Ink Chain Guide for Beginners: How to Get Started With Kraken’s Ethereum Layer 2
Kraken's Ethereum Layer 2, Ink Chain, is the subject of a beginner guide published by Gizmo Times.
Caleb North·updated August 28, 2026

The piece frames the network as an entry point for users moving onto an L2 built on Ethereum.
For a smart contract developer, the announcement is a trigger for verification, not deployment. The audit begins where the guide ends: at the bridge contract, the sequencer's failure modes, and the settlement path back to L1.
What the signal indicates
A "How to Get Started" title points to one of two states. Either mainnet is live and the guide covers wallet setup and bridging, or it previews a staged rollout. Gizmo Times does not disclose the network's current status beyond the entry-point framing. The exact stage — mainnet, testnet, or restricted access — must be confirmed against the chain's own documentation before any deployment decision. A guide is not a spec.
Pre-deployment invariants
The network's name aside, the conditions a smart contract architect must verify before deploying to any new L2 are non-negotiable.
Bridge contract source. The L1↔L2 bridge must be open-source, verified on the block explorer, and independently audited. Read the deposit and withdrawal functions directly. Identify upgradeability patterns, owner-controlled mint/burn paths, and any rate-limit logic. A bridge with a privileged minter is a single point of state mutation. That is an attack vector.
Sequencer model. Determine whether the sequencer is centralized, rotated, or decentralized. Centralized sequencers introduce censorship and liveness risk. Any contract that depends on canonical transaction ordering must model this risk explicitly, or it will fail under adversarial sequencing.
Finality. Distinguish soft finality from hard finality. Sequencer-confirmed state is not L1-settled state. Any cross-chain message or withdrawal that depends on finality must wait for L1 settlement if it is to be portable back to Ethereum mainnet.
EVM equivalence. Confirm the execution environment. A geth fork behaves differently from a custom VM. Gas accounting, opcode support, and precompile availability determine whether existing Solidity compiles and runs as expected. Differences surface as reverts at runtime, not at compile time.
Data availability. Identify how transaction data is published. Calldata-based DA scales with L1 gas. Blob-based DA, via EIP-4844, shifts the cost model and changes the fee curve. This directly affects the unit economics of any contract deployed on the chain.
Operational discipline
Do not deploy until these artifacts are public: a verified bridge contract, a specification document covering the sequencer and finality model, and an independent audit report. Bridge small amounts first. Exercise the deposit and withdrawal path end-to-end before committing meaningful liquidity.
Treat the guide as surface material. The verification is the engineering.