Institutional Distribution Only — Not a Public Offering
This document has been prepared exclusively for qualified institutional investors and family offices. It does not constitute a public offering or solicitation in any jurisdiction. Recipients are required to maintain strict confidentiality.
Chris Webb
chriswebb@energycapitalx.com
Platform
Infrafund.ch | Energycapitalx.com
Energycapitalx (ECX) is establishing the foundational physical infrastructure for the next generation of artificial intelligence — ultra-high-density, sustainable, and sovereign-grade data center campuses. Global AI compute demand is outpacing available data center capacity; hyperscalers and sovereign cloud operators face a critical supply gap in high-density, secure colocation.
Build the foundational physical infrastructure for next-generation AI — ultra-high-density, sustainable, sovereign-grade data center campuses at gigawatt scale.
Proprietary 5-story vertical tower architecture + two-phase Direct-to-Chip (DTC) liquid cooling enables 100kW–200kW per rack — 5–10x standard air-cooled density.
1GW campus at 0 Calle Extremo, San Clemente, CA — currently in final design phase, targeting 2026 commissioning.
Tustin 440MW academic lab (2027), Swiss/Baltic SPV structures (2028–2029), autonomous compliance state (2030).
Global AI compute demand is doubling annually. Existing data center infrastructure was not designed for the power densities required by modern GPU clusters. New capacity takes 3–5 years to permit, build, and commission — the supply gap is structural, not cyclical. Early movers with permitted, high-density sites command significant pricing power.
Chris Webb | chriswebb@energycapitalx.com
Platform: Infrafund.ch | Energycapitalx.com
ECX's proprietary infrastructure design departs fundamentally from the single-story warehouse configurations that define the legacy colocation market. The 5-story vertical tower architecture stacks compute density vertically — maximizing compute per square foot of land and dramatically reducing site footprint requirements. Combined with two-phase Direct-to-Chip (DTC) cooling, this creates a structural cost and performance advantage that cannot be replicated by retrofitting existing facilities.
Refrigerant is delivered directly to the chip surface, absorbing heat through phase change (liquid → vapor). This eliminates the thermal resistance of air-cooled intermediaries entirely — enabling sustained operation at rack densities that would cause thermal throttling or hardware failure in any air-cooled environment.
Thermal Efficiency Benchmark: DTC cooling exceeds standard air-cooled configurations by 40% in thermal efficiency.
Higher density per rack means fewer racks, less physical space, and lower per-unit OpEx — a structural cost advantage at scale that compounds as deployments grow.
5-story stacked architecture maximizes compute per square foot of land. Dramatically reduces site footprint requirements relative to single-story warehouse configurations — critical for urban-adjacent brownfield deployments.
Higher density per rack means fewer racks, less physical space, and lower per-unit OpEx. This is a structural cost advantage at scale — not an incremental improvement over existing colocation models.
Architecture is designed for modular replication across all ECX deployment sites — San Clemente, Tustin, and all international SPV locations — ensuring consistent performance and cost benchmarks globally.
ECX organizes its technology and security architecture into three machine-enforced operational modules — collectively forming the ActiveAI Stack. All three pillars operate in continuous, coordinated feedback — security posture, vulnerability state, and compute performance are co-managed at the hardware abstraction layer, creating an integrated operational envelope that no single-point vendor can replicate.
Hardened perimeter and logical security frameworks integrated directly at the infrastructure hardware layer. Microsegmented network zone fabric running over a zero-trust architecture ensures all traffic across connected endpoints is fully encrypted, authenticated, and isolated. No lateral movement pathways exist by design.
Real-time, automated vulnerability assessment with continuous Software Bill of Materials (SBOM) reconciliation and automated threat lifecycle mitigation. Dynamically generates audit-ready compliance packages — reducing standard framework readiness timelines from 6 months to under 2 weeks.
High-throughput, low-latency compute clusters natively optimized for large-scale AI model training and inference workloads. Designed for hyperscaler-grade SLA commitments with sovereign data isolation options for government and regulated enterprise tenants.
Security in the ECX architecture is not a software overlay applied after the fact — it is embedded at the foundational hardware layer, ensuring enforcement cannot be bypassed by OS-level or application-level compromise. This distinction is critical for sovereign cloud, government, and regulated financial sector tenants, who represent the highest-value, longest-tenure customer segments in the colocation market.
Security embedded at the foundational hardware layer — enforcement cannot be bypassed by OS-level or application-level compromise. This is a prerequisite for federal and defense-adjacent workload qualification.
Every endpoint, workload, and network segment is treated as untrusted by default. Authentication and encryption are enforced on every packet, every session, every transaction — no implicit trust at any layer.
Network zone fabric is divided into isolated segments — lateral movement between workloads is architecturally impossible, containing blast radius of any breach to a single segment.
ECX's Active Defense architecture is pre-aligned with the following frameworks — enabling rapid qualification for federal and defense-adjacent workloads without bespoke remediation:
Hardware-enforced security is a prerequisite for sovereign cloud, government, and regulated financial sector tenants — the highest-value, longest-tenure customer segments in the colocation market. These tenants drive the 118% NRR and 4.2% annual logo churn that underpin ECX's unit economics.
Active Vuln transforms compliance from a periodic, labor-intensive manual exercise into a continuous, automated operational output. The platform's AI-driven digital twin modeling and automated SBOM reconciliation create a live, always-current view of the infrastructure's risk posture — enabling sub-hour remediation of vulnerabilities that would take industry-average teams days to address.
Every software component across the infrastructure stack is tracked in real time via an automated Software Bill of Materials — providing instant visibility into third-party dependency risk across the full supply chain.
A live digital twin of the infrastructure environment enables predictive vulnerability simulation — identifying exploit pathways before they are activated in production, not after a breach has occurred.
From detection to remediation, the platform closes the loop autonomously — reducing mean time to remediate (MTTR) from industry-average days to sub-hour resolution.
Dynamically generated, framework-mapped compliance documentation reduces standard audit readiness timelines from 6 months → under 2 weeks. Frameworks: SOC 2 Type II, ISO 27001, NIST CSF, FedRAMP, CMMC.
Annual Recurring Revenue (ARR) is driven by long-term colocation and managed infrastructure contracts with institutional and sovereign cloud tenants. Gross margin is sustained at 74% across all projection years — reflecting the high-value, low-variable-cost nature of infrastructure-as-a-service at scale. The platform reaches EBITDA positivity in Year 2 ($570K), scaling to $6.29M by Year 5 (30% EBITDA margin). Operating expenses scale from $2.1M (Year 1) to $9.4M (Year 5) — growing at a materially slower rate than revenue, demonstrating operating leverage.
ARR grows from $2.4M in Year 1 to $21.2M in Year 5 — an 8.8x increase over the projection period. EBITDA inflects positive in Year 2 and scales to a 30% margin by Year 5, demonstrating the operating leverage inherent in the infrastructure-as-a-service model. A consolidated operational cost baseline incorporates a fixed $350,000 assigned to core infrastructure operations, engineering triage, and incident command governance overhead.
All figures in USD. COGS calculated at 26% of ARR. Gross Margin sustained at 74% across all years. EBITDA margin trajectory: -13% → 11% → 19% → 26% → 30% — demonstrating a clear path to institutional-grade returns.
ECX's unit economics reflect the structural characteristics of mission-critical infrastructure — high switching costs, long contract durations, and expansion revenue that exceeds churn. The 17.8x LTV:CAC ratio is significantly above the 3x institutional benchmark for SaaS; infrastructure stickiness drives outsized returns per acquired customer.
ACV reflecting mission-critical, long-duration infrastructure commitments from institutional tenants.
Efficient go-to-market driven by institutional network channels — Keiretsu Forum and sovereign procurement pipelines.
Aggregate per customer — driven by high switching costs, power overage upsell tiers, and multi-year contract structures.
Significantly above the 3x institutional benchmark for SaaS. Infrastructure stickiness drives outsized returns per acquired customer.
Expansion revenue from scale-up options and power overage tiers exceeds churn — the existing customer base grows revenue organically year-over-year.
Low churn consistent with mission-critical infrastructure dependency. Customers do not migrate away from core compute infrastructure.
Investor capital payback window on deployed CapEx — a function of high ACV, low CAC, and 118% NRR driving rapid recovery of acquisition costs.
The 17.8x LTV:CAC ratio is 5.9x above the 3x institutional SaaS benchmark. Infrastructure stickiness — driven by power dependency, compliance integration, and multi-year contracts — creates a customer retention profile that pure-software businesses cannot replicate.
0 Calle Extremo, San Clemente, CA
1 Gigawatt (GW) of total power capacity — designed to host hyperscale AI training clusters, sovereign cloud workloads, and regulated enterprise compute. Proprietary 5-story vertical tower deployment with two-phase DTC cooling integrated at the rack level from day one.
Currently in final design phase. Infrastructure foundation milestones targeted for 2026 commissioning. Establishes ECX's proof-of-concept at gigawatt scale — the reference asset for all subsequent domestic and international deployments.
San Clemente is the proof-of-concept at gigawatt scale. It is the reference asset
Infrafund.ch | Energycapitalx (ECX)