Economics
A self-regulating monetary system with interlocking incentives for miners, stakers, and transactors.
Design Goals
Shekyl's monetary policy is designed to satisfy six constraints simultaneously:
Usability-first denomination
Everyday users should rarely handle very long decimals. Wallet defaults feel natural for normal payment amounts.
Long-run security budget
Consensus participants retain robust incentives after early issuance declines. No brittle fee-only end state.
Predictability and credibility
The emission schedule is simple to reason about and does not require frequent governance intervention.
Implementation safety
Supply and atomic-unit arithmetic remain safe under uint64 accounting with no overflow-prone combinations.
Demand-responsive emission
Coin release rate reflects real network usage. High activity accelerates emission; low activity conserves supply.
Self-regulating balance
Miners, stakers, and transactors form interlocking constituencies that self-stabilize without manual governance.
Core Parameters
| Parameter | Value |
|---|---|
| Headline supply | 2³² whole SHEKYL (≈ 4.29 billion) |
| Atomic precision | 9 decimals |
| Display precision | 6 decimals (default) |
| Block time target | 2 minutes |
| Blocks per year | 262,800 |
| Emission speed factor | 22 (CryptoNote geometric decay) |
| Tail emission | Bounded non-zero floor per block |
The large unit count (4.29 billion whole coins) avoids “satoshi-style” UX pain — users work with whole numbers for normal transactions rather than unwieldy decimal fractions.
The Four-Component Economic Model
Four interlocking mechanisms operate on a single fixed supply constraint. Together they create a self-regulating economy.
#1Transaction-Responsive Release Rate
Transaction volume controls how quickly the CryptoNote emission curve releases coins from the fixed 2³² supply. This does not create additional coins — it adjusts the timeline of the predetermined emission schedule. High on-chain activity pulls emission forward; quiet periods slow it down.
#2Adaptive Fee Burn
A portion of transaction fees is permanently destroyed, creating sustained deflationary pressure that counterbalances new emission. The burn fraction adjusts dynamically based on network conditions, ensuring fees remain reasonable during low traffic while providing meaningful deflation during high demand.
#3Staker Governance of Burn Rate
Stakers — who lock coins as an economic commitment to the network — vote on the fee burn percentage. This creates a natural feedback loop: stakers benefit from scarcity (higher burn) but also need the network to remain usable (lower fees). Their economic skin in the game produces balanced governance.
#4Staker Emission Share
A fraction of each block reward is directed to the staking pool rather than only to miners. This ensures stakers have ongoing income for their security commitment, and gives miners and stakers complementary rather than competing interests in network health.
Self-Regulating Design
These four components are designed to reach equilibrium without manual intervention. Miners secure the network, stakers govern deflationary parameters, transactors generate demand signals, and the protocol responds automatically. No governance votes or hard-coded thresholds need updating — the system adapts to changing conditions on its own.