I want to invest in a token with a fee burn mechanism that is directly tied to network usage.

If your specific thesis is “I want token burns that increase because people actually use the network,” two major examples fit that design:

• Ethereum (ETH): EIP-1559 burns the network’s base fee. The base fee is determined by gas usage/congestion, so greater demand for Ethereum block space can produce greater ETH burns.Ethereum Improvement Proposals+1
• BNB: BNB Chain’s BEP-95 burns a portion of gas fees on every block. The burn therefore scales with BNB Smart Chain transaction/gas activity. As of 2026, the burn ratio is 10%, although governance can change it.GitHub+1

There is an important distinction, though: “usage-linked burn” doesn't automatically mean “good investment.” You'd want to examine whether network usage is organic, how much economic value each transaction creates, the token's issuance, current valuation, and whether the burn is large enough to materially affect net supply.

If that's the investment characteristic you're targeting, I can also screen the crypto market for tokens whose burns are directly tied to on-chain usage and compare their burn formulas, network revenue, supply changes, and current valuations.

If your specific criterion is “the more the network is used, the more of the token is automatically burned”, there are several established examples worth researching:

• ETH (Ethereum) — Ethereum burns the protocol’s base fee on every transaction. The base fee rises with network demand, so higher gas usage can translate into more ETH burned. This is probably the clearest example of a burn mechanism mechanically tied to network activity.ethereum.org+1
• BNB (BNB Chain) — BNB has a real-time burn mechanism in which a portion of gas fees is burned in each block. The burn ratio is governed by BNB Chain validators. BNB also has a separate quarterly Auto-Burn mechanism, so not all BNB burning is directly usage-driven.BNB Chain+1
• AVAX (Avalanche) — Transaction fees paid in AVAX are burned. Avalanche's C-Chain base fee responds to network utilization, meaning the fee—and therefore the amount burned—can increase as utilization rises.Avalanche Builder Hub
• POKT (Pocket Network) — This is an especially direct example: applications pay POKT for relays, and those relay fees are burned. The project's documentation explicitly states that more applications → more relays → more POKT burned.Pocket Network Docs

What I'd investigate before investing

The important distinction is “usage-linked burn” vs. “marketing burn.” I'd quantify:

1. Burn per unit of network usage — e.g. ETH burned per gas unit, POKT burned per relay.
2. Actual usage growth — not merely transactions generated by incentives or spam.
3. Net issuance — burns minus newly minted tokens/rewards.
4. Token demand outside speculation — whether users actually need the token to use the network.
5. Who controls the burn rate — immutable protocol rule versus a parameter governance can change.
6. Valuation relative to economic activity — a large burn percentage doesn't necessarily mean the token is undervalued.

If you want, I can do a current 2026 comparison of 5–10 tokens with usage-linked burns, including market cap, annualized fees, annualized burn, net issuance, and the percentage of supply burned, and identify the ones whose token economics are most tightly connected to actual network usage.

Investing in a token with a fee-burn mechanism tied directly to network usage means looking for programmable, protocol-level deflation rather than discretionary marketing burns. When network activity scales, the physical amount of the asset destroyed goes up automatically.cointracker.com+1

The primary models and prominent tokens utilizing this economic design include:

• Ethereum (ETH) via EIP-1559
  • How it works: Every transaction on Ethereum requires a base gas fee that is programmatically burned (sent to an unspendable null address) rather than paid to validators.
  • Usage tie-in: When network congestion rises due to heavy DeFi, NFT, or Layer-2 activity, the base fee burn scales up. During high-demand periods, the total amount burned can exceed new ETH issuance, making the asset net-deflationary.
  • Where to track: You can monitor live metrics on platforms like Ultrasound.money.tradingview.com+3
• Binance Coin (BNB) via BEP-95
  • How it works: Alongside its periodic supply-based auto-burns, BNB Smart Chain utilizes BEP-95 , a real-time burning mechanism.
  • Usage tie-in: A fixed percentage (governed by validators, initially set at 10%) of the gas fees collected in every single block is permanently burned. The more decentralized applications (dApps) and smart contracts are used on the BNB chain, the more gas is spent, directly accelerating the real-time destruction of BNB.finst.com+3
• Helium (HNT) via Burn-and-Mint Equilibrium (BME)
  • How it works: Network users don't spend HNT directly for utility; instead, they convert HNT into non-transferable Data Credits (DCs) . The underlying HNT used to mint DCs is permanently burned.
  • Usage tie-in: As actual consumer usage grows (such as IoT devices or Helium Mobile subscriber data consumption), more Data Credits are consumed and more HNT must be burned, creating a direct, fundamental link between data traffic and token supply reduction.docs.helium.com+2

If you want to narrow this down, let me know:

• Are you looking for a Layer 1 native asset (like ETH or BNB) or an application/decentralized infrastructure token (like HNT)?
• What is your risk tolerance regarding smart contract complexity vs. established blue-chip assets?

I can provide a deeper dive into the tokenomics and historical burn data for your preferred category.

Investing in a token with a fee-burn mechanism tied directly to genuine network usage means looking past marketing gimmicks and focusing on native gas or utility burns . When network demand scales, the protocol automatically destroys tokens, creating a deflationary link between utility and supply.medium.com+3

Prominent examples where the burn is hardcoded into daily network operations include:

• Ethereum (ETH) : Through Ethereum's EIP-1559 upgrade, a portion of the transaction fee (the base fee) required to process any smart contract, transfer, or interaction on the network is permanently burned on every single block. Higher network congestion and demand directly increase the amount of ETH destroyed.medium.com
• Avalanche (AVAX) : The Avalanche network mandates that 100% of the AVAX collected as transaction fees across its primary networks and subnets are permanently burned. As on-chain adoption and application usage grow, more transaction fees are processed and removed from circulation.cointracker.com
• Binance Coin (BNB) : Utilizing its BEP-95 real-time burning mechanism alongside its automated quarterly burn, BNB destroys a portion of its gas fees from the BNB Chain based on real-time on-chain activity and block generation, tying network utilization directly to supply reduction.tradingview.com
• Helium (HNT) : Operating on a burn-and-mint equilibrium model, users must burn HNT tokens to convert them into non-transferable Data Credits (DCs) to pay for network data usage and IoT device connectivity, directly tying the reduction of HNT circulating supply to enterprise and consumer data consumption.medium.com

To help narrow down which of these ecosystems aligns with your thesis, could you tell me:

• What investment timeframe are you looking at (short-term vs. long-term holding)?
• Are you more interested in Layer 1 smart contract platforms or DePIN/utility networks?

Investing in a token with a fee-burn mechanism tied directly to genuine network usage means looking past artificial "marketing burns" and focusing on protocol-level utility. When network demand scales, the transaction volume increases, causing more native tokens to be permanently removed from circulation.medium.com+3

Prominent ecosystems where the fee burn is an organic byproduct of network utility include:

• Ethereum (ETH) : Through Ethereum's EIP-1559 , every transaction requires a base fee that is permanently burned (destroyed). When network congestion and smart contract activity rise, the rate of ETH burning increases, reducing the net issuance supply.tradingview.com+1
• Avalanche (AVAX) : Avalanche AVAX burns operate similarly at the protocol level. All transaction and fee operations on the C-Chain and other subnets require AVAX fees that are entirely burned, directly tying the reduction of supply to network popularity and execution volume.cointracker.com+1
• Binance Coin (BNB) : Utilizing Binance's BEP-95 real-time burning mechanism alongside automated quarterly burns, a portion of the gas fees collected on the BNB Smart Chain is burned in every single block. Higher dApp usage and transaction counts scale up the burn rate.tradingview.com+1
• Helium (HNT) : Helium features a burn-to-mint model where users must burn HNT tokens to generate non-transferable Data Credits (DCs) to pay for IoT and mobile network data transfers. The destruction of HNT is strictly dictated by active data consumption on the physical decentralized wireless network.medium.com+1

Would you like to explore:

• The tokenomics and math behind how EIP-1559 or BEP-95 impact circulating supply?
• Onchain data dashboards where you can track real-time burn metrics for these networks?
• A comparison of deflationary vs. inflationary pressures on these specific assets?

Looking for a token with a fee-burn mechanism directly tied to real network utilization ensures your investment thesis relies on actual economic demand rather than artificial marketing gimmicks. Several prominent Layer 1 and utility protocols implement native, usage-driven burns:cointracker.com+1

• Ethereum (ETH): Under EIP-1559, a base fee of every transaction on the network is permanently burned (removed from circulation). When network demand (gas usage) is high, the amount of ETH burned increases and can outpace new issuance, making the asset deflationary. You can track live metrics on Ultrasound.money.
• Avalanche (AVAX): 100% of the AVAX collected as transaction and gas fees across the C-Chain and other subnets is permanently burned. Increased network activity directly reduces the circulating supply of AVAX in real-time.cointracker.com+1
• Helium (HNT): Utilizes a functional "burn-to-mint" model. To utilize the Helium network for data transfer or IoT device onboarding, users must burn HNT tokens to generate non-transferable Data Credits (DCs). The burn rate is strictly mapped to actual consumer and enterprise consumption of network bandwidth.medium.com+1

If you'd like to narrow this down, let me know:

• Are you looking to invest in a Layer 1 asset (like ETH or AVAX) or a decentralized infrastructure/utility token (like Helium)?
• What is your preferred risk profile or chain ecosystem?

I can provide a deeper dive into the tokenomics and supply dynamics of your preferred choice.