Jimmy

[image] Blockchain congestion often starts when transactions sit in a mempool waiting for the next block. @RetiumChain can keep 3 to 20 blocks open, with the Router sending transactions directly to them. Prime number logic defines the mesh, letting blocks process in parallel

[image] Traditional blockchains move blocks along a single path. @RetiumChain takes a different approach with a multi dimensional mesh. Prime factorization determines where blocks sit in the network, allowing multiple blocks to exist and process transactions in parallel

[image] Linear blockchains move one block at a time, while @RetiumChain takes a different approach with a multi dimensional mesh. Prime factorization determines where blocks sit in the network, allowing multiple blocks to exist and process transactions in parallel

[image] Gas wars happen wen users compete for limited block space @RetiumChain takes a different approach with weight based fees. The cost depends on the computational work of a transaction rather than how congested the network is, making fees much more predictable wen activity picks up

[image] Transfers can slow down when transactions pile up in a mempool waiting for block space. @RetiumChain takes a different approach. The Router sends transactions directly to open blocks, while prime number logic defines the mesh and multiple blocks process transactions in parallel

[image] Retium is taking a different approach to how staking and token rewards work. @RetiumChain has a fixed 1B $RTM supply with no minting beyond genesis. $Pie is minted 1:1 when RTM is staked, giving validators a share of real network fee revenue rather than inflationary rewards.

[image] Competing blocks can create forks when multiple blocks try to occupy the same position. @RetiumChain takes a different approach. Prime factorization determines each block’s position in the mesh, so an invalid competing block is rejected and forks are structurally impossible