ENTREPRENEUR | LIVERPOOL | FINANCIAL MARKET ENTHUSIAST | I sell gadgets and wears| $MOJO| Liverpool die hard fan |I'm on quest to achieve the unimaginable
One thing I find fascinating about blockchain infrastructure is this:
As chains evolve, the hardest problem increasingly stops being computation and starts becoming communication.
That’s where mump2p becomes interesting.
Most blockchain networks today still rely heavily on gossip-based propagation.
A validator receives a block, forwards the same raw data to peers those peers repeat the same process again…
It works.
But it also creates:
• duplicate transmissions
• bandwidth waste
• propagation delays
• congestion under high load
and these problems become even worse as block sizes grow especially in a future with:
- rollups - DAS - AI-driven applications - post-quantum cryptography
where networks may need to move dramatically larger amounts of data continuously.
mump2p approaches propagation differently.
Instead of relying purely on repetitive gossip transmission, it uses RLNC (Random Linear Network Coding) to optimize how information moves across the network.
The important shift is this:
Nodes no longer need to repeatedly send identical packet copies, instead, they propagate encoded combinations of data fragments.
That changes propagation efficiency significantly because:
• fewer redundant transmissions are needed
• bandwidth usage improves
• reconstruction becomes more resilient
• propagation becomes faster under stress
But the part I think matters most is decentralization.
Latency is not distributed equally across the world.
Validators in:
• Africa
• APAC
• LATAM
often operate farther from dense networking hubs concentrated in EU/NA regions.
That means:
• slower propagation
• weaker peer scoring
• higher attestation risk
• greater chance of mesh exclusion
Over time, this quietly centralizes networks toward operators with better geographic positioning and enterprise-grade infrastructure.
mump2p’s value isn’t only speed.
It’s helping reduce the structural latency disadvantage smaller independent operators face.
And as Ethereum moves toward:
• PeerDAS
• Full DAS
• shorter slot times
• increasingly data-heavy architectures
efficient propagation may become one of the most important decentralization problems in crypto infrastructure.
The next era of blockchain scalability may not belong to the chains that process the most data, but to the networks that move data most intelligently.
Let me tell you something interesting.
Imagine trying to send a very important message across a crowded stadium
But instead of using the speakers, every person had to shout the message to the next person nearby.
Now imagine everyone repeating the exact same message over and over again across the stadium.
That’s surprisingly similar to how many blockchain networks still propagate data today.
Not because the technology is bad, but because the system for moving information is still inefficient.
Most people think blockchain scaling is only about execution speed.
More TPS - Faster blocks - Better consensus.
But there’s a deeper bottleneck most networks still struggle with
DATA PROPAGATION
How information actually moves across validators and nodes.
And this is exactly where @get_optimum is focused.
Today, most blockchain networks still rely heavily on gossip propagation.
One validator receives a block then forwards the same raw data to peers, those peers forward the same raw data again and the process repeats across the network.
It works.
But under high demand, this creates:
• duplicate traffic
• bandwidth waste
• network congestion
• slower propagation
The problem isn’t just the amount of data.
It’s how inefficiently the data moves.
Optimum approaches this differently using RLNC (Random Linear Network Coding).
Instead of repeatedly forwarding identical packets, nodes send encoded combinations of data fragments.
That changes propagation completely.
Every packet now carries new information instead of duplicate information.
This means:
• less redundancy
• lower bandwidth usage
• faster reconstruction
• stronger propagation reliability
And this matters a lot for validators because validators compete on timing.
A validator receiving block data milliseconds later can already be behind the network:
• slower attestations
• delayed block propagation
• weaker MEV positioning
• reduced efficiency
Optimum’s Flexnodes help optimize this propagation layer using RLNC-powered networking through mump2p.
But the vision goes even deeper.
Optimum is also building DeRAM:
a decentralized memory layer for Web3.
Because modern onchain applications increasingly require:
• low-latency reads/writes
• real-time memory access
• scalable temporary state
Especially for:
• AI agents
• onchain gaming
• trading systems
• real-time social apps
Traditional blockchains optimized for permanent storage.
But next-generation applications need something closer to RAM.
Fast.
Shared.
Accessible memory.
The internet became scalable when networking infrastructure evolved beyond inefficient packet delivery.
Blockchains are approaching that same transition now.
And the next breakthrough may not come from processing more data…
But from moving data intelligently.
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