Engineering better energy and infrastructure systems

Every container in our fleet is a purpose-built thermal system, not a retrofit. Our ASIC enclosures use Celdek evaporative cooling engineered around the specific heat load, airflow, and ambient humidity profile of each deployment site — validated through CFD simulation before a single unit ships.

Extreme-climate deployments demand more than standard HVAC math. In high-humidity conditions, condensation margins at the cooling pad outlet can narrow to fractions of a degree — a failure mode most cooling vendors don’t model for. We do. Our thermal engineering process includes site-specific environmental risk assessment across environmental risk categories, from seasonal humidity swings to dust loading, ensuring hardware stays within safe operating temperature year-round.

Stranded and wasted energy is our fuel source. Our flare-to-power integration converts otherwise-flared gas into grid-quality electricity, powering mining operations directly at the source — cutting emissions while turning an environmental liability into productive compute.

This approach lets us site mining infrastructure where power is cheapest and most underutilized, rather than competing for capacity on constrained grids.

Efficiency doesn’t stop at the container door — it extends down to individual chips. We continuously evaluate firmware tuning, per-unit voltage and frequency scaling, and adaptive performance monitoring across our fleet, because identical ASIC units rarely perform identically once they’re deployed at scale.

Custom firmware lets us adjust clock speeds in real time based on live profitability data, automatically underclocking during low-revenue periods to protect hardware and conserve power, then ramping back up when conditions justify it. This kind of fleet-wide, data-driven tuning is invisible to anyone walking through the site, but it’s often the difference between an operation that merely survives a difficult market and one that stays profitable through it.

The monitoring platform continuously audits real-time metrics including chip temperatures, voltage variances, and individual worker status indicators. Automated alert thresholds trigger instant notifications or autonomous control loops when a unit drifts outside standard operational boundaries.

Rather than relying on reactive maintenance, the system evaluates individual chip health across the fleet through granular hashrate tracking, scoring metrics, and error-rate monitoring. By tracking real-time data against historical averages (5-minute, 1-hour and 24-hour baselines), predictive algorithms flag anomalies in worker hashrate profiles.

The centralized dashboard provides complete visibility across all deployed assets, mapping individual miner metrics to overarching container performance indicators. Detailed worker histories, hashboard hashrate charts, and hardware logs are continuously aggregated.

Using otherwise-flared gas for productive power can recover wasted energy. Any emissions benefit requires a site-specific baseline covering methane leakage, combustion performance and the power displaced.

Our modular infrastructure acts as a dynamic, controllable load. In grid-tied operations, our software enables sub-30-second load shedding, allowing power producers to reduce mining demand when required during peak consumer demand, balancing frequency and maximizing grid resiliency.