Data engineering

The data foundation your AI will depend on

Pipelines, warehouses and lakehouses, vector and graph stores, built with contracts, quality gates, lineage and access control from the first commit, and built to be handed over.

Technology we use for this work

  • Airflow
  • dbt
  • Kafka
  • Spark
  • Polars
  • Databricks
  • Microsoft Fabric
  • Google BigQuery
  • Snowflake
  • Redshift
  • StarRocks
  • Dremio
  • MinIO
  • Postgres
  • DuckDB
  • MongoDB
  • Qdrant
  • Neo4j
  • SSIS

The problem

The model is rarely the blocker

Fragmented sources, undocumented joins, no lineage and no owner. Every model built on top inherits the ambiguity, and every answer becomes a debate about which number is right.

We build the layer that decides whether anything above it can be trusted, and we build it first. Quality gates and lineage land before any model does.

What we build

What does our data engineering service include?

Pipelines, lakehouses, vector and graph stores with contracts, quality gates, lineage and access control.

  1. Ingestion and integration

    Batch and streaming pipelines across databases, SaaS APIs, files, event buses and third-party data providers, with replay and backfill built in.

  2. Warehouse and lakehouse architecture

    Dimensional and lakehouse models on BigQuery, Snowflake, Redshift, Databricks, Postgres and DuckDB, sized to the question rather than to the vendor.

  3. Vector and graph storage

    Embedding stores and property graphs run alongside the warehouse, so semantic search and relationship reasoning share one governed source.

  4. Semantic layer

    One definition of revenue and one definition of an active customer, versioned in code and consumed identically by dashboards and agents.

  5. Data quality as a build gate

    Schema contracts, deterministic profiling and validation rules that fail the pipeline rather than the quarterly board pack.

  6. Governance and access control

    Row-level security enforced in the database, least-privilege service roles, PII detection and redaction, retention policy and audit trails.

  7. Migration and modernization

    Moving off spreadsheets, legacy SSIS and hand-run scripts onto reproducible, resumable jobs with an explicit exit-code contract.

  8. Cost and performance

    Partitioning, clustering, incremental models and query cost budgets, reviewed during delivery rather than after the first invoice.

Architecture

How does it work, step by step?

  1. Sources

    Operational systems

    • Databases and SaaS APIs
    • Files and spreadsheets
    • Events and third-party feeds
  2. Ingest

    Pipelines

    • Batch and streaming
    • Replay and backfill
    • Schema contracts
  3. Store

    Governed platform

    • Warehouse or lakehouse
    • Vector and graph stores
    • Row-level security
  4. Model

    Semantic layer

    • Versioned metric definitions
    • Quality gates
    • Lineage
  5. Serve

    Consumers

    • Dashboards
    • ML models and agents
    • Embedded analytics
Dashboards and agents read the same governed definitions, so a number means the same thing everywhere it appears.

Context

Industries and related services

FAQ

Data engineering: common questions

Do we need a data platform before we can use AI?

You need enough of one. The assessment identifies the minimum foundation for the first use case: the sources, contracts, access model and quality checks that use case depends on. We do not build a platform for its own sake.

Warehouse or lakehouse?

It depends on data types, volume, existing tools and team skills. Structured reporting on moderate volumes is usually well served by a warehouse. Mixed structured and unstructured data at scale often suits a lakehouse. We recommend one with the reasoning in writing.

Can you work with our existing stack?

Yes. Where a client already has a platform, we build on it rather than around it. We work across BigQuery, Snowflake, Redshift, Databricks, Postgres, SQL Server and MongoDB.

How do you handle sensitive data such as PHI or PII?

Sensitive fields are identified in the first phase. We apply detection and redaction, least-privilege roles, row-level security in the database, retention rules and audit trails, and treat data residency as an architecture constraint.

How do you make pipelines reliable?

Every job is resumable at stage level, commits per record rather than once at the end, has an explicit exit-code contract and writes failures as structured data. A run report is produced on every outcome, so nobody has to guess whether a run finished.

Start with a two to three week assessment.

Send us the problem and the constraints. You get a written architecture, a risk register and a costed roadmap, and you keep them whatever you decide next.