What is big data in business?

Data Processing Methods
Data Processing Methods

Big data refers to datasets whose volume, complexity, or rate of generation and processing makes them difficult to manage efficiently with traditional data-processing tools.

It encompasses the processing and analysis of structured and unstructured data, often originating from multiple data sources, mainly internal systems and third-party prioprietary appications, but also social media data, sensor data, financial transactions, and electronic health records.

The main benefits of big data in business include better-informed decisions, greater operational efficiency, deeper customer insights, and earlier identification of risks or problems. Related technologies and analytics tools help businesses process information and generate insights, but they are only as effective as the underlying data platform. Modern data engineering services help organizations build scalable data platforms, integrate multiple data sources, and prepare trusted data for analytics, reporting, and AI.

A brief history: The evolution of big data

Big data became a major business and technology focus in the early 2000s as the internet, digital services, and connected systems rapidly increased the volume and variety of data organizations needed to manage. New storage and distributed-processing technologies made it possible to work with these increasingly large and complex datasets.

Over the years, big data technology has evolved, incorporating data lakes, cloud data warehouses, lakehouse architectures, and cloud computing to manage big data effectively.

Earlier enterprise data systems relied heavily on relational databases to store and manage structured data.

However, as the volume and variety of data continued to increase, data analysts and data engineers turned to more advanced big data solutions. Organizations adopted distributed processing frameworks and later cloud data platforms, alongside techniques such as data mining and Machine Learning, to analyze big data and uncover actionable insights.

The 5 V's of big data in business operations

5 V's of Big Data
5 V's of Big Data

The 5 V's of big data are Volume, Velocity, Variety, Veracity, and Value. They concern the scale, speed, diversity, quality, and business usefulness of the data an organization needs to manage.

Volume: How much data is there?

Volume describes how much data is generated and collected. A retailer may accumulate millions of transaction records, while a manufacturer may collect continuous readings from thousands of sensors. Businesses need storage and processing environments that can scale as these datasets grow.

Velocity: How quickly is data generated and processed?

Velocity captures the rate at which data is generated, received, and needs to be processed. Some data can be analyzed in daily or weekly batches, while use cases such as fraud detection, equipment monitoring, or real-time customer interactions may require information to be processed within a few minutes or even seconds.

Variety: What types of data are involved?

Variety covers different formats and sources of data a business needs to manage. This can include structured transaction records, semi-structured JSON files, customer support messages, images, video, social media content, and sensor readings. Bringing these formats together makes it easier to analyze relationships across different parts of the business. It is vital for data analysts to manage structured and unstructured data effectively to obtain relevant data insights.

Veracity: Can the data be trusted?

Veracity refers to the accuracy, consistency, and trustworthiness of data. Duplicate customer records, missing sensor readings, outdated information, or inconsistent formats can distort analytics and Machine Learning results. Data quality checks and governance help businesses identify and address these issues before relying on the data.

Value: What business outcome does the data create?

Ultimately, the goal of big data initiatives in business is to extract value. That could mean reducing equipment downtime, improving demand forecasts, identifying fraud earlier, understanding customer behavior, or allocating resources more efficiently. Collecting more data has little value unless it helps improve a decision, process, or business outcome.

What technologies are used in big data?

Big data environments typically combine technologies used for storing, processing, integrating, and analyzing large and complex datasets. Here are some of the key technologies that are transforming the way businesses handle big data:

  • Spark: An open-source distributed processing engine for large-scale data analytics. It supports batch and streaming processing, SQL analytics, data science, and machine learning workloads, and is widely used in modern data engineering environments.
  • MPP warehouses: Massively Parallel Processing (MPP) data warehouses distribute queries across multiple compute nodes, allowing large datasets to be processed in parallel. They are widely used for large-scale analytics, particularly in modern cloud data platforms.
  • Lakehouse: Data lakes were initially used mainly as centralized repositories for large volumes of structured, semi-structured, and unstructured data. Lakehouse architectures build on that model by combining this scalable storage with compute engines and warehouse-like capabilities for querying, governance, and data management. This supports large-scale analytics while allowing storage and compute to be managed more flexibly.

Organizations considering this approach can use our data lakehouse consulting services to assess whether a lakehouse fits their existing data environment and workloads.

  • Cloud computing: Cloud computing gives businesses on-demand access to storage, processing power, and managed data services without requiring them to provision the same infrastructure on their own hardware. This is particularly useful for big data workloads, where storage and computing requirements can change significantly as data volumes grow or processing demand increases. 

Organizations can use cloud strategy and consulting services to assess which workloads should move to the cloud, which should remain on-premises, and how to scale infrastructure without unnecessary cost or complexity.

  • Workflow orchestration tools: As data workflows become more complex, teams use orchestration tools to coordinate tasks, dependencies, schedules, and retries across pipelines. Apache Airflow, Prefect, and Dagster are commonly used to manage and monitor these workflows.

Together, these technologies help organizations store, process, and analyze large and complex datasets according to their specific data and business requirements. For a more detailed comparison, see our guide to big data technologies.

Big data impact on business: Benefits and use cases

Big data can help businesses forecast demand, detect equipment problems earlier, understand customer behavior across multiple touchpoints, and improve how they allocate resources. But those benefits depend on whether data from different systems can be combined, trusted, and made available quickly enough to support the decision or process in question. Let's explore some of the most important use cases and benefits.

Improved decision-making

When information is fragmented across systems or becomes outdated before teams can use it, decisions may be based on an incomplete picture. By analyzing data effectively, businesses can generate insights that lead to smarter, data-driven decisions. Data scientists use machine learning methods and big data tools to predict trends, improve customer experiences, and drive innovation.

Support forpredictive maintenance

Mechanical systems and industrial machinery generate vast amounts of sensor data. Analyzing this information can reveal patterns associated with equipment degradation or potential failure. Without this visibility, maintenance teams may have to react after equipment fails or rely on fixed schedules that don't reflect actual equipment condition. This allows companies to identify problems earlier, reduce unplanned downtime, and plan maintenance more effectively. Our guide to predictive maintenance in manufacturing explores this use case in more detail.

Improved customer insights 

One of the big data benefits in business is that it allows companies to dig into customer behaviors, preferences, and feedback. This helps tailor products, services, and marketing strategies to enhance customer satisfaction and identify new opportunities. Combining customer data from sales, marketing, digital, and support channels can reveal patterns that are difficult to see in isolated systems.

Efficient resource management

Operational data can show where resources are being underused, where bottlenecks occur, and how demand is changing. Analyzing information from multiple data streams helps businesses improve resource allocation, reduce waste, and increase operational efficiency. For example, analyzing image data can enhance quality control processes in manufacturing.

These use cases show how big data connects specific business problems with practical applications:

Business challenge How big data helps Example
Uncertain future demand Identifies patterns in historical and current data Demand forecasting
Unexpected equipment failures Analyzes sensor data for signs of degradation or failure Predictive maintenance
Fragmented customer information Combines interactions from multiple systems and channels Customer analysis
Inefficient use of resources Reveals bottlenecks, waste, and changes in demand Resource planning
Difficult-to-detect anomalies Compares large volumes of events or transactions to identify unusual patterns Fraud or risk detection

How big data supports analytics and machine learning

Large and diverse datasets allow analytics and machine learning systems to identify patterns across more transactions, customer interactions, sensor readings, documents, images, and other sources than teams could reasonably analyze manually. This is useful when businesses need to forecast future outcomes, detect unusual behavior, or extract information from large volumes of unstructured data. The results still depend on whether the underlying data is relevant, representative, and reliable enough for the task.

  • Predictive analytics: Historical and current data can be used to identify patterns, forecast future outcomes, and assess risks. Predictive models use these relationships to estimate likely outcomes and give teams more evidence for planning and decision-making.
  • MLOps for continuous improvement: Once Machine Learning models are deployed, new data continues to arrive, data distributions can change, and model performance can deteriorate. MLOps practices help teams monitor these changes, manage model and data pipelines, and retrain or update models when necessary.
  • Computer vision for visual data: Machine Learning can help analyze information that doesn't fit neatly into traditional database tables, including images, video, documents, and text. Machine Learning can extract useful information from these sources, for example, detecting manufacturing defects in images, classifying documents, or analyzing large collections of text.

The useful combination of big data and Machine Learning therefore depends on the task. Forecasting needs enough relevant historical data to capture meaningful patterns; predictive maintenance depends on reliable equipment and failure data; and computer vision requires suitable visual examples. The goal isn't to feed a model as much data as possible, but to provide the data needed to solve a defined business problem.

How to turn big data into business value

The challenge isn't processing every piece of available data, but identifying the information that is relevant to a specific business problem. 

The big data impact on business ultimately depends on how effectively organizations turn that information into action. By integrating Machine Learning and advanced big data analytics, companies can process relevant data at scale, address specific business challenges, and improve their ability to respond to changing market conditions.

‍