Every team has a different number
Revenue, inventory, or active customers are defined three ways. Meetings become debates about extracts.
Services
Eight capabilities, one operating estate.
AI, cloud, software, data, and business systems designed to work together.
All servicesIndustries
Sector constraints, written as they show up.
Operating patterns we plan around in each sector.
All industriesCompany
Built around engineering.
How we think, how we work, and how to start a conversation.

Most organizations do not lack data. They lack a path from operational systems to a model people will use. We design pipelines, warehouses or lakehouses, and governance so numbers have owners, lineage, and a known refresh.
Overview
Data engineering builds and runs the systems that move data from operational sources into a form people and applications can trust: ingestion, transformation, orchestration, storage in a warehouse or lakehouse, data quality testing, lineage, and access control. Data architecture is the design of that whole system — what lives where, who owns it, and how it is governed.
Analytical platforms sit downstream: they turn certified datasets into metrics, semantic models, and dashboards. We scope the two separately so pipelines are judged on reliability and freshness, and reporting is judged on whether people use it.
The problem
Revenue, inventory, or active customers are defined three ways. Meetings become debates about extracts.
A job missed last night. A dashboard still looks fine. Decisions are made on a stale slice.
Tables proliferate. Nobody knows what is certified. Analysts rebuild the same join every week.
Capabilities
Warehouse, lakehouse, or a hybrid — chosen for query patterns, freshness, and the skills of the team.
ELT/ETL with orchestration, retries, and late-data handling. Streaming only where latency is a real requirement.
Conformed dimensions, facts, and contracts that match how the business talks about itself.
Tests on the data, not only on the code. Documented owners. Access that matches classification.
Operational systems, files, events, and SaaS extracts brought into a coherent model.
Reliable features and tables first. Models on top of a swamp do not become more accurate with a better algorithm, and retrieval-based AI needs documented, permissioned sources just as much.
Sources land in a controlled raw area. Transformations are versioned. A curated layer holds certified models. Downstream analytics and applications read from contracts, not from whoever happened to write a table last.
Decision guide
The storage pattern follows the workload. This is how the three common options differ in practice.
| Pattern | Stores | Strong at | Consider it when |
|---|---|---|---|
| Data warehouse | Structured, modelled tables. | SQL analytics, BI, and governed metrics. | Most data is tabular and the main consumers are analysts and dashboards. |
| Data lake | Raw files in object storage, in any format. | Low-cost retention of large or semi-structured data. | You must keep raw history or files and can accept harder governance. |
| Lakehouse | Files in open table formats with warehouse-style transactions. | BI, data science, and large-scale processing on one copy of the data. | Workloads mix SQL with machine learning or very large volumes, and the team can run the platform. |
Hybrids are common: a lake for raw retention feeding a warehouse for certified models.
Finance and operations need one place for a small set of trusted metrics.
Jobs exist but fail silently. We add contracts, tests, and an on-call path.
Operational events need near-real-time views without abandoning historical reconstruction.
Trade-offs
Streaming reduces latency but adds operational complexity and cost. Most reporting is well served by frequent batch or micro-batch loads; streaming is for decisions that lose value within minutes.
Loading raw data first and transforming inside the warehouse (ELT) keeps history and makes transformations versionable, but moves compute cost into the warehouse. Transforming before loading (ETL) still suits sensitive data that must be filtered or masked first.
A central data team gives consistency. Domain-owned data products scale better but need shared standards for quality, contracts, and access.
Tests catch known failure modes; freshness and volume monitoring catch the unknown ones. Both need someone who responds when they fire.
SLAs for freshness. Alerting on failed tests. Backfills that are documented.
Partitioning, clustering, and warehouse sizing based on actual query logs.
PII handling, retention, and access reviews that security can inspect.
Critical metrics, owners, and the cost of being late or wrong.
Systems, extracts, and the quality of what already exists.
Contracts and transformations with tests.
Certified tables and a path into analytics tools.
Orchestration, on-call, and a backlog for the next domains.
FAQ
ETL transforms data before loading it into the target store; ELT loads raw data first and transforms it inside the warehouse or lakehouse. ELT keeps a raw history and makes transformations easier to version and rerun, but moves compute cost into the warehouse. ETL still suits data that must be filtered or masked before it lands.
Start from the decisions and products the data must support, then work back: how fresh it must be, the volumes and formats involved, who consumes it, sensitivity and residency rules, and what the team can operate. Choose the simplest pattern that meets those needs, and design so the next step — streaming, a lakehouse, more domains — does not mean starting again.
Define what correct means for the datasets that matter, test for it in the pipeline — schemas, nulls, uniqueness, relationships, reconciliation to source — monitor freshness and volume, and give each dataset an owner who acts on failures. Fixing the source process usually beats cleaning the same errors downstream.
The number and variety of sources, data volumes and freshness requirements, the state of existing pipelines and definitions, governance and privacy obligations, and whether the platform must be designed or only repaired. We start with the handful of metrics that matter most, which keeps the first phase small and measurable.
No. Data engineering prepares trustworthy datasets. Analytical platforms make those datasets usable. We often do both, but they are different jobs.
No. A well-modelled warehouse is enough for many organisations. We choose the pattern that matches freshness, file types, and team skill.
Yes. The architecture can keep sensitive systems in place and still produce a governed analytical layer.
AI features are only as reliable as the data they draw on. Retrieval needs current, documented, permissioned sources; machine learning needs consistent historical features; and both need lineage so a bad answer can be traced back to its input. That is ordinary data engineering — ownership, quality tests, and access control — done with AI use in mind. Our AI engineering service builds on it.
Keep exploring
If this is the constraint you are carrying, describe the current systems and what must not break. We will tell you what a first useful step looks like.