Who it is for
Teams with real data movement constraints
Organizations that need local, customer-controlled movement between files, object storage, transforms, manifests, and deployment environments where cloud ETL is not the right boundary.
ENGAGEMENT-LED · SOVEREIGN ETL
Z-ETL is a data pipeline engine written in Zig for local and customer-controlled deployments. It is for buyers who already know they have a data movement problem — source systems, file formats, throughput, failure behavior, audit needs, and deployment boundaries matter enough that the useful answer must be scoped before delivery.
Who it is for
Organizations that need local, customer-controlled movement between files, object storage, transforms, manifests, and deployment environments where cloud ETL is not the right boundary.
What it does
Moves data through ingest, transform, and output stages using scoped build options such as DuckDB, local inference, Lua, audit manifests, and checkpoint/resume behavior.
What it does not do
Z-ETL is not a hosted ETL subscription, anonymous download, generic connector marketplace, or guarantee that every source system is supported without integration scope.
Z-ETL PIPELINE · CANONICAL FLOW
Formats, row counts, file sizes, compression, malformed-row tolerance, schema drift, and audit requirements.
Source systems, target systems, network access, credentials model, object-store provider, and air-gap constraints.
Operating system, CPU architecture, accelerator availability, filesystem behavior, and deployment restrictions.
Throughput target, memory ceiling, failure behavior, support window, documentation requirements, and delivery owner.
Scoped builds can target AVX2/AVX-512 instruction width on x86_64 and ARM64 paths where the environment supports them.
Ring-buffered processing keeps the pipeline oriented around bounded memory instead of loading the whole file into process memory.
Deployment is designed around a small hermetic binary surface rather than a Python, JVM, npm, or Docker runtime stack.
Transformation records, malformed-row quarantine, and manifest verification can be included in the scoped delivery.
Source and target support is confirmed during scope, including authentication, multipart behavior, and error handling.
Checkpoint behavior and recovery requirements are part of the engagement design, especially for large or remote sources.