What Are the Key Benefits of Using ViaBTC Mining Statistics?

ViaBTC mining statistics help miners compare pool-side hashrate, worker status, rejected shares, payment records, network difficulty, pool luck, and recently mined blocks in one place. ViaBTC calculates real-time hashrate from the previous 10 minutes and daily hashrate from the previous 24 hours, so operators can separate a short reading from a full-day average. In 2026, its BTC pool supports PPS+ and PPLNS, with published fees of 4% for the PPS block-reward component and 2% for PPLNS-based payments. Pool statistics also provide 3-day, 7-day, and 30-day luck figures, making changes in mining output easier to explain.

The first benefit comes from comparing what an ASIC reports locally with what the pool actually receives. A miner may display 200 TH/s on its own interface while the pool records less because pool-side hashrate is estimated from accepted shares rather than the device's internal calculations. ViaBTC uses a 10-minute period for real-time hashrate and a 24-hour period for its daily figure, so comparing a newly started machine with the daily figure can produce a misleading gap.

That difference gives an operator a practical way to separate measurement timing from a persistent operating problem. ViaBTC recommends giving a newly started worker roughly 10 to 20 minutes, depending on its hashrate, before treating a low pool-side reading as a problem; if a 200 TH/s ASIC continues to appear near 170 TH/s after several comparable reporting periods, checking rejected shares, connectivity, temperature, hashboards, and recent frequency settings becomes more useful than repeatedly restarting the miner.

Pool-side hashrate is based on work received and accepted by the pool. Local hashrate is calculated inside the miner. A difference between the two readings is therefore not automatically a hardware failure.

Worker status adds another layer because an account-wide hashrate figure may not show which machine stopped submitting work. ViaBTC classifies a worker as offline after it has reported no hashrate for between 20 minutes and 1 day; after more than 1 day without reported hashrate, it is classified as inactive. A farm running 100 ASICs can therefore narrow a 1% fleet-level loss to one machine instead of checking all 100 units manually.

Once a worker has been identified, alert timing matters. ViaBTC's Watcher URL documentation states that worker-offline checks run every 10 minutes, while abnormal rejection-rate checks run every hour. Notifications can also be delivered through channels including email, app push, or Telegram, depending on the alert feature used. A miner can be physically powered on while submitting little or no accepted work, so pool-side notification data provides information that a simple power-status check cannot provide.

Rejected shares then help explain why electrical consumption and accepted mining work can move apart. ViaBTC's published guidance treats a rejection rate within 3% as its general operating reference, while also noting that network conditions, high machine temperature, and firmware issues can contribute to higher rejection rates. The 3% figure belongs to ViaBTC's own guidance rather than an industry-wide standard, so it should be used alongside the worker's previous readings and the rejection reason shown by the miner or pool.

Those operating figures become more useful when they are read beside pool-wide data. The ViaBTC Pool Hashrate view allows miners to compare pool conditions with their own contribution rather than reading an account hashrate number alone. A recent 2026 ViaBTC BTC statistics snapshot reported about 98.79 EH/s of pool hashrate against roughly 938.03 EH/s of Bitcoin network hashrate, placing the displayed pool figure at roughly 10.5% of the displayed network total at that snapshot.

Pool size alone does not explain daily mining income, however, because block discovery is probabilistic. The same ViaBTC statistics snapshot displayed BTC pool luck of 98.44% over 3 days, 91.05% over 7 days, 92.02% over 30 days, and 99.73% over the full recorded period. Short periods can sit well above or below 100%, so a miner using PPLNS should not interpret one weak day as proof that an ASIC has lost hashrate.

ViaBTC's block records provide another check on that interpretation. The public BTC statistics snapshot listed 52,780 total blocks, 19 orphan blocks, and a 0.03% orphan rate, while individual entries showed block rewards around 3.13 to 3.17 BTC in the displayed sample. One listed block at height 965274 had a runtime of 4 minutes 45 seconds, while another at height 965381 showed 5 hours 6 minutes 39 seconds, illustrating how uneven individual block intervals can be even within the same pool.

That pool-level variation matters most when comparing ViaBTC's two current payment methods. As of May 2026, ViaBTC documents PPS+ and PPLNS as its supported methods; SOLO was discontinued on May 20, 2026. Under PPS+, the block-reward portion follows PPS accounting with a published 4% fee, while transaction fees are distributed under PPLNS rules with a published 2% fee.

PPLNS uses a different allocation structure. ViaBTC states that both block rewards and transaction fees under PPLNS use a 2% fee and are allocated according to the miner's share of pool hashrate over the last 5 difficulty rounds when a block reaches 6 confirmations. As a result, a miner evaluating PPLNS should read personal hashrate together with pool luck and confirmed block records rather than comparing two isolated daily payout numbers.

A compact comparison makes the accounting difference easier to read:

• PPS+: the block-reward component uses PPS accounting and a published 4% fee; transaction fees use PPLNS accounting and a 2% fee.

• PPLNS: block rewards and transaction fees are allocated through PPLNS rules with a published 2% fee.

• ViaBTC states that PPS+ provides more stable short-term payments, while PPLNS is more exposed to whether the pool finds more or fewer blocks than statistically expected.

Payment statistics also help explain why an unchanged ASIC can produce a different amount of BTC over time. Bitcoin difficulty changes with network conditions, and ViaBTC explicitly notes that higher difficulty reduces expected mining output for the same amount of hashrate. Its displayed 2026 BTC snapshot showed a network difficulty near 125.81 T and an estimated next adjustment of about -0.63%, so hardware performance and network conditions need to be read separately.

For example, assume a miner remains stable at 200 TH/s for 30 days while network difficulty rises 8%. The ASIC has not become 8% slower, but the expected BTC produced by a fixed amount of work generally falls as more work is required to compete for the same block subsidy. Pool statistics prevent a common misreading: lower coin output after a difficulty increase is not the same event as a worker falling from 200 TH/s to 184 TH/s.

Transaction fees create another source of day-to-day difference. ViaBTC explains that its BTC PPS+ estimate includes the PPS block component plus transaction fees, and its profit calculator estimates the fee portion using the average miner fees from the previous 1 day. When on-chain fees change sharply after that reference period, actual payments can differ from the calculator even when worker hashrate and difficulty have barely changed.

That makes historical records more useful than a single daily payment. A 24-hour hashrate average can show whether the machine delivered normal work, the rejection rate can show how much submitted work was not accepted, and 7-day or 30-day pool-luck readings can explain some differences under PPLNS. Comparing several reporting periods avoids treating a 1-hour reading as if it represented a month of operation.

The same data can be tied to electricity use. A 3.5 kW ASIC running for 24 hours consumes 84 kWh per day. At $0.06 per kWh, electricity alone costs about $5.04 per day; at $0.10, the same machine costs $8.40. If pool-side hashrate falls 10% while electricity draw stays near 3.5 kW, the operator is paying almost the same energy bill for materially less accepted mining work.

For a larger site, small percentages become larger operating numbers. A farm with 500 machines rated at 200 TH/s has a nominal 100 PH/s fleet. If pool-side statistics average 97 PH/s over several 24-hour periods, the 3 PH/s gap equals the rated output of about 15 machines. The cause could be downtime, rejected work, partial hashboard failures, networking, or machines running below specification; worker-level statistics show where to start checking.

A useful comparison keeps time periods consistent: 10-minute pool data against recent miner data, 24-hour pool data against full-day operation, and longer payment records against difficulty and pool-luck figures from the same period.

Block and account statistics also improve record checking for hosted equipment. If a hosting customer owns 50 ASICs rated at 200 TH/s each, the expected nominal total is 10 PH/s. Pool-side records can show whether submitted work stayed near that level over 24-hour periods, which workers spent more than 20 minutes offline, and whether rejected-share percentages rose during a specific period, giving both sides measurable operating figures instead of relying only on an invoice or monthly payout amount.

ViaBTC's public and account statistics are therefore most useful when fields are read together rather than ranked by one number. A miner can compare 10-minute and 24-hour hashrate, worker state, rejection percentage, PPS+ or PPLNS accounting, 3-day to 30-day pool luck, network difficulty, confirmed blocks, and payment records. In 2026, ViaBTC's published rules provide defined time windows and fee percentages for many of those fields, allowing operators to compare mining performance with the same measurement basis from one period to the next.