Kala Data

Technology

Two kinds of facility. One platform.

Kala runs two complementary types of compute facility — modular units we build and deploy directly on energy assets, and high-availability Tier IV data centres in major cities. Each is suited to its environment, and both are managed from a single remote platform.

Together they let us put the right workload in the right place: heavy, cost-sensitive compute where power is cheap and abundant, latency-sensitive workloads close to your users.

City data centres

Tier IV reliability, close to your users

In major cities, we host our compute in established, Tier IV–rated data centres — putting capacity close to users and networks, ideal for latency-sensitive inference and production workloads that need to sit near where they're consumed.

Cooling matched to the environment: these facilities are currently air-cooled, with hydro (liquid) cooling capability where required — rather than immersion, which is the right choice for remote, energy-site deployments rather than purpose-built urban facilities.

What a Tier IV facility offers your workloads
  • Fault tolerancethe highest data-centre tier, engineered so that any single equipment failure won't interrupt operations.
  • Concurrent maintainabilitycomponents can be serviced or replaced without taking workloads offline.
  • Fully redundant infrastructurepower, cooling, and network paths are duplicated (2N / 2N+1), with no single point of failure.
  • ~99.995% uptimethe availability standard Tier IV is designed to deliver, for workloads where downtime isn't an option.
  • Carrier-dense connectivitymultiple network providers and low-latency routes to major population centres.
  • Physical security and complianceenterprise-grade access control, monitoring, and the certifications expected of production infrastructure.
Best for: low-latency inference · production uptime · urban connectivity

Modular energy sites

Immersion-cooled compute, built for the field

Our modular sites are prefabricated, containerised data centres we build and deploy directly at energy assets — often remote, off-grid, or in harsh conditions.

They're designed around immersion cooling, submerging hardware in dielectric fluid rather than air-cooling it — a choice that directly enables the thermal stability and dispatchability these deployments require.

Why immersion cooling at these sites
  • Superior thermal controldielectric fluid holds hardware at tightly controlled temperatures even in high-ambient desert heat, where air cooling struggles.
  • Sealed against dust and contaminantssubmerged hardware is isolated from airborne particulates common at remote energy sites, removing a major cause of failure.
  • Lower failure rates, longer hardware lifestable temperatures and no contaminants mean fewer faults and less downtime where a site visit is expensive.
  • Sustained performance at peak loadno thermal throttling, so GPUs and ASICs run at full output continuously.
  • Far greater energy efficiencyalmost no power wasted on fans and air handling; more of every kilowatt goes to compute.
  • High density in a small footprintpack more compute into each container, delivering more from less land and fewer units.
  • Silent and self-containeda sealed system that tolerates isolated deployments without fan noise or particulate ingress.
  • Water-freeunlike evaporative cooling, immersion needs no continuous water supply, critical in arid, remote locations.

Efficiency

Why immersion wins.

Measured against conventional air-cooled infrastructure, the efficiency gap is not marginal.

1.08 vs ~1.5industry avg PUE
PUE (Power Usage Effectiveness)

Less power wasted on cooling — more of every kilowatt goes to compute.

1 MW
Compute density

One megawatt of compute in a standard 40-foot container footprint.

Zero vs evaporativecooling systems
Water consumption

No continuous water supply required — critical in remote, arid sites.

Why this matters for dispatchable load

Our modular sites ramp up and down for load response, peaking support, curtailment, and grid services such as FCAS where the site and market allow — which would ordinarily subject hardware to constant thermal cycling. Immersion cooling's thermal mass absorbs those swings, protecting hardware from the shock that aggressive cycling inflicts on air-cooled systems. The cooling choice and the dispatchability are linked: one enables the other.

In production

KALA DATA branded modular container alongside open units showing internal immersion-cooling manifolds and piping, with two engineers inspecting the build at the manufacturing facility
Factory · Kala unit + open immersion bays · pre-delivery inspection
Factory floor showing high-density immersion-cooling tanks and power infrastructure on a green epoxy floor
Factory · power & electrical systems
Inside the Kala Data modular unit: ten black immersion tanks branded Kala Data, with cooling pipework and rooftop heat-rejection panels
SEALED INSIDE
Drag to look inside the Kala unit. 10 immersion tanks · 1 MW per container
Built for deployment anywhere

One platform

Kala Mesh ties it together

Whichever facility your workload runs in, you interact with one platform. Kala Mesh distributes workloads across our energy sites and city data centres with geo-aware placement — training where power is cheapest, inference close to your users — and where a specific configuration isn't free in our own fleet, sources it from our trusted partner network.

One platform, one API, one bill.

Remote management

Secure, real-time monitoring and control from whole facilities down to individual compute units, with automated curtailment, role-based access, audit logging, and API integrations.

Flexible compute

GPUs for AI and HPC, with workloads reconfigurable over time as needs evolve — on-demand, dedicated, or burst capacity through a single interface.

Geo-aware placement

Heavy training runs where power is cheapest. Latency-sensitive inference close to your users. Kala Mesh routes automatically — you set the constraints, the platform optimises.

Dispatchable by design

Load that responds to grid, frequency, and price signals where the site allows — capable of load modulation, curtailment, and frequency control ancillary services (FCAS) — without disrupting running workloads above the threshold you set.

At a glance

Facility comparison

City data centres Modular energy sites
Location Major cities; carrier-dense metropolitan areas At energy assets — remote, off-grid, or on-grid
Cooling Air-cooled (hydro capable) Immersion (dielectric fluid)
Facility Tier IV facilities Prefabricated and operated by Kala
Best for Low-latency inference, production workloads, strict uptime Heavy training, HPC, cost-sensitive compute
Edge Redundancy, carrier density, proximity to users Cheap, abundant power; deploy anywhere