IronClaw

WASM sandbox is invisible on H100-class hardware.

x86 Zen 4 WASM performance is excellent.

Zen 3+ x86 runs WASM sandbox with ease.

WASM sandbox on Xeon D. Server-grade security.

WASM sandbox on Xeon. Enterprise security on enterprise hardware.

WASM sandbox on server Xeon. Maximum security on maximum hardware.

WASM sandbox on embedded Xeon. Great power-to-performance ratio.

WASM sandbox overhead is negligible on x86.

Rust + WASM runs great on AMD. Very responsive.

WASM sandbox overhead is negligible. Zen 4 tears through it.

Rust + WASM on x86 is fast. No issues.

WASM runs fine on x86. Low-power champion.

WASM sandbox barely adds overhead on this hardware.

Rust + WASM is fast on Zen 3+.

WASM sandbox with GPU. Security without compromise.

x86 WASM performance is great.

WASM sandbox overhead is invisible on M2 Max.

WASM sandbox is trivial on desktop x86 + GPU.

x86 WASM is fast. 16GB handles it easily.

WASM sandbox overhead is negligible with this much silicon.

WASM sandbox trivial on workstation hardware.

WASM sandbox barely adds overhead on M2.

WASM sandbox overhead invisible on M3 Pro.

x86 WASM is fast. Lightweight enough for a background service.

WASM sandbox trivial with 32GB and 14 cores.

Linux + Rust + WASM is the ideal combo.

Zen 4 x86 WASM performance is excellent.

WASM sandbox barely adds overhead on M3.

WASM sandbox with GPU access. Secure and capable.

WASM sandbox works on Kaby Lake. 8GB is sufficient.

WASM sandbox works. ARM performance is solid.

WASM sandbox works on ARM64. Some overhead but functional.

WASM sandbox runs. NPU doesn't help IronClaw directly but RAM is sufficient.

WASM sandbox works well on x86. 8GB handles it.

WASM sandbox works on ARM64 macOS. Some overhead.

WASM sandbox works. Cloud vCPU performance varies.

WASM sandbox runs but adds overhead. Functional for single-user.