ECO-05: the scenario register frozen before any result (R = ETC's trailing-year miner revenue USD 48.7 M from the public page's own figures, 8 October 2026, IGN 0.063 implied; the P12 worlds verbatim; the pass envelope verbatim; the competitive core declared; the sustainability rule declared; BLOCKED items named); the 5090 mapping control into the floor file (the multiply-shift term zero at the knee)

Co-Authored-By: Claude Fable 5.1 <noreply@anthropic.com>
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# ECO-05 scenario register: stress success, contraction and cheap electricity (frozen before any result)
Case ECO-05, registry row `docs/plans/igneum-2.0-test-registry.json` suite ECO, gate G4, profile P12 ("Five-year
coexistence envelope"), priority GATE, owner the economics lead and an independent reviewer, status NOT RUN at the
time of this register. Written 8 October 2026, 18:4x UK, branch `class-v6-floor-sram`, floor lane 3, on the research
lane's word of 18:3x UK under the approved Test and Acceptance Standard. **This file is frozen before any ECO-05
result is computed; the result cube (`eco-05-results.md`) cites it and changes nothing in it. Unknown inputs are
BLOCKED, never guessed; nothing is weakened to pass.** The model is the coexistence model
(`docs/analysis/class-v6/coexistence-model.md`), its reference population (`reference-population.md`) and the
profitability surface (`floor/sram-and-floor.md` section 4.4); every row of those is modelled unless labelled measured.
The founder is not named.
## 1. The sourced revenue reference R
| Item | Value | Source and date | Label |
|---|---|---|---|
| The reference chain | Ethereum Classic (ETC): a public GPU-mined chain (Etchash, GPU and ASIC mined, the GPU share not published; the standard's default when no better source exists) | | the standard's default |
| ETC block reward | 2.5600 ETC per block | miningboard.com, https://miningboard.com/mining/ethereum-classic/halving, read 8 October 2026 (the page's data "15 minutes ago" at 18:3x UK); the page states a constant reward with no halving schedule, which conflicts with ETC's published 5M20 reduction schedule (a 20 percent cut every 5,000,000 blocks); the page's figure is carried as read and the conflict is a limitation | claimed (the page) |
| Block time | 13.0 s | the same page | claimed |
| ETC price | USD 7.83 (down 6.45 percent in 24 hours) | the same page, the same reading | claimed, point in time |
| Network hashrate | 143.42 TH/s | the same page | claimed |
| Blocks a year | 31,557,600 / 13.0 = 2,427,508 | arithmetic | modelled |
| ETC minted a year | 2,427,508 x 2.56 = 6,214,420 ETC | arithmetic | modelled |
| **R, the trailing-year miner revenue** | **USD 48.7 M a year** (6,214,420 x 7.83); USD 133,000 a day | arithmetic on the page's figures | modelled |
| R's range | USD 40 M to 55 M a year on the year's price range (USD 6.51 in August 2026 to 8.84 in May 2026, the same site's monthly pages via the search summary of 8 October 2026) | the search summary; a point-in-time price times a year's emission is not a trailing sum, which is a limitation | approximate |
| The IGN price that the spec's year-1 emission implies for R | 0.77 B IGN to miners in year 1 (3,168,808,781 base units per DAA second, 10^8 per IGN, 80 percent to miners, the 30-day ramp): **USD 0.063 per IGN** at R; 0.016 at 0.25R, 0.25 at 4R, 0.63 at 10R | the spec's constant; arithmetic | modelled; never an assumed appreciation |
| The rejected alternative | Kaspa: ASIC-mined since 2023 (not a GPU reference); its public page read the same way (https://miningboard.com/mining/kaspa/halving, 8 October 2026: 93 KAS per 1.0 s block, USD 0.04, 340 PH/s) gives USD 117 M a year, carried here only as a cross-check of R's order of magnitude | claimed; rejected as a GPU reference |
## 2. The mandatory worlds (the standard's P12 list, verbatim as axes)
| Axis | Values | Note |
|---|---|---|
| Revenue | 0.25R, R, 4R, 10R (USD 12.2 M, 48.7 M, 195 M, 487 M a year of miner revenue; IGN 0.016, 0.063, 0.25, 0.63) | the year-1 emission; the halvings in later years are the five-year run's, not this grid's |
| Electricity | USD 0.03, 0.10, 0.25, 0.40 per kWh | the GPU side's tariff; the matched-tariff test puts the specialist at the same tariff; the heterogeneous test (section 4) puts the specialist at 0.03 against each GPU tariff |
| Productive life | 1, 3, 5 years | the specialist's; the GPU entrant's horizon is 2 years with resale as the reference population's method |
| Development cost | zero (sunk, the mandatory case), USD 20 M, USD 75 M | amortised over the specialist's fleet and life; the fleet is a third of the world's GPU-equilibrium hash (declared here; the whole-chain case is reported beside it as an adversarial combination) |
| Business model | private mining (the operator self-mining at the unit ticket), hardware sales (the buyer pays twice the hardware term; the manufacturer's half) | |
| External proving demand | none, normal (USD 2,000 a day at the base fee, spec 05's launch grid, 90 percent to provers), spiking (x10) | a second income for the GPU cohort's proving-capable classes (16 GB and up; the 12 GB tier a measured zero), none for any hash engine |
| Grid size | 4 x 4 x 3 x 3 x 2 x 3 = 864 worlds per specialist | |
## 3. The specialists and the honest cohort
| Side | Rows | Energy and ticket | Label |
|---|---|---|---|
| Specialist 1 | the N2 SRAM die with the shadow core | 2.3x per joule vs the 5090 at its lock node-for-node (3.1x a node ahead), the reconciled unit ticket USD 1.0 per MH/s with the band 0.5 to 1.6 as adversarial ends | modelled (the adversary lane's reconciled rows; the chip model's energy) |
| Specialist 2 | the stored-half hybrid board | 1.93x, USD 2.80 per MH/s | modelled |
| Specialist 3 | the complete GDDR7 machine | 1.5x, USD 4.84 per MH/s | modelled |
| The honest cohort | the reference population's 19 classes (block 1 the plan's eight, block 2 the eleven others), each as the existing owner and the new entrant at MSRP (the matched-tariff new-entry test) and at street | measured where the population says so, modelled knees elsewhere | per cell |
| The competitive core | RTX 5090, RTX 5080, RTX 4090, RTX 3090, RX 9070 XT, RX 7600 8 GB, Intel Arc B580: seven configurations across three advertised vendors and five discrete generations (Blackwell, Ada, Ampere, RDNA 4, RDNA 3, Xe2) | declared before any result | the standard's P02 asks at least six across every advertised vendor and two generations |
| The entry cohort | the 19 classes weighted by the reference population's installed-base counts (approximate) | | |
## 4. The measure and the pass envelope (verbatim)
- Cost per accepted MH/s-hour as the reference population defines it (annualised hardware plus power plus hosting,
failures and fees, over 97 percent accepted work; the specialist with farm hosting USD 0.02 per kWh on top and its
development cost amortised as section 2 says).
- The cell ratio: the GPU new entrant's total cost per accepted work at MSRP over the specialist's total cost per
accepted work, at the SAME tariff (matched tariff). The heterogeneous-tariff cells (the specialist at 0.03 against
each GPU tariff) are published beside them and are not the envelope's test.
- **The pass envelope, in every mandatory sustainable world: the matched-tariff median over the cohort at most 1.5;
the 90th percentile at most 1.75; no competitive-core cell above 2.0.** Published for every cell.
- Sustainable worlds (declared before running, section 5): a world has enough funded demand for rational ongoing
service when, at the GPU side's own equilibrium (revenue per MH/s-hour set by the per-class supply curve with the
installed base as the cap), at least three purchasable GPU configurations across at least two advertised vendors
have positive modelled new-entry economics at MSRP, and at least 75 percent of the entry cohort by installed count
has positive marginal operating economics (owner cost below revenue per accepted unit). Worlds that fail that test
are collapse worlds and are retained as explicit safety and exit tests, never as profitable successes.
- Not imposed anywhere: GPU market share, specialist production limits, token appreciation, full research-cost
recovery, automatic chip death. The 180-day rotation enters only as the 1-year life's reason, not as a death.
## 5. The declaration of sustainable worlds, before running
By the rule in section 4, read off the reference population's owner and entrant rows at each tariff and the
per-class equilibrium (the coexistence model's section 9 rule), without any specialist present:
| Revenue | 0.03 | 0.10 | 0.25 | 0.40 |
|---|---|---|---|---|
| 0.25R (USD 12.2 M a year) | to be read by the driver and published; expected collapse (the equilibrium hash under 2 TH/s, fewer than three classes with positive entry) | the same | collapse expected | collapse expected |
| R (48.7 M) | sustainable expected | sustainable expected | to be read | collapse expected |
| 4R (195 M) | sustainable expected | sustainable expected | sustainable expected | to be read |
| 10R (487 M) | sustainable expected | sustainable expected | sustainable expected | sustainable expected |
The driver reads every cell and publishes the declaration as found; an expectation above that the driver contradicts
is reported as such, not revised. The sustainability test is applied with no specialist present (the GPU side's own
economics), so that a world is not declared unsustainable because a specialist exists.
## 6. The adversarial combinations (the independent reviewer may add; none removed)
1. The die at the band's cheap end (USD 0.5 per MH/s) and a node ahead (3.1x), with development zero and private
mining, at the GPU's dearest tariff (0.40) and the specialist's cheapest (0.03): the heterogeneous worst case.
2. The die taking the whole chain (development amortised over 100 percent of the equilibrium hash) rather than a third.
3. Hardware sales at zero development: the manufacturer's half with no project to recover.
4. The GPU entrant at street rather than MSRP (the market's price, not the list).
5. A GPU generation at 1.5x per joule at the same price (the coexistence model's year-3 step) against the specialist a
node ahead.
6. The spiking proving demand credited to the GPU side at the measured 5.5 percent proving efficiency rather than the
assumed 0.5.
## 7. Outputs the results file must carry
The full cube (every cell: world, specialist, median, p90, max core cell, the three envelope verdicts, the
sustainability verdict and its two counts), boundary tables (the tariff and revenue at which each specialist crosses
1.5, 1.75 and 2.0), a failed-world explanation per failing cell (which cohort classes carry the median, which core
cell breaks 2.0 and by what term, hardware or power), the adversarial combinations beside the grid, and the model's
uncertainty (the die's ticket band, the modelled knees, the approximate prices) stated as a range on the median.
## 8. What is BLOCKED
- The ETC page's "no halving schedule" against ETC's published 5M20 schedule: R is carried at the page's reward and
flagged; a second explorer read would settle it and is owed before G4.
- The GPU share of ETC's hashrate (Etchash is ASIC-mined in part): unknown; R is the chain's whole miner revenue.
- The Arc B580's watts (estimated, about 110 W) and the RX 7600's knee (estimated by the 9070 XT's grid): those two
core cells carry an estimated energy and are published with that label; the Intel lane's meter and the 7600's own
grid replace them.
- No chip has been measured; every specialist row is modelled on the chip model's method and the adversary lane's
placed rows.

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15.46 / 15.34 / 15.35 MH/s at 1 / 2 / 4 / 5.5 GiB (-1.9 / -2.6 / -2.5 percent), fingerprints equal to the 5090's at
every size. The 8 GB tier pays under 3 percent of rate for the 5.5 GiB step where the locked 5090 pays 15: a 16-CU
card is latency-bound by its own lane count at every size and the footprint never reaches its limit; with the rate
flat its energy per hash moves with its watts alone (113 W at stock, today's card-in reading, approximate).** So the
flat its energy per hash moves with its watts alone (113 W at stock, today's card-in reading, approximate).** **The mapping control landed (PC 1, the same program byte for byte, 18:3x UK): at the 1,300 MHz lock the 4 GiB
mask path reads 1.780 microjoules and the 4 GiB multiply-shift path (2^30 minus 2^16 words) 1.782, +0.1 percent, so
the mapping term is zero at the knee and the dataset size is the whole cost; against this card's 1 GiB rows (lock
1.593, stock 2.248) the 4 GiB step is +11.7 percent at the knee and +0.7 at stock, the 5.5 GiB step +13.4 and
+4.3. Under the standard's P03 (no more than 5 percent of joules per accepted work against the paired tuned
baseline) no step past 1 GiB passes at the knee on a 5090; the decision is the research lane's.** So the
v6 epoch's 5.5 GiB floor holds the 8 GB tier in fact (section 3.2's worst-case "OUT" rested on the 75 percent rule
with the cache resident; the measured allocation is 82 percent of the card with the cache freed, and the card mines
at 97 percent of its 1 GiB rate), against the chip's ticket rising