ViaBTC Mining Statistics can make mining data easier to read by placing hashrate, network difficulty, pool blocks, payout data, and recent earnings in one view. ViaBTC currently lists PPS+ and PPLNS, with 4% applied to the PPS block-reward component and 2% to PPLNS-based distribution. Its published daily estimates use the previous 7 days, so miners can compare short-term output with a longer reference instead of relying on one hourly figure.
Bitcoin mining produces several numbers at once: hashrate in TH/s or PH/s, difficulty, shares, block rewards, transaction fees, pool hashrate, and payout frequency. In 2024, for example, the Bitcoin block subsidy fell after the halving, so the same 1 PH/s could not be assessed using an older reward baseline. Bitcoin difficulty adjusts every 2,016 blocks, or about two weeks at the intended 10-minute average, which makes historical comparison more useful than a single snapshot.
A miner normally starts with the number that is easiest to understand: hashrate. A machine rated at 100 TH/s is not expected to report exactly 100 TH/s every second, because pool-side readings are based on submitted work over time. A 3-hour average of 97 TH/s and a 24-hour average of 99 TH/s describe a much healthier operating pattern than one isolated reading of 92 TH/s.
That difference becomes easier to judge when the same period includes rejected shares and uptime. Consider a 30-day sample in which a farm is expected to provide 20 PH/s but averages 19.2 PH/s. The gap is 0.8 PH/s, or 4% below the expected level. If the same reduction appears across several reporting periods, checking hardware availability and connection quality makes more sense than blaming network difficulty.
Network figures provide the next layer of context. Bitcoin adjusts difficulty every 2,016 blocks using the time taken by the previous 2,016 blocks, while the target remains around one block every 10 minutes. If network competition rises by 15% while a miner's own hashrate stays unchanged, the miner's share of total computing power becomes smaller even though the machines are operating normally.
| Metric | Example | Reading |
|---|---|---|
| Farm hashrate | 20 PH/s | Installed capacity |
| 24-hour average | 19.2 PH/s | 4% below target |
| Network growth | +15% | More competition |
| Review period | 30 days | Better than one hour |
| BTC difficulty cycle | 2,016 blocks | Roughly 14 days |
The table works because each number answers a different question. The farm figures describe local performance, while the 15% network increase describes external competition. Looking at both prevents a miner from treating every revenue decline as a hardware problem.
Revenue needs the same treatment. ViaBTC states that PPS+ uses PPS logic for the block-reward component and PPLNS logic for transaction-fee distribution, while PPLNS allocates both components when the pool finds a valid block. Its current published fee rates are 4% for the PPS block-reward component and 2% for PPLNS.
A payout number without its settlement method can be misleading.
Suppose two miners each operate 1 PH/s for 14 days. Miner A uses PPS+, while Miner B uses PPLNS. Their reported amounts can differ during a short sample because PPLNS depends more directly on actual blocks found by the pool. Over a longer sample, the comparison should include the fee rate, block results, transaction-fee allocation, and each miner's hashrate history rather than only the final coin balance. ViaBTC also states that actual results can differ from estimates because difficulty, transaction fees, and pool luck change.
Pool luck is especially easy to misread. Mining is probabilistic, so a pool can discover more blocks than expected during one interval and fewer during another. A seven-day period containing 12 blocks should not be treated as proof of a permanent improvement when a longer 30-day or 90-day sample may show a much closer relationship between pool hashrate and block share.
Block statistics help put that variance into numbers. If a pool controls roughly 8% of network hashrate, its long-run block share should tend toward a similar level, but a 24-hour sample can sit materially above or below that expectation. The useful comparison is therefore not “Did the pool find many blocks today?” but whether observed blocks remain reasonable across several difficulty periods.
This is where the ViaBTC Mining Guide can complement statistical data. The practical reading order is simple: check personal hashrate, compare it with the 24-hour average, inspect pool statistics, then compare the same period with network difficulty and revenue per unit of hashrate.
A normalized metric is more informative than total payout. If one farm produces 0.002 BTC over 7 days at 2 PH/s and another produces 0.003 BTC at 4 PH/s, the larger farm earns more coins but produces less BTC per unit of computing power. Normalizing the results shows 0.001 BTC/PH per week for the first farm versus 0.00075 BTC/PH per week for the second, a 25% difference in normalized output.
Electricity costs then change the interpretation. A mining machine producing 200 TH/s at 3,500 W consumes 84 kWh over 24 hours. At $0.07/kWh, that is $5.88 per day in electricity; at $0.12/kWh, the same machine costs $10.08. A 71% increase in electricity cost can outweigh a modest improvement in coin production, so mining statistics should be read together with local operating costs.
The same calculation can be extended across a farm. A 100-machine site using 3,500 W per unit draws 350 kW before other facility loads. Running for 30 days at 24 hours per day requires about 252,000 kWh, meaning a $0.05/kWh price produces an electricity bill of about $12,600, while $0.10/kWh produces $25,200. The mining dashboard cannot supply those local prices, but it can provide the production figures needed for the calculation.
ViaBTC's own documentation also states that its average daily yield estimates are based on the previous 7 days and are for reference, not guarantees. A seven-day estimate should therefore be treated differently from a confirmed payout record: the first describes recent conditions, while the second records an actual settlement.
Historical data becomes more useful when the time windows match. Comparing one pool's 24-hour result with another pool's 30-day average mixes different samples. A cleaner comparison would use 7-day versus 7-day, 30-day versus 30-day, or 90-day versus 90-day data, with the same coin, hashrate unit, payout method, and fee basis.
A 7-day sample is useful for recent changes; a 30-day sample usually gives a better view of recurring operating patterns.
There is also a hardware-side benefit. If a 10 PH/s site shows a repeated decline from 9.8 PH/s to 9.1 PH/s over four consecutive weeks, the average shortfall is about 7.1%. If network difficulty rose during the same period but the site's hashrate also fell, two separate changes are taking place and should not be combined into one explanation.
Transaction fees add another source of variation. Bitcoin block income contains both the block subsidy and transaction fees, and the fee portion can change from block to block. For a pool operating under PPS+, ViaBTC separates the block-reward calculation from transaction-fee distribution, so miners comparing daily payouts need to know which component moved before attributing the difference to hashrate.
The 2024 Bitcoin halving provides a useful historical reference because the block subsidy was reduced, changing the revenue base for miners even without a hardware change. A miner comparing 2023, 2024, and 2026 records should therefore normalize results around subsidy changes, network difficulty, BTC price, and hashrate rather than comparing raw BTC income across calendar years.
Used this way, ViaBTC Mining Statistics can make mining data easier to understand because it reduces several separate measurements into comparable time periods. The user still has to interpret electricity prices, hardware efficiency, fee structure, network difficulty, pool block results, and coin prices, but the statistical view gives those numbers a common reference point instead of leaving each figure on its own.