Prohibition Creek
≈ CAD 3.81 M/kmCAD 25.5 M in funding for the 6.7 km first phase of a two-lane all-season road. Ratio of announced funding, not a final construction cost.
Official source ↗INFRASTRUCTURE · WATERSHEDS · ECONOMICS
Its true value is measured throughout its working life.
Why build this road? To transport what, how often, for how many years — and with what consequences?
Facts first · accessible sources
Documented projects in northern settings illustrate how ground conditions, remoteness and construction requirements affect costs.
CAD 25.5 M in funding for the 6.7 km first phase of a two-lane all-season road. Ratio of announced funding, not a final construction cost.
Official source ↗A historical estimate from 2017 cited in the 2022 report for all-season gravel roads in the Far North. This benchmark is not a current market average.
Read the study ↗Approximately CAD 1.1 B for a proposed 413 km corridor, giving an indicative ratio. This is a regional infrastructure concept, not a road constructed at that cost.
Academic analysis ↗Another benchmark: the Northern Policy Institute reports a 2019 quote of CAD 550,000 to 800,000/km for a timber-mat road in a northern setting. This technology differs from XtremeM; it is not an equivalent-scope technical price comparison. Read the study ↗
During the first seasons of use on a forest road, driving conditions can vary considerably with the soil, drainage and rainfall. Mud, rutting and surface deformation may require grading or additional materials while slowing vehicles down. This stabilization period therefore carries a real cost: additional maintenance, slower deliveries and occasional access disruptions. Comparing solutions means considering not only construction, but also road availability and operational efficiency from the moment the road enters service.
FHWA geotechnical guide ↗01 — A different perspective
We do not choose machinery on purchase price alone. Why choose a road without considering truck productivity, reliability, maintenance and residual value?
Clearing, excavation, foundations, aggregates, transport and drainage.
Fuel, haul cycles, truck wear, maintenance and interruptions.
Hydrology, habitats, permits, restoration and climate risks.
What value do we place on what the construction price does not measure?
02 — Ground conditions matter
Bearing capacity, water, freeze-thaw cycles and transitions between soils determine the work required and the maintenance risks.
Load distribution through the assembly is assessed against loads, ground support and traffic cycles.
03 — Water is part of the project
Embankments can interrupt diffuse flows. Ditches can concentrate water towards a few culverts. Watershed management must consider the cumulative effect of roads, not just each culvert in isolation.
Embankments, ditches and culverts shape road drainage. Their design must account for natural flows, expected flow rates and downstream effects.
XtremeM modules can be positioned on sensitive sections to limit earthworks and preserve diffuse flows where site conditions allow. Bearing capacity, crossings and drainage still require project-specific design.
The real issue is not to eliminate all hydraulic management: it is to design access that disrupts watershed functions as little as possible. Watercourse crossings and concentrated flows require specific design.
Depending on ground conditions and loads, a modular configuration may reduce excavation, imported aggregates and longitudinal drainage works. Site preparation and required structures must still be defined for each location; no quantified hydrological benefit or zero-impact outcome is assumed.
04 — The research
Savings of up to 13% simulated in the independent study by Maior et al. (2025), for a mining-road case in Brazil.
A gain of up to 17% simulated per truck in the same study, with cycles up to 15% shorter.
Potential annual increase in road maintenance and repair costs in Canada by 2050, presented to the Senate in 2023.
Results from specific studies and projections, not measured XtremeM performance. They explain why operations and risks belong in the decision, without being automatically applied to the calculator.
05 — The essential questions
What production cost follows an unexpected closure?
What are the minutes, fuel and wear avoided worth?
What value do preserved hydrological functions have?
What is the benefit of earlier commissioning?
Which studies and mitigation measures are needed? Faster permitting is not guaranteed.
What will recovery and redeployment cost? What value remains in the modules?
06 — The right tool in the right place
Stable ground: a traditional road may be optimal. Variable ground: XtremeM modules can target difficult sections. A hybrid configuration therefore combines a conventional road with modules in strategic locations; hydrological management is a complementary area for study.
We do not aim to replace every road. We aim to address the sections where conventional construction becomes costly or damaging.
07 — Exploratory calculator
An initial economic view of the same access road operated for 15 years, without redeployment, with removal and site restoration in year 15. If the road stays in service, adapt end-of-use costs and terminal values. Amounts are editable: these assumptions are neither quotations nor guaranteed performance.
Modular maintenance covers inspection, cleaning and keeping the access road in service. No periodic panel replacement is assumed. Downtime and transport savings start at zero because no operating scenario has been supplied.
Scenario initial cost per kilometre — Traditional: CA$1,500,000 · XtremeM: CA$1,447,977. XtremeM includes purchase and the entered transport and preparation/installation allowances. Budget pullouts and additional works separately; this is not a delivered-and-installed quotation.
Nominal residual value at year 15 : CA$137,798 (10 %).
| Item | Traditional | XtremeM |
|---|---|---|
| Initial construction, purchase, transport and installation | CA$1,500,000 | CA$1,447,977 |
| Maintenance — present value | CA$631,296 | CA$24,281 |
| Downtime — present value | CA$0 | CA$0 |
| Transport savings — deduction | − CA$0 | − CA$0 |
| Site restoration — present value | CA$83,453 | CA$8,345 |
| Module removal — present value | CA$0 | CA$8,345 |
| Residual value — year-15 deduction | − CA$0 | − CA$57,498 |
| Compared economic cost | CA$2,214,749 | CA$1,431,450 |
Initial cost + discounted annual maintenance and downtime − discounted transport savings + discounted removal and site restoration − discounted residual value. Annual expenditure at year-end; end of use and residual value at year 15. Constant amounts, excluding taxes and financing costs.
Indicative price: USD 1,995/module, taken from the launch offer and to be confirmed for the order. Usable dimensions: 4.11 × 2.06 m. Reference exchange rates dated 16 October 2026: USD 1 = CAD 1.4154; EUR 1 = CAD 1.5908. Other amounts are working assumptions, not regional averages.
The PDFs show a fixed scenario and its assumptions. Edit your scenario in the Web version.
08 — Independent references
Infrastructure adaptation, road maintenance and repairs.
Rolling resistance, fuel and productivity: simulation results for a mining case.
Simulation of mining-road deterioration.
Hydrological risks at culverts and crossings.
Innovative solutions for northern roads.
Moisture, density and behaviour of compacted soils.
Source of the dated exchange-rate benchmarks used in the scenario.
External studies address their own projects and methods. They are not comparative tests of XtremeM.
From perspective to project
Share the length, width, soil type, traffic and budgets. Compare solutions for the same service delivered.
Alain Bélanger · CEO – Beyond Sustainable Tech
alainb@beyonders.ca · +1 506-284-0005
Documents in French, English and Spanish · fixed illustrative scenario