HomeAWS Data EngineeringAWS Big Data Development
AWS Data Engineering Services

AWS Big Data Development Services

We build large-scale data processing on AWS using Amazon EMR, Hadoop, and Spark, for workloads with the volume, variety, or velocity that a standard serverless pipeline wasn't built to handle.

From cluster architecture through job development and cost tuning, we handle the engineering work behind processing data at a scale where the choice of cluster size, storage layout, and engine actually changes what's possible.

Loading...
AWS big data architecture diagram showing an Amazon EMR cluster running Spark and Hive jobs against data in S3
Overview

What Is AWS Big Data Development?

AWS big data development is building and running large-scale, distributed data processing on AWS, most commonly using Amazon EMR, AWS's managed Hadoop and Spark platform, for workloads too large, too complex, or too variable in format for a standard serverless pipeline. This covers the classic "big data" problem set: high-volume batch processing, high-velocity event data, and mixed structured and unstructured sources, run on clusters sized and tuned for that specific workload rather than a one-size-fits-all managed job.

"Big data" isn't a term we use to relabel general data engineering. It refers specifically to workloads that need cluster-level control, custom Spark or Hadoop job tuning, multiple processing engines like Hive or Presto on the same dataset, or a scale where serverless services hit their limits. If your workload fits a standard managed pipeline, our AWS data pipeline development and ETL/ELT development services are usually the faster, lower-maintenance option. This page covers the cases where they aren't.

Our AWS big data development services help you:

Process data volumes and formats that outgrow standard serverless pipelines
Run custom Spark, Hadoop, and Hive workloads with full cluster-level control
Query massive datasets interactively with Presto or Hive on the same cluster
Handle structured, semi-structured, and unstructured data in one processing layer
Migrate an existing on-premises Hadoop or Cloudera cluster to AWS
Control cluster cost through right-sizing, spot instances, and auto-scaling

We size EMR clusters and job configurations around your actual data volume and processing pattern, not a default cluster that's oversized for a light workload and undersized for a heavy one.

Our Offerings

AWS Big Data Development Capabilities

Here's what our team delivers, from a first EMR cluster to migrating an existing Hadoop environment onto AWS.

Capability #1

1. Big Data Cluster Architecture

We design the EMR cluster configuration before any job runs on it, sizing node types and counts around your actual processing pattern instead of a default template.

Capabilities

  • Core, task, and master node sizing for your workload
  • Persistent vs. transient cluster strategy
  • Multi-cluster architecture for isolated workloads
  • Storage layout using EMRFS and Amazon S3
Technologies: Amazon EMR · Amazon S3 · EMRFS
Capability #2

2. Hadoop & Spark Job Development

We build the distributed processing jobs themselves, tuned for the cluster they'll actually run on rather than generic code that happens to execute.

Capabilities

  • Custom Spark job development and performance tuning
  • Hadoop MapReduce jobs for workloads that still require them
  • Job scheduling and dependency management across a cluster
  • Resource allocation tuning to avoid job contention
Technologies: Apache Spark · Apache Hadoop · PySpark · Scala
Need transformation logic that runs through a managed, serverless service instead of a cluster you operate? See our ETL/ELT development on AWS services.
Capability #3

3. Interactive Big Data Query & Analytics

For teams that need to query massive datasets directly, without waiting on a separate warehouse load, we set up interactive query engines on the same cluster or data.

Capabilities

  • Interactive SQL querying with Presto or Trino
  • Hive table design and query optimization
  • Federated queries across S3, HDFS, and warehouse data
  • Query performance tuning for large, complex datasets
Technologies: Presto/Trino · Apache Hive · Amazon EMR
Capability #4

4. High-Velocity Data Processing

For the velocity side of big data, streaming and near-real-time volumes too high for a single-purpose streaming service, we build processing on Spark Streaming within EMR.

Capabilities

  • Spark Streaming job development on EMR
  • High-throughput event processing at scale
  • Windowed aggregation and stateful stream processing
  • Integration with upstream and downstream data stores
Technologies: Spark Streaming · Amazon Kinesis · Amazon EMR
Need standard real-time pipelines outside a big data cluster context? See our real-time data streaming services on AWS.
Capability #5

5. Legacy Hadoop Migration to AWS

For teams running an on-premises Hadoop, Cloudera, or Hortonworks environment, we handle the migration to EMR without a lengthy reporting or processing blackout.

Capabilities

  • Cluster and job migration from on-prem Hadoop distributions
  • HDFS to S3 data migration with validation
  • Job and script conversion to EMR-compatible configurations
  • Parallel-run testing before cutover
Technologies: Amazon EMR · AWS DMS · Apache Sqoop
Migrating other AWS workloads alongside your Hadoop environment? See our legacy data migration to AWS services for the broader scope.
Capability #6

6. Big Data Cost Optimization

Big data clusters are one of the easiest places to overspend without noticing, oversized nodes, clusters left running idle, or on-demand pricing where spot would do. We build against that from the start.

Capabilities

  • Spot instance strategy for fault-tolerant workloads
  • Auto-scaling policies tied to actual job load
  • Transient cluster scheduling to avoid idle compute cost
  • Storage tiering between S3 storage classes for processed data
Technologies: Amazon EMR · Amazon EC2 Spot · Amazon S3
Our Process

How We Deliver AWS Big Data Development

Structured 5-Stage Engineering Workflow

From workload assessment through cluster sizing, Spark job development, and cost validation, we take end-to-end technical ownership.

Loading...
AWS big data architecture diagram showing an Amazon EMR cluster running Spark and Hive jobs against data in S3
Stage 01

1. Discovery & Workload Assessment

We review your data volume, format variety, processing frequency, and current infrastructure, whether that's an existing AWS setup or an on-prem Hadoop cluster.

Stage 02

2. Cluster & Architecture Design

We design node sizing, storage layout, and persistent vs. transient cluster strategy around your actual workload pattern.

Stage 03

3. Job Development & Tuning

We build and tune the Spark, Hadoop, or Hive jobs themselves, testing against real data volume rather than a small sample set.

Stage 04

4. Performance & Cost Validation

We validate processing performance under production-scale load and confirm cluster cost tracks the sizing we designed for.

Stage 05

5. Deployment, Handover & Support

We deploy with monitoring and cost alerting in place, document the architecture, and hand over, or stay on for ongoing tuning.

Our Stack

AWS Big Data Technologies We Use

Cluster Platform

Amazon EMRAmazon EC2EMRFS

Processing Engines

Apache SparkApache HadoopApache Hive

Query & Interactive Analytics

Presto / TrinoApache HBase

Storage

Amazon S3HDFS

EMR vs. AWS Glue: Choosing the Right Engine

Amazon EMR and AWS Glue both run Spark, and the difference that matters is control versus simplicity. Glue is serverless and managed, a good fit for standard, well-defined ETL jobs. EMR gives you the full Hadoop ecosystem, custom cluster tuning, and multiple engines on one dataset, which matters once a workload's scale or complexity outgrows what a managed job can flex to handle. We'll tell you honestly which one your workload actually needs.

Get in Touch
Expertise

Industries We Build Big Data Solutions For

Healthcare & HealthTech

Large-scale processing for genomic, clinical, and device telemetry data, where dataset size and variety go well beyond standard transactional records.

Fintech & Banking

High-volume transaction and fraud-detection processing that needs cluster-level performance and audit-ready reliability.

SaaS & Technology

Large-scale event and log processing for product analytics, where velocity and volume both push past what a single pipeline was designed for.

E-commerce & Retail

Clickstream and behavioral data processing at a scale where batch windows and query performance both start to matter under peak load.

Enterprise Data Platforms

Consolidated processing across legacy Hadoop environments and modern AWS services, sized for enterprise-wide data volume.

Our Edge

Why Choose Eagle in Cloud for AWS Big Data Development?

Cluster Expertise, Not Just Managed-Service Familiarity

Our team tunes Spark and Hadoop jobs at the cluster level, node sizing, resource allocation, storage layout, not just point-and-click service configuration.

Honest About What You Actually Need

If your workload fits a serverless pipeline instead of a cluster you have to operate, we'll tell you, and point you to the simpler option.

Cost Control Built Into Cluster Design

We default to spot instances and transient clusters where the workload allows, instead of a permanently running cluster nobody's watching the bill on.

Hadoop Migration Experience

We've moved on-premises Hadoop and Cloudera environments onto EMR without a reporting blackout, not just built greenfield clusters.

End-to-End Delivery

From cluster architecture to job development, tuning, and cost optimization, we own the full build, or plug into your existing data team.

Support

Frequently Asked Questions

It's building and running large-scale, distributed data processing on AWS, most commonly with Amazon EMR, for workloads with the volume, variety, or velocity that outgrow a standard serverless pipeline.

Still have questions? We are here to help you.

Ask a Big Data Engineer
GET STARTED

Ready to Process Data at a Scale Standard Pipelines Can't Handle?

Let's build a cluster architecture sized for your actual data volume, not a default configuration that's either too small or quietly expensive.