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Investment Thesis Approximation

Semi-Arid Land Conversion by Rainwater Capture ReSlope Global

The ReSlope Investment Thesis: Scaling Dryland Restoration

ReSlope’s concept has the potential to untap a trillion-dollar resource: semi-arid land that can be converted into arable land by reshaping terrain to capture rainwater that would otherwise be lost to runoff and evaporation.

Across the world, there are hundreds of thousands of square miles of semi-arid land that currently produce little or no agricultural output. With appropriate earth-shaping and water-harvesting methods, large portions of this land could potentially be converted into productive agricultural land, creating economic value while improving water retention. The benefits are twofold: the creation of new arable, cultivable land and a new, free source of water that otherwise would have to be purchased and piped in at significant cost.

The Limitation of Traditional Approaches

The concept relies on the creation of micro-topography and microclimate to retain rainfall and moisture in the soil. Other water-harvesting techniques—such as bunds, micro-catchments, and contour systems—have long been used in drylands to slow runoff and increase soil moisture available for agriculture.

However, these traditional methods face significant barriers to global adoption:

  • Localized and Fragmented: Current efforts are almost exclusively localized, small-scale projects. They lack the architectural strategy required for landscape-level transformation on large scale.

  • Manual Labor Intensity: In most cases, the creation of these structures is not mechanized. They rely on manual labor (shovels, picks, or basic animal traction), which is physically exhausting, slow, and prohibitively expensive when attempting to scale across vast, sparsely populated regions.

  • Lack of Precision: Without modern engineering and geospatial data, manually constructed micro-catchments often fail to optimize for precise water flow and slope gradients, leading to potential erosion or inefficient water distribution during extreme weather events.

  • Inconsistency in Maintenance: Because they are often artisanal or community-driven without centralized management, these systems frequently lack the durability required for long-term climate resilience.

By transitioning these proven, ancestral techniques from manual, small-scale efforts to mechanized, large-scale industrial operations, ReSlope intends to turn vast swaths of “dead” land into viable agricultural assets.

ReSlope does not intend to become an agricultural producer. Instead, our role is to act as the architect of high-value agricultural assets, creating new, productive arable land that can be farmed by third parties—ranging from large-scale agricultural corporations to local community cooperatives.

We have identified three primary business models for monetization, with the first being our core focus:

Direct Ownership and Lease Model: 
ReSlope acquires inexpensive semi-arid land, performs the necessary earth-shaping and soil upgrades to make it arable, and leases this improved land to third-party growers.

Because financial feasibility depends heavily on local conditions, specific analyses must be tailored to each region. However, for baseline modeling purposes, we utilize the following projections:

  • Land Lease Revenue: The cost of leasing established arable land in regions with comparable climates, such as parts of central Italy or Texas, is approximately $100 per acre per year (which is approximately $247 per hectare per year).

  • Water Value Revenue: Beyond land rent, the capture and retention of water provides a distinct economic benefit. The value of water saved from evaporation is estimated at $80 per acre per year (which is approximately $198 per hectare per year).

A Note on Financial Scaling

For further context, please see here our detailed assumptions regarding the volume of water saved through earth-shaping, which underpins these revenue projections.

Land lease revenue:
$100 per acre

Water retained value:
$80 per acre

Total annual gross revenue:
$180 per acre

Maintenance and erosion control:
$40 per acre per year

Annual Net Cash Flow

= Gross Revenue − Maintenance

= $180 − $40

Annual Net Cash Flow = $140 per acre per year

Simple (Undiscounted) Payback

Initial investment = $190

Annual net cash flow = $140

Payback time: 190 / 140

= 1.36 years

Formula:

NPV = Σ (Cash Flow / (1+r)^t) − Initial Investment

Where:

r = discount rate
t = year

Annual net cash flow = $140

Discount rate 5%

PV factors:

Year 1 = 0.952
Year 2 = 0.907
Year 3 = 0.864
Year 4 = 0.823
Year 5 = 0.784

Total PV factor ≈ 4.33

PV of cash flows

140 × 4.33 = $606

NPV

606 − 190 = $416 per acre

Breakeven time (discounted):

≈ 1.5 years

Discount rate 10%

PV factors total ≈ 3.79

PV of cash flows

140 × 3.79 = $531

NPV

531 − 190 = $341 per acre

Breakeven time:

≈ 1.7 years

Discount rate 5%

PV factor ≈ 7.72

PV of cash flows

140 × 7.72 = $1,081

NPV

1081 − 190 = $891 per acre

Breakeven time:

≈ 1.5 years

Discount rate 10%

PV factor ≈ 6.14

PV of cash flows

140 × 6.14 = $860

NPV

860 − 190 = $670 per acre

Breakeven time:

≈ 1.8 years

Under these simplified assumptions:

  • The capital cost per acre is very low ($190)
  • Annual net return per acre is $140
  • Payback occurs in roughly 1.4–1.8 years
  • Even conservative discount rates yield very strong positive NPVs

This suggests that large-scale deployment could generate attractive economic returns if the agronomic and hydrological assumptions hold.

Because the global supply of semi-arid land is vast, the opportunity scale could be very large. If only a fraction of the suitable land were converted, the total economic value generated could reach hundreds of billions to trillions of dollars in agricultural productivity, water retention, and land value creation.

Semi-arid regions represent one of the largest underutilized land resources on Earth. Technologies that capture rainfall and increase soil moisture have the potential to:

  • increase agricultural production
  • stabilize rural economies
  • improve water efficiency
  • reduce erosion and land degradation
  • increase land value

If scalable, the ReSlope approach could convert large areas of currently underproductive land into productive farmland while improving ecosystem resilience.

Comments:
ReSlope will need to lease or purchase the land from landowners prior to beginning earthmoving operations. These costs remain variable and are contingent upon the specific region. However, it is reasonable to assume that in certain cases, land may be provided at no cost by governments seeking to incentivize economic development.

Land Investment:

ReSlope acquires semiarid land on behalf of investors, upgrades the property, and sells it at an appreciated value, while retaining a portion of the appreciation.

Humanitarian/Development Aid: ReSlope performs land upgrades on behalf of international aid organizations.

Legal Disclaimer

This document provides a simplified illustrative financial model for conceptual and discussion purposes only. The analysis is based on hypothetical assumptions regarding costs, revenues, water valuation, and operational performance. Actual project outcomes may differ substantially due to variations in soil conditions, rainfall variability, regulatory constraints, land prices, engineering requirements, environmental factors, and market conditions.

Nothing in this document constitutes investment advice, an offer to sell securities, or a solicitation of investment. Prospective investors should conduct independent due diligence, including technical feasibility studies, hydrological modeling, agronomic trials, and detailed financial analysis before making any investment decisions.