Engineering the Mesh
We believe in a web where data serves the user, not the server. Our architecture eliminates central points of failure through cryptographic guarantees.
Distributed Systems
Philosophy
Disktros is built on the principle of zero-knowledge architecture and redundant availability. We don't just move files; we ensure their survival across network partitions.
Decentralized Authority
No single point of failure. Authority is distributed via a consensus mechanism that validates node integrity in real-time.
Immutable Ledger
Every chunk is cryptographically signed. Data integrity is guaranteed mathematically, not by trust.
Edge Acceleration
Intelligent caching at the edge reduces latency by up to 60%. Hot files are automatically replicated to high-demand zones.
Technical Specifications
Parallel Sharding
Disktros splits files into 4MB chunks, hashed individually. These shards are distributed across the mesh using a modified Kademlia DHT. This ensures that even if 40% of nodes go offline, the file remains reconstructible via erasure coding.
Distribution Logic
Target_ID = SHA256(File_ID ⊕ Chunk_Index) % Network_Size
// Erasure Coding Redundancy
Min_Shards = ⌈ Total_Shards / (1 + Parity_Rate) ⌉
pub fn distribute_shards(file: &File, nodes: &Vec<Node>) -> Result<(), Error> {
// Initialize Kademlia routing table
let dht = Kademlia::new(nodes);
for (idx, chunk) in file.chunks.iter().enumerate() {
let hash = crypto::blake3(chunk);
// Find k-nearest nodes to chunk hash
let targets = dht.find_closest(hash, 20);
match net::multicast_shard(chunk, targets).await {
Ok(_) => log::info("Shard deployed", idx),
Err(e) => return Err(e),
}
}
Ok(())
}Smart Squeeze™
Before transmission, data undergoes context-aware compression. Our algorithm identifies data types (JSON, Media, Binary) and applies the optimal compression dictionary, achieving up to 40% smaller payloads than standard GZIP.
- check_circleContext AwarenessDetects mime-types at the byte level header.
- check_circleZero-Copy PipelineCompression happens in-memory without disk I/O overhead.
const processStream = async (stream) => {
const reader = stream.getReader();
const context = new CompressionContext();
while (true) {
const { done, value } = await reader.read();
if (done) break;
// Detect pattern frequency
const entropy = context.analyze(value);
if (entropy < 0.4) {
// High redundancy, use dictionary encoding
yield context.squeezeDict(value);
} else {
// High entropy, fallback to Zstd
yield zstd.compress(value, 9);
}
}
};Built by engineers from