Economic Model

Economics

A sovereign economic engine that prices compute, bandwidth, and quantum-resistant ledger space through Usage-Based Dynamic Issuance and NPU-centric resource markets.

Sovereign Economic Engine

The Po8 Network treats its native asset as a resource credit backed by three scarce commodities: NPU inference, Mixnet bandwidth, and quantum-resistant ledger space. The monetary policy—Usage-Based Dynamic Issuance (UBDI)—links token supply directly to how much of these resources users actually consume.

Design Goals

  • Sustainability via usage-based issuance rather than fixed inflation
  • Hardware egalitarianism that favors consumer NPUs over industrial data centers
  • Privacy as a funded public good via Mixnet and dVPN rewards
  • Quantum-resistant store of value for long-lived financial data

From Speculation to Utility

Legacy L1s rely on speculative scarcity or capital-weighted staking. Po8 anchors value in the real cost of silicon, electricity, and bandwidth—turning the token into a claim on useful work instead of a purely reflexive financial asset.

Layer-1 Economic Archetypes

The UBDI model is informed by the successes and failures of previous Layer-1 designs.

Feature Bitcoin Ethereum Solana Helium Po8
Supply Policy Fixed Cap Burn / Mint High Inflation Max Supply, Burn-Mint Usage-Based Dynamic Issuance
Consensus Cost Energy (PoW) Capital (PoS) Bandwidth + Hardware Radio Hardware Useful Work: Inference + Transport
Hardware Target Industrial ASICs Capital-Rich Validators Data Center Servers Commodity LoRaWAN Consumer NPUs (Apple, Kneron)
Value Capture Fees → Miners Fees → Burn Inflation → Stakers Usage → Burn Fees Burned + Utility Paid to Nodes
Privacy Cost External Mixers External Mixers None None Protocol-Level Incentives

Usage-Based Dynamic Issuance (UBDI)

Instead of a fixed emission curve, Po8 adjusts issuance based on how much compute and bandwidth users actually buy. Supply expands only to bootstrap underutilized capacity and contracts as organic fee revenue grows.

ΔS_t = I_t − B_t
I_t = I_base × (1 + K_p e(t) + K_i ∫ e(t) dt + K_d d/dt e(t))

e(t) = U_target − U_actual, where utilization measures purchased NPU cycles and Mixnet bandwidth.

Issuance Side

  • I_base maintains validator liveness and minimum Mixnet cover traffic
  • If utilization is low, issuance increases to subsidize idle but necessary capacity
  • If utilization is high, issuance decays toward zero and fees dominate miner income

Burn Side

  • 100% of base ledger fees are burned to price PQC-heavy block space
  • A protocol take rate from inference fees (β) is burned to tie value to AI demand
  • A smaller take from transport fees (γ) is burned to link token value to bandwidth usage

Hardware Egalitarianism & Stake Saturation

TensorChain deliberately targets the Batch-1 Efficiency Gap where industrial GPUs are weakest and consumer NPUs are strongest. The economics make scale an enemy rather than an advantage for centralized operators.

Batch-1 Advantage

Industrial GPUs like the H100 waste energy at batch size one due to kernel launch latency and PCIe overhead, while Apple Silicon saturates unified memory with low idle power. The protocol sets difficulty so industrial miners operate at a loss.

Stake Saturation

Rewards grow with stake only up to S_max = TotalSupply ÷ K. Capital beyond that earns zero marginal return, forcing large holders to back many physically distinct validators rather than a few super-nodes.

Physical Sybil Resistance

Because rewards depend on real NPU throughput and network position, duplicating virtual identities without buying more hardware does not increase income. Decentralization is enforced by silicon and bandwidth, not just social norms.

Compute, Bandwidth, and Ledger Space

InferNet Compute Marketplace

InferNet turns INT8-quantized inference into a fungible commodity. Deterministic outputs mean a “Llama-3-8B token” is identical regardless of where it was computed. Miners post bonds, and optimistic fraud proofs with jackpot rewards keep them honest.

Mixnet & dVPN Bandwidth

The Mixnet and dVPN layers borrow from Orchid-style probabilistic nanopayments. Users attach lottery tickets to packets; only winning tickets settle on-chain, giving nodes statistically correct revenue while keeping the ledger uncongested.

Quantum-Resistant Ledger Space

ML-DSA signatures are ~50× larger than Ed25519. Po8 uses segregated witness blobs and a value-density mempool policy so that high-value, high-density transfers out-compete spam, while privacy-preserving transactions can pay a surcharge for anonymity.

Dual-Piston Token Flows

The Po8 economy runs on two opposing but coupled forces—burning tokens for quantum-resistant ledger usage while minting tokens to pay edge nodes for useful work.

Piston A: Ledger Burn

  • Users buy PO8 to pay for private transactions and bridge value into quantum safety
  • Base fees for block space are fully burned, tightening supply as demand rises
  • In high-demand scenarios (HNDL panic), issuance falls toward zero while burn surges

Piston B: Infrastructure Rewards

  • Edge miners earn PO8 for TensorChain, InferNet tasks, and Mixnet relay work
  • A portion of rewards flows into a research treasury funding crypto-agility and audits
  • Long-term, organic demand for compute and privacy creates a floor for token value

Explore the Full Model

Read the detailed economics specification and see how UBDI interacts with consensus, privacy, and hardware.