/QC + compositing → geological interpretation → geostatistics → resource model
Resource → Reserve → block model → geotechnical parameters → mining recovery/dilution → economic assumptions → pit optimization
Strategic planning → nested pit shells → ultimate pit → pushbacks/phases → mining sequence → processing/stockpile strategy → LOM schedule → NPV / IRR / sensitivity analysis
Detailed engineering → bench/berm geometry → ramps and haul roads → mining widths → waste dumps → stockpiles → water infrastructure → plant/infrastructure interfaces
Production → annual/monthly/weekly schedules → fleet requirements → grade control → reconciliation → short-term planning → schedule vs. actual
Closure → final pit configuration → waste dump closure → water management → rehabilitation surfaces → closure sequencing → long-term monitoring and cost model.
The important point is that "mine planning software" isn't one problem. A package that is excellent at geological modelling isn't necessarily the best at mathematical scheduling, and a package excellent at LOM optimization isn't necessarily the best detailed mine-design environment.
I'd run a hands-on evaluation of three stacks:
I would not choose based on vendor demos. Give each vendor the same block model, geotechnical assumptions, mining fleet, processing constraints, commodity prices, costs and recovery assumptions, then make them produce the same ultimate pit, phases, LOM schedule and economic analysis. That will tell you much more than a feature checklist.
If you tell me the commodity (e.g. copper, gold, iron ore), approximate resource size, expected annual throughput, whether you're at exploration/PEA/PFS/FS/operating stage, and whether you need a single-user or multi-engineer system, I can narrow this to a specific software stack and lay out the full mine-planning workflow from drillholes to closure, including which software I'd use at each stage.
Planning an open-pit mine from initial exploration all the way to environmental closure requires an ecosystem of tools. No single software package does every single phase natively with absolute perfection, but a few heavyweights dominate the industry.
The industry standard software suites depend on which phase of the lifecycle you are prioritizing:
Industry Insights on Software Choices
Engineers and consultants frequently mix and match tools depending on the specific workflow stage rather than forcing an entire lifecycle into just one ecosystem:
“Deswik for design, Spry (micromine) for open cut scheduling. 3ddig and a bottle of red for a good time”
“Deswik for planning, scheduling, creating ore shells, and for ore control. Leapfrog for creating geological models and ore modeling”
To help narrow down the ideal stack for your specific project, tell me:
I can help you outline an end-to-end software workflow tailored to your deposit.
If you mean one software ecosystem that can take an open-pit project from exploration → resource model → pit optimization → design → scheduling → operations → closure, I’d shortlist Maptek Vulcan, GEOVIA, and Datamine, rather than looking for a single program that does every task equally well.
| Platform | Best for | Exploration / geology | Pit optimization | Pit design | LOM scheduling | Closure / reclamation |
|---|---|---|---|---|---|---|
| Maptek Vulcan + Evolution | Best overall integrated workflow | ★★★★★ | ★★★★½ | ★★★★★ | ★★★★★ | ★★★★ |
| Dassault Systèmes GEOVIA Whittle + MineSched/Surpac ecosystem | Strategic/economic optimization | ★★★★★ | ★★★★★ | ★★★★½ | ★★★★★ | ★★★ |
| Datamine | Strong integrated geology → planning workflow | ★★★★★ | ★★★★½ | ★★★★½ | ★★★★½ | ★★★ |
| Hexagon MinePlan | Large operations / integrated mine technology | ★★★★½ | ★★★★ | ★★★★★ | ★★★★★ | ★★★★ |
maptek.com is probably where I'd start for a greenfield open-pit project.
Vulcan covers geological and resource modelling, block modelling, geostatistics, geotechnical work, open-pit design, optimization and scheduling. Its Open Pit Design tools handle benches, berms, slopes, ramps, dumps and mineable solids, while the Open Pit Optimisation module provides pit-limit and cut-off-grade optimization.
For strategic and life-of-mine scheduling, Maptek's Evolution suite adds short-, medium-, long-term and strategic scheduling.
The big advantage is workflow continuity: exploration data can become a geological model, then a resource/block model, then optimized pit shells, phases/pushbacks, detailed pit designs and finally schedules. That reduces the painful "export from Software A → manipulate in B → import into C" problem.
GEOVIA Whittle is one of the strongest choices for strategic open-pit planning. It is specifically designed to evaluate economic viability, pit optimization, long-term strategy, scheduling, costs, recoveries, blending, cut-off grades and stockpile optimization.
I'd particularly consider this combination if you're doing a feasibility study / investment decision where NPV, project sequencing, cut-off strategy and sensitivity analysis are the central questions.
An important current point: Dassault Systèmes says Whittle continues to be developed, including a 2026 release, rather than being discontinued in favor of its newer 3DEXPERIENCE tools.
Datamine is worth serious consideration if you want a highly capable geology/resource-to-mine-planning environment and your team already has experience with it.
I'd put it in the same serious evaluation group as Vulcan and GEOVIA rather than treating it as a second-tier alternative.
For a greenfield open pit, I'd structure the digital mine-planning workflow approximately like this:
1. Exploration → drillhole database → QA/QC → geological interpretation → structural/domaining model
2. Resource → compositing → variography → estimation → block model → classification → density / metallurgy
3. Economic model → metal prices → recoveries → mining costs → processing costs → G&A → royalties/taxes → sustaining capital → discount rate
4. Pit optimization → geotechnical sectors → bench/berm parameters → ramp constraints → mining costs → processing constraints → recoveries → optimized pit shells → sensitivity cases
5. Mine design → ultimate pit → pushbacks/phases → benches → ramps → haul roads → ore/waste dumps → stockpiles → infrastructure exclusion zones
6. Scheduling → mining blocks → equipment/productivity → mining capacities → plant capacity → blending → stockpile strategy → cut-off strategy → annual/monthly schedule → LOM cash flow and NPV
7. Operational planning → annual → quarterly → monthly → weekly → daily plans → grade control → reconciliation → survey/as-built comparison → plan-versus-actual feedback
8. Closure → final landform → waste dump closure → tailings closure → pit lake / pit-wall strategy → water management → reclamation → monitoring → closure cost and schedule
Vulcan is particularly attractive for this workflow because its current documentation explicitly positions the platform from exploration and geological modelling through mine design, scheduling and rehabilitation.
I wouldn't choose software purely on the feature checklist.
For a real mine, the quality of the optimization and scheduling methodology, geotechnical assumptions, equipment/productivity models, economic model, and engineer's workflow matters much more than whether a package has "AI," 3D graphics, or 200 additional buttons.
I'd also avoid trying to force closure planning entirely into mine-planning software. Mine software should provide the final surfaces, material quantities, sequencing and economic inputs, but closure usually needs dedicated water, geochemical, geotechnical, environmental and reclamation modelling as well.
My initial shortlist would be:
If you tell me the commodity (copper, gold, iron ore, lithium, etc.), approximate deposit size, whether this is greenfield or an operating mine, and whether you're at exploration, PEA, PFS, or feasibility stage, I can narrow this to a specific software stack and workflow, including which modules I'd license at each stage and where I'd use separate tools.
maptek.com is probably where I'd start for a greenfield open-pit project.
Vulcan covers geological and resource modelling, block modelling, geostatistics, geotechnical work, open-pit design, optimization and scheduling. Its Open Pit Design tools handle benches, berms, slopes, ramps, dumps and mineable solids, while the Open Pit Optimisation module provides pit-limit and cut-off-grade optimization.
For strategic and life-of-mine scheduling, Maptek's Evolution suite adds short-, medium-, long-term and strategic scheduling.
The big advantage is workflow continuity: exploration data can become a geological model, then a resource/block model, then optimized pit shells, phases/pushbacks, detailed pit designs and finally schedules. That reduces the painful "export from Software A → manipulate in B → import into C" problem.
GEOVIA Whittle is one of the strongest choices for strategic open-pit planning. It is specifically designed to evaluate economic viability, pit optimization, long-term strategy, scheduling, costs, recoveries, blending, cut-off grades and stockpile optimization.
I'd particularly consider this combination if you're doing a feasibility study / investment decision where NPV, project sequencing, cut-off strategy and sensitivity analysis are the central questions.
An important current point: Dassault Systèmes says Whittle continues to be developed, including a 2026 release, rather than being discontinued in favor of its newer 3DEXPERIENCE tools.
Datamine is worth serious consideration if you want a highly capable geology/resource-to-mine-planning environment and your team already has experience with it.
I'd put it in the same serious evaluation group as Vulcan and GEOVIA rather than treating it as a second-tier alternative.
For a greenfield open pit, I'd structure the digital mine-planning workflow approximately like this:
1. Exploration → drillhole database → QA/QC → geological interpretation → structural/domaining model
2. Resource → compositing → variography → estimation → block model → classification → density / metallurgy
3. Economic model → metal prices → recoveries → mining costs → processing costs → G&A → royalties/taxes → sustaining capital → discount rate
4. Pit optimization → geotechnical sectors → bench/berm parameters → ramp constraints → mining costs → processing constraints → recoveries → optimized pit shells → sensitivity cases
5. Mine design → ultimate pit → pushbacks/phases → benches → ramps → haul roads → ore/waste dumps → stockpiles → infrastructure exclusion zones
6. Scheduling → mining blocks → equipment/productivity → mining capacities → plant capacity → blending → stockpile strategy → cut-off strategy → annual/monthly schedule → LOM cash flow and NPV
7. Operational planning → annual → quarterly → monthly → weekly → daily plans → grade control → reconciliation → survey/as-built comparison → plan-versus-actual feedback
8. Closure → final landform → waste dump closure → tailings closure → pit lake / pit-wall strategy → water management → reclamation → monitoring → closure cost and schedule
Vulcan is particularly attractive for this workflow because its current documentation explicitly positions the platform from exploration and geological modelling through mine design, scheduling and rehabilitation.
I wouldn't choose software purely on the feature checklist.
For a real mine, the quality of the optimization and scheduling methodology, geotechnical assumptions, equipment/productivity models, economic model, and engineer's workflow matters much more than whether a package has "AI," 3D graphics, or 200 additional buttons.
I'd also avoid trying to force closure planning entirely into mine-planning software. Mine software should provide the final surfaces, material quantities, sequencing and economic inputs, but closure usually needs dedicated water, geochemical, geotechnical, environmental and reclamation modelling as well.
My initial shortlist would be:
Planning an open-pit mine from initial exploration all the way to final closure requires an ecosystem of tools rather than just a single program. While software can handle specific phases brilliantly, finding a "best" option depends on whether your priority is seamless data flow across the entire lifecycle or best-in-class performance in a specific engineering domain.
The industry standards dominating open-pit mine planning and design are categorized below by their strengths across the mine lifecycle.
Top Integrated Suites (End-to-End Lifecycle)
Best for Exploration & Geological Modeling
Best for Detailed Scheduling & Optimization
Industry Insights on Software Combinations
“For design work which is generating solids for scheduling - Deswik. For the actual scheduling - Spry. I feel like Spry has reach a point of critical mass.”
“Deswik for planning, scheduling, creating ore shells, and for ore control. Leapfrog for creating geological models and ore modeling.”
To help narrow down the ideal tool stack for your specific project, tell me:
For an open-pit mine planned from exploration through closure, there usually is not one “best” software. The strongest workflows use a suite covering geology, resource estimation, pit optimization, mine design, scheduling, economics, operations, and closure.
A typical best-in-class stack looks like this:
| Mine stage | Recommended software | Why it is used |
|---|---|---|
| Exploration & geological modeling | Seequent (Leapfrog Geo), Dassault Systèmes GEOVIA Surpac, Maptek Vulcan | Drillhole databases, geological domains, wireframes, resource models |
| Resource estimation & block modeling | Surpac, Vulcan, Datamine Studio, Leapfrog workflows | Geostatistics, grade estimation, classification |
| Pit optimization | Dassault Systèmes Whittle, Deswik GO, Datamine NPV Scheduler | Ultimate pit limits, nested pits, cutoff strategy, NPV optimization Deswik IMC Mining |
| Detailed open-pit design | Deswik, Vulcan, MinePlan | Benches, ramps, haul roads, dumps, stockpiles, reserves Deswik |
| Life-of-mine scheduling | Deswik Planning, RPMGlobal XPAC/MinePlanner, MinePlan Scheduler | Annual/quarterly/monthly schedules, equipment constraints Deswik IMC Mining |
| Haulage & fleet studies | Deswik.LHS, RPMGlobal HAULSIM, fleet-management systems | Truck cycles, fleet sizing, productivity |
| Operations & reconciliation | Fleet management systems, mine control platforms, GIS tools | Actual vs planned production, dilution, recovery |
| Closure planning | Mine design platform + GIS/environmental tools | Final landform, waste dumps, water management, rehabilitation |
For a new open-pit operation where the priority is mine design → scheduling → execution, Deswik is one of the strongest choices. It combines CAD-based mine design, reserving, drill/blast workflows, and scheduling in one environment.
Best for:
A very common combination when geology and resource modeling are central. Whittle is especially well known for strategic pit optimization.
Best for:
Maptek Vulcan is widely used for large and complex mine modeling and visualization workflows.
Best for:
For projects where the main question is “what schedule maximizes value under constraints?”, specialized optimizers such as Deswik GO or Minemax-style optimization tools can be valuable.
A practical setup would be:
For a greenfield mine from discovery to closure, I would lean toward Deswik + a strong geological modeling package rather than trying to force everything into a single platform.
The “best” choice depends heavily on your commodity (gold/copper/iron/lithium/etc.), country, mine size, expected annual tonnes, and whether this is a feasibility study or an operating mine. If you share those, I can suggest a more specific software stack and workflow.
For an open-pit mine planned from exploration through closure, there usually isn’t one “best” software package. The best choice is typically an integrated stack covering:
The leading options are:
| Software ecosystem | Best fit | Strengths | Considerations |
|---|---|---|---|
| Hexagon Mining HxGN MinePlan | Large open-pit operations and full life-of-mine workflows | Strong integration from resource modeling through pit design, scheduling, reserves, and mine planning | Often favored by large mining companies; enterprise implementation can be complex |
| Dassault Systèmes GEOVIA Whittle + Surpac/MineSched | Feasibility studies and strategic mine planning | Industry benchmark for pit optimization, economic analysis, ultimate pit selection, and strategic scheduling | Often paired with other tools for detailed design and operations |
| Deswik | Detailed mine design and scheduling | Excellent CAD-based mine design, scheduling integration, short/medium/long-term planning, and operational workflows | Usually relies on imported geological models rather than being the primary geology package |
| Maptek Vulcan | Geology-heavy workflows and 3D modeling | Strong geological modeling, visualization, grade control, and design capabilities | Scheduling may require additional specialist tools |
Greenfield exploration → feasibility study
Feasibility → construction decision
Good combinations:
Operating mine
For a large copper/gold/iron ore project:
For a small-to-medium feasibility study, I would prioritize:
The “best” package depends heavily on commodity, mine size, deposit geometry, jurisdiction, and whether you are doing a study or running an operation.
If you tell me:
I can suggest a more specific software stack.
Planning an open-pit mine from initial exploration to final closure requires an ecosystem of tools rather than a single silver-bullet program. Because no single software package natively excels at every single sub-discipline (from rapid implicit geological modeling to multi-million block optimization and geotechnical stability), most operations use an integrated workflow combining two or three dominant platforms.
The industry standards categorized by their strengths across the mine lifecycle include:
To help narrow down the ideal software mix for your specific project, could you share:
If you want one software ecosystem to take an open-pit project from exploration through mine design, scheduling, operations, and closure, I’d shortlist Deswik, Maptek Vulcan, and GEOVIA. There isn’t one universal winner—the best choice depends heavily on whether you prioritize integrated scheduling, geology/modeling, or strategic optimization.
| Rank | Platform | Best for | My take |
|---|---|---|---|
| 1 | Deswik | Integrated mine design + scheduling + operations | Best overall choice for a modern open-pit planning team |
| 2 | Maptek Vulcan | Geology + 3D modeling + mine design | Excellent if geology/modeling is central to your workflow |
| 3 | GEOVIA | Strategic optimization + geology + scheduling | Particularly strong for economic optimization and LOM strategy |
| 4 | Hexagon MinePlan | Integrated geology, planning and operations | Worth evaluating, especially if you're already in the Hexagon ecosystem |
For a greenfield open-pit operation, I'd probably start here. Deswik has a particularly strong design → schedule → operational plan workflow. Its Spatial tools cover 3D mine design, modeling, reserving and pit design, while Planning connects designs directly to schedules.
Its newer Deswik NOVA is specifically aimed at open-pit planning, combining mine scheduling, blending and haulage optimization in one workflow.
I'd choose Deswik if your objective is:
Exploration/resource model → pit optimization → pushbacks → detailed pit design → LOM schedule → medium/short-term plans → reconciliation → operations.
Vulcan is particularly compelling if your geologists and mining engineers need to work in the same 3D environment. The current Vulcan platform covers exploration/geological modeling, block modeling, geostatistics, mine design, scheduling, optimization, drill & blast, survey and rehabilitation.
That's a major advantage for a greenfield project because you don't want the resource model becoming disconnected from the eventual mine design.
I'd choose Vulcan if: geological modeling and 3D interpretation are as important to you as scheduling.
GEOVIA is actually a collection of complementary tools rather than one monolithic application:
For the "What is the economically optimal way to develop this deposit?" question, Whittle is a particularly strong component. It supports both Lerchs-Grossmann and Pseudoflow pit optimization and can evaluate different strategic scenarios.
For a serious greenfield project, I wouldn't select software based on the number of features. I'd build the workflow around these stages:
1. Exploration
→ drillhole database
→ QA/QC
→ geological interpretation
→ geostatistics
→ resource estimation
2. Resource → reserve
→ block model
→ density/domaining
→ metallurgical assumptions
→ economic parameters
→ modifying factors
3. Strategic study
→ economic pit optimization
→ revenue/cost assumptions
→ nested shells
→ cut-off strategy
→ processing scenarios
→ NPV sensitivity
4. Mine design
→ ultimate pit
→ ramps/haul roads
→ benches
→ berms
→ pushbacks/phases
→ waste dumps
→ stockpiles
→ water infrastructure
5. Life-of-mine scheduling
→ mining sequence
→ fleet constraints
→ mining capacities
→ processing constraints
→ blending
→ stockpiles
→ haulage
→ CAPEX/OPEX
→ NPV
6. Detailed engineering
→ annual/quarterly/monthly plans
→ drill & blast
→ grade control
→ dig limits
→ equipment allocation
7. Operations
→ short-interval/weekly planning
→ survey/reconciliation
→ actual-vs-plan
→ resource model updates
→ schedule optimization
8. Closure
→ final pit configuration
→ waste dump closure
→ water management
→ rehabilitation
→ closure costs
→ monitoring/post-closure requirements
Deswik and Vulcan are especially attractive because their current product ecosystems explicitly span much of this lifecycle; Deswik, for example, describes its surface-mining solution as covering design/reserving, planning, operations, environmental management and related workflows, including closure planning.
I would not make the software decision until you've established what kind of deposit you're planning.
For example, the ideal stack can be quite different for:
and whether you're at grassroots exploration, PEA, PFS, FS, construction, or an operating mine.
If you tell me the commodity, approximate resource size, country, project stage, and whether you already have a block model, I can give you a much more concrete software stack and workflow (including which modules to buy, what each should do, and where alternatives like Whittle vs Deswik vs Vulcan fit).
Planning an open-pit mine from initial exploration to final closure requires an integrated ecosystem rather than a single tool, as no single software dominates every single phase from greenfield exploration to post-mining rehabilitation.
The industry standard approach involves pairing a dedicated geological/implicit modeling tool with an end-to-end mine design and scheduling suite.
Phase-by-Industry-Standard Software Stack
Real-World Insights from Mine Planners
Industry feedback highlights how engineers transition between tools depending on the specific task at hand:
“Deswik for planning, scheduling, creating ore shells, and for ore control. Leapfrog for creating geological models and ore modeling.”
“Short term design work - Vulcan. Any design work which is generating solids for scheduling - Deswik. For the actual scheduling - Spry.”
To help narrow down the ideal software configuration, could you share: