NetPerHash

tokenized mining, computed

data as of 2026-08-30

Calculator — every lever, what-if

How it works is on the Explained page; where every number comes from is on Method. This page moves every lever: sell-price assumption included. The homepage shows the same engine with the standard question.

Your setup — all levers

Your setup — you decide; the value shown is an editable example, not a recommendation.
Example value, not a quote — real market prices per TH vary with miner model and energy-efficiency class (no source shown on purpose: there is no single market price). Your TH are derived from this.
calculated: amount ÷ price per TH (edit one of the two fields above to change it)


0.0089 — GoMining documentation, retrieved 2026-08-30 (documented rate, subject to change)
0–29% — four documented discounts can stack (token payment ≤20%, VIP ≤6%, service streak ≤3%, mining-mode bonus); GoMining does not publish the stacking rule (retrieved 2026-08-30). Enter a pre-combined number.
No default — parameter only. Live secondary-market prices per TH are not retrievable without an account (marketplace requires login, checked 2026-08-30). Documented context: marketplace sales are paid in GOMINING tokens and carry a 5% seller fee (Academy, retrieved 2026-08-30) — fold it into your estimate. Reference point from the model: with all other inputs at their defaults, mining ties holding only if this is ≈92% of your purchase price over 12 months (≈84% over 24).

Advanced — every pre-filled value shows its source and retrieval date loading…
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3.125 BTC — Bitcoin protocol; next halving estimated April 2028 (retrieved 2026-08-30)
$0.05 — the documented lower bound of the vendor's $0.05–0.07 range (retrieved 2026-08-30); it matched real account data to within a cent. Enter your own rate if you know better.
0% = fixed farm. If you reinvest rewards into new TH, enter your growth: real account data showed 744 → 816 TH (+9%) over 63 days at 100% reinvestment (retrieved 2026-08-30). Growth multiplies gross and fees equally.
+20% is an assumption, not data. Rises in all three price paths below.
defaults to 0%; enter your pool's fee if you know it
Assumptions behind these numbers Method: every formula and source

Your four cost lines

The calculator above runs on four cost lines. Three are bills; the fourth is a force. Together they decide whether your machines produce income — here they are for the default example ($1,000 at $40 per TH = 25 TH, 15 W/TH, no discount), which you can reproduce by pressing Run:

  1. Electricity — the big one. 25 TH at 15 W/TH draw 375 watts around the clock: 9 kWh a day = $0.45 per day at the vendor's documented $0.05 per kWh (retrieved 2026-08-30). This single line is roughly two-thirds of the total maintenance bill in the example — which is why a hosting deal's electricity rate moves everything, and why the vendor's $0.05–$0.07 range means the same machines can be worth running or not.
  2. Service and maintenance. The documented rate is $0.0089 per TH per day (vendor documentation, retrieved 2026-08-30; subject to change) = $0.22 per day on 25 TH. Summed with electricity: $0.67 per day before discounts. Any maintenance discount you hold (up to the documented ~29% ceiling of the stacking pieces) is knocked off this line — the model applies it as the one pre-combined number you enter, because the vendor does not publish how the pieces combine.
  3. Pool and withdrawal fees. For the tokenized product the vendor covers reward-distribution fees itself (its documentation, retrieved 2026-08-30), so the model starts at 0% — but nothing stops you from budgeting your own exit fees (moving Bitcoin off the platform) in the field above.
  4. The one nobody prices: rising difficulty. Bitcoin's network re-targets every ~2 weeks, and the default assumption of +20% difficulty growth over a year shaves the year's average output by ≈8.8% versus a frozen network (the exact average of a straight-line path: ln(1.2)/0.2 ≈ 0.9116). At start rates the example nets $0.30 per day; over the year the average sits near $0.28 per day — and the end of the year earns less than the beginning. Difficulty never sleeps, in every price scenario.

All four lines are deducted from gross before you see a net number — the calculator never shows the gross as if it were yours.

Why we compare against simply holding

Every dollar you put into mining is a dollar you did not put into Bitcoin itself. That is the honest benchmark: the question is never "does mining pay something back?" — almost anything pays something — but "does mining leave me with more money than simply buying Bitcoin with the same dollars on the same day and waiting the same time?". Holding is the opportunity cost of mining, and it is a high bar: one tap, zero fees, zero maintenance, and Bitcoin keeps 100% of every price move.

Run the default example and the bar shows its teeth: $1,000 in the miner produces about 0.001014 BTC over the year after all fees (≈ $79 at the starting price), while $1,000 of plain Bitcoin buys 0.0128 BTC on day one and just sits there. On the flat-price path holding ends about $921 ahead. Mining only closes that gap through price moves it does not cause — the mined Bitcoins are worth more when Bitcoin rises — or through a resale value you assume yourself. Both levers are in the calculator, honestly labeled as assumptions.

This comparison frame is the site's core conviction: mining is a Bitcoin-producing machine, not a price bet — the machines produce nearly the same Bitcoin regardless of where the price goes (only the fee lines move slightly with price, because dollar fees are deducted in Bitcoin at the daily rate). Whether that production is worth more than the coins you could have bought outright is exactly what the table above computes, per price path, with no promised number anywhere.

When mining wins — and when holding wins

Both outcomes are reachable in this model, and the levers above decide which one you are in. Neither direction is a prediction — each is a condition you can check with your own numbers:

Holding wins when the fee bill out-earns no coin. Concretely, in the default example (25 TH, no discount, difficulty +20%): the miner keeps roughly 0.001014 BTC of the year's production after fees while 0.0128 BTC sat in your wallet instead. As long as the resale lever stays at zero, holding ends ahead in all three price paths — by $643 on the down path, $921 flat, $1,312 up. Cheap electricity, a fat maintenance discount, or a smaller difficulty year narrow that gap; they do not flip it at today's rates. Break-even on the purchase itself sits at ≈108 months at start rates — labeled as such, and drifting further out with every difficulty retarget.

Mining wins when the exit price of the machines holds up and the fee lines shrink. Two documented levers flip the flat-price path in the example: the observed 28.26% maintenance discount (a real account figure, retrieved 2026-08-30 — yours may be smaller; the calculator takes one number) plus the observed +9% power growth from reinvesting payouts (63-day account window, retrieved 2026-08-30) bring the flat-path gap down from −$921 to −$845; and an assumed resale of 91% of purchase price — today's observed secondary-market level, roughly, after the documented 5% seller fee: cheapest listing ≈96% of primary, seller nets ≈91% (retrieved 2026-08-30 with an account session) — carries the model to +$65 on the flat path, −$305 up, +$320 down. Note the shape: mining wins when Bitcoin falls and loses when it soars, because the resale leg is a bet on demand for hashrate, not on Bitcoin's price. That is the counter-intuitive core, and it is why the table shows three paths and not one.

The decisive honesty rule: the resale value imports the hashrate cycle into your result — anyone who paid cycle-top prices for TH is holding machines that secondary buyers price differently today (the secondary market has seen ~58% drawdowns from prior peaks). The 91–96% resale figures above were observed at one point in the cycle (2026-08-30) and are not stable properties of the market. A useful discipline for your own inputs: compute the resale fraction at which mining exactly ties holding for your other settings (r*) — at the calculator's own defaults that tie sits at 92% of purchase price over 12 months — and treat that as the question your exit price must answer, not as a prediction that it will.

A worked example, recomputed and dated

The most-circulated illustration in this niche is a "1 TH digital miner" example that several explainer sites have carried since mid-2024 — one of them, a widely syndicated piece (ForkLog EN, published 2024-07-19, linked here, retrieved 2026-08-30), states it like this in substance: the 1-TH miner earns $1.70 a month (2,428 satoshis) at a $70,000 Bitcoin price, pays $0.64 in maintenance, keeps $1.06 — and then the same block switches units and calls the discounted result $1.15 per day.

The dollars are internally consistent — as monthly values. One line later the unit becomes "per day" without any conversion. A reader who projects "$1.15/day" into a year expects about $418 of net income from 1 TH; the example's own monthly arithmetic supports about $13–14 of net per year. That is roughly a 30-fold overstatement, born not from bad data but from a unit slip between two sentences.

Here is the same illustration, corrected with today's inputs and our engine, step by step (network difficulty 125.81 T, Bitcoin $78,102, block reward 3.125 BTC — live values at page-load baseline, 2026-08-30; every step recomputable with the formulas on the Method page):

Step1 TH, 20 W/TH, $0.05/kWh, no discount
Gross: 1 TH of a 907 EH network, 144 blocks × 3.125 BTC≈ 50.0 sat/day ≈ $1.19 per month gross
Electricity: 20 W × 24 h ÷ 1000 × $0.05$0.024/day ≈ $0.73/month
Service: $0.0089 per TH per day$0.0089/day ≈ $0.27/month
Net after maintenance≈ 7.8 sat/day ≈ $0.19 per month ≈ $2.24 per year

The corrected example at its original 2024 inputs (BTC $70,000, difficulty ≈85 T): net ≈ 27 sat/day ≈ $0.57 per month — the "$1.15 per day" claim overstates that setting's reality about 30-fold as well. And note how time moved through the example: at unchanged vendor rates, the same 1 TH that netted $0.57 a month in mid-2024 nets $0.19 a month today — difficulty grew while the copy did not.

Correction policy (project rule): sources named by name, original linked, retrieval date shown, every step recomputable, tone strictly factual — the unit error is provable arithmetic, and that is all we say. If the source corrects its page, this note gains a "corrected on <date>" line instead of disappearing.

FAQ

Is cloud mining worth it?

It depends on numbers you can check, and this page exists so you can check them. With the default example — $1,000 of mining power at documented rates, nothing resold — holding simply buying Bitcoin ends ahead in all three price paths at 2026-08-30 rates; the gap closes only with a meaningful maintenance discount, reinvestment growth, or a resale value you must assume. Run your own numbers above; the read-out sentences under the table state each path's result, so nothing depends on trusting anyone's "it depends".

Can you mine without hardware?

You can own mining power without owning hardware — that is exactly what a tokenized miner is: the vendor runs the machines, your token is a share of their output (see Explained). What you cannot escape is paying for the hardware's running costs: the electricity and service lines in your daily payout are your share of the data-center bill, whatever the marketing called "passive". No home device, no power contract of yours — but also no free electricity.

What if difficulty spikes?

Your output depends on your share of the whole network, and a spike shrinks the share. Doubling difficulty halves the Bitcoins your TH earn at the same block reward — the calculator takes difficulty growth up to 100% over your horizon so you can stress-test exactly this. The default +20% is an assumption, not a forecast; history's answer lies on the Log page, where the real account's difficulty steps are visible week by week.

Do tokens and discounts change the math?

They change the fee bill, which is the second-biggest lever after electricity. Paying fees in the platform token, a VIP level and a daily click can knock up to ~29% off maintenance; the observed account total is 28.26% (retrieved 2026-08-30). In the default example, that discount lifts net from $0.30 to about $0.49 per day — it does not change the structure of the comparison, and the stacking rule behind it is not published, so the calculator takes one number you enter, never a promise.

What about taxes?

Deliberately excluded in this version: every figure on this page is a pre-tax number, and a "with taxes" variant is a later, separately sourced page. In one sentence: in many jurisdictions mined Bitcoin and later sales are taxable events, and taxes can eat 20–40% of results — which can flip close comparisons, so do not treat these tables as your after-tax answer.

Engine self-test (runs in your browser, uses the same engine as the results)

    About this page

    This page is built and maintained by the NetPerHash project (domain registered 2026-08-28) — a one-person, non-commercial effort to make tokenized mining checkable instead of marketable. The account numbers shown here belong to the operator's own mining account and are published figure-by-figure with per-figure approval; no wallet addresses, deposit addresses or balances appear anywhere. Every pre-filled value carries its source and retrieval date inline; every formula is on the Method page; the validated model is audited month by month on the Log page.

    Affiliate status: this page contains no referral or affiliate links in this version — deliberately: it should be publishable as pure trust first. This red box is where a labeled referral disclosure will appear before any such link ever does; the project's rule is disclosure above the fold, never in the footer.

    Update log.

    [Further entries appended here with dates as sources are re-verified monthly and figures move.]

    Page state: built 2026-08-30. All numbers on this page are computed in your browser from a single calculation engine that is verified by automated tests (see self-test). Sources retrieved 2026-08-30 unless marked live.