TL;DR
Operating in space involves long distances and that means long latencies. Chains like Solana break at cislunar distances. Gajumaru’s Associate Chains (ACs) adapt to latencies imposed by the speed of light without changing the code or the model, ensuring a Gaju is a Gaju, whether you’re buying coffee on Earth or servicing a satellite in orbit.
Gajumaru’s structure is the key
The structure of Gajumaru makes it incredibly adaptable to different environments, be they regulatory or topological. Because each Associate Chain has its own set of operational rules, governance, and consensus model, each chain can be customized to cope with whatever operational constraints may be placed on it by out-of-context requirements.
The unique challenge of space-based operations
The basic problem encountered in cislunar space is latency delays due to message propagation.
The Moon averages a distance of about 380,000km from Earth, and this causes a one-way light-speed message delay of about 1.3 seconds. This means that if a server were operating on the Moon and were pinged by a client on Earth, the ping delay would be a little over 2.5 seconds. If we extend this to the furthest distance possible in cislunar space we wind up with a one-way message propagation time of just over 2.5 seconds, and a round-trip time from edge-to-edge of about 5 seconds.
To computers operating with assumptions that are baked into modern terrestrial networks this may as well be forever.
This degree of latency tends to break terrestrial distributed peer network protocols that depend on far lower latency to operate. For example, the Solana network depends on 300ms round-trip times between nodes for the current generation of the protocol to work. Given that the best-ping times between East Asia and the American East Coast are already close to 200ms, Solana is already incapable of operating in a widely distributed terrestrial network, much less a network distributed across cislunar space. Future planned updates to Solana will centralize it even further. That’s fine for Solana, as it is mostly used for cyclical trading in ephemeral digital assets to make numbers appear a certain way, and for that use centralization is a killer feature. For an actual digital currency system, however, this restriction is quite limiting.
Gajumaru AC adaptability to the rescue
The Gajumaru, on the other hand, relies on a consensus protocol that can be easily adapted to the cislunar environment. A typical Gajumaru chain operates with a two-minute keyblock interval (the time between leadership changes, also known as the time between “generations” on chain), and a three-second microblock interval (the microblock production interval).
Because of the way Gajumaru ACs work, however, a cislunar chain can be readily customized for operation in space, simply by extending the microblock time to 10 seconds to give plenty of time for blocks to propagate and reduce microforks during leader transitions, and increasing the gas limit per block to 60-million to maintain the exact same throughput as a default Gajumaru AC. With this minor tweak, Gajumaru could readily adapt to operation across all of cislunar space, without sacrificing the ability to deploy additional associate chains on Earth or the Moon with more standard microblock intervals, nor making any compromises to inter-chain transfers of currency via the ordinary, unaltered Gajumaru inter-chain protocol.
Operational reality
Because Gajumaru ACs can adapt to novel environments, your team doesn’t have to. Anything developed and deployed on the Gajumaru testnet is perfectly valid to deploy on a cislunar chain without modification.
For the devs, building an orbital app on a cislunar AC is exactly the same as building for a terrestrial AC — the only difference is the heartbeat of the chain.
Bottom Line
There is no need for a magical, isolated cryptocurrency in space that requires some wacky terrestrial tether to fit into the rest of the blockchain ecosystem. In the same way that the “agentic currency” model of Gajumaru leads straight back to “Gajus are just money”, space-based chain operations fitting comfortably within the scope of a customized AC also leads back to the same exact end point: that Gajus are just money.
This ensures that the same debasement-proof, proof-of-work currency minted on Groot — the same one used to buy t-shirts on GajuMarket, trade securities on GajuDEX, or buy coffee via GajuPay — is equally capable of powering high-speed AI microtransactions and settling orbital contracts between space-based clients and their servicers.
This is all direct, works across chains, solves the “nothing at stake” problem inherent in all stake-based governance models, and solves the problem of artificial value stability. A Gaju is a Gaju anywhere within the entire system, on any chain.
No fragmentation, no magic. Finance, even in the void of space, stays exactly as it should be: boring, reliable and universal.