LIQUAPRO
◇ DREWLESS · 7-SLF

MINING DEMO

educational in-browser SHA-256 PoW · NOT connected to any chain

⚠ READ BEFORE YOU MISTAKE THIS FOR A REAL MINER

HASHRATE
0
H/s
ATTEMPTS
0
total hashes
ELAPSED
0.0s
since start
BLOCKS FOUND
0
this session
CELLS
— each cell is a batch of 256 async hashes
▶ CONTROLSpick block content + difficulty · press MINE
16 bits 65,536 tries expected
crypto.subtle digests per Promise.all flush
▶ CURRENT WORKidle
LAST HASH TRIED
nonce: · input:
★ BEST HASH FOUND THIS SESSION (most leading zeros)
— start mining to see —
nonce: · leading zero bits:
▶ BLOCKS FOUND0 · this session
#hashnoncedifficultyattemptstime
— mine your first block —
▶ HOW SLOW IS THIS, REALLY?live comparison vs real hardware
YOU (this tab)
0 H/s
avg laptop CPU (xmrig RandomX)
~3 kH/s
GPU (RTX 4090, KawPow)
~60 MH/s
Bitmain S19 XP (SHA-256 ASIC)
~140 TH/s
Bars are on a log scale (real ratio is closer to 10¹⁰× between you and the ASIC). The point: browser-mining a real coin is economically pointless. The reason Liqua's spec picks RandomX isn't that it's "fast" — it's that ASICs aren't economical to build for it, so a laptop CPU is still competitive.
⌬ Molecular framing. Each cell indicator above is a worker batch — a "cell" running its metabolic program (SHA-256). When you press MINE they pulse amber to show they're active. When one finds a hash with enough leading zero bits, the cell flashes green — that's a successful "gene expression". The hashrate is your collective cellular metabolic rate. This is exactly the metaphor the chain spec (§5) extends to RandomX: every hash is a cell, the dataset is the nucleus, validation is the immune response. SHA-256 here is just the educational stand-in.