Can a non-custodial Temporal Hedging architecture take on meaningful PayBack obligations, pay only from earned inflows, and use buffers to carry timing gaps through bear markets, hacks, and crashes? ARC is built for delayed, deferred, and retrospective PayBack: timing is visible, obligations stay recorded, and unfunded paper gains are not treated as distributable cash. These backtest summaries cover 21 assets and multi-year windows, including both passing and fragile outcomes.
Temporal Hedging: PayBack from earned inflows only — delayed and retrospective by design. Multi-year backtests across 21 assets: pass and fragile.
Historical stress simulation for discussion · neither live performance nor a product offer · payment timing is not guaranteed. Metric definitions live on Methodology.
It is a universal defense ratio, not a return. The numerator is the combined CB, every RB segment, and EB; one-way EEB is excluded. On each engine day, Defense Demand is the worst observed 30-day sum through that day of withdrawal principal requested plus the vested OFL attributable to those same requests. Requested—not merely paid—principal keeps any unfilled demand visible, while unvested floor is excluded because it is forfeited on ordinary premature withdrawal. The reported value is the 365-day moving average of daily B/D.
A large value reflects dynamic buffer capacity relative to observed defense pressure. ARC reviews 1.20x as a conservative floor, not a desired ceiling or an automatic export trigger. The aggregate stack remains usable protection: during extreme stress, eligible buffers can cross-support withdrawals and due PayBack instead of allowing an isolated bucket shortage to manufacture a shortfall or deferral. B/D itself does not close admission; eligible payment deferral does, while individual paired admissions remain subject to SGR.
Scan the first-class protocol metrics — then open any asset for the full backtest path, charts, and scorecard. 11/21 systems meet all three universal core bars in a mature window (0 fragile).
BTC is resilient over 2,029d of continuous history.
Window: 2,029d · +123.2% · sample · asset price over window
ETH is resilient over 2,029d of continuous history.
Window: 2,029d · +162.7% · sample · asset price over window
LINK is resilient over 2,029d of continuous history.
Window: 2,029d · -27.6% · sample · asset price over window
NVDA is resilient over 2,028d of continuous history.
Window: 2,028d · +1,486.0% · sample · asset price over window
AAPL is resilient over 2,028d of continuous history.
Window: 2,028d · +148.5% · sample · asset price over window
GOOGL is resilient over 2,028d of continuous history.
Window: 2,028d · +297.6% · sample · asset price over window
META is resilient over 2,028d of continuous history.
Window: 2,028d · +136.6% · sample · asset price over window
MSFT is resilient over 2,028d of continuous history.
Window: 2,028d · +79.8% · sample · asset price over window
TSLA is resilient over 2,028d of continuous history.
Window: 2,028d · +59.7% · sample · asset price over window
AAVE is resilient over 1,664d of continuous history.
Window: 1,664d · -63.6% · sample · asset price over window
PENDLE is bootstrapping over 683d; the window is shorter than the two-year resilience bar.
Window: 683d · -42.6% · sample · asset price over window
UNI is resilient over 1,494d of continuous history.
Window: 1,494d · -12.1% · sample · asset price over window
ARB is bootstrapping over 626d; the window is shorter than the two-year resilience bar.
Window: 626d · -81.1% · sample · asset price over window
LDO is qualified over 1,011d: two of three core bars clear; the remaining bar still needs review.
Window: 1,011d · -75.4% · sample · asset price over window
RAIL is pre-maturity over 102d; mature ARCI obligations are not in-window.
Window: 102d · +84.2% · sample · asset price over window
ZK is bootstrapping over 458d; the window is shorter than the two-year resilience bar.
Window: 458d · -81.6% · sample · asset price over window
ENA is bootstrapping over 683d; the window is shorter than the two-year resilience bar.
Window: 683d · -59.8% · sample · asset price over window
ONDO is bootstrapping over 683d; the window is shorter than the two-year resilience bar.
Window: 683d · -29.8% · sample · asset price over window
STRK is bootstrapping over 627d; the window is shorter than the two-year resilience bar.
Window: 627d · -91.6% · sample · asset price over window
TAO is bootstrapping over 683d; the window is shorter than the two-year resilience bar.
Window: 683d · -18.9% · sample · asset price over window
VIRTUAL is pre-maturity over 284d; mature ARCI obligations are not in-window.
Window: 284d · -16.7% · sample · asset price over window
Try adjusting your search or filter criteria.
Relative judgment across assets. Highlighted Class F rows mark VMR outliers (strongest recovery vs weakest). A high realized PayBack rate with weak coverage or Fragile status is a contradiction — open Inspect to see why. Sort/filter controls above apply to both Scan and Compare.
| Asset | Seasoned PayBack / yr | B/D Ratio Buffer / Defense |
Total PayBack | VMR (Class F) | Throughput | Gate open | Asset window | Class |
|---|---|---|---|---|---|---|---|---|
| BTC
Class A · Resilient · 2,029d |
12.07% | 2.48x | $1.37B | — | 1,486% | 100.0% | +123.2% | Class A |
| ETH
Class A · Resilient · 2,029d |
14.44% | 5.45x | $1.11B | — | 1,018% | 100.0% | +162.7% | Class A |
| LINK
Class F · Resilient · 2,029d |
13.86% | 11.96x | $566.9M | 146% | 742% | 100.0% | -27.6% | Class F |
| NVDA
Class A · Resilient · 2,028d |
14.25% | 9.10x | $707.6M | — | 993% | 100.0% | +1,486.0% | Class A |
| AAPL
Class A · Resilient · 2,028d |
11.34% | 12.90x | $361.5M | — | 767% | 100.0% | +148.5% | Class A |
| GOOGL
Class A · Resilient · 2,028d |
13.08% | 9.90x | $452.8M | — | 1,017% | 100.0% | +297.6% | Class A |
| META
Class A · Resilient · 2,028d |
13.64% | 7.39x | $1.27B | — | 948% | 100.0% | +136.6% | Class A |
| MSFT
Class A · Resilient · 2,028d |
14.23% | 15.39x | $489.5M | — | 440% | 100.0% | +79.8% | Class A |
| TSLA
Class A · Resilient · 2,028d |
13.90% | 4.96x | $961.1M | — | 886% | 100.0% | +59.7% | Class A |
| AAVE
Class F · Resilient · 1,664d |
12.01% | 10.66x | $187.2M | 125% | 791% | 100.0% | -63.6% | Class F |
| PENDLE
Class F · Bootstrapping · 683d |
0.00% | 8.25x | $1.1M | 72% | 342% | 100.0% | -42.6% | Class F |
| UNI
Class F · Resilient · 1,494d |
11.51% | 14.18x | $110.4M | 105% | 629% | 100.0% | -12.1% | Class F |
| ARB
Class F · Bootstrapping · 626d |
0.00% | 4.96x | $976.7K | 60% | 216% | 100.0% | -81.1% | Class F |
| LDO
Class F · Qualified · 1,011d |
9.23% | 5.84x | $2.4M | 68% | 401% | 100.0% | -75.4% | Class F |
| RAIL
Class F · Pre-Maturity · 102d |
0.00% | 570.45x | $6.3K | 285% | 117% | 100.0% | +84.2% | Class F |
| ZK
Class F · Bootstrapping · 458d |
0.00% | 4.87x | $369.1K | 56% | 158% | 100.0% | -81.6% | Class F |
| ENA
Class F · Bootstrapping · 683d |
0.00% | 8.00x | $1.2M | 96% | 326% | 100.0% | -59.8% | Class F |
| ONDO
Class F · Bootstrapping · 683d |
0.00% | 3.87x | $1.1M | 52% | 278% | 100.0% | -29.8% | Class F |
| STRK
Class F · Bootstrapping · 627d |
0.00% | 5.82x | $887.5K | 60% | 397% | 100.0% | -91.6% | Class F |
| TAO
Class F · Bootstrapping · 683d |
0.00% | 7.02x | $1.1M | 70% | 342% | 100.0% | -18.9% | Class F |
| VIRTUAL
Class F · Pre-Maturity · 284d |
0.00% | 4.29x | $9.7K | 63% | 166% | 100.0% | -16.7% | Class F |
Hack impact, bear panics, and full buffer stacks live on each Inspect page and internal canvas.
These windows pair a severe asset decline with material PayBack distribution. They demonstrate the mechanism on those paths, not future resilience.
A single endpoint cannot explain how obligations, buffers, and reserve values behaved along the way.
Buffers separate when value is earned from when it is distributed. PayBack is retrospective by design, so deferral is a transparent timing state, not automatically a defect. Judge whether the buffers carry obligations across regimes and whether deferred PayBack is later executed.
Qualifying milestones and Supercharge activity come from path movement, not a smooth upward line. Productive volatility can create earned inflows even when the asset finishes lower. That mechanism does not guarantee price recovery or make structural deterioration useful.
A sample under two years cannot establish durability across mature obligations and multiple regimes. Early strength is evidence to continue testing, not a production-grade conclusion.
Operational success does not automatically justify continued integration. Every asset still needs current fundamental review and an explicit decision to stay, resize, pause, or exit.
The long-horizon asset thesis endured. Each business model exposed a different incentive problem.
HFT, fund management, and DeFi used different technology, but each could still reward activity more reliably than customer outcomes. ARC starts with a different constraint: distributions must come from value the system has already earned.
Too many financial products still earn from churn, fees, liquidation, counterparties, or an information advantage over the people using them.
In July 2016, after becoming an early BTC and ETH holder, I wrote that Bitcoin could become the strongest long-term asset class. Prices moved, cycles came and went, and the industry ran through “better Layer 1” narratives, ICO mania, hedge funds, and DeFi. The long-term ownership thesis did not change. My path did: from HFT, to a crypto hedge fund, to a DeFi platform. Untrading ARC is what came next: protocol rules that separate system revenue from customer trading volume and require every distribution to be funded before it is released.
Read the original July 2016 post ↗Direct answers to the questions most likely to be obscured by familiar finance labels.
No. ARC uses smart contracts, but it is not an exchange, a pooled discretionary fund, or a conventional DeFi yield product. It coordinates ARCA appreciation-asset reserves, ARCI stable or integration-asset reserves, PayBack obligations, and buffers under explicit protocol rules.
No. It means the model is not designed around one user losing for another user, or Untrading, to win. Market prices can fall, PayBack can be deferred, and smart contracts, liquidity, and external markets carry risk. ARC changes the customer relationship; it does not remove financial or technical risk.
Their accounting remains separate, but their roles are complementary. Stable capital supports the growth side's milestone-realization process without requiring constant spot liquidation. Except for limited CB and restricted RB support during bootstrapping or deep recovery, buffer defense and eligible PayBack must be funded by Earned Inflow. Stable capital supports the mechanism; the growth engine must earn the cash that replenishes buffers and settles obligations.
A qualified user can participate through Earned Unpaired Access (EUA). In the intended production design, an atomic swap transfers market-value stable assets to the participant while the deposited growth asset becomes protocol-owned ARCA. The participant can use those stables independently, including to reacquire the growth asset in personal custody, while retaining the contract-defined Future Rewards overlay. Qualification and limits are enforced by the contract.
No. The contract rules and their payout math can be deterministic; the market is not. ARC can define milestone calculations and the corresponding payout math in advance, but it cannot guarantee that an asset appreciates or that a qualifying milestone occurs. Future Rewards and PayBack are settled retrospectively only from value the system has actually earned.
Settlement waits. That is central to Temporal Hedging: the PayBack obligation remains recorded, but the protocol does not treat unfunded paper gains as distributable cash. Delayed, deferred, and retrospective PayBack are reported as explicit timing states, then judged alongside earned inflows, B/D coverage, and eventual execution.
They show how the stated rules behaved on specific historical price paths and configured stress events. They can expose weak buffer coverage, deferred obligations, and path dependence. They cannot establish future returns, live execution quality, or safety under market regimes that were not tested.
ARCI users and partners hold the stable-side claim relationship defined by the contract and are serviced only from Earned Inflow. EUA is separate: after the atomic swap, the participant holds the transferred stable assets, the delivered growth asset becomes protocol-owned ARCA, and no participant principal or withdrawal claim remains. The contract instead owes the defined Future Reward share if later milestones qualify. Untrading charges no trading commission and receives only a contract-defined fraction of success earned by protocol operations. Network, contract, liquidity, and third-party costs still apply.
This site publishes backtests of ARC's Temporal Hedging architecture. It is not live performance, a product offer, or a guarantee of future results.
Stress tests are most useful when they expose where the plan fails, not only where it holds.
