WhatsMiner M60S+ electricity cost
The reference 3,400.0 W load consumes 81.60 kWh per full day. At $0.08/kWh that is $6.53 per day, $195.84 per 30-day month and $2,382.72 per year. These are calculated costs, not manufacturer claims.
MICROBT · 200 TH/S REFERENCE VARIANT
200 TH/s shop listing. Power is derived from hashrate × efficiency.
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 3,400.0 W load consumes 81.60 kWh per full day. At $0.08/kWh that is $6.53 per day, $195.84 per 30-day month and $2,382.72 per year. These are calculated costs, not manufacturer claims.
The 200 TH/s reference contributes 200,000,000,000,000 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 WhatsMiner M60S+ revenue scenario →At full uptime, divide daily proceeds after pool fees by 81.60 kWh to obtain this reference’s operating tariff threshold. Each $0.01/kWh adds $0.82 per day to the electricity bill. Hardware recovery and hosting fees are separate.
The manufacturer lists 17.00 J/TH. Dividing the reference power by hashrate gives 17.0000 J/TH. Power itself is derived from the same rating, so this ratio is not an independent measurement.
3,400.0 W corresponds to 11,601.3 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 0.967 cooling tons. At 25°C intake and 35°C exhaust, the ideal all-air equivalent is 1,015 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 $0.65 per day at $0.08/kWh. It does not increase the 200 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 →200 TH/s reference variant. 200 TH/s shop listing. Power is derived from hashrate × efficiency.
81.60 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: WhatsMiner M60S+, 3,400.0 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 | 81.60 | $2.45 | $73.44 | $893.52 | $8.01 | $5.40 | $162.12 |
| $0.04 | 81.60 | $3.26 | $97.92 | $1,191.36 | $8.01 | $4.59 | $137.64 |
| $0.05 | 81.60 | $4.08 | $122.40 | $1,489.20 | $8.01 | $3.77 | $113.16 |
| $0.06 | 81.60 | $4.90 | $146.88 | $1,787.04 | $8.01 | $2.96 | $88.68 |
| $0.07 | 81.60 | $5.71 | $171.36 | $2,084.88 | $8.01 | $2.14 | $64.20 |
| $0.08 | 81.60 | $6.53 | $195.84 | $2,382.72 | $8.01 | $1.32 | $39.72 |
| $0.09 | 81.60 | $7.34 | $220.32 | $2,680.56 | $8.01 | $0.51 | $15.24 |
| $0.10 | 81.60 | $8.16 | $244.80 | $2,978.40 | $8.01 | $-0.31 | $-9.24 |
| $0.12 | 81.60 | $9.79 | $293.76 | $3,574.08 | $8.01 | $-1.94 | $-58.20 |
| $0.15 | 81.60 | $12.24 | $367.20 | $4,467.60 | $8.01 | $-4.39 | $-131.64 |
| $0.20 | 81.60 | $16.32 | $489.60 | $5,956.80 | $8.01 | $-8.47 | $-254.04 |
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 | 200 | MicroBT | 2026-09-27 |
| powerWatts | Not verified | Unknown | Not verified |
| efficiencyJTH | 17 | MicroBT | 2026-09-27 |
| algorithm | SHA-256 | MicroBT | 2026-09-27 |
| releaseDate | Not verified | Unknown | Not verified |
| coolingType | Not verified | Unknown | Not verified |
| noiseDb | Not verified | Unknown | Not verified |
| dimensions | Not verified | Unknown | Not verified |
| weightKg | Not verified | Unknown | Not verified |
| Calculated power | 3,400.0 W | Hashrate × rated J/TH | Derived on render |
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.
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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.