Blockchains / Tezos
XTZ

Tezos

XTZ

Self-amending blockchain with on-chain governance and formal verification

Layer 1 self-amendinggovernanceformal-verification
Launched
2018
Founder
Arthur Breitman, Kathleen Breitman
Website
tezos.com
Primitives
2

Introduction to Tezos

Tezos pioneered the concept of self-amending blockchains—protocols that can upgrade themselves through on-chain governance without hard forks. Launched in 2018 after one of the largest ICOs in cryptocurrency history ($232 million), Tezos introduced innovations in governance and formal verification that influenced the broader blockchain space.

Founded by Arthur and Kathleen Breitman, Tezos was designed to avoid the governance disputes that plagued other chains (like Ethereum’s DAO fork and Bitcoin’s scaling debates). The protocol allows stakeholders to vote on upgrades, with successful proposals automatically implemented—a process that has enabled numerous upgrades without chain splits.

The Self-Amending Innovation

The Problem with Hard Forks

Traditional upgrade challenges:

  • Community splits
  • Contentious debates
  • Development paralysis
  • Chain fragmentation

Tezos Solution

On-chain governance:

  • Stakeholders propose upgrades
  • Voting determines acceptance
  • Automatic implementation
  • No fork required

Proven Track Record

Successful upgrades:

  • 15+ protocol upgrades completed
  • No contentious forks
  • Regular improvements
  • Community consensus achieved

How Tezos Works

Liquid Proof of Stake

Consensus mechanism:

  • Proof of Stake variant
  • “Bakers” validate blocks
  • Delegation supported
  • Lower barriers than competitors

Smart Contract Languages

Multiple options:

  • Michelson: Stack-based, formal verification
  • SmartPy: Python syntax
  • LIGO: Multiple syntax options
  • Archetype: Domain-specific

Formal Verification

Mathematical proofs:

  • Prove contract correctness
  • Critical for high-value applications
  • Security guarantees
  • Academic foundation

Technical Specifications

MetricValue
Block Time~15 seconds
ConsensusLiquid Proof of Stake
LanguagesMichelson, SmartPy, LIGO
Validators400+ bakers
Upgrades15+ completed
Min Stake6,000 XTZ to bake

On-Chain Governance

Amendment Process

Four-phase voting:

  1. Proposal: Submit upgrade proposals
  2. Exploration: Initial community vote
  3. Cooldown: Testing period
  4. Promotion: Final approval vote

Voting Mechanics

How participation works:

  • One XTZ = one vote
  • Delegation transfers voting power
  • Supermajority required (80%)
  • Quorum requirements

Governance History

Notable upgrades:

  • Athens: First upgrade (2019)
  • Babylon: Consensus improvements
  • Granada: Performance optimizations
  • Oxford: Recent enhancements

The XTZ Token

Utility

XTZ serves multiple purposes:

  • Baking: Block production stake
  • Governance: Voting power
  • Transaction Fees: Network usage
  • Delegation: Earn rewards

Staking Economics

Participation rewards:

  • ~5-6% annual rewards
  • Delegation available
  • Low minimum for delegation
  • No lockup for delegators

Tokenomics

Supply dynamics:

  • Initial supply from ICO
  • Inflationary rewards (~5%)
  • No maximum supply
  • Block rewards to bakers

Ecosystem Development

DeFi Protocols

Financial applications:

  • Plenty: DEX
  • Youves: Synthetic assets
  • Kolibri: Stablecoin
  • Temple: Wallet with DeFi

NFT and Art

Cultural adoption:

  • Teia: Community marketplace
  • objkt.com: NFT platform
  • fx(hash): Generative art
  • Art collector community

Enterprise

Business adoption:

  • Ubisoft gaming
  • Société Générale tokenization
  • Red Bull racing NFTs
  • Various enterprise pilots

Formal Verification Focus

Why It Matters

High-stakes applications:

  • Financial contracts
  • Token issuance
  • Critical infrastructure
  • Regulatory compliance

Academic Foundation

Research backing:

  • Inria collaboration
  • Nomadic Labs development
  • Peer-reviewed research
  • Academic credentials

Practical Applications

Real-world usage:

  • Financial auditing
  • Security-critical contracts
  • Institutional requirements
  • Compliance needs

Competition and Positioning

vs. Other L1s

ChainGovernanceUpgrade MethodFocus
TezosOn-chainSelf-amendingGovernance
EthereumOff-chainHard forksGeneral
CardanoVoltaire (coming)Hard forksResearch
PolkadotOn-chainForklessInterop

Differentiation

Key advantages:

  • Proven upgrade mechanism
  • Formal verification
  • Strong governance
  • No contentious forks

Challenges

Competitive pressures:

  • Lower visibility
  • Smaller ecosystem
  • Developer competition
  • Market attention

Challenges and Criticism

Ecosystem Size

Development concerns:

  • Smaller than competitors
  • Developer attraction
  • dApp variety
  • Network effects

Foundation Governance

Off-chain concerns:

  • Tezos Foundation influence
  • Grant allocation
  • Strategic direction
  • Community vs foundation

Market Position

Visibility challenges:

  • Lower marketing spend
  • Less hype
  • Technical focus over marketing
  • Market share decline

Recent Developments

Smart Rollups

Scaling solution:

  • Layer 2 scaling
  • EVM compatibility option
  • Reduced fees
  • Higher throughput

Mumbai/Oxford Upgrades

Recent improvements:

  • Performance enhancements
  • Feature additions
  • Developer experience
  • Protocol optimizations

Ecosystem Growth

Adoption metrics:

  • Continued baker participation
  • NFT platform activity
  • Enterprise deployments
  • Developer programs

Future Roadmap

Development priorities:

  • Scaling: Smart Rollups expansion
  • EVM: Compatibility improvements
  • Performance: Protocol optimizations
  • Adoption: Enterprise and consumer
  • Governance: Continued evolution

Conclusion

Tezos demonstrates that on-chain governance can work in practice, having completed numerous protocol upgrades without contentious forks. The formal verification capabilities provide unique advantages for security-critical applications.

The challenge lies in competing for developer attention and ecosystem growth against larger, more visible platforms. The technical foundation is solid, but network effects favor established ecosystems.

For applications requiring governance certainty and formal verification—particularly institutional and high-value use cases—Tezos provides unique capabilities. Its long-term success depends on translating technical advantages into ecosystem growth and mainstream adoption.