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wanderer🌟 / js-dfinity-radix-tree



Tree: 4143b5779d03c5527c674008885b39d94cfd76ec

Files: 4143b5779d03c5527c674008885b39d94cfd76ec / README.md

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NPM Package
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js-standard-style

install

npm install merkle-radix-tree

SYNOPSIS

This implements a binary merkle radix tree. The point of using a binary radix tree is that it generates smaller proof size then trees with larger radixes. This tree is well suited for storing large dictonaries of fairly random key. If the keys are not random better performance can be achived by hashing them first.

INSTALL

npm install merkle-radix-tree

USAGE

const IPFS = require('ipfs')
const RadixTree = require('merkle-radix-tree')

// start ipfs
const node = new IPFS({
  start: false,
  repo: './ipfs-repo'
})

node.on('ready', async () => {
  const prover = new RadixTree({
    dag: node.dag
  })

  // set some values
  await prover.set('test', 'value')
  await prover.set('doge', 'coin')
  await prover.set('cat', 'dog')
  await prover.set('monkey', 'wrench')

  // create a merkle root and save the tree
  const merkleRoot = await prover.flush()

  // start a new Instance with the root
  const verifier = new RadixTree({
    dag: node.dag,
    root: merkleRoot
  })

  // gets the merkle proof from ipfs-js and returns the result
  const val = await verifier.get('monkey')
  console.log(val)
})

API

'./docs/'

SPEC

'./docs/spec.md'

BENCHMARKS

The result of the benchmarks show that the binary radix tree produces proofs on average %67 small then Ethereum Trie with 100000 keys stored.

'./benchmarks/benchmarks.md'

TESTS

npm run tests

LICENSE

MPL-2.0)

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