General FAQ

Short answer Lead times depend on order volume and customization, but in-house manufacturing removes many supply-chain bottlenecks. A typical AIDC project runs approximately 9 months from assessment to energization, with factory pre-integration and site work running in parallel. ~9 months assessment to energization Transparent, phased delivery schedule Factory and site work run in parallel Schedule aligned to your site readiness Typical AIDC deployment schedule PhaseTypical duration Assessment & planning4–6 weeks Factory pre-integration11–15 weeks Logistics & site delivery4–8 weeks On-site commissioning5–7 weeks Upgrade & scalingOngoing Why the schedule holds Standardized units leave the factory complete, ready for transport by sea, road or rail. In-house manufacturing. Core infrastructure is built in the company's own facility, avoiding integrator supply-chain queues. Parallel workstreams. Modules are being built and tested while the site's electrical and civil work proceeds. Standardized logistics. ISO 40HQ modules move by sea, road or rail without special transport engineering. Commissioning, not assembly. On-site time is spent connecting and energizing a factory-validated system. Units in position and ready for commissioning. Finished module staged for delivery. What moves the numbers Quoted per project. Order volume and the level of customization both shift lead times, and the phased delivery schedule is aligned to when your site's electrical and civil preparation will actually be ready. Related questions Does CoolSpace manufacture its own cooling infrastructure? How does CoolSpace support multi-megawatt infrastructure scaling? Days required from arrival to full commissioning? Need a schedule mapped to your site timeline? Talk to a CoolSpace engineer

Short answer Products are engineered from the site operator's perspective. Having run large-scale compute facilities, the design priorities are industrial-grade components, N+1 redundancy in critical fluid paths, accessible manifolds and simplified maintenance — targeting high MTBF and low MTTR, because downtime hits revenue directly. Designed from the operator's seat N+1 redundancy on critical fluid paths Accessible manifolds for fast service High MTBF, low MTTR Design decisions and the operational problems they solve Design decisionOperational problem it solves Industrial-grade componentsFewer failures under 24/7 continuous full-load operation. N+1 redundancy on critical fluid pathsA single pump or component failure does not force a thermal shutdown. Accessible manifoldsOne loop can be isolated and repaired without draining or stopping the rest of the system. Simplified maintenance proceduresSmaller crews, shorter interventions, and less specialized training on site. Factory pre-integration and testingCommissioning crews arrive to a validated system instead of debugging assembly errors. Where this experience comes from High-density compute racks — the workload these systems are built to keep cool. Managed at scale, not just manufactured. The operating background is large-scale compute facility management. Downtime is treated as the real enemy. Every design review asks what a failure costs per hour. Feedback closes the loop. Lessons from operations flow straight back into the next design revision. Dense hardware racks running continuously. Full-load hardware inside a cooling container. Related questions What redundancy features are built into the SR40 V3 cooling loop? What are the routine maintenance requirements for the SR40 V3? What does CoolSpace specialize in? Want the reliability reasoning applied to your site? Talk to a CoolSpace engineer

Short answer Yes. Containerized hydro-cooling systems are highly self-contained and require minimal on-site civil engineering, which makes them well suited to remote generation sites, flare-gas mitigation projects and off-grid renewable installations. Self-contained containerized systems Minimal on-site civil engineering Used for flare-gas mitigation Monetize stranded or curtailed energy Where containerized cooling fits in energy-driven deployments Flare-gas mitigation Compute infrastructure is deployed at the point of flaring, converting gas that would otherwise be burned off into useful work. Stranded or curtailed energy Energy companies and institutional investors use containerized compute to monetize generation that has no grid route to market. Off-grid renewables Remote wind, hydro or solar sites can host compute loads that absorb power the grid cannot take. Remote generation sites Self-contained units reduce the civil works needed far from established industrial infrastructure. Site prerequisites still apply Self-contained does not mean nothing on site. A deployment still needs a level, load-bearing surface, primary electrical feeds, and a heat-rejection route — dry cooler or cooling tower — sized to the load and the local climate. Why containers work where buildings do not Containers with integrated heat rejection, installed on a simple prepared surface. Everything arrives complete. Factory-integrated units ship as ISO-standard 40HQ modules by sea, road or rail. Speed is the point. Rapid deployment matters more than permanent construction at remote energy sites. Portable by design. If the energy source moves, the infrastructure can follow. Container rows deployed without permanent buildings. Flat-site deployment with minimal civil works. Related questions How does CoolSpace support multi-megawatt infrastructure scaling? What site preparation is required to deploy the SR40 V3? What are the typical lead times for large-scale infrastructure orders? Assessing a stranded-energy site? Talk to a CoolSpace engineer

Short answer CoolSpace scales capacity in modular blocks. Standardized hydro-cooling containers and matching dry cooling towers are added as repeating units, so a site can grow from a single block to gigawatt-class without redesigning the infrastructure already in place. Modular scaling from 1 MW to gigawatt-class Standardized ISO 40HQ modules Site preparation repeats, not redesigns Expand in phases alongside demand What changes — and what stays the same — when you scale Scaling aspectHow the modular approach handles it Site preparationThe same standardized pad and interconnect spec is repeated for each block instead of being re-engineered. Cooling capacityMatching dry cooling tower blocks are added alongside container blocks. Electrical topographyA simplified, repeatable pattern replaces bespoke mechanical-room design at every expansion. ScheduleFactory pre-integration of new modules runs in parallel with on-site work, compressing the timeline. Existing capacityBlocks already in operation keep running — expansion does not force a redesign of the plant. How a site grows block by block Deploy the first block — hydro-cooling containers plus matching dry cooling towers, sized to the initial load. Repeat the standardized site spec — each additional block reuses the same pad, power and plumbing pattern. Extend the electrical topography — new blocks tie into the established distribution pattern. Add capacity or swap generations — modules and hardware generations can be added without redesigning the plant. Modularity in practice A multi-megawatt site built from repeating standardized blocks. Every block is a standard unit. ISO-standard 40HQ modules ship by sea, road or rail to any flat outdoor site. Time-to-power is compressed. Factory work and site work overlap instead of running in sequence. No bespoke mechanical rooms. Capacity is added in container blocks rather than engineered buildings. Standardized container rows on a prepared flat site. A real deployment repeating the same standardized pattern. Related questions What are the typical lead times for large-scale infrastructure orders? Can multiple SR40 V3 containers be clustered together? What site preparation is required to deploy the SR40 V3? Planning a phased, multi-megawatt build-out? Talk to a CoolSpace engineer

Short answer Yes. CoolSpace owns and operates its own manufacturing facility, where every unit is designed, assembled, and tested in-house — from cable harness fabrication to full-system thermal validation. No outsourced assembly, no black-box components. Own factory, no outsourced assembly Pressure and thermal testing before shipment In-house cable harness fabrication Operational feedback drives design iterations What happens inside the factory before a unit ships Module assembly and wiring — cabinets, manifolds and cable harnesses are built in-house. Piping and fluid loop assembly — primary and secondary loops are fabricated and connected. Pressure testing — closed loops are pressure-tested before any hardware is loaded. Full-system thermal validation — each unit is stress-tested as a complete system, not as loose components. Why vertical integration matters to the operator CoolSpace manufacturing facility — modules are wired, piped and validated in-house before shipment. Quality control stays in one pair of hands. Strict protocols are enforced at the factory instead of being delegated to third-party assemblers. Engineering iterates on real feedback. Designs are revised based on what live deployments actually show. Lead times stay predictable. In-house control of core infrastructure removes many supply-chain bottlenecks for multi-megawatt orders. What arrives is ready to connect. Factory pre-integration means on-site crews commission a validated system rather than assembling parts. Finished modules staged inside the factory hall. Branded unit prepared for outbound delivery. Related questions What does CoolSpace specialize in? What are the typical lead times for large-scale infrastructure orders? How does your experience in mining farm operations influence your product design? Want to see the factory validation process applied to your project? Talk to a CoolSpace engineer

Short answer CoolSpace designs and manufactures closed-loop hydro-cooling infrastructure for high-density computing. Its portfolio spans containerized AI data centers (CoolBase), indoor compute modules (CoolPod), climate-proof hydro-cooling containers, and hydro server cooling cabinets — every unit engineered, assembled, and thermally tested in CoolSpace's own factory, then shipped as standardized ISO 40HQ modules that scale from 1 MW to gigawatt-class. In-house manufacturing, no outsourced assembly ISO 40HQ modules by sea, road and rail Modular scaling from 1 MW to gigawatt-class Single-source EPC accountability What the product portfolio covers CoolBase Series Prefabricated, modular AI data center infrastructure for outdoor, megawatt-scale deployment on any flat site (CoolBase-1080A/W, 270A/W). CoolPod Series Compact indoor compute modules that add high-density capacity to existing facilities without a full-site retrofit (CoolPod-1080A/W to 2A/W). Container Series Climate-proof hydro-cooling containers for Bitcoin mining and compute workloads, including the SR40 V3 and SRC series. Cabinet Series Compact hydro server cooling units for smaller footprints and edge rooms (SR20M, SR34-S). How CoolSpace differs from a typical equipment vendor DimensionTypical equipment vendorCoolSpace ManufacturingOutsourced assembly of third-party componentsOwn factory: design, cable harness fabrication, assembly IntegrationComponents shipped separately, integrated on siteFactory pre-integration with pressure and full-system thermal testing before shipment DeploymentBespoke mechanical rooms, multi-year schedulesStandardized ISO 40HQ modules, factory-to-site in months AccountabilityMultiple vendors, split responsibilitySingle-source EPC: engineering, procurement, construction, commissioning, after-sales ScalingRedesign required at each expansionAdd modular blocks from 1 MW to gigawatt-class Proven in operation, not just in the lab CoolSpace manufacturing facility — modules are wired, piped, and thermally validated in-house before shipment. Approximately 9 months from assessment to energization, with factory pre-integration and site work running in parallel. Every unit is stress-tested at the factory, from cable harness fabrication through full-system thermal validation. Validated in operational deployments across extreme environments, not only in controlled lab conditions. Workloads served: AI and HPC, finance, healthcare, telecom, scientific research, smart manufacturing and robotics. Multi-megawatt deployment built from repeating modular blocks. Standardized ISO 40HQ modules on a prepared flat site. Related questions Does CoolSpace manufacture its own cooling infrastructure? How does CoolSpace support multi-megawatt infrastructure scaling? How does operational experience influence the product design? Want this assessed against your own site and workload? Talk to a CoolSpace engineer