Bagaces, Guanacaste · Costa Rica

AI infrastructure
powered by the
earth itself.

Miravalles Green Campus is the first purpose-built AI and renewable energy infrastructure platform in Costa Rica — 60 hectares on a proven geothermal field, master-planned for expansion from 10 MW to 300+ MW.

MIRAVALLES GREEN CAMPUS 550–700m · 60 ha WIND CUIPILAPA CAMPO GEOTÉRMICO MIRAVALLES TARGET PUE 1.10
60 ha
Master-Planned Site
PUE 1.10
Design Target (Subject to Engineering Validation)
300+ MW
Conceptual Master Plan Potential
18–22°C
Natural Ambient Temp
100%
Renewable Energy Source

A site that solves
what others engineer around.

Every advantage at Miravalles Green Campus is geological, not mechanical. The volcano, the river, the elevation, and the wind do the work that competitors spend millions trying to replicate artificially.

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Proven Geothermal Field

The campus sits within the mapped boundary of the Miravalles Geotérmico field — a 15 km caldera system producing 163 MW since 1994 across 52 wells. Thirty years of ICE reservoir data characterize the subsurface in extraordinary detail, de-risking any future generation development. 163 MW operating · 52 wells · 30yr data record

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18–22°C Natural Ambient

At 550–700 meters elevation on the Miravalles volcanic slope, the campus naturally sits within the ASHRAE A2 server thermal envelope year-round. Mechanical chillers — the single largest power consumer in conventional data centers — are eliminated entirely, not reduced. No chillers required · Year-round free cooling

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Cuipilapa River Supply

Cold volcanic river water from the Cuipilapa River — sourced at high elevation on Miravalles Volcano — feeds a campus reservoir via a secured farmer agreement. This 10–16°C supply enables water-side free cooling that reduces cooling energy consumption by over 50% versus conventional tropical data centers. 10–16°C supply · Continuous cold-water cooling

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Sustained Volcanic Wind — Cooling Advantage

The same wind corridor that powers the adjacent 49.5 MW La Gloria wind farm — with annual average wind speeds of 11–12 m/s — crosses the campus site continuously. This sustained airflow reduces or eliminates fan motor energy on outdoor dry coolers during high-wind periods, pushing the design PUE toward 1.08–1.10. The campus benefits from the wind resource as a cooling enhancement; wind generation is developed separately through IceLeaf's strategic partnership with EnfraGen. 11–12 m/s avg · Wind-assisted dry cooling · PUE enhancement

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Proprietary Waste Heat Recovery

Cooling return water exits the data hall carrying significant recoverable thermal energy. IceLeaf's proprietary closed-loop thermodynamic recovery system captures this waste heat and converts it into supplemental clean electricity — generating power from energy that every other data center campus simply discards to atmosphere. The system operates continuously with no additional fuel source. Continuous waste heat recovery · Proprietary IceLeaf technology

ICE Grid Interconnection

The campus site is adjacent to Costa Rica's most developed geothermal utility infrastructure. ICE's 48.5 km pipeline network, existing substations, and the Miravalles field service operations center at La Fortuna are proximate to the campus — reducing interconnection cost and timeline significantly versus a greenfield site. Proximate ICE substation · Established utility relationship

A platform, not a project.

Miravalles Green Campus is conceptually master-planned for 300+ MW across five phases on 60 hectares. Phase I is the entry point. Each subsequent phase is a separately financeable infrastructure asset with its own investor base, its own SPV, and its own expansion logic — built on a single campus foundation. All phases beyond Phase I are subject to utility agreements, regulatory approvals, customer demand, and financing.

PHASE I
10 MW · Commercial Proof
First data hall, dedicated substation, liquid cooling infrastructure, campus roads and security perimeter. Anchor tenant target: 6+ MW on 10-year lease.
PHASE II
30 MW · Platform Expansion
Second data hall, expanded cooling plant, fiber PoP buildout. Triggered by Phase I commercial operations + confirmed ICE capacity.
PHASE III
60 MW · Infrastructure Campus
Central energy plant carve-out, district cooling infrastructure, battery storage integration. EnfraGen wind energy offtake partnership fully operational. Fiber PoP expansion.
PHASE IV
120 MW · Regional Platform
Hyperscale-ready multi-tenant campus. Geothermal BOT generation asset development. Battery storage integration.
PHASE V+
300+ MW · Ecosystem
Full campus buildout. Quaise deep geothermal generation. Industrial heat users. Green hydrogen. Strategic reserve parcel development.
Land Reserve Designations — 60 Hectares
Phase I Data Center Campus
15–18 ha
Phase II–IV Expansion Zone
20 ha
Geothermal Energy Reserve
10 ha
Industrial / Anchor Tenant Zone
7 ha
Strategic Reserve
5–8 ha
Phase I Illustrative Economics
Illustrative estimates based on comparable campus benchmarks. Subject to engineering validation, utility agreements, and market conditions.
Gross Annual Revenue ~$17.8M
Net Operating Income ~$10.7M
Power Rate ($/kW/month) $130–160
Illustrative Asset Value $134–178M

Five reasons every serious
investor asks first.

For investors unfamiliar with Costa Rica as an infrastructure market, the following answers the most common questions before they are asked.

01 — Political Stability
Uninterrupted democracy since 1949.

Costa Rica has maintained continuous democratic governance for over 75 years — longer than most countries where hyperscalers currently operate major data center campuses. No military. Investment-grade sovereign risk. One of the most politically stable environments in Latin America by any international measure.

02 — Renewable Grid
98%+ renewable electricity. Today, not a target.

Costa Rica generates over 98% of its national electricity from renewable sources — hydroelectric, geothermal, wind, and solar — and has done so for over a decade. This is the current operational reality validated annually by the national grid operator ICE, not a 2030 commitment. For AI operators under ESG pressure, the carbon credentials are immediate and verifiable.

03 — Favorable Climate at Elevation
18–22°C year-round. No chillers required.

At 550–700 meters elevation on the Miravalles volcanic slope, the campus site maintains ambient temperatures within the ASHRAE server thermal envelope year-round. The mechanical cooling burden that makes tropical data center development expensive elsewhere is eliminated by geography. This is a site-specific advantage not available at lower-elevation locations in Central America.

04 — Existing Geothermal Industry
163 MW producing since 1994. 30 years of data.

The Miravalles geothermal field has been in continuous commercial operation since 1994 across five power plants and 52 characterized wells. ICE's Centro de Servicio Recursos Geotérmicos operates from La Fortuna, Bagaces — adjacent to the campus site. The subsurface is not a frontier resource requiring exploration. It is a proven industrial asset with three decades of published monitoring data.

05 — North American Connectivity
3 hours from Miami. Central Time Zone. Fiber connected.

Costa Rica operates in the Central Time Zone, sits 3 hours by air from Miami and 6 hours from New York, and is connected to North and South America by established submarine fiber cable infrastructure. Data sovereignty requirements for Latin American operations increasingly favor Costa Rican hosting. The country's legal system is based on civil law with established frameworks for foreign direct investment and intellectual property protection.

World-class PUE.
Tropical climate.

The combination of volcanic elevation, cold river water, wind-assisted cooling, and liquid-cooled AI rack architecture supports a design PUE target of 1.10 — comparable to Google's cold-climate facilities, without the cold climate. This figure is an engineering design target subject to site-specific validation.

Design PUE Target
1.10
Engineering design target · Subject to site validation
Contractual guarantee target: ≤ 1.20 · Conservative underwriting assumption: 1.25
1.45
Industry Average
vs
1.10
Miravalles Target
vs
1.10
Google Global Avg
Cooling Stack — Four Layers
Layer 1 — Direct Liquid to Chip
NVIDIA 45°C liquid cooling spec. Coolant contacts the chip directly, eliminating rack-level air management entirely. Operates at 30–40°C supply.
Layer 2 — Cuipilapa Cold Water Loop
10–16°C volcanic river water circulates through heat exchangers, providing free cooling at zero compressor energy. Continuous supply from campus reservoir.
Layer 3 — Wind-Assisted Dry Cooling
Sustained 11–12 m/s winds from the Guanacaste volcanic corridor pass continuously across the campus, reducing or eliminating outdoor dry cooler fan motor power during high-wind periods. The wind enhances cooling efficiency — not generation — driving PUE toward 1.08–1.10 without any mechanical intervention.
Layer 4 — Proprietary Waste Heat Recovery
IceLeaf's proprietary closed-loop thermodynamic recovery system converts cooling return water heat into supplemental electricity using a low-GWP phase-change working fluid and a compact volumetric expander, continuously optimized by the IceLeaf IQ control architecture. No other data center campus operates this integrated stack.

Built for what
comes after AI.

Miravalles' geothermal resource offers more than power and cooling for AI infrastructure. IceLeaf is evaluating how the same thermal substrate — stable subsurface heat, high-capacity liquid cooling loops, and a remote, low-interference location — can support satellite ground station and teleport infrastructure alongside AI/HPC tenants.

IceLeaf is pursuing proprietary thermal management IP designed to couple geothermal resources with high-density thermal loads, applicable to both AI data center cooling and satellite ground infrastructure.

DISCLOSURE — This capability is in early development. Specific technical implementation is covered under pending patent applications and is available to qualified partners under NDA.

Three conversations
that change the scale.

IceLeaf is actively developing strategic relationships with three institutional partners whose missions align directly with the Miravalles campus thesis.

Energy Partner
ICE — Instituto Costarricense de Electricidad

IceLeaf is pursuing a BOT (Build-Operate-Transfer) geothermal generation agreement with ICE — Costa Rica's national utility — to develop new generating capacity within the Miravalles field and supply the campus with clean, firm, baseload power. The Miravalles III precedent demonstrates ICE's established framework for private development partnerships.

Technology Partner
Quaise Energy

Quaise's MIT-developed millimeter-wave drilling technology is designed to access superhot geothermal resources at depth. The Miravalles campus — situated within a proven Tier I volcanic field with 30 years of ICE subsurface data — offers Quaise an internationally validated demonstration site with an anchor power customer already in place.

Wind Energy Partner
EnfraGen / La Gloria

EnfraGen (a Partners Group / Glenfarne joint venture) owns the adjacent 49.5 MW La Gloria wind farm in Bagaces — on a resource with 100 MW of identified potential. IceLeaf is pursuing a strategic wind energy offtake arrangement under which EnfraGen supplies clean wind power to the campus grid, complementing the geothermal baseload supply. Separately, IceLeaf holds 89 hectares at La Giganta in the Tilarán wind corridor — between Río Naranjo and Río Chiquito — representing a second wind development opportunity in Costa Rica's most proven wind energy region.

DISCLOSURE — Strategic relationships described above are in active development. No binding agreements, signed contracts, or formal commitments have been executed with any named organization as of the date of this publication. References to partnership discussions reflect IceLeaf's current engagement strategy and development intentions only.

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Built to the standard
enterprise tenants expect.

IceLeaf Energy is designing the Miravalles Green Campus according to internationally recognized data center security and operational best practices.

These certifications will be pursued as the campus reaches operational readiness, in alignment with tenant and partner requirements.

Active development.
Documented progress.

2026 — Q2
Master Development Agreement framework completed

IceLeaf completes the foundational legal framework governing phased land contributions, milestone-triggered option rights, and SPV governance for all 60 hectares of the Miravalles campus.

Legal Structure
2026 — Q2
BOT geothermal proposal in development with ICE

IceLeaf is pursuing a Build-Operate-Transfer geothermal generation proposal with the Instituto Costarricense de Electricidad, engaging directly with ICE's Geothermal Resources Directorate on a private generation asset within the Miravalles field boundary.

ICE Partnership
2026 — Q2
Quaise Energy collaboration letter of intent initiated

IceLeaf initiates strategic alliance discussions with Quaise Energy, offering site access within the Miravalles geothermal field boundary for millimeter-wave drilling technology demonstration and deep resource characterization.

Technology Alliance

Built by someone
who understands the physics.

C
Carlos Martinez
Founder & Principal, IceLeaf Energy LLC
Undergraduate degrees in Biology and Economics
12 years of self-directed thermodynamics research and application
Published research at major U.S. medical institution in autoimmune disease
Successful prototype validation of proprietary thermodynamic recovery system
Multiple USPTO provisional patents covering IceLeaf thermodynamic recovery and control architecture
Landowner and developer of 60-hectare Miravalles campus site
The Company
IceLeaf identifies sites where geology eliminates the engineering problems that make AI infrastructure expensive everywhere else.
IceLeaf Energy LLC is a U.S.-registered company developing two active tracks: the Miravalles Green Campus in Bagaces, Guanacaste, Costa Rica — a master-planned AI and renewable energy data center campus — and a residential combined heat and power system incorporating proprietary thermodynamic energy recovery technology, developed and validated in Rhode Island.

The company is at the stage of institutional investor preparation, patent prosecution, and strategic partnership development. IceLeaf is the landowner, master planner, and development manager of the full 60-hectare Miravalles site, operating through its subsidiary IceLeaf Land Holdings LLC and IceLeaf Campus IP LLC.
The Thesis
The global AI infrastructure buildout requires two things above all else: power and cooling. Both are in crisis in the United States — PJM hit near-record demand in 2026 while wholesale prices spiked past $2,000/MWh, and interconnection queues stretch 5+ years. Miravalles Green Campus is the answer that no amount of engineering can replicate: a proven geothermal field, a volcanic river, sustained mountain winds that enhance cooling efficiency to world-class PUE levels, and 18–22°C natural ambient temperature — all within 60 hectares already owned and controlled by the developer. IceLeaf also holds 89 hectares at La Giganta in the Tilarán wind corridor, representing a separate renewable energy development opportunity in Costa Rica's most proven wind region.
The Thermodynamic Recovery Innovation
IceLeaf has developed, built, and validated a proprietary closed-loop thermodynamic energy recovery system that converts low-to-medium grade waste heat into electricity using a low-GWP phase-change working fluid circulated through a compact volumetric expander. The system is governed by the IceLeaf IQ dual-layer embedded control architecture — combining a dedicated safety layer with a supervisory optimization layer executing predictive algorithms in real time. Multiple USPTO provisional patent applications cover the core innovations across the hardware conversion method, control architecture, predictive maintenance system, grid resilience, and thermodynamic optimization. The same foundational technology that powers the residential system is designed to operate at campus scale, recovering electricity continuously from data center waste heat — a capability unique to IceLeaf among data center developers globally.
FORWARD-LOOKING STATEMENTS — Financial projections, PUE targets, capacity figures, and development timelines presented on this site are illustrative estimates based on comparable industry benchmarks and engineering design targets. They are subject to engineering validation, regulatory approvals, utility agreements, and market conditions. No representation is made that any projected outcome will be achieved. No binding partnership agreements have been executed. IceLeaf Energy LLC — Strictly Confidential.

The right conversation
starts here.

We are actively seeking institutional investors, anchor tenants, and strategic partners.

If you represent an infrastructure fund, hyperscaler, AI training company, development finance institution, or technology partner — we want to hear from you. IceLeaf's three foundational documents (Master Development Agreement framework, Campus Master Plan, and SPV Governance Blueprint) are available to qualified parties under NDA.

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Website
www.iceleaf.energy
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Campus Location
Bagaces, Guanacaste, Costa Rica · 10°43′N 85°15′W
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Developer HQ
Rhode Island, USA · IceLeaf Energy LLC