Antminer S19 XP electricity cost
The reference 3,031.5 W load consumes 72.76 kWh per full day. At $0.08/kWh that is $5.82 per day, $174.61 per 30-day month and $2,124.48 per year. These are calculated costs, not manufacturer claims.
BITMAIN · 141 TH/S REFERENCE VARIANT
141 TH/s, model 240-Ca from the official support sheet. Do not mix these values with a 140 TH/s batch.
Data last checked: 2026-09-27. Manufacturer specification source: official reference ↗. Unknown fields remain unverified.
Source: current user inputs and published formulas. Last updated: on each input change.
Assumes current network conditions remain constant. Estimates exclude taxes, financing, repairs and resale value.
Last updated: . Source: mempool.space — BTC/USD price, mempool.space — estimated network hashrate and current difficulty, mempool.space — mean fees of latest 10 confirmed blocks; subsidy derived from next height.
The reference 3,031.5 W load consumes 72.76 kWh per full day. At $0.08/kWh that is $5.82 per day, $174.61 per 30-day month and $2,124.48 per year. These are calculated costs, not manufacturer claims.
The 141 TH/s reference contributes 141,000,000,000,000 hashes per second to the difficulty-based model. Expected BTC production requires difficulty, subsidy and estimated block fees. The calculator above displays revenue only when those values and a BTC price have a valid source.
Run a Antminer S19 XP revenue scenario →At full uptime, divide daily proceeds after pool fees by 72.76 kWh to obtain this reference’s operating tariff threshold. Each $0.01/kWh adds $0.73 per day to the electricity bill. Hardware recovery and hosting fees are separate.
The manufacturer lists 21.50 J/TH. Dividing the reference power by hashrate gives 21.5000 J/TH. Small differences can result from nominal specification rounding; compare values at the same operating point.
3,031.5 W corresponds to 10,343.9 BTU/hour. Nearly all electrical input ultimately becomes heat. Running power determines peak heat even when average uptime is reduced.
The reference heat load is 0.862 cooling tons. At 25°C intake and 35°C exhaust, the ideal all-air equivalent is 905 m³/h. This excludes pressure loss, humidity, altitude and recirculation. Hydro references require separate coolant engineering.
Adding an illustrative 10% facility-power allowance to this reference adds $0.58 per day at $0.08/kWh. It does not increase the 141 TH/s nominal hashrate. Hosting management, repairs and capital must be entered separately.
Add this model to a farm scenario →Daily kWh = watts ÷ 1,000 × 24 × uptime. BTC/day uses difficulty × 2³² expected hashes per block. Heat = watts × 3.412142 BTU/hour. Assumes current network conditions remain constant.
Read formulas, limits and omitted costs →141 TH/s reference variant. 141 TH/s, model 240-Ca from the official support sheet. Do not mix these values with a 140 TH/s batch.
72.76 kWh at the reference running power and 100% uptime. Change watts or uptime in the calculator for your measured scenario.
No. Operating profit excludes capital. Enter your purchase price and use simple payback; future network conditions are not guaranteed.
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Fixed reference scenario: Antminer S19 XP, 3,031.5 W, 100% uptime, 2% pool fee. Interactive inputs above do not overwrite this reference table.
| Rate / kWh | kWh / day | Electricity / day | Electricity / month | Electricity / year | Revenue / day | Profit / day | Profit / month |
|---|---|---|---|---|---|---|---|
| $0.03 | 72.76 | $2.18 | $65.48 | $796.68 | $5.65 | $3.35 | $100.59 |
| $0.04 | 72.76 | $2.91 | $87.31 | $1,062.24 | $5.65 | $2.63 | $78.76 |
| $0.05 | 72.76 | $3.64 | $109.13 | $1,327.80 | $5.65 | $1.90 | $56.93 |
| $0.06 | 72.76 | $4.37 | $130.96 | $1,593.36 | $5.65 | $1.17 | $35.11 |
| $0.07 | 72.76 | $5.09 | $152.79 | $1,858.92 | $5.65 | $0.44 | $13.28 |
| $0.08 | 72.76 | $5.82 | $174.61 | $2,124.48 | $5.65 | $-0.28 | $-8.55 |
| $0.09 | 72.76 | $6.55 | $196.44 | $2,390.03 | $5.65 | $-1.01 | $-30.37 |
| $0.10 | 72.76 | $7.28 | $218.27 | $2,655.59 | $5.65 | $-1.74 | $-52.20 |
| $0.12 | 72.76 | $8.73 | $261.92 | $3,186.71 | $5.65 | $-3.20 | $-95.85 |
| $0.15 | 72.76 | $10.91 | $327.40 | $3,983.39 | $5.65 | $-5.38 | $-161.33 |
| $0.20 | 72.76 | $14.55 | $436.54 | $5,311.19 | $5.65 | $-9.02 | $-270.47 |
Source: the cited reference power and published formulas. Manufacturer data last checked: 2026-09-27. Revenue is a dated scenario using the snapshot below, not a continuously updated quote. Assumes current network conditions remain constant.
Network snapshot last updated: 2026-09-29T12:30:05.000Z. Source: mempool.space — BTC/USD price mempool.space — estimated network hashrate and current difficulty mempool.space — mean fees of latest 10 confirmed blocks; subsidy derived from next height . Refresh the page to request a newer snapshot.
Data last checked: 2026-09-27. Manufacturer specification source: official reference ↗.
| Field | Value | Source | Checked |
|---|---|---|---|
| hashrate | 141 | Bitmain | 2026-09-27 |
| powerWatts | 3031.5 | Bitmain | 2026-09-27 |
| efficiencyJTH | 21.5 | Bitmain | 2026-09-27 |
| algorithm | SHA-256 | Bitmain | 2026-09-27 |
| releaseDate | Not verified | Unknown | Not verified |
| coolingType | air | Bitmain | 2026-09-27 |
| noiseDb | Not verified | Unknown | Not verified |
| dimensions | Not verified | Unknown | Not verified |
| weightKg | Not verified | Unknown | Not verified |
Unknown source URLs are null. Record-level references were preserved from the initial review; no new manufacturer verification date is invented. Read the source policy →
Turn wall power and your electricity tariff into daily, monthly and yearly running costs.
Estimate Bitcoin revenue, pool fees and operating profit using a sourced network snapshot.
Estimate simple hardware payback and annual operating return from your purchase price.
Convert ASIC electrical load into thermal output for room and facility planning.
Estimate the thermal load, cooling tons and ideal ventilation airflow for a group of miners.
Combine multiple ASIC models, facility overhead and hosting fees to estimate fleet energy, revenue and simple payback.
Source: current user inputs and published formulas. Last updated: on each input change.
Ideal sensible heat balance using air density 1.2 kg/m³ and specific heat 1,005 J/kg·K. No recirculation, pressure loss or safety margin. A non-positive temperature rise cannot remove heat by this ventilation model. Hydro systems require separate liquid-loop design.