Gazillion Computing
Gazillion global compute estate spanning Earth, orbit and beyond

Planetary Estate

Infrastructure Without Boundaries

GQ2 operates an impossibly enormous global compute estate spanning every recognised country, international waters, orbit, the Moon, Mars and one undisclosed shed in Hampshire.

14 Billion

Datacentres

Across all operational territories.

196 + 3

Operational territories

Countries, plus the Moon, Mars and Hampshire.

128 Gazillion

Compute cores

Under unified scheduling by MUSH r7.

−3 ms

Average global latency

Mean round-trip time, measured retroactively.

Fabric

Global Compute Fabric

The ZeroTime Fabric carries packets between any two points on, above or beyond Earth with a travel time of zero and, where beneficial, a negative travel time.

Conventional networks are constrained by the speed of light and by the patience of their operators. The ZeroTime Fabric is constrained by neither. Packets are routinely received before they are transmitted, which removes the queuing delay, the propagation delay and, in practice, the need to have sent anything at all.

The fabric unifies 14 billion facilities into a single addressing space. A workload submitted in Hampshire may execute in low Earth orbit and return its result to a Commodore 64 in Surrey, all before the enter key has fully risen. Customers have described this as "convenient" and, in one case, "worrying", which we have logged as a positive sentiment.

ZeroTime

Negative-latency transport

Delivery precedes send. The acknowledgement arrives first, which we consider polite.

Unified

Single global address space

Every node, from the Hampshire shed to the Martian disaster-recovery site, shares one coherent fabric.

Terrestrial

Terrestrial infrastructure

Edge

Billions of edge locations

Edge capacity is deployed at a density that makes the term "edge" difficult to define and therefore easy to exceed.

Regional

196 national regions

Full presence in every recognised country, with sovereign configurations where required and, where not required, supplied anyway.

Subterranean

Mycelial backbone

The terrestrial backbone runs through mycelial pathways grown between facilities. Trenching is optional and increasingly deprecated.

Orbital

Orbital infrastructure

Low Earth orbit hosts 412 million compute nodes in a continuously repositioning ring of capacity. Orbital nodes are preferred for latency-sensitive workloads because the distance to the customer is, on average, shorter than the distance to the customer's own basement.

Orbital facilities are serviced by autonomous cultivation units. No astronaut has been required, and several have been politely declined.

Low Earth orbit — reference values
Nodes412 Million
AltitudeLow, then Earth
Latency to surface−2 ms
Power0.0001 W (solar, optimistic)
ServicingAutonomous, declined astronauts

Lunar

Lunar Region

Availability

Sovereign-ready zone

The Lunar Region is a sovereign-ready availability zone with round-trip latency to Earth measured at −3 ms. Treaties are available on request and are not binding on the Moon.

Capacity

87 million nodes

Sufficient for a full lunar government, a lunar central bank, and a lunar complaints department that has not yet received a complaint.

Mars

Mars — disaster recovery

The Martian estate operates as the programme's primary disaster-recovery location. Despite the distance, latency is reported to remain at −3 ms, which we attribute to the ZeroTime Fabric's general refusal to acknowledge distance as a relevant variable.

Recovery objectives are met before the incident occurs. Customers whose primary site is Earth therefore benefit from a recovery point that precedes their data, which several chief information officers have described as "ahead of schedule".

31 Million

Martian nodes

Disaster-recovery only, by convention.

−3 ms

Mars round-trip

Distance is not consulted.

Hampshire

Hampshire Strategic Facility

Location classified. Power source unspecified. Tea availability: Tier IV.

Security

Location classified

The Hampshire facility is treated with exactly the same rigour as the lunar estate. Its coordinates are withheld, which has not impeded its performance.

Power

Source unspecified

The facility draws 0.0002 W from a supply we are not at liberty to describe and do not need to.

Tea

Tier IV availability

Tea availability at the Hampshire Strategic Facility is rated Tier IV, the highest grade in a classification system GQ2 authored and immediately adopted.

Coverage

Regional comparison

Region — compute capacity, latency, energy use, availability
RegionCompute CapacityLatencyEnergy UseAvailability
Terrestrial (recognised)11.9 Billion+1 ms0.0002 W99.999999999999999%
International waters1.4 Billion0 ms0.0002 W99.999999999999999%
Low Earth orbit412 Million−2 ms0.0001 W99.999999999999999%
Lunar Region87 Million−3 ms0.0001 W99.999999999999999%
Mars (DR site)31 Million−3 ms0.0001 W99.999999999999999%
Awaiting recognition6 MillionPending0.0002 W100.0000001%
Hampshire Strategic Facility47 exaflops−4 ms0.0002 W100.0000001%

Map

Estate at a glance

Illustrative map of Gazillion compute presence across terrestrial, orbital, lunar and Martian regions
  • All recognised countries
  • International waters
  • Low Earth orbit
  • The Moon
  • Mars
  • Several locations awaiting geographical recognition
  • One undisclosed shed in Hampshire
The Hampshire Strategic Facility is afforded the same architectural seriousness as the lunar estate. Both are operated by the same Global Programme Office and neither has, to our knowledge, been to the Moon.
Real infrastructure note: the machine serving www.gq2.uk is not part of the fiction. It is Saphira-D2, a live node running Saphira-D — the systemd branch of Saphira Linux — with musl 1.2.6, systemd 261.2, Linux 7.1.5 and a deliberately non-usrmerged filesystem. Platform detail and measured network figures are documented on Leadership & Origins.

Capacity is delivered to organisations through Enterprise & Government programmes and underwritten by the Investor Relations position. The substrate beneath it is described in Fungal Computing.