Data Engineering Enterprise Ready

Data Engineering
Services

Build reliable data pipelines and platforms that make enterprise data usable for analytics, automation and AI.

We design, build and operate ingestion, ETL and ELT, warehouse and lakehouse layers, orchestration and pipeline monitoring — on the cloud platforms you already run.

Delivery at Scale

3,400+Projects Delivered
1,200+Global Engineers
30+Countries Served
10+Years of Experience

Trusted by Fortune Global 500 leaders, governments & top universities across 30+ countries

Powered by leading cloud & AI platforms

AWS
Google Cloud
Microsoft Azure
NVIDIA
OpenAI
Anthropic
Gemini
Grok
Perplexity
Google AI
AWS
Google Cloud
Microsoft Azure
NVIDIA
OpenAI
Anthropic
Gemini
Grok
Perplexity
Google AI

Recognized by leading industry reviewers

Awards & industry recognition

Top AI Development Company by Selected FirmsTop IT Consulting, SI & Managed Services Company by ITRateTop Web Development Company by Selected FirmsTop Service Provider 2025 by RightFirmsTop App Development Company by AppDevelopmentCompaniesTop Software Development Company by Selected FirmsBest Support Company 2025 by SoftwareSuggestTop AI App Developers by C2C Reviews
Top AI Development Company by Selected FirmsTop IT Consulting, SI & Managed Services Company by ITRateTop Web Development Company by Selected FirmsTop Service Provider 2025 by RightFirmsTop App Development Company by AppDevelopmentCompaniesTop Software Development Company by Selected FirmsBest Support Company 2025 by SoftwareSuggestTop AI App Developers by C2C Reviews
What We Build

Data Engineering
Services

Design, build and operate the pipelines and platforms that move enterprise data from source systems to the teams and applications that depend on it.

Pipelines

Data Pipeline Development

Build batch and streaming pipelines that ingest from databases, APIs, files and event streams, with retries, idempotent loads and recovery paths.

Transformation

ETL & ELT Engineering

Implement transformation logic in the layer that fits the workload, with tested models, incremental builds and documented business rules.

Integration

Data Integration

Connect ERP, CRM, finance, operational databases and third-party services into consistent datasets, including CDC and API-based extraction.

Storage

Warehouse & Lakehouse Engineering

Model and build warehouse, lake and lakehouse layers, from raw landing zones through conformed dimensions and serving tables.

Control

Data Orchestration

Express real dependencies rather than start times, with scheduling, retries, backfills, concurrency limits and clear run state.

Reliability

Data Quality & Observability

Instrument freshness, volume, schema and latency, so a pipeline that finishes without delivering correct data does not pass silently.

Solutions

Data Engineering
Solutions

Common engagements, described by the outcome they deliver rather than the technology underneath.

Customer

Customer 360 Pipelines

Resolve customer records across CRM, billing, support and product systems into one identity-matched view that downstream teams can rely on.

Finance

Finance and Reporting Pipelines

Deliver the loads behind month-end close and statutory reporting, with reconciliation checks and a defined position on late-arriving data.

Operations

Operational Data Integration

Move data between ERP, warehouse management, logistics and field systems so operational teams work from the same numbers.

Analytics

Analytics Foundations

Build the modelled layer BI tools sit on, so metric definitions live in version control instead of inside individual dashboards.

AI

AI-Ready Data Pipelines

Supply training and inference workloads with documented lineage, stable schemas and the freshness guarantees a model actually needs.

Streaming

Real-Time Event Pipelines

Process event streams for operational dashboards, alerting and time-sensitive decisions, with replay and ordering handled explicitly.

Outcomes

What Data
Engineering Improves

The operational changes enterprises see once pipelines are engineered rather than accumulated.

Reliability

Reliable Data Delivery

Loads land inside their window, failures surface as alerts rather than discoveries, and recovery does not depend on one person.

Speed

Faster Analytics

Modelled, tested tables replace ad-hoc extracts, so new reports start from existing datasets instead of new plumbing.

Effort

Fewer Manual Data Processes

Scheduled jobs, validated loads and automated reconciliation replace spreadsheets, manual exports and overnight babysitting.

Consistency

Consistent Data Models

One definition per metric, versioned alongside the pipeline that produces it, so finance and operations stop arguing about whose number is right.

Freshness

Fresher Operational Data

Latency is set against the decision it supports, from nightly batch to sub-minute streams, rather than inherited from an old schedule.

AI

Improved AI Readiness

Documented lineage, stable schemas and quality checks turn raw estate data into something a model can be trained and evaluated on.

Architecture

Data Engineering
Architecture

A reference flow for enterprise data platforms. Each stage is a place where reliability is either engineered in or lost.

Stage 01

Ingestion

Extract from databases, APIs, files and event streams using the method each source supports, including change data capture where available.

Stage 02

Transformation

Apply cleansing, conformance and business logic as tested, version-controlled models rather than embedded scripts.

Stage 03

Storage

Land raw data, build conformed layers and expose serving tables shaped for the queries that actually run against them.

Stage 04

Quality

Validate freshness, volume, schema and referential integrity at the point data enters each layer, with defined failure handling.

Consumption covers BI and reporting, analytics workloads, operational applications and AI or machine learning systems. The serving layer is shaped by which of those a dataset is built for.

Transformation

ETL and ELT
Engineering

Both patterns are in scope. The decision is where transformation belongs for a given source, not which approach is modern.

ETL

Transform Before Load

Used where data must be masked, tokenised or validated before it reaches the warehouse, or where the destination cannot transform at scale.

ELT

Transform After Load

Used where the warehouse or lakehouse has the compute, and keeping raw data available makes reprocessing and auditing cheaper.

Hybrid

Mixed by Source

Both patterns coexist in one estate. Sensitive feeds transform in flight while everything else lands raw and is modelled in place.

For a detailed comparison of the two patterns, including cost, governance and reprocessing trade-offs, see our guide to ETL vs ELT for enterprise data pipelines.

Latency

Batch and Real-Time
Pipelines

Latency is a requirement set by the decision a dataset supports, and it drives the engineering decisions that follow.

Batch

Scheduled Batch Pipelines

Windowed loads for reporting, finance and analytics, where correctness and reconciliation matter more than minutes.

Micro-batch

Frequent Incremental Loads

Minute-scale refreshes for operational dashboards and inventory views, without the state management a stream requires.

Streaming

Event-Driven Pipelines

Sub-second processing where the business must react to individual events, with ordering, replay and idempotency handled explicitly.

Streaming adds state, replay and ordering concerns that batch does not have. Our guide to real-time data architecture for enterprise AI covers when that cost is justified.

Storage

Warehouse, Lake
and Lakehouse

We engineer across all three patterns, including estates that run more than one of them side by side.

Warehouse

Data Warehouse Engineering

Modelled, governed tables for reporting and analytics, with defined grain, conformed dimensions and predictable query performance.

Lake

Data Lake Engineering

Cost-effective storage for raw, semi-structured and high-volume data that has to be retained and reprocessed.

Lakehouse

Lakehouse Implementation

Open table formats over object storage, giving transactional guarantees and schema evolution without duplicating data into a separate warehouse.

The selection depends on workload mix, governance requirements and existing cloud commitments. See data warehouse vs data lake vs data lakehouse for the trade-offs.

Control

Data
Orchestration

Orchestration is what turns a set of jobs into a platform with predictable behaviour when something goes wrong.

Dependencies

Real Dependency Graphs

Tasks run when their inputs are ready, not when the clock says so, which removes the stale-input failures that scheduled jobs hide.

Scheduling

Scheduling and Triggers

Time-based, sensor-based and event-based triggers, with clear ownership of what starts a run and what blocks it.

Recovery

Retries and Failure Handling

Retry policies matched to failure type, so a transient API timeout and a schema change are not treated the same way.

Backfills

Backfills and Reprocessing

Idempotent tasks and concurrency caps, so a thirty-day rebuild does not overwhelm shared warehouse capacity.

Workflow

Workflow Control

Run state, task-level logging and lineage between jobs, so an incident can be traced to the stage that caused it.

Isolation

Environment Separation

Development, staging and production pipelines separated at the orchestration layer rather than by naming convention.

Our guide to data orchestration for modern data platforms covers dependency modelling, idempotency and migration from scheduled jobs.

Reliability

Data Quality
and Observability

A pipeline can finish successfully and still deliver nothing. Observability is what makes that visible before a consumer finds it.

Freshness

Freshness Monitoring

Per-dataset expectations for when data should have arrived, checked against the consumer that depends on it.

Volume

Volume and Completeness

Row counts and per-partition presence checks, so a missing region or an empty file is caught before it reaches a report.

Schema

Schema Drift Detection

Column additions, type changes and renames surfaced at ingestion rather than discovered as a downstream failure.

Latency

Latency and Runtime

Stage-level runtime tracking, so gradual degradation is visible before it breaches a delivery window.

Failures

Pipeline Failure Handling

Alerting routed to owners with enough context to act, and dead letter queues treated as a first-class check.

Operations

Operational Monitoring

Run identifiers propagated through every stage, so a vague complaint becomes a specific answer about which run produced the data.

See data pipeline monitoring and observability for the signals, thresholds and incident practice behind this work.

Modernization

Legacy Pipeline
Modernization

Replacing pipelines that still produce numbers the business depends on, without breaking a single report.

Assess

Inventory and Lineage

Map every pipeline, its real consumers and the business rules buried in stored procedures and scripts before anything is rewritten.

Decide

Retain, Replatform, Refactor, Replace

Treat each pipeline independently, and choose the option the evidence supports rather than rewriting the whole estate.

Validate

Parallel Run and Cutover

Run old and new side by side, reconcile outputs, and keep the legacy flow available until consumers confirm stability.

The engineering sequence is set out in our guide to modernizing legacy data pipelines. Where the work is part of a wider programme covering governance, operating model and enterprise AI readiness, that belongs with Enterprise Data & AI Modernization.

Cloud

Cloud Data
Engineering

We build on the cloud platforms and data warehouses our clients already run, rather than moving them onto a preferred stack.

AWS

AWS Data Engineering

Pipelines and storage layers built on AWS data services, including object storage, managed compute and Redshift.

Azure

Azure Data Engineering

Data platforms on Azure, covering managed pipelines, lake storage and warehouse or Fabric-based serving layers.

Google Cloud

Google Cloud Data Engineering

Ingestion, transformation and serving on Google Cloud, with BigQuery as the analytical layer where it fits.

Snowflake

Snowflake Engineering

Warehouse modelling, incremental transformation and workload separation on Snowflake.

Databricks

Databricks and Lakehouse

Spark-based processing and open table formats for lakehouse platforms that serve both analytics and machine learning.

Hybrid

Hybrid and On-Premise

Pipelines that span on-premise systems and cloud platforms, including estates where data residency constrains where processing can run.

Technology

Data Engineering
Technology Stack

Established tools chosen for the workload and the platform a client already operates.

Processing

Batch and distributed transformation engines.

Apache SparkPythonSQLdbtpandas
Orchestration

Dependency-aware scheduling and workflow control.

Apache AirflowDagsterPrefect
Streaming

Event transport and stream processing.

Apache KafkaManaged event servicesChange data capture
Platforms

Analytical platforms and warehouses.

SnowflakeDatabricksBigQueryAmazon RedshiftMicrosoft Fabric
Storage

Operational databases, object storage and table formats.

PostgreSQLObject storageApache IcebergDelta Lake
Quality and Lineage

Validation, testing and metadata.

dbt testsGreat ExpectationsOpenLineage
Industries

Data Engineering
Across Industries

Sectors where we build and operate enterprise data pipelines.

Financial Services

Financial Services

Reconciliation-heavy pipelines, regulatory reporting feeds and auditable transformation logic.

Logistics

Logistics and Supply Chain

Shipment, document and telemetry pipelines feeding operational visibility across carriers and sites.

Retail

Retail and E-commerce

Order, inventory and clickstream integration across marketplaces, stores and fulfilment systems.

Manufacturing

Manufacturing

Production, quality and maintenance data joined with ERP for operational and analytical use.

Healthcare

Healthcare

Integration across clinical and administrative systems, with access control and residency treated as engineering requirements.

SaaS

SaaS and Technology

Product event pipelines, usage analytics and customer data platforms built for scale.

By the Numbers

Engineering
at Scale.

The delivery capacity behind our engineering work.

Drag to spin
3,400+
Projects Delivered
across 12 industries
400+
AI Specialists
Top 1% global talent
1,200+
Global Engineers
across 6 continents
30+
Countries Served
global regulatory regimes
300+
AI Deployments
in production
10+ Years
of Experience
in AI and software
Delivery

Our Data
Engineering Process

Seven stages from discovery to steady-state operation.

01

Discover

Define the decisions the data supports, the consumers who depend on it, and the delivery windows that matter.

02

Assess Data

Profile sources, quantify quality, and record the business rules currently buried in scripts and stored procedures.

03

Design Architecture

Choose ingestion methods, transformation layer, storage pattern and latency targets, then document the contract between layers.

04

Build Pipelines

Implement ingestion, transformation and load with tested models, idempotent tasks and version-controlled logic.

05

Validate Data

Reconcile against source systems, run parallel where a legacy flow exists, and clear every validation gate before cutover.

06

Deploy

Promote through environments with orchestration, access control and rollback defined in advance.

07

Monitor

Operate with freshness, volume, schema and latency checks, alert routing and an owner for every dataset.

Why SDLC Corp

Why Choose
SDLC Corp

One team for ingestion, transformation, orchestration and the operational practice that keeps it all running.

Production

Production Engineering

Pipelines built to run unattended, with failure handling, recovery and ownership defined before go-live rather than after the first incident.

Integration

Enterprise Integration Depth

Experience connecting ERP, CRM, finance and operational systems, including the awkward sources that have no clean API.

Flexibility

Cloud and Platform Flexibility

We build on the platform a client already runs, across AWS, Azure, Google Cloud, Snowflake and Databricks.

Quality

Data Quality by Default

Validation, reconciliation and testing are part of the pipeline, not a separate project added once numbers are questioned.

Observability

Observability Built In

Freshness, volume, schema and latency instrumented from the start, so silent failures do not reach consumers.

AI

AI-Ready Foundations

Lineage, stable schemas and documented quality, so analytics and AI workloads can both be served from the same platform.

Get Started

Build a Reliable
Data Foundation

Build pipelines and platforms that keep analytics, applications and AI supplied with reliable enterprise data.

Tell us which sources, systems and delivery windows you are working with, and we will come back with an architecture and a delivery plan.

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FAQ

Frequently Asked
Questions.

Straight answers on pipelines, transformation, storage patterns, orchestration and how data engineering supports analytics and AI.

Data engineering services cover the design, build and operation of the pipelines and platforms that move enterprise data from source systems to the people and applications that use it.

That includes ingestion, transformation, storage modelling, orchestration, quality checks and the monitoring that keeps those pipelines running in production.

A data engineering company builds the data infrastructure an organisation runs on, rather than the reports or models that sit on top of it.

In practice that means connecting source systems, engineering transformation logic, building warehouse or lakehouse layers, orchestrating dependencies and instrumenting pipelines so failures surface before consumers notice.

ETL transforms data before it is loaded into the destination. ELT loads raw data first and transforms it inside the warehouse or lakehouse.

ETL suits feeds that must be masked, tokenised or validated before landing. ELT suits destinations with the compute to transform at scale, and makes reprocessing cheaper because raw data is retained.

A data pipeline is an automated sequence that extracts data from one or more sources, applies transformation, and delivers it to a destination on a defined schedule or in response to events.

A production pipeline also defines what happens when a step fails, how a run is retried and how a period is reprocessed.

Batch pipelines process data in windows, typically hourly or nightly, and are the right choice where correctness and reconciliation matter more than latency.

Real-time pipelines process events as they arrive, in seconds or less. They add state management, ordering and replay requirements, so they are used where the business must react to individual events.

A warehouse suits governed, modelled analytics with predictable query patterns. A lakehouse suits estates that also hold raw, semi-structured or high-volume data and want one storage layer for analytics and machine learning.

The two can coexist in a single estate. The decision depends on workload mix, governance requirements and existing cloud commitments.

Data orchestration controls when pipeline tasks run and what happens when they fail. It expresses real dependencies between tasks rather than relying on start times.

That distinction matters because a scheduled job can run on time against stale inputs and report success, while a dependency-aware run waits for its inputs to be ready.

We instrument freshness, volume, schema and latency per dataset, with thresholds set against the consumer that depends on the data.

Alerts route to a named owner with enough context to act, and run identifiers are propagated through every stage so an incident can be traced to the run that caused it.

Yes. We inventory the existing pipelines, map their real consumers and recover the business rules embedded in scripts and stored procedures before anything is changed.

Each pipeline is then retained, replatformed, refactored or replaced on its own merits, with parallel running and reconciliation before cutover.

We build on AWS, Azure and Google Cloud, and on Snowflake, Databricks, BigQuery, Amazon Redshift and Microsoft Fabric as analytical platforms.

We work with the platform a client already operates rather than migrating them onto a preferred stack, including hybrid estates where data residency constrains processing.

AI systems depend on data that arrives reliably, keeps a stable schema and can be traced back to its source. Data engineering is what provides that.

Training, evaluation and inference all need documented lineage and defined freshness. Without it, model performance changes for reasons nobody can explain.

Data engineering builds and operates the pipelines and platforms that make data available, correct and timely.

Data science analyses that data and builds models from it. The two are sequential: models are limited by the quality and reliability of the data supplied to them.