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Canonical Wago documentation

Wago compared with WAMR

A scoped, source-linked comparison of Wago and WAMR, including when to choose either runtime and what has not been benchmarked.

Last synchronized: Wago source: 7d8c58aa454a

Short answer

Choose Wago when the host is Go and avoiding cgo/native-library integration is a hard deployment requirement.

Choose WAMR when you need a small embedded C runtime, microcontroller/RTOS targets, AOT deployment, or WAMR’s wider architecture and execution-mode matrix.

Operational differences

AreaWagoWAMR
ImplementationGo; no cgoSee the project’s current implementation and bindings
Execution terminologySingle-pass native compilerC runtime with interpreter, AOT, Fast JIT, and LLVM JIT modes
Wago release maturityPre-v1 development/nightly channels; no stable v1 API promiseSee the other project’s release and support policy
Known Wago gapWago targets three native OS/architecture pairs; WAMR documents a substantially broader embedded and architecture matrix.Not applicable

Benchmark scope

Wago publishes whole-process startup rows that include WAMR, but does not publish the same detailed stage-by-stage comparison used for wazero.

No result on this page should be treated as universal. Use identical versions, hardware, Wasm modules, warmup, and measurement boundaries.

Raw Wago data: project.json. Other-runtime primary source: https://github.com/bytecodealliance/wasm-micro-runtime.

Verification date

Wago facts: 2026-07-30, pinned to 7d8c58aa454a. Competitor descriptions last reviewed against the linked primary project source on 2026-07-29.